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	<title>my tech blog &#187; FPGA</title>
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		<title>Using MGTs in FPGA designs: Why the data is organized in packets</title>
		<link>https://billauer.se/blog/2026/02/mgt-gtx-fpga-packets/</link>
		<comments>https://billauer.se/blog/2026/02/mgt-gtx-fpga-packets/#comments</comments>
		<pubDate>Sat, 07 Feb 2026 13:47:49 +0000</pubDate>
		<dc:creator>eli</dc:creator>
				<category><![CDATA[FPGA]]></category>
		<category><![CDATA[GTX]]></category>
		<category><![CDATA[PCI express]]></category>
		<category><![CDATA[USB]]></category>

		<guid isPermaLink="false">https://billauer.se/blog/?p=7194</guid>
		<description><![CDATA[Introduction I&#8217;ll start with a correction: Indeed, application logic transmitting data from one FPGA to another is required to organize the data in some kind of packets or frames, but there&#8217;s one exception, which I&#8217;ll discuss later on: Xillyp2p. Anyhow, let&#8217;s take it from the beginning. Multi-Gigabit Transceivers (MGTs, sometimes also referred to as RocketIO, [...]]]></description>
			<content:encoded><![CDATA[<h3>Introduction</h3>
<p>I&#8217;ll start with a correction: Indeed, application logic transmitting data from one FPGA to another is required to organize the data in some kind of packets or frames, but there&#8217;s one exception, which I&#8217;ll discuss later on: Xillyp2p. Anyhow, let&#8217;s take it from the beginning.</p>
<p><a rel="noopener" href="https://en.wikipedia.org/wiki/Multi-gigabit_transceiver" target="_blank">Multi-Gigabit Transceivers</a> (MGTs, sometimes also referred to as RocketIO, GTX, GTH, GTY, GTP, GTM, etc.) have long ago become the de facto standard for serialized data communication between digital components. The most famous use cases are for a computer and its peripheral (often between the CPU&#8217;s companion chip and a peripheral), for example, PCIe, SuperSpeed USB (a.k.a. USB 3.x), and SATA. Also related to computers, Gigabit Ethernet (as well as 10GbE) is based upon MGTs, and the DisplayPort protocol can be used for connecting a graphics card with the monitor.</p>
<p>Many FPGAs are equipped with MGTs. These are often used for turning the FPGA into a computer peripheral (with the PCIe protocol, possibly using Xillybus, or with the SuperSpeed USB protocol, possibly using XillyUSB, or as a storage device with SATA). Gigabit Ethernet can also play in, allowing the FPGA to communicate with a computer with this protocol. Another use of MGTs is for connecting to electronic components, in particular ADC/DAC devices with a very high sampling frequency, hence requiring a high data rate.</p>
<p>But what about communication between FPGAs? At times, there are several FPGAs on a PCB that need to exchange information among themselves, possibly at high rates. In other usage scenarios, there&#8217;s a physical distance between the FPGAs. For example, test equipment often has a hand-held probe containing one FPGA that collects information, and a second FPGA that resides inside the table-top unit. If the data rate is high, MGTs on both sides make it possible to avoid heavy, cumbersome and error-prone cabling. In fact, a thin fiber-optic cable is a simple solution when MGTs are used anyhow, and in some scenarios it also offers an extra benefit, except for being lightweight: Electrical isolation. This is in particular important in some medical applications (for electrical safety) or when long cables need to be drawn outdoors (avoiding being hit by lightning).</p>
<p>Among the annoying things about MGT communication there&#8217;s the fact that the data flow somehow always gets organized in packets (or frames, bursts, pick your name for it), and these packets don&#8217;t necessarily align properly with the application data&#8217;s natural boundaries. Why is that so?</p>
<p>This post attempts to explain why virtually all protocols (e.g. <a rel="noopener" href="https://en.wikipedia.org/wiki/Interlaken_(networking)" target="_blank">Interlaken</a>, <a rel="noopener" href="https://en.wikipedia.org/wiki/RapidIO" target="_blank">RapidIO</a>, AMD&#8217;s <a rel="noopener" href="https://en.wikipedia.org/wiki/Aurora_(protocol)" target="_blank">Aurora</a>, and Altera&#8217;s <a rel="noopener" href="https://www.altera.com/products/ip/a1jui0000049uv3mam/serial-lite-ip" target="_blank">SeriaLite</a>) require the application data to be arranged in some kind of packets that are enforced by the protocol. The only exception is <a rel="noopener" href="https://xillybus.com/xillyp2p" target="_blank">Xillyp2p</a>, which presents error-free continuous channels from one FPGA to another (or with packets that are sensible for the application data). This is not to say that packets aren&#8217;t used under the hood; it&#8217;s just that this packet mechanism is transparent to the application logic.</p>
<p>I&#8217;ll discuss a few reasons for the use of packets:</p>
<ul>
<li>Word alignment</li>
<li>Error detection and retransmission</li>
<li>Clock frequency differences</li>
</ul>
<h3>Reason #1: Word alignment</h3>
<p>When working with an MGT, it&#8217;s easy to forget that the transmitted data is sent as a serial data stream of bits. The fact that both the transmitting and receiving side have the same data word width might give the false impression that the MGT has some magic way of aligning the word correctly at the receiver side. In reality, there is no such magic. There is no hidden trick allowing the receiver to know which bit is the first or last in a transmitted word. This is something that the protocol needs to take care of, possibly with some help from the MGT&#8217;s features.</p>
<p>When 8b/10b encoding is used, the common solution is to transmit a synchronization word, often referred to as a comma, which is known as the K28.5 symbol. This method takes advantage of the fact that the 8b/10b encoding uses 10 bits on the wire for each 8 bits of payload data for transmission. And this allows for a small number of extra codes for transmission, that can&#8217;t be just regular data. These extra codes are called K-symbols, and K28.5 is one of them.</p>
<p>Hence if the bit sequence for a K28.5 symbol is encountered on the raw data link, it can&#8217;t be a data word. Most MGTs in FPGAs have a feature allowing them to automatically align the K28.5 word to the beginning of a word boundary. So word alignment can be ensured by transmitting a comma symbol. The comma symbol is often used to reset the scrambler as well, if such is used.</p>
<p>Each protocol defines when the comma is transmitted. There are many variations on this topic, but they all boil down to two alternatives:</p>
<ul>
<li>Transmitting comma symbols occasionally and periodically. Or possibly, as part of the marker for the beginning of a packet.</li>
<li>Transmitting comma symbols only as part of an initialization of the channel. This alternative is adopted by protocols like SuperSpeed USB and PCIe, which have specific patterns for initializing the channel, referred to as Ordered Sets for Training and Recovery. These patterns include comma symbols, among others.</li>
</ul>
<p>Truth to be told, if the second approach is taken, the need for word alignment isn&#8217;t a reason by itself for dividing the data into packets, as the alignment takes place once and is preserved afterwards. But the concept of initializing the channel is quite complicated, and is not commonly adopted.</p>
<p>There are other methods for achieving word alignment, in particular when 8b/10b encoding isn&#8217;t used. The principles remain the same, though.</p>
<h3>Reason #2: Error detection and retransmission</h3>
<p>When working with an MGT, bit errors must be taken into account. These errors mean simply that a &#8217;0&#8242; is received for a bit that was transmitted as a &#8217;1&#8242;, or vice versa. In some hardware setups such errors may occur relatively often (with a rate of say, 10<sup>-9</sup>, which usually means more than once per second), and with other setups they may practically never occur. If an error in the application data can&#8217;t be tolerated, a detection mechanism for these bit errors must be in place at the very least, in order to prevent delivery of incorrectly received data to the application logic. Even if a link appears to be completely error free judging by long-term experience, this can&#8217;t be guaranteed in the long run, in particular as electronic components from different manufacturing batches are used.</p>
<p>In order to detect errors, some kind of CRC (or other redundant data) must be inserted occasionally in order to allow the receiver to check if the data has arrived correctly. As the CRC is always calculated on a segment (whether it has a fixed length or not), the information must be divided into packets, even if just for the purpose of attaching a CRC to each.</p>
<p>And then we have the question of what to do if an error is detected. There are mainly two possibilities:</p>
<ul>
<li>Requesting a retransmission of the faulty packet. This ensures that an error-free channel is presented to the application logic.</li>
<li>Informing the application logic about the error, possibly halting the data flow so that faulty data isn&#8217;t delivered. This requires the application logic to somehow recover from this state and restart its operation.</li>
</ul>
<p>High-end protocols like PCIe, SATA and SuperSpeed USB take the first approach, and ensure that all packets arrive correctly by virtue of a retransmission mechanism.</p>
<p>Gigabit Ethernet takes the second approach — there&#8217;s a CRC on the Ethernet packets, but the Ethernet protocol itself doesn&#8217;t intervene much if a packet arrives with an incorrect CRC. Such a packet is simply discarded (either by the hardware implementing the protocol or by software), so faulty data doesn&#8217;t go further. Even the IP protocol, which is usually one level above, does nothing special about the CRC error and the packet loss that occurred as a result of it. It&#8217;s only the TCP protocol that eventually detects the packet loss by virtue of a timeout, and requests retransmission.</p>
<p>What about FPGA-to-FPGA protocols, then? Well, each protocol takes its own approach. Xillyp2p is special in that it requests retransmissions when the physical link is bidirectional, but if the link is unidirectional it only discards the faulty data and halts everything until the application logic resumes operation — a retransmission request is impossible in the latter case.</p>
<h3>Reason #3: Clock frequency differences</h3>
<p>Clock frequency differences should have been the first topic, because it&#8217;s the subtle detail that prevents the solution that most FPGA engineers would consider at first for communication between two FPGAs: One FPGA sends a stream of data words at a regular pace, and the other FPGA receives and processes it. Simple and clean.</p>
<p>But I put it third and last, because it&#8217;s the most difficult to deal with, and the explanations became really long. So try to hang on. And if you don&#8217;t, here&#8217;s the short version: The transmission of data can&#8217;t be continuous, because the receiver&#8217;s clock might be just a few ppm slower. Hence the rate at which the receiver can process arriving data might be slightly lower than the transmitter&#8217;s rate, if it keeps sending data non-stop. So to avoid the receiver from being overflowed with data, the transmitter must pause the flow of application data every now and then to let the receiver catch up. And if there are pauses, the segments between these pauses are some kind of packets.</p>
<p>And now, to the long explanation, starting with the common case: The data link is bidirectional, and the data content in both directions is tightly related. Even if application data goes in one direction primarily, there is often some kind of acknowledgement and/or status information going the other way. All &#8220;classic&#8221; protocols for computers (PCIe, USB 3.x and SATA) are bidirectional, for bidirectional data as well as acknowledge packets, and there is usually a similar need when connecting two FPGAs.</p>
<h3>The local and CDR clocks</h3>
<p>I&#8217;ll need to make a small detour now and discuss clocks. Tedious, but necessary.</p>
<p>In most applications, each of the two involved FPGAs uses a different reference clock to drive its MGT, and the same reference clock is often used to drive the logic around it. These reference clocks of the two FPGAs have the same frequency, except for a small tolerance. Small, but causes big trouble.</p>
<p>Each MGT transmits data based upon its own reference clock (I&#8217;ll explain below why it&#8217;s always this way). The logic in the logic fabric that produces the data for transmission is usually driven by a clock derived from the same reference clock. In other words, the entire transmission chain is derived from the local reference clock.</p>
<p>The natural consequence is that the data which the MGT receives is based upon the other side&#8217;s reference clock. The MGT receiving this data stream locks a local clock oscillator on the data rate of the arriving data stream. This mechanism is referred to as clock data recovery, CDR. The MGT&#8217;s logic that handles the arriving data stream is clocked by the CDR clock, and is hence synchronized with this data stream&#8217;s bits.</p>
<p>Unlike most other IP blocks in an FPGA, the clocks that are used to interface with the MGT are <strong>outputs</strong> from the MGT block. In other words, the MGT supplies the clock to the logic fabric, and not the other way around. This is a necessary arrangement, not only because the MGT generates the CDR clock: The main reason is that the MGT is responsible for handling the clocks that run at the bit rate, having a frequency of several GHz, which is far above what the logic fabric can handle. Also, the reference clock used to generate these GHz clocks must be very &#8220;clean&#8221; (low jitter), so the FPGA&#8217;s regular clock resources can&#8217;t be used. Frequency dividers inside the MGT generate the clock or clocks used to interface with the logic fabric.</p>
<p>In particular, the data words that are transferred from the logic fabric into the MGT for transmission, as well as data words from the MGT to the logic fabric (received data), are clocked by the outputs of these frequency dividers. The fact that these clocks are used in the interface with the logic fabric makes it possible to apply timing constraints on paths between the MGT&#8217;s internal logic and the logic fabric.</p>
<p>For the purpose of this discussion, let&#8217;s forget about the clocks inside the MGT, and focus only on those accessible by the logic fabric. It&#8217;s already clear that there are two clocks involved, one generated from the local oscillator, based upon the local reference clock (&#8220;local&#8221; clock), and the CDR clock, which is derived from the arriving data stream. Two clocks, two clock domains.</p>
<h3>Clock or clocks used for implementing the protocol</h3>
<p>As there are two clocks involved, the question is which clock is used by the logic that processes the data. This is the logic that implements the protocol. The answer is obviously one of the two clocks supplied by the MGT. It&#8217;s quite pointless to implement the protocol in a foreign clock domain.</p>
<p>In principle, the logic (in the logic fabric) implementing the protocol could be clocked by both clocks, however the vast majority is usually clocked only by one of them: It&#8217;s difficult to implement a protocol across two clock domains, so even if both clocks are used, the actual protocol implementation is always clocked by one of the clocks, and the other clock is used by a minimal amount of logic.</p>
<p>In all practical implementations, the protocol is implemented on the local clock&#8217;s domain (the clock used for transmission). The choice is almost obvious: Given that one needs to choose one of the two clocks, the choice is naturally inclined towards the local clock, which is always present and always stable.</p>
<p>The logic running on the CDR clock usually does some minimal processing on the arriving data, and then pushes it into the local clock domain. And this brings us naturally to the next topic.</p>
<h3>Crossing clock domains</h3>
<p>Every FPGA engineer knows (or should know) that a dual-clock FIFO is the first solution to consider when a clock domain crossing is required. And indeed, this is the most common solution for crossing the clock domain from the CDR clock towards the local clock. It&#8217;s the natural choice when the only need is to hand over the arriving data to the local clock domain.</p>
<p>Therefore, several protocol implementations are clocked only by the local clock, and only this clock is exposed by the MGT. The dual-clock FIFO is implemented inside the MGT, and is usually called an &#8220;elastic buffer&#8221;. This way, all interaction with the MGT is done in one clock domain, which simplifies the implementation.</p>
<p>It&#8217;s also possible to implement the protocol with both clocks, and perform the clock domain crossing in the logic fabric, most likely with the help of a FIFO IP provided by the FPGA tools.</p>
<p>To reiterate, it boils down to two options:</p>
<ul>
<li>Doing the clock domain crossing inside the MGT with an &#8220;elastic buffer&#8221;, and clock the logic fabric only with the local clock.</li>
<li>Using both clocks in the logic fabric, and accordingly do the clock domain crossing in the logic fabric.</li>
</ul>
<h3>Preventing overflow / underflow</h3>
<p>As mentioned earlier, the two clocks usually have almost the same frequency, with a difference that results from the oscillators&#8217; frequency tolerance. To illustrate the problem, let&#8217;s take an example with a bidirectional link of 1 Gbit/s, and the clock oscillators have a tolerance of 10 ppm each, which is considered pretty good. If the transmitter&#8217;s clock frequency is 10 ppm above, and the receiver&#8217;s frequency is 10 ppm below, there is a 20 ppm difference in the 1 Gbit/s data rate. In other words, the receiver gets 20,000 bits more than it can handle every second: No matter which of the two options mentioned above for clock domain crossing is chosen, there&#8217;s a FIFO whose write clock runs 20 ppm faster than the read clock. And soon enough, it overflows.</p>
<p>It can also be the other way around: If the write clock is slower than the read clock, this FIFO becomes empty every now and then. This scenario needs to be addressed as well.</p>
<p>There are several solutions to this problem, and they all boil down to that the transmitter pauses the flow of application data with regular intervals, and inserts some kind of stuffing inbetween to indicate these pauses. There is no possibility to stop the physical data stream, only to send data words that are discarded by the receiver instead of ending up in the FIFO. Recall that the protocol is almost always clocked by the local clock, which is the clock reading from the FIFO. So for example, just inserting some idle time between transmitted packets is not a solution in the vast majority of cases: The packets&#8217; boundaries are detected by the logic that reads from the FIFO, not on the side writing to it. Hence most protocols resort to much simpler ways to mark these pauses.</p>
<p>The most famous mechanism is called skip ordered sets, or skip symbols. It&#8217;s the common choice when 8b/10b encoding is used. It takes advantage of the fact mentioned above, that when 8b/10b is used, it&#8217;s possible to send K-symbols that are distinguishable from the regular data flow. For example, a SuperSpeed USB transmitter emits two K28.1 symbols with regular intervals. The logic before the FIFO at the receiver discards K28.1 symbols rather than writing them into the FIFO.</p>
<p>It&#8217;s also common that the logic reading from the FIFO injects K28.1 symbols when the FIFO is empty. This allows a continuous stream of data towards the protocol logic, even if the local clock is faster than the CDR clock. It&#8217;s then up to the protocol logic to discard K28.1 symbols.</p>
<p>There are of course other solutions, in particular when 8b/10b isn&#8217;t used. The main point is however that the transmitting side can&#8217;t just transmit data continuously. At the very least, there must be some kind of pauses. And as already said, when there are pauses, there are packets between them, even if they don&#8217;t have headers and CRCs.</p>
<h3>But why not transmit with the CDR clock?</h3>
<p>This can sound like an appealing solution, and it&#8217;s possible at least in theory: Let one side (&#8220;master&#8221;) transmit data based upon its local clock, just as described above, and let the other side (&#8220;slave&#8221;) transmit data based upon the CDR clock. In other words, the slave&#8217;s transmission clock follows the master&#8217;s clock, so they have exactly the same frequency.</p>
<p>First, why it&#8217;s a bad idea to use the CDR clock directly for transmission: Jitter. I&#8217;ve already used the word jitter above, but now it deserves an explanation: In theory, a clock signal has a fixed time period between each transition. In practice, the time between each such transition varies randomly. It&#8217;s a slight variation, but it can have a devastating effect on the data link&#8217;s reliability: As each clock transitions sets the time point at which a new bit is presented on the physical link, by virtue of changing the voltage between the wires, a randomness of the timing has an effect similar to adding noise.</p>
<p>This is why MGTs should always be driven by &#8220;clean&#8221; reference clocks, meaning oscillators that are a bit more expensive, a bit more carefully placed on the PCB, and have been designed with focus on low jitter.</p>
<p>So what happens if the slave side uses the CDR clock to transmit data? Well, the transmitter&#8217;s clock already has a certain amount of jitter, which is the result of the reference clock&#8217;s own jitter, plus the jitter added by the PLL that created bit-rate clock from it. The CDR creates a clock based upon the arriving data stream, which usually adds a lot of jitter. That too has the same effect as adding noise to its input, because the receiver samples the analog signal using the CDR clock. However, this effect is inevitable. In order to mitigate this effect, the PLL that generates the CDR clock is often tuned to produce as little jitter as possible, while still being able to lock on the master&#8217;s frequency.</p>
<p>As the CDR clock has a relatively high jitter due to how it&#8217;s created, using it directly to transmit data is equivalent to adding noise to the physical channel, and is therefore a bad idea.</p>
<p>It&#8217;s however possible to take a divided version of the CDR clock (most likely the CDR clock as it appears on the MGT&#8217;s output port) and drive one of the FPGA&#8217;s output pins with it. That output goes to a &#8220;jitter cleaner&#8221; component on the PCB, which returns the same clock, but with much less jitter. And the latter clock can then be used as a reference clock to transmit data.</p>
<p>I&#8217;ve never heard of anyone attempting the trick with a &#8220;jitter cleaner&#8221;, let alone tried this myself. I suppose a few skip symbols are much easier than playing around with clocks.</p>
<h3>But if the link is unidirectional?</h3>
<p>If there&#8217;s a physical data link only in one direction, the CDR clock can be used on the receiving side to clock the protocol logic without any direct penalty. But it&#8217;s still a foreign clock. The MGT at the receiving side still needs a local reference clock in order to lock the CDR on the arriving data stream.</p>
<p>And as things usually turn around, the same local reference clock becomes the reference for all logic on the FPGA. So using the local clock for receiving data often saves a clock domain crossing between the protocol logic and the rest of it. It becomes a question of where the clock domain crossing occurs.</p>
<h3>Conclusion</h3>
<p>If data is transmitted through an MGT, it will most likely end up divided into packets. At least one of the reasons mentioned above will apply.</p>
<p>It&#8217;s possible to avoid the encapsulation, stripping, multiplexing and error checking of packets by using Xillyp2p. Unlike other protocol cores, this IP core takes care of these tasks, and presents the application logic with error-free and continuous application data channels. The packet-related tasks aren&#8217;t avoided, but rather taken care of by the IP core instead of the application logic.</p>
<p>This is comparable with using raw Ethernet frames vs TCP/IP: There is no way around using packets for getting information across a network. Choosing raw Ethernet frames requires the application to chop up the data into frames and ensure that they arrive correctly. If TCP/IP is chosen, all this is done and taken care of.</p>
<p>One way or another, there will be packets on wire.</p>
]]></content:encoded>
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		</item>
		<item>
		<title>Empty statements in Verilog&#8217;s if-else are OK</title>
		<link>https://billauer.se/blog/2023/05/verilog-null-statement/</link>
		<comments>https://billauer.se/blog/2023/05/verilog-null-statement/#comments</comments>
		<pubDate>Sun, 21 May 2023 14:34:32 +0000</pubDate>
		<dc:creator>eli</dc:creator>
				<category><![CDATA[FPGA]]></category>

		<guid isPermaLink="false">https://billauer.se/blog/?p=6856</guid>
		<description><![CDATA[A reminder to self: As the title implies, it&#8217;s OK to have an empty statement in Verilog. This is useful in order to make all the following clauses active only if the first condition isn&#8217;t met. This is commonly seen in C, but I wasn&#8217;t sure if it&#8217;s OK to do this in Verilog too. [...]]]></description>
			<content:encoded><![CDATA[<p>A reminder to self: As the title implies, it&#8217;s OK to have an empty statement in Verilog. This is useful in order to make all the following clauses active only if the first condition isn&#8217;t met. This is commonly seen in C, but I wasn&#8217;t sure if it&#8217;s OK to do this in Verilog too. So it is.</p>
<p>So this is fine, for example:</p>
<pre><span class="hljs-keyword">always</span> @(<span class="hljs-keyword">posedge</span> clk)
  <span class="hljs-keyword">if</span> (relax)
     ; <span class="hljs-comment">// Do nothing.</span>
  <span class="hljs-keyword">else</span> <span class="hljs-keyword">if</span> (this_condition)
    do_this &lt;= do_this + <span class="hljs-number">1</span>;
  <span class="hljs-keyword">else</span> <span class="hljs-keyword">if</span> (that_condition)
    do_that &lt;= do_that + <span class="hljs-number">1</span>;</pre>
<p>This is backed up by the IEEE standard 1364-2001 (standard Verilog), which says in Syntax 9-4:</p>
<pre>conditional_statement ::=
  <strong>if</strong> ( expression )
     statement_or_null [ <strong>else</strong> statement_or_null ]
     | if_else_if_statement</pre>
<p>And then defines in section A.6.4:</p>
<pre>statement ::=
{ attribute_instance } blocking_assignment ;
  | { attribute_instance } case_statement
  | { attribute_instance } conditional_statement
  | { attribute_instance } disable_statement
  | { attribute_instance } event_trigger
  | { attribute_instance } loop_statement
  | { attribute_instance } nonblocking_assignment ;
  | { attribute_instance } par_block
  | { attribute_instance } procedural_continuous_assignments ;
  | { attribute_instance } procedural_timing_control_statement
  | { attribute_instance } seq_block
  | { attribute_instance } system_task_enable
  | { attribute_instance } task_enable
  | { attribute_instance } wait_statement

statement_or_null ::=
  statement | { attribute_instance } ;</pre>
<p>Those attribute_instance are irrelevant, in particular as they are optional.</p>
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		<item>
		<title>Writing about timing and timing constraints: Kind-of behind the scenes</title>
		<link>https://billauer.se/blog/2023/03/timing-constraints-writing/</link>
		<comments>https://billauer.se/blog/2023/03/timing-constraints-writing/#comments</comments>
		<pubDate>Thu, 16 Mar 2023 15:17:20 +0000</pubDate>
		<dc:creator>eli</dc:creator>
				<category><![CDATA[FPGA]]></category>

		<guid isPermaLink="false">https://billauer.se/blog/?p=6803</guid>
		<description><![CDATA[Oh my goodness I&#8217;ll say this from the start: This is me babbling. You have been warned. Don&#8217;t expect anything coherent in this post. Not that I necessarily keep things very tidy in my other posts, but this one is clearly me typing at full speed, not trying to be organized or anything. I&#8217;ll buy [...]]]></description>
			<content:encoded><![CDATA[<h3>Oh my goodness</h3>
<p>I&#8217;ll say this from the start: This is me babbling. You have been warned. Don&#8217;t expect anything coherent in this post. Not that I necessarily keep things very tidy in my other posts, but this one is clearly me typing at full speed, not trying to be organized or anything.</p>
<p>I&#8217;ll buy you a pizza if you figure out the real motivation behind this post. Well, actually I won&#8217;t. At most, I&#8217;ll answer with an emoji with a pizza. But you&#8217;re welcome to try your luck anyhow. If you bother to read this, that is. Which I&#8217;m not sure is the best way to spend your time.</p>
<p>So these are my thoughts after publishing a series of pages about FPGA timing and timing constraints (which begins with <a href="https://billauer.se/blog/timing/constraints/timing/introduction/" target="_blank">this page</a>). It&#8217;s not only a relatively long series of pages, but it also involves the translation of the pages into <a href="https://billauer.se/blog/timing/zh/constraints/timing/introduction/" target="_blank">Chinese,</a> <a href="https://billauer.se/blog/timing/ja/constraints/timing/introduction/" target="_blank">Japanese</a> and <a href="https://billauer.se/blog/timing/ko/constraints/timing/introduction/" target="_blank">Korean</a>. I know none of these languages, so I used Google Translate. I&#8217;ve already <a href="https://billauer.se/blog/2022/08/google-translate-insights/" target="_blank">written a post</a> about the challenges and solutions with automatic translation of technical documents.</p>
<p>The translations are a huge experiment. It&#8217;s not clear at all if people who speak these languages will find them appealing. There&#8217;s clearly a readability problem with an automatic translation, no matter how hard I work to make the text digestible for an AI machine.</p>
<p>People who speak English and one of these languages have expressed little enthusiasm when looking at the results (to say the least). But then it boils down to the choices of people who only have that East Asian language. They will surely have a laugh or curse when reading encountering the hick-ups of automatic translations, but do they have a better alternative? Time will tell. Or more precisely, the logs will tell.</p>
<p>I&#8217;ve never written a behind-the-scenes post about other things that I&#8217;ve written. Maybe I do this because it&#8217;s the first time in ages that I can write English exactly the way I think, and not keeping restricting myself to write in a way that works well with the translation machinery. One of the main limitations with automatic translation to CJK languages is that the sentences must be short and concise. The ordering of words is very different in those languages, so if I use a word like &#8220;it&#8221; or &#8220;which&#8221; that refers back to something mentioned earlier in the sentence, the translation machinery is forced to decide what it referred to, and name it explicitly in the translation. And quite often, that goes wrong. When the translation is to another European language, or even Hebrew, it&#8217;s possible to retain the ambiguity in the translation, and leave it to the intelligence of the reader.</p>
<p>So if this post feels like a huge ramble, yes, that&#8217;s exactly what it is. Me feeling free at the keyboard. The liberation from thinking how each and every word may be mistranslated. I mean, even a work like &#8220;generation&#8221; in the sense of creating something can be translated into like generation gap. Or if I say &#8220;that&#8217;s a special case&#8221;, will that become something about a bag? I&#8217;m really tired of translating and back-translating and cutting down Chinese into single characters in order to ensure that when I write &#8220;segment&#8221; I don&#8217;t get something related to marketing.</p>
<h3>Let&#8217;s talk about timing</h3>
<p>I&#8217;ve been thinking about writing a guide to FPGA timing and timing constraints for quite a while. It&#8217;s one of the most important topics, if not the most important topic in the field, and somehow it seems like the explanations about this field are either very theoretic, or they&#8217;re so specific that it&#8217;s difficult to understand the whole point. It was clear to me that I needed to begin with <a href="https://billauer.se/blog/timing/constraints/timing/basic-theory/" target="_blank">the basics of the theory</a> (<a href="https://billauer.se/blog/timing/zh/constraints/timing/basic-theory/" target="_blank">and</a> <a href="https://billauer.se/blog/timing/ja/constraints/timing/basic-theory/" target="_blank">translate</a> <a href="https://billauer.se/blog/timing/ko/constraints/timing/basic-theory/" target="_blank">it</a>, of course). I was however quite surprised myself how little theory there was to convey. The entire thing is about setup time, hold time and clock-to-output. That&#8217;s it. That&#8217;s the whole story.</p>
<p>It was quite clear where to take it from there: To discuss the <a href="https://billauer.se/blog/timing/constraints/timing/period-constraint/" target="_blank">most commonly used timing constraint</a>, that is to say the period constraint. And <a href="https://billauer.se/blog/timing/zh/constraints/timing/period-constraint/" target="_blank">make</a> <a href="https://billauer.se/blog/timing/ja/constraints/timing/period-constraint/" target="_blank">that</a> <a href="https://billauer.se/blog/timing/ko/constraints/timing/period-constraint/" target="_blank">international</a>, once again.</p>
<p>But how do you talk about this simple constraint? I mean, the normal explanation is just &#8220;this is what you should write&#8221;. How do you explain what it really means?</p>
<p>So the approach that I went for throughout the series of pages was to explain it through the timing reports. It&#8217;s a bit of a tedious way, but the idea was that the correct way to understand timing constraints, and in fact one of the most essential capabilities for working with timing, is to read the timing reports. Hence I went for explaining the timing report.</p>
<p>Another alternative could have been to jump into explaining the <a href="https://billauer.se/blog/timing/constraints/timing/period-constraint-other/" target="_blank">meaning of the timing constraint</a> as a <a href="https://billauer.se/blog/timing/zh/constraints/timing/period-constraint-other/" target="_blank">clock object</a>. This is a more <a href="https://billauer.se/blog/timing/ja/constraints/timing/period-constraint-other/" target="_blank">technical approach</a>, and it&#8217;s necessary to go through it at some stage. But I deferred that to <a href="https://billauer.se/blog/timing/ko/constraints/timing/period-constraint-other/" target="_blank">later</a>.</p>
<h3>To PLL or not to PLL</h3>
<p>And by the way, that&#8217;s a title that I really wanted somewhere in those pages, but it was clearly going to be lost in translation. So <a href="https://billauer.se/blog/timing/zh/constraints/timing/period-constraint-more/" target="_blank">all</a> <a href="https://billauer.se/blog/timing/ja/constraints/timing/period-constraint-more/" target="_blank">you</a> <a href="https://billauer.se/blog/timing/ko/constraints/timing/period-constraint-more/" target="_blank">guys</a> from East Asia out there, if you won&#8217;t read the translated pages, just know I sacrificed proper English in favor of you getting something decent to read. Kindly appreciate it.</p>
<p>Anyhow, it turned out that I couldn&#8217;t finish the entire topic of the period constraint in one page, so there&#8217;s a <a href="https://billauer.se/blog/timing/constraints/timing/period-constraint-more/" target="_blank">second page</a> on the same topic, this time for the sake of explaining how a PLL changes the picture. And that brings up the whole story of clock domain crossing between related clocks. Plus I also filled in the part about hold time.</p>
<p>Hold time is a neglected topic regarding timing constraints. Probably because the timing constraints rarely fail on that, and still: The tools deliberately add delays to the paths in order to meet hold timing, and by doing so, they put an obstacle before themselves in the quest to attain the setup timing. It&#8217;s quite amazing to see how a simple routed net suddenly gets a delay of several ns, just because the hold timing required so. In particular when crossing clock domains between related, but unaligned clocks.</p>
<p>And that&#8217;s another expression I couldn&#8217;t use on those pages: Crossing clock domains. It always says &#8220;clock domain crossing&#8221;, and it&#8217;s protected against translation. Otherwise, I get crucifixion in the translation. And the protection against translation works only on nouns, not verbs. Did I just divert from the topic? Maybe I need a closure?</p>
<h3>Timing closure</h3>
<p>When is the right time to talk about it? Timing closure is often the reason we even start think about timing (ghosts in the FPGA is another common reason). So it&#8217;s definitely an <a href="https://billauer.se/blog/timing/constraints/timing/timing-closure/" target="_blank">important topic</a>, at least to <a href="https://billauer.se/blog/timing/zh/constraints/timing/timing-closure/" target="_blank">the</a> <a href="https://billauer.se/blog/timing/ja/constraints/timing/timing-closure/" target="_blank">impatient</a> <a href="https://billauer.se/blog/timing/ko/constraints/timing/timing-closure/" target="_blank">reader</a>. But shouldn&#8217;t I put it in the end? After all, it&#8217;s the ultimate surgical operation that is done once you understand it all.</p>
<p>So no. I went with the people on this one. It&#8217;s the ultimate topic, yes, but I also need to realize that some people will read one page or two and then give up. So better get to the important thing ASAP. Actually, I also gave away a <a href="https://billauer.se/blog/timing/constraints/timing/timing-strategy/" target="_blank">checklist kind of page</a> (with <a href="https://billauer.se/blog/timing/zh/constraints/timing/timing-strategy/" target="_blank">trans</a>-<a href="https://billauer.se/blog/timing/ja/constraints/timing/timing-strategy/" target="_blank">la</a>-<a href="https://billauer.se/blog/timing/ko/constraints/timing/timing-strategy/" target="_blank">tions</a>). Maybe that&#8217;s the biggest contradiction I made in those pages. I said all the time that timing is like a divine science, and don&#8217;t be lazy about it. Be deep and profound, learn it as an art, and then I come up with a checklist. Not only that, I <a href="https://billauer.se/blog/timing/constraints/timing/validation-check-report/" target="_blank">repeat that crime</a> at the end of the page series. And I do that in <a href="https://billauer.se/blog/timing/zh/constraints/timing/validation-check-report/" target="_blank">three</a> <a href="https://billauer.se/blog/timing/ja/constraints/timing/validation-check-report/" target="_blank">additional</a> <a href="https://billauer.se/blog/timing/ko/constraints/timing/validation-check-report/" target="_blank">languages</a>, too.</p>
<p>To my defense (or is it?), the repeated crime had a practical and silly reason. I had that page already written. More or less. So it was a bit of low-hanging fruit. And my rule (in this blog and otherwise) has always been not to throw away food. If you have some random pieces of cheese in your fridge, make a quiche. If there is mold on the cheese, you just make a different kind of quiche.</p>
<p>So that last page in the series is not 100% coherent with those preceding it, but it kinda summarizes the point. Besides, I already mentioned that the whole series of pages is one big experiment&#8230;?</p>
<h3>Tachles</h3>
<p>That&#8217;s a word in Jiddish, literally taken from the Hebrew word תכלית. Actually, it&#8217;s the pronunciation of that word in the mouth of European Jews. The meaning of the word is &#8220;purpose&#8221;, the reason for doing something, but more in the direction of the intention, what result you want to achieve etc.</p>
<p>So after talking about timing closure for two pages, I finally <a href="https://billauer.se/blog/timing/constraints/timing/tcl-filters-paths/" target="_blank">got to the pudding</a>: Actually talk about how to write timing constraint. But <a href="https://billauer.se/blog/timing/zh/constraints/timing/tcl-filters-paths/" target="_blank">not so fast</a>! There&#8217;s still <a href="https://billauer.se/blog/timing/ja/constraints/timing/tcl-filters-paths/" target="_blank">one tedious phase</a> to go through, namely learn how to select the logic that we <a href="https://billauer.se/blog/timing/ko/constraints/timing/tcl-filters-paths/" target="_blank">want to be specific about</a>.</p>
<p>This whole thing with Tcl commands, which are used in SDC format (that is, by Vivado, Quartus and several other tools) gives a certain level of compatibility. But as it turns out, there&#8217;s Synopsys&#8217; set of capabilities, which seems to have been adopted in full by Vivado, and then there&#8217;s Quartus&#8217; take on the same topic, which is same-same but completely different. So the simple commands work the same, but when it comes to more complicated stuff, Quartus diverges, and <a href="https://billauer.se/blog/timing/constraints/timing/logic-elements-wildcards/" target="_blank">not for the better</a>. In <a href="https://billauer.se/blog/timing/zh/constraints/timing/logic-elements-wildcards/" target="_blank">particular</a>, Quartus lacks the &#8220;-filter&#8221; option that allows more complicated expressions for defining whether to include a logic element (actually, the object representing it) in a timing constraint. So one is limited to <a href="https://billauer.se/blog/timing/ja/constraints/timing/logic-elements-wildcards/" target="_blank">playing with wildcards</a>, and that, well, <a href="https://billauer.se/blog/timing/ko/constraints/timing/logic-elements-wildcards/" target="_blank">sucks</a>.</p>
<p>So in short, this was the point I had to admit that Vivado is superior, with a margin. I also began to suspect that Vivado is Synopsys in disguise, but that&#8217;s just a wild speculation.</p>
<p>It&#8217;s only after that, that I could <a href="https://billauer.se/blog/timing/constraints/timing/timing-exceptions/" target="_blank">begin to really talk</a> about commands like <a href="https://billauer.se/blog/timing/zh/constraints/timing/timing-exceptions/" target="_blank">set_max_delay</a>, <a href="https://billauer.se/blog/timing/ja/constraints/timing/timing-exceptions/" target="_blank">set_min_delay</a> and <a href="https://billauer.se/blog/timing/ko/constraints/timing/timing-exceptions/" target="_blank">set_false_path</a>. That&#8217;s what I call tachles. I finally got to the point, after rambling tons.</p>
<p>I think that the most important point about set_false_path is that it has maximal priority. One would usually consider priority to be an advanced topic.</p>
<p>Ah, and here comes another messy, out-of-nowhere comment about this series of pages. The idea wasn&#8217;t to write a full and comprehensive guide that includes everything that there is possible to know. That&#8217;s what the official docs are for. The idea was to cover the things that I personally use and feel that I must be aware of, and hence the convey the minimal toolbox that one needs to carry.</p>
<p>Return from subroutine: I didn&#8217;t want to cover an advanced topic like priorities between timing constraints, because who really needs that? It&#8217;s quite clear that those specific timing constraints are stronger than the period constraint, and except for that, nobody should mess up with more complicated combinations of contradicting constraints.</p>
<p>But set_false_path is scary: It wins everything else, and it disables the timing check of the relevant paths silently. It&#8217;s literally a killer. So make a small mistake with that constraint, and your design is cooked. So I spent quite a few words on warnings about that.</p>
<h3>Eight o&#8217;clock rock</h3>
<p>When I first started working with FPGAs, my mentors were from the ASIC industry. For some reason, which I&#8217;m still to find out, ASIC guys like to everything with one clock, if possible. In the FPGA world, it&#8217;s more a like clock being given away like they were air. So the whole issue of timing constraints <a href="https://billauer.se/blog/timing/constraints/timing/clock-domain-crossing/" target="_blank">needs to be addressed</a> in the context of crossing clock domains.</p>
<p>And here&#8217;s another word that I avoided all the time: Addressed. Because who knows what that will be translated into, when it comes to <a href="https://billauer.se/blog/timing/zh/constraints/timing/clock-domain-crossing/" target="_blank">Chinese</a>, <a href="https://billauer.se/blog/timing/ja/constraints/timing/clock-domain-crossing/" target="_blank">Japanese</a> and <a href="https://billauer.se/blog/timing/ko/constraints/timing/clock-domain-crossing/" target="_blank">Korean</a>.</p>
<p>The alternative to a lot of clocks, is <a href="https://billauer.se/blog/timing/constraints/timing/timing-exceptions-advanced/" target="_blank">multi-cycle paths</a>, of course: This is what the ASIC guys do in order to stick to one clock for the entire design. And in order to take advantage of the relatively relaxed timing of logic that depends on a clock enable, there are timing constraints. Which is a <a href="https://billauer.se/blog/timing/zh/constraints/timing/timing-exceptions-advanced/" target="_blank">risky business</a>. I won&#8217;t repeat the <a href="https://billauer.se/blog/timing/ja/constraints/timing/timing-exceptions-advanced/" target="_blank">explanation</a> here, but let&#8217;s say that it&#8217;s generally <a href="https://billauer.se/blog/timing/ko/constraints/timing/timing-exceptions-advanced/" target="_blank">not recommended</a>.</p>
<h3>Who you wanna talk to?</h3>
<p>One of the things that I actually planned and carried out as planned (well, not really as planned) was to put the discussion about I/O constraints last. This went against the principle of important things first, but since I/O constraints are technically just a private case of constraints on internal paths (that is, paths that start and end inside the FPGA), it made a lot of sense to put this part last.</p>
<p>Now read this last sentence again, and realize that there&#8217;s nothing even close to that length in the pages I wrote on timing constraint. No chance a sentence like that would have been translated correctly.</p>
<p>So where were I? Oh yes, <a href="https://billauer.se/blog/timing/constraints/timing/fpga-io-clocking-methods/" target="_blank">timing constraint for I/O</a>. But soon enough I realized that I can&#8217;t talk about timing constraints for I/O before discussing <a href="https://billauer.se/blog/timing/zh/constraints/timing/fpga-io-clocking-methods/" target="_blank">system synchronous</a> vs. <a href="https://billauer.se/blog/timing/ja/constraints/timing/fpga-io-clocking-methods/" target="_blank">source synchronous</a> vs. <a href="https://billauer.se/blog/timing/ko/constraints/timing/fpga-io-clocking-methods/" target="_blank">asynchronous I/O</a>. But it&#8217;s not that simple. One can&#8217;t just throw these terms in the air and hope for good. So all of the sudden I found myself with a small בלת&#8221;ם (Read &#8220;baltam&#8221;, meaning &#8220;unplanned&#8221; in Hebrew), which wasn&#8217;t so small.</p>
<p>That&#8217;s because source-synchronous I/O means both <a href="https://billauer.se/blog/timing/electronics/source-synchronous-inputs/" target="_blank">inputs</a> and <a href="https://billauer.se/blog/timing/electronics/parallel-outputs/" target="_blank">outputs</a>, and these are implemented in different ways. So there was no choice (or was there?) to sit down and explain how to do that. How can you discuss the possibilities for timing constraints of a source-synchronous input without explaining how the I/O is implemented. There are quite <a href="https://billauer.se/blog/timing/zh/electronics/source-synchronous-inputs/" target="_blank">a few</a> <a href="https://billauer.se/blog/timing/ja/electronics/source-synchronous-inputs/" target="_blank">possibilities</a>, <a href="https://billauer.se/blog/timing/ko/electronics/source-synchronous-inputs/" target="_blank">after all</a>.</p>
<p>Source-synchronous outputs are actually a much simpler story, because it just means to <a href="https://billauer.se/blog/timing/zh/electronics/parallel-outputs/" target="_blank">generate</a> <a href="https://billauer.se/blog/timing/ja/electronics/parallel-outputs/" target="_blank">all signals</a> <a href="https://billauer.se/blog/timing/ko/electronics/parallel-outputs/" target="_blank">with registers</a>.</p>
<p>On top of all this mess, there&#8217;s another topic which is important both for the timing of I/O and for ensuring that the design behaves in a consistent way: IOB registers.</p>
<p>But oops. IOB is a Xilinx word. Oddly enough, it doesn&#8217;t seem like there&#8217;s a standard term for the idea of having a flip-flop close to the I/O pin. It&#8217;s such a common thing, and yet there&#8217;s no common term. I think. So I used the term I&#8217;m used to, IOB. It&#8217;s quite apparent that I&#8217;m a Xilinx guy. I&#8217;ve worked a bit with Altera (should I call them AMD and Intel FPGA by now? It takes time to get used to that). I nevertheless tried to be vendor-neutral in those pages. They were supposed to be about all FPGAs, not only the two that were leading back in 202x, just before being acquired by two giants, leaving an unknown future ahead.</p>
<p>But that was quite impossible, because timing constraints are usually written in SDC, and SDC was invented by Synopsys, and Vivado are the closest that I know of to the full and accurate interpretation of the constraints, as well as the Tcl environment. That was yet another long sentence that I would never write for translation. But I actually expect that all tools will end up supporting Synopsys&#8217; full vocabulary, so maybe a few years from now, these posts will really be vendor-neutral, and the only thing people won&#8217;t understand is what Vivado and Xilinx is, because some other FPGA vendor that we&#8217;ve never heard of has taken control of the market, while &#8220;AMD FPGA&#8221; put all they had on datacenter acceleration and ended up closing the FPGA department because, well, because.</p>
<p>Did I diverge again? Definitely. All I wanted to say is that I also wrote a <a href="https://billauer.se/blog/timing/electronics/iob-registers/" target="_blank">page about IOB registers</a>, and needless to say, that page is available in <a href="https://billauer.se/blog/timing/zh/electronics/iob-registers/" target="_blank">three</a> <a href="https://billauer.se/blog/timing/ja/electronics/iob-registers/" target="_blank">additional</a> <a href="https://billauer.se/blog/timing/ko/electronics/iob-registers/" target="_blank">languages</a>, just like the rest.</p>
<h3>Phew</h3>
<p>I really wonder if anyone will read through this post from top to bottom. If you haven&#8217;t, and just scrolled down to the bottom to see if this goes anywhere, I can&#8217;t blame you. Truth to be said, this post went nowhere, and neither was it intended to do so.</p>
<p>Any guesses about the reason I wrote this anyhow. I still promise to send a pizza emoji in response to correct answers. Even though all answers are incorrect by the nature of this foolishness.</p>
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		<title>A few posts on FPGA on my other site</title>
		<link>https://billauer.se/blog/2023/01/other-fpga-posts/</link>
		<comments>https://billauer.se/blog/2023/01/other-fpga-posts/#comments</comments>
		<pubDate>Fri, 20 Jan 2023 07:27:49 +0000</pubDate>
		<dc:creator>eli</dc:creator>
				<category><![CDATA[FPGA]]></category>

		<guid isPermaLink="false">https://billauer.se/blog/?p=6786</guid>
		<description><![CDATA[I&#8217;ve been a bit silent on this blog for a while, but that&#8217;s only because I&#8217;ve been busy writing on my spin-off site lately. So here are a few posts over there which are pretty much related to what I do on this blog. These pages are also translated to Chinese, Japanese and Korean, so [...]]]></description>
			<content:encoded><![CDATA[<p>I&#8217;ve been a bit silent on this blog for a while, but that&#8217;s only because I&#8217;ve been busy writing on my spin-off site lately.</p>
<p>So here are a few posts over there which are pretty much related to what I do on this blog. These pages are also translated to Chinese, Japanese and Korean, so this is what those links in parentheses are about.</p>
<p>About FIFOs:</p>
<ul>
<li><a href="/01signal/using-ip/fpga-fifo/introduction/" target="_blank">Introduction to FPGA FIFOs</a> (<a href="/01signal/zh/using-ip/fpga-fifo/introduction/" target="_blank">zh</a> <a href="/01signal/ja/using-ip/fpga-fifo/introduction/" target="_blank">ja</a> <a href="/01signal/ko/using-ip/fpga-fifo/introduction/" target="_blank">ko</a>)</li>
<li><a href="/01signal/using-ip/fpga-fifo/variants/" target="_blank">FPGA FIFOs: Different features and variants</a> (<a href="/01signal/zh/using-ip/fpga-fifo/variants/" target="_blank">zh</a> <a href="/01signal/ja/using-ip/fpga-fifo/variants/" target="_blank">ja</a> <a href="/01signal/ko/using-ip/fpga-fifo/variants/" target="_blank">ko</a>)</li>
<li><a href="/01signal/using-ip/fpga-fifo/single-clock-fifo-code/" target="_blank">Implementation of single clock FIFOs in Verilog</a> (<a href="/01signal/zh/using-ip/fpga-fifo/single-clock-fifo-code/" target="_blank">zh</a> <a href="/01signal/ja/using-ip/fpga-fifo/single-clock-fifo-code/" target="_blank">ja</a> <a href="/01signal/ko/using-ip/fpga-fifo/single-clock-fifo-code/" target="_blank">ko</a>)</li>
<li><a href="/01signal/using-ip/fpga-fifo/improved-timing/" target="_blank">Improving timing on FIFOs by adding registers</a> (<a href="/01signal/zh/using-ip/fpga-fifo/improved-timing/" target="_blank">zh</a> <a href="/01signal/ja/using-ip/fpga-fifo/improved-timing/" target="_blank">ja</a> <a href="/01signal/ko/using-ip/fpga-fifo/improved-timing/" target="_blank">ko</a>)</li>
</ul>
<p>About clock domains:</p>
<ul>
<li><a href="/01signal/verilog-design/clockdomains/introduction/" target="_blank">Clock domains, related clocks and unrelated clocks</a> (<a href="/01signal/zh/verilog-design/clockdomains/introduction/" target="_blank">zh</a> <a href="/01signal/ja/verilog-design/clockdomains/introduction/" target="_blank">ja</a> <a href="/01signal/ko/verilog-design/clockdomains/introduction/" target="_blank">ko</a>)</li>
<li><a href="/01signal/verilog-design/clockdomains/crossing-basics/" target="_blank">Metastability and the basics of clock domain crossing</a> (<a href="/01signal/zh/verilog-design/clockdomains/crossing-basics/" target="_blank">zh</a> <a href="/01signal/ja/verilog-design/clockdomains/crossing-basics/" target="_blank">ja</a> <a href="/01signal/ko/verilog-design/clockdomains/crossing-basics/" target="_blank">ko</a>)</li>
<li><a href="/01signal/verilog-design/clockdomains/crossing-vector/" target="_blank">Clock domain crossing with data</a> (<a href="/01signal/zh/verilog-design/clockdomains/crossing-vector/" target="_blank">zh</a> <a href="/01signal/ja/verilog-design/clockdomains/crossing-vector/" target="_blank">ja</a> <a href="/01signal/ko/verilog-design/clockdomains/crossing-vector/" target="_blank">ko</a>)</li>
</ul>
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		<slash:comments>0</slash:comments>
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		<item>
		<title>Vivado: Failed to install all user apps</title>
		<link>https://billauer.se/blog/2022/02/vivado-failed-to-install-user-apps/</link>
		<comments>https://billauer.se/blog/2022/02/vivado-failed-to-install-user-apps/#comments</comments>
		<pubDate>Tue, 22 Feb 2022 12:53:04 +0000</pubDate>
		<dc:creator>eli</dc:creator>
				<category><![CDATA[FPGA]]></category>
		<category><![CDATA[Tcl]]></category>
		<category><![CDATA[Vivado]]></category>

		<guid isPermaLink="false">https://billauer.se/blog/?p=6589</guid>
		<description><![CDATA[Every now and then Vivado whines with [Common 17-356] Failed to install all user apps. And every time I&#8217;m looking up how to to solve this, and then I find that the command that fixes this is tclapp::reset_tclstore in the Tcl command window. And then quit Vivado, and start it again. Why? I&#8217;ll never know. [...]]]></description>
			<content:encoded><![CDATA[<p>Every now and then Vivado whines with</p>
<pre>[Common 17-356] Failed to install all user apps.
</pre>
<p>And every time I&#8217;m looking up how to to solve this, and then I find that the command that fixes this is</p>
<pre>tclapp::reset_tclstore</pre>
<p>in the Tcl command window. And then quit Vivado, and start it again. Why? I&#8217;ll never know.</p>
<p>Just wanted it written down where I&#8217;ll be looking for it.</p>
]]></content:encoded>
			<wfw:commentRss>https://billauer.se/blog/2022/02/vivado-failed-to-install-user-apps/feed/</wfw:commentRss>
		<slash:comments>0</slash:comments>
		</item>
		<item>
		<title>Quartus Pro 19.2: List of QSF parameter names</title>
		<link>https://billauer.se/blog/2021/10/quartus-pro-qsf-list/</link>
		<comments>https://billauer.se/blog/2021/10/quartus-pro-qsf-list/#comments</comments>
		<pubDate>Thu, 14 Oct 2021 15:15:34 +0000</pubDate>
		<dc:creator>eli</dc:creator>
				<category><![CDATA[FPGA]]></category>
		<category><![CDATA[Intel FPGA (Altera)]]></category>

		<guid isPermaLink="false">https://billauer.se/blog/?p=6419</guid>
		<description><![CDATA[Due to rather peculiar reasons described in this post, I found myself looking for all QSF parameter names that Quartus recognizes. I ended up searching a binary file in Quartus’ installation directory. So this is by no means an authoritative list, but since I made it, I thought I should post it. Just in case [...]]]></description>
			<content:encoded><![CDATA[<p>Due to rather peculiar reasons described in <a title="Reverse engineering Cyclone 10 transceiver’s attributes" href="https://billauer.se/blog/2021/10/arria-cyclone-10-signal-detect-oob/" target="_blank">this post</a>, I found myself looking for all QSF parameter names that Quartus recognizes. I ended up searching a binary file in Quartus’ installation directory. So this is by no means an authoritative list, but since I made it, I thought I should post it. Just in case someone else is in the business of guesswork.</p>
<p>So this was done with Quartus Pro 19.2 running Linux. For non-Pro Quartus 17.1, refer to <a title="Quartus 17.1 (non-pro): List of QSF parameter names" href="https://billauer.se/blog/2021/10/quartus-qsf-list/" target="_blank">this post</a>.</p>
<p>This is plain text search, so  quite clearly not all items appearing here are legal QSF parameters,  and neither is it clear if this list is complete. Or otherwise useful,  for that matter.</p>
<pre>$ <strong>strings ./quartus/linux64/libdb_acf.so | perl -ne '/^[A-Z][A-Z0-9_]+\n*$/ &amp;&amp; print' | sort -u</strong></pre>
<ul>
<li>ABSORB_PATHS_FROM_OUTPUTS_TO_INPUTS</li>
<li>ACCEPTS_NEGATIVE</li>
<li>ACCEPTS_OPEN</li>
<li>ACCEPTS_SHORT</li>
<li>ACCEPTS_TRACK_VCCIO</li>
<li>ACCEPTS_WILDCARDS</li>
<li>ACCEPTS_ZERO</li>
<li>AC_COUPLING</li>
<li>ACEX1K</li>
<li>ACF_ASSIGNMENT_USE_STRING_POOL</li>
<li>ACF_NOTIFY_ACF_MANAGER_ASSIGNMENTS_CHANGED</li>
<li>ACF_STRING_POOL_MASSIVE_DUMP</li>
<li>ACF_VARIABLE_TRAIT_TYPE_MAX_TRAIT_TYPE</li>
<li>ACF_VARIABLE_TYPE_ACF_ACF_LAST_VARIABLE</li>
<li>ACLK_CAT</li>
<li>ACLK_RULE_IMSZER_ADOMAIN</li>
<li>ACLK_RULE_NO_SZER_ACLK_DOMAIN</li>
<li>ACLK_RULE_SZER_BTW_ACLK_DOMAIN</li>
<li>ACTION</li>
<li>ACTIVE_PARALLEL</li>
<li>ACTIVE_SERIAL_CLOCK</li>
<li>ACTIVE_SERIAL</li>
<li>ACTIVE_SERIAL_X1</li>
<li>ACTIVE_SERIAL_X4</li>
<li>ADCE_ENABLED</li>
<li>ADCE_FULL_BW</li>
<li>ADCE_HALF_BW</li>
<li>ADCE_HIGH_BW</li>
<li>ADCE_HIGH_FREQ_MODE</li>
<li>ADCE_LOW_BW</li>
<li>ADCE_LOW_FREQ_MODE</li>
<li>ADCE_MED_HIGH_BW</li>
<li>ADCE_MED_HIGH_MODE</li>
<li>ADCE_MED_LOW_BW</li>
<li>ADCE_MED_LOW_MODE</li>
<li>ADD_DEFAULT_PINS_TO_OUTPUT_VECTOR_FILE</li>
<li>ADD_DEFAULT_PINS_TO_SIMULATION_OUTPUT_WAVEFORMS</li>
<li>ADD_PASS_THROUGH_LOGIC_TO_INFERRED_RAMS</li>
<li>ADD_TO_SIMULATION_OUTPUT_WAVEFORMS</li>
<li>ADVANCED_CLOCK_OPTIMIZATION</li>
<li>ADVANCED</li>
<li>ADVANCED_PHYSICAL_OPTIMIZATION</li>
<li>ADVANCED_PHYSICAL_RETIMING</li>
<li>ADVANCED_PHYSICAL_SYNTHESIS</li>
<li>ADVANCED_PHYSICAL_SYNTHESIS_REGISTER_PACKING</li>
<li>ADVANCED_PRE_PHYSICAL_SYNTHESIS</li>
<li>ADV_NETLIST_OPT_ALLOWED</li>
<li>ADV_NETLIST_OPT_DONT_TOUCH</li>
<li>ADV_NETLIST_OPT_FIT_LE_DUPLICATION</li>
<li>ADV_NETLIST_OPT_FIT_LE_DUPLICATION_WITH_LUT_RESYNTHESIS</li>
<li>ADV_NETLIST_OPT_FIT_LE_RETIME</li>
<li>ADV_NETLIST_OPT_METASTABLE_REGS</li>
<li>ADV_NETLIST_OPT_RETIME_CORE_AND_IO</li>
<li>ADV_NETLIST_OPT_STRING</li>
<li>ADV_NETLIST_OPT_SYNTH_ALLOW_IP_WYS_UNMAPPING</li>
<li>ADV_NETLIST_OPT_SYNTH_GATE_RETIME_1</li>
<li>ADV_NETLIST_OPT_SYNTH_GATE_RETIME_2</li>
<li>ADV_NETLIST_OPT_SYNTH_GATE_RETIME</li>
<li>ADV_NETLIST_OPT_SYNTH_REMAP_1</li>
<li>ADV_NETLIST_OPT_SYNTH_REMAP_2</li>
<li>ADV_NETLIST_OPT_SYNTH_USE_FITTER_INFO</li>
<li>ADV_NETLIST_OPT_SYNTH_WYSIWYG_REMAP</li>
<li>ADV_NETLIST_OPT_TEST</li>
<li>AFTER_INIT_DONE</li>
<li>AGGREGATE</li>
<li>AGGREGATE_REVISION</li>
<li>AGGRESSIVE_AREA</li>
<li>AGGRESSIVE_COMPILE_TIME___INTERNAL</li>
<li>AGGRESSIVE_COMPILE_TIME</li>
<li>AGGRESSIVE</li>
<li>AGGRESSIVE_POWER</li>
<li>AHDL_FILE</li>
<li>AHDL_INCLUDE_FILE</li>
<li>AHDL_LIMIT_INT_TO_32</li>
<li>AHDL_TEXT_DESIGN_OUTPUT_FILE</li>
<li>AHDL_USE_LPM_FOR_OPERATORS</li>
<li>ALIAS</li>
<li>ALL_EDGE</li>
<li>ALL_EXCEPT_COMBINATIONAL_LOGIC_ELEMENT_OUTPUTS</li>
<li>ALL_NODES</li>
<li>ALLOW_ACLR_FOR_SHIFT_REGISTER_RECOGNITION</li>
<li>ALLOW_ANY_RAM_SIZE_FOR_RECOGNITION</li>
<li>ALLOW_ANY_ROM_SIZE_FOR_RECOGNITION</li>
<li>ALLOW_ANY_SHIFT_REGISTER_SIZE_FOR_RECOGNITION</li>
<li>ALLOW_CASCADE_GPLL_TO_LVDS_TX</li>
<li>ALLOW_CHILD_PARTITIONS</li>
<li>ALLOW_DSP_RETIMING</li>
<li>ALLOW_LVTTL_LVCMOS_INPUT_LEVELS_TO_OVERDRIVE_INPUT_BUFFER</li>
<li>ALLOW_MULTIPLE_PERSONAS</li>
<li>ALLOW_PARALLEL_TERMINATION</li>
<li>ALLOW_POWER_UP_DONT_CARE</li>
<li>ALLOW_RAM_RETIMING</li>
<li>ALLOW_REGISTER_DUPLICATION</li>
<li>ALLOW_REGISTER_MERGING</li>
<li>ALLOW_REGISTER_RETIMING</li>
<li>ALLOW_ROUTING_TO_PERIPHERY_THROUGH_GLOBAL_NETWORK</li>
<li>ALLOW_SERIES_TERMINATION</li>
<li>ALLOW_SERIES_WITH_CALIBRATION_TERMINATION</li>
<li>ALLOW_SEU_FAULT_INJECTION</li>
<li>ALLOW_SHIFT_REGISTER_MERGING_ACROSS_HIERARCHIES</li>
<li>ALLOW_SYNCH_CTRL_USAGE</li>
<li>ALLOW_VCCR_VCCT_PER_BANK</li>
<li>ALLOW_VCCR_VCCT_PER_SIX_PACK</li>
<li>ALLOW_XOR_GATE_USAGE</li>
<li>ALL_PATHS</li>
<li>ALL_STAGES_ENABLED</li>
<li>ALM_REGISTER</li>
<li>ALM_REGISTER_PACKING_EFFORT</li>
<li>ALTERA_A10_IOPLL_BOOTSTRAP</li>
<li>ALTERA_INTERNAL_FIB</li>
<li>ALTERA</li>
<li>ALWAYS_ALLOW</li>
<li>ALWAYS_ENABLE_INPUT_BUFFERS</li>
<li>ALWAYS</li>
<li>ALWAYS_REGENERATE_IP</li>
<li>ALWAYS_REGENERATE_IP_SIM</li>
<li>ALWAYS_WRITE_TO_FILE</li>
<li>ANALYZE_LATCHES_AS_SYNCHRONOUS_ELEMENTS</li>
<li>ANALYZE_LATCHES</li>
<li>ANALYZE_METASTABILITY</li>
<li>APEX20KC</li>
<li>APEX20K_CLIQUE_TYPE</li>
<li>APEX20K_CONFIG_DEVICE_JTAG_USER_CODE</li>
<li>APEX20K_CONFIGURATION_DEVICE</li>
<li>APEX20K_CONFIGURATION_SCHEME</li>
<li>APEX20K_DECREASE_INPUT_DELAY_TO_INTERNAL_CELLS</li>
<li>APEX20K_DEVICE_IO_STANDARD</li>
<li>APEX20KE_DEVICE_IO_STANDARD</li>
<li>APEX20KE</li>
<li>APEX20KF_DEVICE_IO_STANDARD</li>
<li>APEX20K_JTAG_USER_CODE</li>
<li>APEX20K</li>
<li>APEX20K_LOCAL_ROUTING_SOURCE</li>
<li>APEX20K_OPTIMIZATION_TECHNIQUE</li>
<li>APEX20K_TECHNOLOGY_MAPPER</li>
<li>APEX_FITTER_TYPE</li>
<li>APEXII_1_8V_HSTL</li>
<li>APEX_II_CONFIGURATION_SCHEME</li>
<li>APEXII_CONFIGURATION_SCHEME</li>
<li>APEXII_DEVICE_IO_STANDARD</li>
<li>AREA</li>
<li>AREF_VOLT_0</li>
<li>AREF_VOLT_0P5</li>
<li>AREF_VOLT_0P75</li>
<li>AREF_VOLT_1P0</li>
<li>ARM_ASM_COMMAND_LINE</li>
<li>ARM_CPP_COMMAND_LINE</li>
<li>ARM_LINK_COMMAND_LINE</li>
<li>ARMSTRONG_CARRY_CHAIN_LENGTH</li>
<li>ARMSTRONG_OPTIMIZATION_TECHNIQUE</li>
<li>ARRIAIIGX_RX_CDR_LOCKUP_FIX_OVERRIDE</li>
<li>AS_BIDIRECTIONAL</li>
<li>ASCII_REPORT_FILE</li>
<li>AS_FREQ_100MHZ</li>
<li>AS_FREQ_108MHZ</li>
<li>AS_FREQ_115MHZ_IOSC</li>
<li>AS_FREQ_125MHZ</li>
<li>AS_FREQ_133MHZ</li>
<li>AS_FREQ_166_6MHZ</li>
<li>AS_FREQ_25MHZ_IOSC</li>
<li>AS_FREQ_25MHZ</li>
<li>AS_FREQ_38MHZ_IOSC</li>
<li>AS_FREQ_50MHZ</li>
<li>AS_FREQ_58MHZ_IOSC</li>
<li>AS_FREQ_71_5MHZ</li>
<li>AS_FREQ_77MHZ_IOSC</li>
<li>AS_FREQ_80MHZ</li>
<li>ASIC_EMULATION_FAST_FLOW</li>
<li>ASIC_PROTOTYPING_ADVANCED</li>
<li>ASIC_PROTOTYPING_FEATURES</li>
<li>ASIC_PROTOTYPING_LATCH_SUPPORT</li>
<li>ASIC_PROTOTYPING</li>
<li>ASIC_PROTOTYPING_READBACK_WRITEBACK</li>
<li>AS_INPUT_TRI_STATED</li>
<li>AS_INPUT_TRI_STATED_WITH_BUS_HOLD</li>
<li>AS_INPUT_TRI_STATED_WITH_WEAK_PULL_UP</li>
<li>ASM_FILE</li>
<li>ASM_OPTIONS_FILE_KEYWORD</li>
<li>AS_OUTPUT_DRIVING_AN_UNSPECIFIED_SIGNAL</li>
<li>AS_OUTPUT_DRIVING_GROUND</li>
<li>AS_OUTPUT_DRIVING_VCC</li>
<li>ASP_ASM_COMMAND_LINE</li>
<li>ASP_CPP_COMMAND_LINE</li>
<li>ASP_LINK_COMMAND_LINE</li>
<li>ASSEMBLER_ASSIGNMENT</li>
<li>ASSG_CAT</li>
<li>ASSG_RULE_MISSING_FMAX</li>
<li>ASSG_RULE_MISSING_TIMING</li>
<li>AS_SIGNALPROBE_OUTPUT</li>
<li>ASSIGNMENT_GROUP_ASSIGNMENT</li>
<li>ASSIGNMENT_GROUP_EXCEPTION</li>
<li>ASSIGNMENT_GROUP</li>
<li>ASSIGNMENT_GROUP_MEMBER</li>
<li>AS_VREFA</li>
<li>AS_VREFB</li>
<li>AS_VREF</li>
<li>ATSH</li>
<li>ATTRACTION_GROUP</li>
<li>ATTRACTION_GROUP_SOFT_REGION</li>
<li>ATUH</li>
<li>ATUSH</li>
<li>ATUSL</li>
<li>AUATI</li>
<li>AUATL</li>
<li>AUATUH</li>
<li>AUATUSH</li>
<li>AUATUS</li>
<li>AUTO_C3_M9K_BIT_SKIP</li>
<li>AUTO_CARRY_CHAINS</li>
<li>AUTO_CARRY</li>
<li>AUTO_CASCADE_CHAINS</li>
<li>AUTO_CASCADE</li>
<li>AUTO_CLOCK_ENABLE_RECOGNITION</li>
<li>AUTO_DELAY_CHAINS_FOR_HIGH_FANOUT_INPUT_PINS</li>
<li>AUTO_DELAY_CHAINS</li>
<li>AUTO_DISCOVER_AND_SORT</li>
<li>AUTO_DISCOVERY</li>
<li>AUTO_DSP_RECOGNITION</li>
<li>AUTO_ENABLE_SMART_COMPILE</li>
<li>AUTO_EXPORT_INCREMENTAL_COMPILATION</li>
<li>AUTO_EXPORT_VER_COMPATIBLE_DB</li>
<li>AUTO_FAST_INPUT_REGISTERS</li>
<li>AUTO_FAST_OUTPUT_ENABLE_REGISTERS</li>
<li>AUTO_FAST_OUTPUT_REGISTERS</li>
<li>AUTO_FIT</li>
<li>AUTO_GLOBAL_CLOCK</li>
<li>AUTO_GLOBAL_CLOCK_MAX</li>
<li>AUTO_GLOBAL_MEM_CTRL</li>
<li>AUTO_GLOBAL_MEMORY_CONTROLS</li>
<li>AUTO_GLOBAL_OE</li>
<li>AUTO_GLOBAL_OE_MAX</li>
<li>AUTO_GLOBAL_REG_CTRL</li>
<li>AUTO_GLOBAL_REG_CTRL_MAX</li>
<li>AUTO_GLOBAL_REGISTER_CONTROLS</li>
<li>AUTO_IMPLEMENT_IN_ROM</li>
<li>AUTO_INCREMENT_CONFIG_DEVICE_JTAG_USER_CODE</li>
<li>AUTO_INCREMENT_EPROM_JTAG_CODE</li>
<li>AUTO_INCREMENT_USER_JTAG_CODE</li>
<li>AUTO_INPUT_REGISTER</li>
<li>AUTO_INPUT_REGISTERS</li>
<li>AUTO_INSERT_SLD_HUB_ENTITY</li>
<li>AUTO_INSERT_SLD_INCR_NODE_ENTITY</li>
<li>AUTO_INSERT_SLD_NODE_ENTITY</li>
<li>AUTO_LCELL_INSERTION</li>
<li>AUTO</li>
<li>AUTOMATICALLY</li>
<li>AUTOMATIC_DANGLING_PORT_TIEOFF</li>
<li>AUTOMATIC</li>
<li>AUTO_MERGE_PLLS</li>
<li>AUTO_MODIFIED_PACKED_REGISTERS</li>
<li>AUTONOMOUS_PCIE_HIP</li>
<li>AUTO_OPEN_DRAIN</li>
<li>AUTO_OPEN_DRAIN_PINS</li>
<li>AUTO_OUTPUT_ENABLE_REGISTER</li>
<li>AUTO_OUTPUT_REGISTER</li>
<li>AUTO_OUTPUT_REGISTERS</li>
<li>AUTO_PACKED_REG_CYCLONE</li>
<li>AUTO_PACKED_REGISTERS_ARMSTRONG</li>
<li>AUTO_PACKED_REGISTERS_CYCLONE</li>
<li>AUTO_PACKED_REGISTERS</li>
<li>AUTO_PACKED_REGISTERS_MAXII</li>
<li>AUTO_PACKED_REGISTERS_MAX</li>
<li>AUTO_PACKED_REGISTERS_STRATIXII</li>
<li>AUTO_PACKED_REGISTERS_STRATIX</li>
<li>AUTO_PACKED_REGISTERS_TSUNAMI</li>
<li>AUTO_PARALLEL_EXPANDERS</li>
<li>AUTO_PARALLEL_SYNTHESIS</li>
<li>AUTO_PERIPH</li>
<li>AUTO_PEXP</li>
<li>AUTO_QIC_EXPORT</li>
<li>AUTO_QXP_PARTITION</li>
<li>AUTO_RAM_BLOCK_BALANCING</li>
<li>AUTO_RAM_RECOGNITION</li>
<li>AUTO_RAM_TO_LCELL_CONVERSION</li>
<li>AUTO_RESERVE_CLKUSR_FOR_CALIBRATION</li>
<li>AUTO_RESOURCE_SHARING</li>
<li>AUTO_RESTART_CONFIGURATION</li>
<li>AUTO_RESTART</li>
<li>AUTO_ROM</li>
<li>AUTO_ROM_RECOGNITION</li>
<li>AUTO_SHIFT_REGISTER_RECOGNITION</li>
<li>AUTO_SLD_HUB_ENTITY</li>
<li>AUTO_TURBO_BIT</li>
<li>AUTO_USE_SIMULATION_PDB_NETLIST</li>
<li>AVAUA</li>
<li>AVAUATA</li>
<li>AVAUATI</li>
<li>AVAUATUH</li>
<li>AVAUATUSH</li>
<li>AVAUI</li>
<li>AVAUL</li>
<li>AVST_CLK_RESERVED</li>
<li>AVST_DATA15_0_RESERVED</li>
<li>AVST_DATA31_16_RESERVED</li>
<li>AVST_VALID_RESERVED</li>
<li>AVST_X16</li>
<li>AVST_X32</li>
<li>AVST_X8</li>
<li>AVUH</li>
<li>AWAVA</li>
<li>AWAVAUA</li>
<li>AWAVAUATA</li>
<li>AWAVAUATI</li>
<li>AWAVAUATL</li>
<li>AWAVAUATUH</li>
<li>AWAVAUATU</li>
<li>AWAVAUATUSH</li>
<li>AWAVAUATUS</li>
<li>AWAVAUI</li>
<li>AWAVAUL</li>
<li>AWAVAUM</li>
<li>AWAVE</li>
<li>AWAVI</li>
<li>AWAVL</li>
<li>AWAVM</li>
<li>BACKUP_BATTERY_RAM</li>
<li>BAK_AUTO_EXPORT</li>
<li>BAK_EXPORT_DIR</li>
<li>BALANCED</li>
<li>BASE_CLOCK</li>
<li>BASED_ON_CLOCK_SETTINGS</li>
<li>BASE</li>
<li>BASEO</li>
<li>BASE_PIN_OUT_FILE_ON_SAMEFRAME_DEVICE</li>
<li>BASE_REVISION</li>
<li>BASE_REVISION_PROJECT_OUTPUT_DIRECTORY</li>
<li>BASIC</li>
<li>BDF_FILE</li>
<li>BEST</li>
<li>BIAS_INT</li>
<li>BIAS_VCMDRV</li>
<li>BIDIRECTIONAL</li>
<li>BINARY_FILE</li>
<li>BLACKBOX</li>
<li>BLOCK_DESIGN_NAMING</li>
<li>BLOCK_RAM_AND_MLAB_EQUIVALENT_PAUSED_READ_CAPABILITIES</li>
<li>BLOCK_RAM_AND_MLAB_EQUIVALENT_POWER_UP_CONDITIONS</li>
<li>BLOCK_RAM_TO_MLAB_CELL_CONVERSION</li>
<li>BOARD</li>
<li>BOARD_MODEL_CUSTOM</li>
<li>BOARD_MODEL_EBD_FAR_END</li>
<li>BOARD_MODEL_EBD_FILE_NAME</li>
<li>BOARD_MODEL_EBD_SIGNAL_NAME</li>
<li>BOARD_MODEL_FAR_C</li>
<li>BOARD_MODEL_FAR_DIFFERENTIAL_R</li>
<li>BOARD_MODEL_FAR_PULLDOWN_R</li>
<li>BOARD_MODEL_FAR_PULLUP_R</li>
<li>BOARD_MODEL_FAR_SERIES_R</li>
<li>BOARD_MODEL_NEAR_C</li>
<li>BOARD_MODEL_NEAR_DIFFERENTIAL_R</li>
<li>BOARD_MODEL_NEAR_PULLDOWN_R</li>
<li>BOARD_MODEL_NEAR_PULLUP_R</li>
<li>BOARD_MODEL_NEAR_SERIES_C</li>
<li>BOARD_MODEL_NEAR_SERIES_R</li>
<li>BOARD_MODEL_NEAR_TLINE_C_PER_LENGTH</li>
<li>BOARD_MODEL_NEAR_TLINE_LENGTH</li>
<li>BOARD_MODEL_NEAR_TLINE_L_PER_LENGTH</li>
<li>BOARD_MODEL_TERMINATION_V</li>
<li>BOARD_MODEL_TLINE_C_PER_LENGTH</li>
<li>BOARD_MODEL_TLINE_LENGTH</li>
<li>BOARD_MODEL_TLINE_L_PER_LENGTH</li>
<li>BOOST_1_STEP</li>
<li>BOOST_2_STEP</li>
<li>BOOST_3_STEP</li>
<li>BOOST_4_STEP</li>
<li>BOOST_5_STEP</li>
<li>BOOST_6_STEP</li>
<li>BOOST_7_STEP</li>
<li>BOOST</li>
<li>BOOT_SEL_PIN</li>
<li>BOTH_EDGES</li>
<li>BREAKPOINT_FILE</li>
<li>BREAKPOINT</li>
<li>BREAKPOINT_LINE_NUMBER</li>
<li>BREAKPOINT_STATE</li>
<li>BSF_FILE</li>
<li>BW_FULL_12P5</li>
<li>BW_HALF_6P5</li>
<li>BYPASS_ERROR_RELEASE_CLEARS_BEFORE_TRISTATES_1S25</li>
<li>BYPASS</li>
<li>BYPASS_OFF</li>
<li>BYPASS_STAGES_234</li>
<li>BYTE_ORDER</li>
<li>BYYPASS_STAGES_234</li>
<li>C0H9</li>
<li>C0M9</li>
<li>C3_M9K_BIT_SKIP</li>
<li>CALIBRATED</li>
<li>CALIBRATED_SSTL</li>
<li>CAL_SIM_ACTIVATOR</li>
<li>CAP_NAME</li>
<li>CARE</li>
<li>CARRY_CHAIN_LENGTH_ARMSTRONG</li>
<li>CARRY_CHAIN_LENGTH_DALI</li>
<li>CARRY_CHAIN_LENGTH_FLEX10K</li>
<li>CARRY_CHAIN_LENGTH_FLEX6K</li>
<li>CARRY_CHAIN_LENGTH</li>
<li>CARRY_CHAIN_LENGTH_TSUNAMI</li>
<li>CARRY_CHAIN_LENGTH_YEAGER</li>
<li>CARRY_OUT_PINS_LCELL_INSERT</li>
<li>CASCADE_CHAIN_LENGTH</li>
<li>CASE_SENSITIVE</li>
<li>CAT_ASSEMBLER</li>
<li>CAT_ASSIGNMENT_GROUP</li>
<li>CAT_DESIGN_ASSISTANT</li>
<li>CAT_FITTER</li>
<li>CAT_INCREMENTAL_COMPILATION</li>
<li>CAT_LOCATION_PIN</li>
<li>CAT_LOGICLOCK</li>
<li>CAT_MAPPER_SYNTHESIS</li>
<li>CAT_NETO</li>
<li>CAT_PARAMETERS</li>
<li>CAT_POWER_ESTIMATION</li>
<li>CAT_PROGRAMMER</li>
<li>CAT_SIGNALPROBE</li>
<li>CAT_SIGNALTAP</li>
<li>CAT_SIMULATION</li>
<li>CAT_SOFTWARE_BUILDER</li>
<li>CAT_TIMEGROUP</li>
<li>CAT_TIMING_ANALYSIS</li>
<li>CAT_TIMING</li>
<li>CB_CLKUSR</li>
<li>CB_INTOSC</li>
<li>CDF_FILE</li>
<li>CDR_BANDWIDTH_PRESET</li>
<li>CEI_11100_LR</li>
<li>CEI_11100_SR</li>
<li>CEI_4976_LR</li>
<li>CEI_4976_SR</li>
<li>CEI_6375_LR</li>
<li>CEI_6375_SR</li>
<li>CEI_9950_LR</li>
<li>CEI_9950_SR</li>
<li>CE_OPTION</li>
<li>C_FILE</li>
<li>CHAIN_FILE</li>
<li>CHECK_AGAINST_TSM_DELAY</li>
<li>CHECK_OUTPUTS</li>
<li>CHIP</li>
<li>CHIP_WIDE_OE</li>
<li>CHIP_WIDE_RESET</li>
<li>CKN_CK_PAIR</li>
<li>CLAMPING_DIODE</li>
<li>CLIQUE</li>
<li>CLIQUE_TYPE_APEX20K</li>
<li>CLIQUE_TYPE_DALI</li>
<li>CLIQUE_TYPE_FLEX10K</li>
<li>CLIQUE_TYPE_FLEX6K</li>
<li>CLIQUE_TYPE</li>
<li>CLIQUE_TYPE_MAX7K</li>
<li>CLK_CAT</li>
<li>CLK_FPLL_VREG_BOOST_1_STEP</li>
<li>CLK_FPLL_VREG_BOOST_2_STEP</li>
<li>CLK_FPLL_VREG_BOOST_3_STEP</li>
<li>CLK_FPLL_VREG_BOOST_4_STEP</li>
<li>CLK_FPLL_VREG_BOOST_5_STEP</li>
<li>CLK_FPLL_VREG_BOOST_6_STEP</li>
<li>CLK_FPLL_VREG_BOOST_7_STEP</li>
<li>CLK_FPLL_VREG_NO_VOLTAGE_BOOST</li>
<li>CLKLOCKX1_INPUT_FREQ</li>
<li>CLK_RULE_ALL</li>
<li>CLK_RULE_CLKNET_CLKSPINES</li>
<li>CLK_RULE_CLKNET_CLKSPINES_THRESHOLD</li>
<li>CLK_RULE_COMB_CLOCK</li>
<li>CLK_RULE_GATED_CLK_FANOUT</li>
<li>CLK_RULE_GATING_SCHEME</li>
<li>CLK_RULE_INPINS_CLKNET</li>
<li>CLK_RULE_INV_CLOCK</li>
<li>CLK_RULE_MIX_EDGES</li>
<li>CLKUSR</li>
<li>CLOCK_ANALYSIS_ONLY</li>
<li>CLOCK_DIVISOR</li>
<li>CLOCK_ENABLE_MULTICYCLE_HOLD</li>
<li>CLOCK_ENABLE_MULTICYCLE</li>
<li>CLOCK_ENABLE_ROUTING</li>
<li>CLOCK_ENABLE_SOURCE_MULTICYCLE_HOLD</li>
<li>CLOCK_ENABLE_SOURCE_MULTICYCLE</li>
<li>CLOCK_FREQUENCY</li>
<li>CLOCK_HOLD_UNCERTAINTY</li>
<li>CLOCK</li>
<li>CLOCK_MAX_ROUTING</li>
<li>CLOCK_REGION</li>
<li>CLOCK_SETTINGS</li>
<li>CLOCK_SETUP_UNCERTAINTY</li>
<li>CLOCK_SOURCE</li>
<li>CLOCK_SPINE</li>
<li>CLOCK_TO_OUTPUT_DELAY</li>
<li>CLOUD_NOTIFY_COMPILE_ID</li>
<li>CLOUD_NOTIFY_ENABLE</li>
<li>CLOUD_NOTIFY_ENABLE_LOGGING</li>
<li>CLOUD_NOTIFY_GROUP_ID</li>
<li>CLOUD_NOTIFY_LOGGING</li>
<li>CLOUD_NOTIFY_PROXY</li>
<li>CLOUD_NOTIFY_SEND_CRIT_WARNINGS</li>
<li>CLOUD_NOTIFY_SEND_ERRORS</li>
<li>CLOUD_NOTIFY_SEND_JSON_REPORTS</li>
<li>CLOUD_NOTIFY_SERVER</li>
<li>CLOUD_NOTIFY_TOKEN</li>
<li>COMMAND_MACRO_FILE</li>
<li>COMMAND_MACRO_MODE</li>
<li>COMPANION_REVISION_NAME</li>
<li>COMPARED_CLOCK</li>
<li>COMPATIBLE_PLACEMENT_AND_ROUTING</li>
<li>COMPATIBLE_PLACEMENT</li>
<li>COMPILATION_LEVEL</li>
<li>COMPILE_NEW_PROJECT</li>
<li>COMPILER_ACTION_POINTS</li>
<li>COMPILER_ASSIGNMENT</li>
<li>COMPILER_CONFIGURED</li>
<li>COMPILER_SETTINGS</li>
<li>COMPILER_SETTINGS_LIST</li>
<li>COMPILER_SIGNATURE_ID</li>
<li>COMPRESSION_MODE</li>
<li>CONBINATION10</li>
<li>CONBINATION11</li>
<li>CONBINATION1</li>
<li>CONBINATION2</li>
<li>CONBINATION3</li>
<li>CONBINATION4</li>
<li>CONBINATION5</li>
<li>CONBINATION6</li>
<li>CONBINATION7</li>
<li>CONBINATION8</li>
<li>CONBINATION9</li>
<li>CONFIG_DEVICE_JTAG_USER_CODE_DALI</li>
<li>CONFIG_DEVICE_JTAG_USER_CODE_FLEX6K</li>
<li>CONFIG_DEVICE_JTAG_USER_CODE</li>
<li>CONFIGURATION_CLOCK_DIVISOR</li>
<li>CONFIGURATION_CLOCK_FREQUENCY</li>
<li>CONFIGURATION_DEVICE_DALI</li>
<li>CONFIGURATION_DEVICE_FLEX6K</li>
<li>CONFIGURATION_DEVICE</li>
<li>CONFIGURATION_PINS</li>
<li>CONFIGURATION_SCHEME_DALI</li>
<li>CONFIGURATION_SCHEME_FLEX6K</li>
<li>CONFIGURATION_SCHEME</li>
<li>CONFIGURATION_VCCIO_LEVEL</li>
<li>CONNECT_BIDIR_PIN_FROM_SLD_INCR_NODE_ENTITY_PORT</li>
<li>CONNECT_BIDIR_PIN_FROM_SLD_NODE_ENTITY_PORT</li>
<li>CONNECT_FROM_SLD_INCR_NODE_ENTITY_PORT</li>
<li>CONNECT_FROM_SLD_NODE_ENTITY_PORT</li>
<li>CONNECT_PIN_FROM_SLD_INCR_NODE_ENTITY_PORT</li>
<li>CONNECT_PIN_FROM_SLD_NODE_ENTITY_PORT</li>
<li>CONNECT_PIN_TO_SLD_INCR_NODE_ENTITY_PORT</li>
<li>CONNECT_PIN_TO_SLD_NODE_ENTITY_PORT</li>
<li>CONNECT_SIGNALPROBE_PIN</li>
<li>CONNECT_TO</li>
<li>CONNECT_TO_SLD_INCR_NODE_ENTITY_PORT</li>
<li>CONNECT_TO_SLD_NODE_ENTITY_PORT</li>
<li>CONTAINS_FAMILY_SPECIFIC_DATA</li>
<li>CONVERT_ALOAD_TO_CLEAR_PRESET</li>
<li>CONVERT_PR_WARNINGS_TO_ERRORS</li>
<li>COPY_IF_NODE_IS_DUPLICATED</li>
<li>COPY_VARIABLE_TYPE_IN_PIN_PLANNER</li>
<li>CORE_INITIALIZATION_AND_UPDATE</li>
<li>CORE_INITIALIZATION</li>
<li>CORE</li>
<li>CORE_ONLY_PLACE_REGION</li>
<li>CORE_UPDATE</li>
<li>COVERAGE_COMPLETE_PANEL_ENABLED</li>
<li>COVERAGE</li>
<li>COVERAGE_MISSING_0_VALUE_PANEL_ENABLED</li>
<li>COVERAGE_MISSING_1_VALUE_PANEL_ENABLED</li>
<li>CPH9</li>
<li>CPP_FILE</li>
<li>CPP_INCLUDE_FILE</li>
<li>CPRI_12500</li>
<li>CPRI_E12HV</li>
<li>CPRI_E12LVIII</li>
<li>CPRI_E12LVII</li>
<li>CPRI_E12LV</li>
<li>CPRI_E24LVIII</li>
<li>CPRI_E24LVII</li>
<li>CPRI_E24LV</li>
<li>CPRI_E30LVIII</li>
<li>CPRI_E30LVII</li>
<li>CPRI_E30LV</li>
<li>CPRI_E48LVIII</li>
<li>CPRI_E48LVII</li>
<li>CPRI_E60LVIII</li>
<li>CPRI_E60LVII</li>
<li>CPRI_E6HV</li>
<li>CPRI_E6LVIII</li>
<li>CPRI_E6LVII</li>
<li>CPRI_E6LV</li>
<li>CPRI_E96LVIII</li>
<li>CPRI_E99LVIII</li>
<li>CPRI</li>
<li>CRC_ERROR_CHECKING</li>
<li>CRC_ERROR_CHECKING_YEAGER</li>
<li>CRC_ERROR_OPEN_DRAIN</li>
<li>CREATED_BY</li>
<li>CREATED_FROM</li>
<li>CREATE_PARTITION_BOUNDARY_PORTS</li>
<li>CREATE_SIGNALPROBE_PIN</li>
<li>CRITICAL_CHAIN_VIEWER</li>
<li>CROSS_BOUNDARY_OPTIMIZATIONS</li>
<li>CURRENT_STRENGTH</li>
<li>CURRENT_STRENGTH_NEW</li>
<li>CUSP_FILE</li>
<li>CUSTOM_BUILD_COMMAND_LINE</li>
<li>CUSTOM_CLOCK_TREE</li>
<li>CUT_OFF_CLEAR_AND_PRESET_PATHS</li>
<li>CUT_OFF_IO_PIN_FEEDBACK</li>
<li>CUT_OFF_PATHS_BETWEEN_CLOCK_DOMAINS</li>
<li>CUT_OFF_READ_DURING_WRITE_PATH</li>
<li>CUT_OFF_READ_DURING_WRITE_PATHS</li>
<li>CVPCIE_CONFDONE_OPEN_DRAIN</li>
<li>CVPCIE_MODE</li>
<li>CVP_CONFDONE_OPEN_DRAIN</li>
<li>CVP_MODE</li>
<li>CVP_REVISION</li>
<li>CVWF</li>
<li>CYCLONE_CONFIGURATION_DEVICE</li>
<li>CYCLONE_CONFIGURATION_SCHEME</li>
<li>CYCLONEII_CONFIGURATION_SCHEME</li>
<li>CYCLONEIII_CONFIGURATION_DEVICE</li>
<li>CYCLONEIII_CONFIGURATION_SCHEME</li>
<li>CYCLONEII_M4K_COMPATIBILITY</li>
<li>CYCLONEII_OPTIMIZATION_TECHNIQUE</li>
<li>CYCLONEII_RESERVE_NCEO_AFTER_CONFIGURATION</li>
<li>CYCLONEII_TERMINATION</li>
<li>CYCLONE_OPTIMIZATION_TECHNIQUE</li>
<li>D1_DELAY</li>
<li>D1_FINE_DELAY</li>
<li>D2_DELAY</li>
<li>D3_DELAY</li>
<li>D4_DELAY</li>
<li>D4_FINE_DELAY</li>
<li>D5_DELAY</li>
<li>D5_FINE_DELAY</li>
<li>D5_OCT_DELAY</li>
<li>D5_OE_DELAY</li>
<li>D6_DELAY</li>
<li>D6_FINE_DELAY</li>
<li>D6_OCT_DELAY</li>
<li>D6_OE_DELAY</li>
<li>D6_OE_FINE_DELAY</li>
<li>DA_CUSTOM_RULE_FILE</li>
<li>DANGEROUS_EXCEPTION_FOR_READ_ONLY_CONTACT_INFRASTRUCTURE_GROUP</li>
<li>DATA0_PIN</li>
<li>DATA0_RESERVED</li>
<li>DATA15_8_RESERVED</li>
<li>DATA1_RESERVED</li>
<li>DATA31_16_RESERVED</li>
<li>DATA7_1_RESERVED</li>
<li>DATA7_2_RESERVED</li>
<li>DATA7_5_RESERVED</li>
<li>DC_COUPLING_EXTERNAL_RESISTOR</li>
<li>DC_COUPLING_EXTERNAL_TERMINATION</li>
<li>DC_COUPLING_INTERNAL_100_OHMS</li>
<li>DC_CURRENT_FOR_ELECTROMIGRATION_CHECK</li>
<li>DCLK</li>
<li>DCLK_PIN</li>
<li>DCLK_RESERVED</li>
<li>DDIO_INPUT_REGISTER</li>
<li>DDIO_OUTPUT_REGISTER_DISTANCE</li>
<li>DDIO_OUTPUT_REGISTER</li>
<li>DEBUG_BOUNDARY</li>
<li>DEBUG_TRACE</li>
<li>DECREASE_INPUT_DELAY_TO_INPUT_REGISTER</li>
<li>DECREASE_INPUT_DELAY_TO_INTERNAL_CELLS</li>
<li>DECREASE_INPUT_DELAY_TO_OUTPUT_REGISTER</li>
<li>DEFAULT_DESIGN_ASSISTANT_SETTINGS</li>
<li>DEFAULT_DEVICE_OPTIONS</li>
<li>DEFAULT_EQUIVALENCE_CHECKER_SETTINGS</li>
<li>DEFAULT_HARDCOPY_SETTINGS</li>
<li>DEFAULT_HOLD_MULTICYCLE</li>
<li>DEFAULT</li>
<li>DEFAULT_LOGIC_OPTIONS</li>
<li>DEFAULT_NETLIST_VIEWER_SETTINGS</li>
<li>DEFAULT_PARAMETERS</li>
<li>DEFAULT_SDC_FILE</li>
<li>DEFAULT_TIMING_REQUIREMENTS</li>
<li>DEFAULT_VALUE</li>
<li>DELAY_MATCH_RELATED_CLOCKS</li>
<li>DELAY_SETTING_FROM_CORE_TO_CE_INPUT_REGISTER</li>
<li>DELAY_SETTING_FROM_CORE_TO_CE_IO_REGISTER</li>
<li>DELAY_SETTING_FROM_CORE_TO_CE_OE_REGISTER</li>
<li>DELAY_SETTING_FROM_CORE_TO_CE_OUTPUT_REGISTER</li>
<li>DELAY_SETTING_FROM_CORE_TO_OUTPUT_REGISTER</li>
<li>DELAY_SETTING_FROM_VIO_TO_CORE</li>
<li>DELAY_SETTING_TO_CORE_APEX20K</li>
<li>DELAY_SETTING_TO_CORE_DALI</li>
<li>DELAY_SETTING_TO_CORE_FLEX10K</li>
<li>DELAY_SETTING_TO_CORE_FLEX6K</li>
<li>DELAY_SETTING_TO_CORE_TO_OUTPUT_REGISTER</li>
<li>DELAY_SETTING_TO_CORE_TSUNAMI</li>
<li>DELAY_SETTING_TO_CORE_YEAGER</li>
<li>DELAY_SETTING_TO_INPUT_REGISTER</li>
<li>DELAY_SETTING_TO_OUTPUT_ENABLE</li>
<li>DELAY_SETTING_TO_OUTPUT</li>
<li>DELAY_SETTING_TO_ZBT</li>
<li>DEPENDENCY_FILE</li>
<li>DESIGN_ASISTANT_INCLUDE_IP_BLOCKS</li>
<li>DESIGN_ASSISTANT_ASSIGNMENT</li>
<li>DESIGN_ASSISTANT_INCLUDE_IP_BLOCKS</li>
<li>DESIGN_ASSISTANT_MAX_VIOLATIONS_PER_RULE</li>
<li>DESIGN_HASH</li>
<li>DESIGN_PARTITION</li>
<li>DEV_FAMILY_ACEX1K</li>
<li>DEV_FAMILY_APEX20KC</li>
<li>DEV_FAMILY_APEX20KE</li>
<li>DEV_FAMILY_APEX20K</li>
<li>DEV_FAMILY_APEXII</li>
<li>DEV_FAMILY_ARMSTRONG</li>
<li>DEV_FAMILY_ARRIAIIGZ</li>
<li>DEV_FAMILY_ARRIAVGZ</li>
<li>DEV_FAMILY_ARRIAV</li>
<li>DEV_FAMILY_ASC</li>
<li>DEV_FAMILY_AURORA</li>
<li>DEV_FAMILY_BEDROCK</li>
<li>DEV_FAMILY_BS</li>
<li>DEV_FAMILY_CUDA</li>
<li>DEV_FAMILY_CYCLONE10GX</li>
<li>DEV_FAMILY_CYCLONE10LP</li>
<li>DEV_FAMILY_CYCLONEII</li>
<li>DEV_FAMILY_CYCLONEIVE</li>
<li>DEV_FAMILY_CYCLONEV</li>
<li>DEV_FAMILY_DALI</li>
<li>DEV_FAMILY_EMBEDDED_PROCESSOR</li>
<li>DEV_FAMILY_EPC1</li>
<li>DEV_FAMILY_EPC2</li>
<li>DEV_FAMILY_EXCALIBUR_ARM</li>
<li>DEV_FAMILY_FALCONMESA_EMULATOR</li>
<li>DEV_FAMILY_FALCONMESA</li>
<li>DEV_FAMILY_FLASH_LOGIC</li>
<li>DEV_FAMILY_FLEX10KA</li>
<li>DEV_FAMILY_FLEX10KB</li>
<li>DEV_FAMILY_FLEX10KE</li>
<li>DEV_FAMILY_FLEX10K</li>
<li>DEV_FAMILY_FLEX6K</li>
<li>DEV_FAMILY_FLEX8000</li>
<li>DEV_FAMILY_FUSION</li>
<li>DEV_FAMILY_HCXIV</li>
<li>DEV_FAMILY_HCX</li>
<li>DEV_FAMILY_INTEL_CFI</li>
<li>DEV_FAMILY_MAX3000A</li>
<li>DEV_FAMILY_MAX7000AE</li>
<li>DEV_FAMILY_MAX7000A</li>
<li>DEV_FAMILY_MAX7000B</li>
<li>DEV_FAMILY_MAX7000S</li>
<li>DEV_FAMILY_MAX9000</li>
<li>DEV_FAMILY_MAXV</li>
<li>DEV_FAMILY_NADDER_EMULATOR</li>
<li>DEV_FAMILY_NADDER</li>
<li>DEV_FAMILY_NIGHTFURY</li>
<li>DEV_FAMILY_PGM_DUMMY_FAMILY</li>
<li>DEV_FAMILY_PGM_EOL_FAMILY</li>
<li>DEV_FAMILY_PIRANHA</li>
<li>DEV_FAMILY_SOC_HPS</li>
<li>DEV_FAMILY_STINGRAY</li>
<li>DEV_FAMILY_STRATIXHC</li>
<li>DEV_FAMILY_STRATIXIIGX</li>
<li>DEV_FAMILY_STRATIXIIGXLITE</li>
<li>DEV_FAMILY_STRATIXV</li>
<li>DEV_FAMILY_SYN</li>
<li>DEV_FAMILY_TARPON</li>
<li>DEV_FAMILY_TGX</li>
<li>DEV_FAMILY_TITAN</li>
<li>DEV_FAMILY_TORNADO</li>
<li>DEV_FAMILY_TSUNAMI</li>
<li>DEV_FAMILY_VERMEER</li>
<li>DEV_FAMILY_VIRTUAL_JTAG_TAP</li>
<li>DEV_FAMILY_YEAGER</li>
<li>DEV_FAMILY_ZIPPLEBACK</li>
<li>DEVICE_FILTER_PACKAGE</li>
<li>DEVICE_FILTER_PIN_COUNT</li>
<li>DEVICE_FILTER_SPEED_GRADE</li>
<li>DEVICE_FILTER_VOLTAGE</li>
<li>DEVICE_INITIALIZATION_CLOCK</li>
<li>DEVICE_IO_STANDARD_APEX20KE</li>
<li>DEVICE_IO_STANDARD_APEX20KF</li>
<li>DEVICE_IO_STANDARD_APEX20K</li>
<li>DEVICE_IO_STANDARD_DALI</li>
<li>DEVICE_IO_STANDARD_FLEX10K</li>
<li>DEVICE_IO_STANDARD_FLEX6K</li>
<li>DEVICE_IO_STANDARD</li>
<li>DEVICE_IO_STANDARD_MAX7000</li>
<li>DEVICE_IO_STANDARD_YEAGER</li>
<li>DEVICE</li>
<li>DEVICE_MIGRATION_LIST</li>
<li>DEVICE_TECHNOLOGY_MIGRATION_LIST</li>
<li>DEV_PART_GENERIC</li>
<li>DEV_PART_INVALID</li>
<li>DEV_PART_MAX</li>
<li>DFE_PI_BW_0P5GHZ</li>
<li>DFE_PI_BW_10GHZ</li>
<li>DFE_PI_BW_2P5GHZ</li>
<li>DFE_PI_BW_5GHZ</li>
<li>DIFFERENTIAL</li>
<li>DIRECT_FORMAT</li>
<li>DIRECT</li>
<li>DISABLE_CONF_DONE_AND_NSTATUS_ON_EPROM</li>
<li>DISABLE_CONF_DONE_AND_NSTATUS_PULLUPS_ON_CONFIG_DEVICE</li>
<li>DISABLE_CORE_CLK</li>
<li>DISABLE_DA_GX_RULE</li>
<li>DISABLE_DA_RULE</li>
<li>DISABLED</li>
<li>DISABLE_DSP_NEGATE_INFERENCING</li>
<li>DISABLE_EMBEDDED_TIMING_CONSTRAINT</li>
<li>DISABLE</li>
<li>DISABLE_MLAB_RAM_USE</li>
<li>DISABLE_NCS_AND_OE_PULLUPS_ON_CONFIG_DEVICE</li>
<li>DISABLE_OCP_HW_EVAL</li>
<li>DISABLE_PLL_COMPENSATION_DELAY_CHANGE_WARNING</li>
<li>DISABLE_REGION_HIERARCHY</li>
<li>DISABLE_REGISTER_MERGING_ACROSS_HIERARCHIES</li>
<li>DISABLE_REGISTER_POWERUP_INITIALIZATION</li>
<li>DISABLE_TRI</li>
<li>DISALLOW_GLOBAL_ASSIGNMENT_IN_QIP</li>
<li>DIV2</li>
<li>DIV4</li>
<li>DIVIDE_BASE_CLOCK_BY</li>
<li>DIVIDE_BASE_CLOCK_PERIOD_BY</li>
<li>DM_PIN</li>
<li>DO_COMBINED_ANALYSIS</li>
<li>DO_MIN_ANALYSIS</li>
<li>DO_MINMAX_ANALYSIS_USING_RISEFALL_DELAYS</li>
<li>DO_MIN_TIMING</li>
<li>DONE</li>
<li>DONT_AUTODISCOVER_CPP_FILES</li>
<li>DONT_CARE</li>
<li>DONT_CONVERT_TO_USER_FRIENDLY_STRING</li>
<li>DONT_COPY_TO_CREATED_COMPANION_REVISION</li>
<li>DONT_COPY_TO_NEW_FILE_FORMAT</li>
<li>DONT_COPY_TO_NEW_REVISION</li>
<li>DONT_MERGE_REGISTER</li>
<li>DONT_REUSE_REMOVED_ASSIGNMENT</li>
<li>DONT_TOUCH_USER_CELL</li>
<li>DO_POST_BUILD_COMMAND_LINE</li>
<li>DO_SYSTEM_FMAX</li>
<li>DOWN</li>
<li>DP_1620</li>
<li>DP_2700</li>
<li>DP_5400</li>
<li>DPRAM_32BIT_SINGLE_PORT_MODE_INPUT_EPXA1</li>
<li>DPRAM_32BIT_SINGLE_PORT_MODE_OTHER_SIGNALS_EPXA1</li>
<li>DPRAM_32BIT_SINGLE_PORT_MODE_OUTPUT_EPXA1</li>
<li>DPRAM_8BIT_16BIT_SINGLE_PORT_MODE_INPUT_EPXA1</li>
<li>DPRAM_8BIT_16BIT_SINGLE_PORT_MODE_OTHER_SIGNALS_EPXA1</li>
<li>DPRAM_8BIT_16BIT_SINGLE_PORT_MODE_OUTPUT_EPXA1</li>
<li>DPRAM_DEEP_MODE_INPUT_EPXA4_10</li>
<li>DPRAM_DEEP_MODE_OTHER_SIGNALS_EPXA4_10</li>
<li>DPRAM_DEEP_MODE_OUTPUT_EPXA4_10</li>
<li>DPRAM_DUAL_PORT_MODE_INPUT_EPXA1</li>
<li>DPRAM_DUAL_PORT_MODE_INPUT_EPXA4_10</li>
<li>DPRAM_DUAL_PORT_MODE_OTHER_SIGNALS_EPXA1</li>
<li>DPRAM_DUAL_PORT_MODE_OTHER_SIGNALS_EPXA4_10</li>
<li>DPRAM_DUAL_PORT_MODE_OUTPUT_EPXA1</li>
<li>DPRAM_DUAL_PORT_MODE_OUTPUT_EPXA4_10</li>
<li>DPRAM_INPUT_EPXA4_10</li>
<li>DPRAM_OTHER_SIGNALS_EPXA4_10</li>
<li>DPRAM_OUTPUT_EPXA4_10</li>
<li>DPRAM_SINGLE_PORT_MODE_INPUT_EPXA4_10</li>
<li>DPRAM_SINGLE_PORT_MODE_OTHER_SIGNALS_EPXA4_10</li>
<li>DPRAM_SINGLE_PORT_MODE_OUTPUT_EPXA4_10</li>
<li>DPRAM_WIDE_MODE_INPUT_EPXA4_10</li>
<li>DPRAM_WIDE_MODE_OTHER_SIGNALS_EPXA4_10</li>
<li>DPRAM_WIDE_MODE_OUTPUT_EPXA4_10</li>
<li>DPRIO_CHANNEL_NUM</li>
<li>DPRIO_CRUCLK_NUM</li>
<li>DPRIO_INTERFACE_REG</li>
<li>DPRIO_NORMAL_STATUS</li>
<li>DPRIO_QUAD_NUM</li>
<li>DPRIO_QUAD_PLL_NUM</li>
<li>DPRIO_TX_PLL0_REFCLK_NUM</li>
<li>DPRIO_TX_PLL1_REFCLK_NUM</li>
<li>DPRIO_TX_PLL_NUM</li>
<li>DQ_GROUP</li>
<li>DQ_PIN</li>
<li>DQSB_DQS_PAIR</li>
<li>DQS_DELAY</li>
<li>DQS_ENABLE_DELAY_CHAIN</li>
<li>DQS_FREQUENCY</li>
<li>DQS_LOCAL_CLOCK_DELAY_CHAIN</li>
<li>DQSOUT_DELAY_CHAIN</li>
<li>DQS_SHIFT</li>
<li>DQS_SYSTEM_CLOCK</li>
<li>DRC_DEADLOCK_STATE_LIMIT</li>
<li>DRC_DETAIL_MESSAGE_LIMIT</li>
<li>DRC_FANOUT_EXCEEDING</li>
<li>DRC_GATED_CLOCK_FEED</li>
<li>DRC_MAX_TOP_FANOUT</li>
<li>DRC_REPORT_FANOUT_EXCEEDING</li>
<li>DRC_REPORT_MAX_TOP_FANOUT</li>
<li>DRC_REPORT_TOP_FANOUT</li>
<li>DRC_TOP_FANOUT</li>
<li>DRC_VIOLATION_MESSAGE_LIMIT</li>
<li>DSE_SEND_REPORT_PANEL</li>
<li>DSE_SERVER_SEND_REPORTS</li>
<li>DSE_SERVER_URL</li>
<li>DSE_SYNTH_EXTRA_EFFORT_MODE</li>
<li>DSE_WORKER_ID</li>
<li>DSM_DFT_OUT</li>
<li>DSM_LSB_OUT</li>
<li>DSM_MSB_OUT</li>
<li>DSP_BLOCK_BALANCING_IMPLEMENTATION</li>
<li>DSP_BLOCK_BALANCING</li>
<li>DSP_BLOCKS</li>
<li>DSPBUILDER_FILE</li>
<li>DSP_REGISTER_PACKING</li>
<li>DUAL_FAST_REGIONAL_CLOCK</li>
<li>DUAL_IMAGES</li>
<li>DUAL_PURPOSE_CLOCK_PIN_DELAY</li>
<li>DUAL_REGIONAL_CLOCK</li>
<li>DUPLICATE_ATOM</li>
<li>DUPLICATE_HIERARCHY_DEPTH</li>
<li>DUPLICATE_LOGIC_EXTRACTION</li>
<li>DUPLICATE_REGISTER_EXTRACTION</li>
<li>DUPLICATE_REGISTER</li>
<li>DUP_LOGIC_EXTRACTION</li>
<li>DUP_REG_EXTRACTION</li>
<li>DUTY_CYCLE</li>
<li>DYNAMIC_ATOM_CONNECTION</li>
<li>DYNAMIC_CTL</li>
<li>DYNAMIC_OCT_CONTROL_GROUP</li>
<li>EARLY_CLOCK_LATENCY</li>
<li>ECO_ALLOW_ROUTING_CHANGES</li>
<li>ECO_OPTIMIZE_TIMING</li>
<li>ECO_REGENERATE_REPORT</li>
<li>ECO_TIMING_DRIVEN_COMPILE</li>
<li>EDA_BOARD_BOUNDARY_SCAN_OPERATION</li>
<li>EDA_BOARD_DESIGN_BOUNDARY_SCAN_TOOL</li>
<li>EDA_BOARD_DESIGN_SIGNAL_INTEGRITY_TOOL</li>
<li>EDA_BOARD_DESIGN_SYMBOL_TOOL</li>
<li>EDA_BOARD_DESIGN_TIMING_TOOL</li>
<li>EDA_BOARD_DESIGN_TOOL</li>
<li>EDA_COPY_TO_SNAPSHOT</li>
<li>EDA_DATA_FORMAT</li>
<li>EDA_DESIGN_ENTRY_SYNTHESIS_TOOL</li>
<li>EDA_DESIGN_EXTRA_ALTERA_SIM_LIB</li>
<li>EDA_DESIGN_INSTANCE_NAME</li>
<li>EDA_ENABLE_GLITCH_FILTERING</li>
<li>EDA_ENABLE_IPUTF_MODE</li>
<li>EDA_ENABLE_OCV_TIMING_ANALYSIS</li>
<li>EDA_EXCALIBUR_ATOMS_AS_SINGLE_STRIPE</li>
<li>EDA_EXCALIBUR_SINGLE_SLICE</li>
<li>EDA_EXTRA_ELAB_OPTION</li>
<li>EDA_FLATTEN_BUSES</li>
<li>EDA_FORMAL_VERIFICATION_ALLOW_RETIMING</li>
<li>EDA_FORMAL_VERIFICATION_TOOL</li>
<li>EDA_FV_HIERARCHY</li>
<li>EDA_GENERATE_FUNCTIONAL_NETLIST</li>
<li>EDA_GENERATE_GATE_LEVEL_SIMULATION_COMMAND_SCRIPT</li>
<li>EDA_GENERATE_POWER_INPUT_FILE</li>
<li>EDA_GENERATE_RTL_SIMULATION_COMMAND_SCRIPT</li>
<li>EDA_GENERATE_SDF_FOR_POWER</li>
<li>EDA_GENERATE_SDF_OUTPUT_FILE</li>
<li>EDA_GENERATE_TIMING_CLOSURE_DATA</li>
<li>EDA_IBIS_EXTENDED_MODEL_SELECTOR</li>
<li>EDA_IBIS_MODEL_SELECTOR</li>
<li>EDA_IBIS_MUTUAL_COUPLING</li>
<li>EDA_IBIS_SPECIFICATION_VERSION</li>
<li>EDA_INCLUDE_VHDL_CONFIGURATION_DECLARATION</li>
<li>EDA_INPUT_DATA_FORMAT</li>
<li>EDA_INPUT_GND</li>
<li>EDA_INPUT_GND_NAME</li>
<li>EDA_INPUT_VCC</li>
<li>EDA_INPUT_VCC_NAME</li>
<li>EDA_IPFS_FILE</li>
<li>EDA_LAUNCH_CMD_LINE_TOOL</li>
<li>EDA_LAUNCH_TOOL</li>
<li>EDA_LMF_FILE</li>
<li>EDA_MAINTAIN_DESIGN_HIERARCHY</li>
<li>EDA_MAP_ILLEGAL_CHARACTERS</li>
<li>EDA_MAP_ILLEGAL</li>
<li>EDA_NATIVELINK_GENERATE_SCRIPT_ONLY</li>
<li>EDA_NATIVELINK_PORTABLE_FILE_PATHS</li>
<li>EDA_NATIVELINK_SIMULATION_SETUP_SCRIPT</li>
<li>EDA_NATIVELINK_SIMULATION_TEST_BENCH</li>
<li>EDA_NETLIST_TYPE</li>
<li>EDA_NETLIST_WRITER_OUTPUT_DIR</li>
<li>EDA_OCV_CORE_DERATING_FACTOR</li>
<li>EDA_OCV_IO_DERATING_FACTOR</li>
<li>EDA_OUTPUT_DATA_FORMAT</li>
<li>EDA_RESYNTHESIS_TOOL</li>
<li>EDA_RTL_SIM_MODE</li>
<li>EDA_RTL_SIMULATION_RUN_SCRIPT</li>
<li>EDA_RTL_TEST_BENCH_FILE_NAME</li>
<li>EDA_RTL_TEST_BENCH_NAME</li>
<li>EDA_RTL_TEST_BENCH_RUN_FOR</li>
<li>EDA_RUN_TOOL_AUTOMATICALLY</li>
<li>EDA_SDC_FILE_NAME</li>
<li>EDA_SETUP_HOLD_DETECTION_INPUT_REGISTERS_BIDIR_PINS_DISABLED</li>
<li>EDA_SHOW_LMF_MAPPING_MESSAGES</li>
<li>EDA_SHOW_LMF_MAPPING_MSGS</li>
<li>EDA_SIMULATION_RUN_SCRIPT</li>
<li>EDA_SIMULATION_TOOL</li>
<li>EDA_SIMULATION_VCD_OUTPUT_SIGNALS_TO_TCL_FILE</li>
<li>EDA_SIMULATION_VCD_OUTPUT_TCL_FILE</li>
<li>EDA_SIMULATION_VCD_OUTPUT_TCL_FILE_NAME</li>
<li>EDA_TEST_BENCH_DESIGN_INSTANCE_NAME</li>
<li>EDA_TEST_BENCH_ENABLE_STATUS</li>
<li>EDA_TEST_BENCH_ENTITY_MODULE_NAME</li>
<li>EDA_TEST_BENCH_EXTRA_ALTERA_SIM_LIB</li>
<li>EDA_TEST_BENCH_FILE</li>
<li>EDA_TEST_BENCH_FILE_NAME</li>
<li>EDA_TEST_BENCH_GATE_LEVEL_NETLIST_LIBRARY</li>
<li>EDA_TEST_BENCH_MODULE_NAME</li>
<li>EDA_TEST_BENCH_NAME</li>
<li>EDA_TEST_BENCH_RUN_FOR</li>
<li>EDA_TEST_BENCH_RUN_SIM_FOR</li>
<li>EDA_TEST_BENCH_SETTINGS</li>
<li>EDA_TIME_SCALE</li>
<li>EDA_TIMESCALE</li>
<li>EDA_TIMING_ANALYSIS_TOOL</li>
<li>EDA_TOOL_SETTINGS</li>
<li>EDA_TRUNCATE_HPATH</li>
<li>EDA_TRUNCATE_LONG_HIERARCHY_PATHS</li>
<li>EDA_USE_IBIS_RLC_TYPE</li>
<li>EDA_USE_LMF</li>
<li>EDA_USER_COMPILED_SIMULATION_LIBRARY_DIRECTORY</li>
<li>EDA_USE_RISE_FALL_DELAYS</li>
<li>EDA_VHDL_ARCH_NAME</li>
<li>EDA_VHDL_LIBRARY</li>
<li>EDA_WAIT_FOR_GUI_TOOL_COMPLETION</li>
<li>EDA_WRITE_CONFIG</li>
<li>EDA_WRITE_DEVICE_CONTROL_PORTS</li>
<li>EDA_WRITE_NODES_FOR_POWER_ESTIMATION</li>
<li>EDA_WRITER_DONT_WRITE_TOP_ENTITY</li>
<li>EDIF_FILE</li>
<li>ELA_FILE</li>
<li>ELEMENT_INDEX</li>
<li>ELF_FILE</li>
<li>EMBEDDED_PROCESSOR</li>
<li>EMIF_SOC_PHYCLK_ADVANCE_MODELING</li>
<li>EMPTY</li>
<li>EMPTY_PLACE_REGION</li>
<li>EMU_REPLICATE_SIGNAL_PER_SECTOR</li>
<li>ENABLE_ACCELERATED_INCREMENTAL_COMPILE</li>
<li>ENABLE_ADVANCED_IO_DELAY_CHAIN_OPTIMIZATION</li>
<li>ENABLE_ADV_SEU_DETECTION</li>
<li>ENABLE_ALT2GXB_CONFIGURATION</li>
<li>ENABLE_APEX_FITTER_CHOICE</li>
<li>ENABLE_ASMI_FOR_FLASH_LOADER</li>
<li>ENABLE_ASM_OPTIONS_FILE</li>
<li>ENABLE_ATTEMPT_SIMILAR_PLACEMENT</li>
<li>ENABLE_AUTONOMOUS_PCIE_HIP</li>
<li>ENABLE_BENEFICIAL_SKEW_OPTIMIZATION_FOR_NON_GLOBAL_CLOCKS</li>
<li>ENABLE_BENEFICIAL_SKEW_OPTIMIZATION</li>
<li>ENABLE_BOOT_SEL_PIN</li>
<li>ENABLE_BUS_HOLD_CIRCUITRY</li>
<li>ENABLE_BUS_HOLD</li>
<li>ENABLE_CHIP_WIDE_OE</li>
<li>ENABLE_CHIP_WIDE_RESET</li>
<li>ENABLE_CLOCK_LATENCY</li>
<li>ENABLE_COMPACT_REPORT_TABLE</li>
<li>ENABLE_CONFIGURATION_PINS</li>
<li>ENABLE_CORE_CLK</li>
<li>ENABLE_CRC_ERROR_PIN</li>
<li>ENABLE_CVPCIE_CONFDONE</li>
<li>ENABLE_CVP_CONFDONE</li>
<li>ENABLE_DA_RULE</li>
<li>ENABLE_DEVICE_WIDE_OE</li>
<li>ENABLE_DEVICE_WIDE_RESET</li>
<li>ENABLE_DISABLED_STRATIX_LVDS_MODES</li>
<li>ENABLED</li>
<li>ENABLE_DRC</li>
<li>ENABLE_DRC_SETTINGS</li>
<li>ENABLE_ED_CRC_CHECK</li>
<li>ENABLE_EXTRA_DQ_DELAY</li>
<li>ENABLE_FALLBACK_TO_EXTERNAL_FLASH</li>
<li>ENABLE_FORMAL_VERIFICATION</li>
<li>ENABLE_HOLD_BACK_OFF</li>
<li>ENABLE_HOLD_MULTICYCLE</li>
<li>ENABLE_HPS_INTERNAL_TIMING</li>
<li>ENABLE_INCREMENTAL_DESIGN</li>
<li>ENABLE_INCREMENTAL_REUSE</li>
<li>ENABLE_INCREMENTAL_SYNTHESIS</li>
<li>ENABLE_INIT_DONE_OUTPUT</li>
<li>ENABLE_INTERMEDIATE_SNAPSHOTS</li>
<li>ENABLE_IP_DEBUG</li>
<li>ENABLE_JTAG_BST_SUPPORT</li>
<li>ENABLE_JTAG_PIN_SHARING</li>
<li>ENABLE_LAB_SHARING_WITH_PARENT_PARTITION</li>
<li>ENABLE</li>
<li>ENABLE_LLIS</li>
<li>ENABLE_LOGIC_ANALYZER_INTERFACE</li>
<li>ENABLE_LOW_VOLTAGE_MODE_ON_CONFIG_DEVICE</li>
<li>ENABLE_LOW_VOLT_MODE_FLEX10K</li>
<li>ENABLE_LOW_VOLT_MODE_FLEX6K</li>
<li>ENABLE_LOW_VOLT_MODE</li>
<li>ENABLE_M512</li>
<li>ENABLE_MERCURY_CDR</li>
<li>ENABLE_MIXED_PORT_RDW_OLD_DATA_FOR_RAM_WITH_TWO_CLOCKS</li>
<li>ENABLE_MULTICYCLE_HOLD</li>
<li>ENABLE_MULTICYCLE</li>
<li>ENABLE_MULTITAP</li>
<li>ENABLE_NCEO_OUTPUT</li>
<li>ENABLE_NCE_PIN</li>
<li>ENABLE_NCONFIG_FROM_CORE</li>
<li>ENABLE_NO_HIPI_INITIALIZATION_FLOW</li>
<li>ENABLE_OCT_DONE</li>
<li>ENABLE_OCTDONE</li>
<li>ENABLE_PHYSICAL_DSP_MERGING</li>
<li>ENABLE_PR_PINS</li>
<li>ENABLE_PR_POF_ID</li>
<li>ENABLE_RAPID_RECOMPILE</li>
<li>ENABLE_RECOVERY_REMOVAL_ANALYSIS</li>
<li>ENABLE_REDUCED_MEMORY_MODE</li>
<li>ENABLE_SIGNALTAP</li>
<li>ENABLE_SMART_VOLTAGE_ID</li>
<li>ENABLE_SOURCE_MULTICYCLE_HOLD</li>
<li>ENABLE_SOURCE_MULTICYCLE</li>
<li>ENABLE_SPI_MODE_CHECK</li>
<li>ENABLE_SRC_HOLD_MULTICYCLE</li>
<li>ENABLE_SRC_MULTICYCLE</li>
<li>ENABLE_STATE_MACHINE_INFERENCE</li>
<li>ENABLE_STRATIX_II_DPA_DEBUG</li>
<li>ENABLE_STRATIXII_DPA_DEBUG</li>
<li>ENABLE_STRATIX_II_LVDS_LOOPBACK</li>
<li>ENABLE_STRATIXII_LVDS_LOOPBACK</li>
<li>ENABLE_STRICT_PRESERVATION</li>
<li>ENABLE_SYNCH_INPUT_REGISTER_1S25</li>
<li>ENABLE_TRI</li>
<li>ENABLE_UNUSED_RX_CLOCK_WORKAROUND</li>
<li>ENABLE_VREFA_PIN</li>
<li>ENABLE_VREFB_PIN</li>
<li>ENCRYPTED_LUTMASK</li>
<li>ENCRYPT_PROGRAMMING_BITSTREAM</li>
<li>END_TIME</li>
<li>ENFORCE_CONFIGURATION_VCCIO</li>
<li>EN_SPI_IO_WEAK_PULLUP</li>
<li>ENTITY_REBINDING</li>
<li>EN_USER_IO_WEAK_PULLUP</li>
<li>EPC1</li>
<li>EPC2</li>
<li>EPROM_JTAG_CODE_APEX20K</li>
<li>EPROM_JTAG_CODE_DALI</li>
<li>EPROM_JTAG_CODE_FLEX10K</li>
<li>EPROM_JTAG_CODE_FLEX6K</li>
<li>EPROM_JTAG_CODE</li>
<li>EPROM_JTAG_CODE_YEAGER</li>
<li>EPROM_USE_CHECKSUM_AS_USERCODE</li>
<li>EQ_BW_1</li>
<li>EQ_BW_2</li>
<li>EQ_BW_3</li>
<li>EQ_BW_4</li>
<li>EQC_AUTO_BREAK_CONE</li>
<li>EQC_AUTO_COMP_LOOP_CUT</li>
<li>EQC_AUTO_INVERSION</li>
<li>EQC_AUTO_PORTSWAP</li>
<li>EQC_AUTO_TERMINATE</li>
<li>EQC_BBOX_MERGE</li>
<li>EQC_CONSTANT_DFF_DETECTION</li>
<li>EQC_DETECT_DONT_CARES</li>
<li>EQC_DFF_SS_EMULATION</li>
<li>EQC_DUPLICATE_DFF_DETECTION</li>
<li>EQC_ENUM_AUTO_BREAK_CONE</li>
<li>EQC_ENUM_AUTO_COMP_LOOP_CUT</li>
<li>EQC_ENUM_AUTO_INVERSION</li>
<li>EQC_ENUM_AUTO_PORTSWAP</li>
<li>EQC_ENUM_AUTO_TERMINATE</li>
<li>EQC_ENUM_BBOX_MERGE</li>
<li>EQC_ENUM_CONSTANT_DFF_DETECTION</li>
<li>EQC_ENUM_DETECT_DONT_CARES</li>
<li>EQC_ENUM_DFF_SS_EMULATION</li>
<li>EQC_ENUM_DUPLICATE_DFF_DETECTION</li>
<li>EQC_ENUM_IO_BUFFER_CONVERSION</li>
<li>EQC_ENUM_LVDS_MERGE</li>
<li>EQC_ENUM_MAC_REGISTER_UNPACK</li>
<li>EQC_ENUM_MANUAL_MAP_LIST</li>
<li>EQC_ENUM_MAX_BDD_NODES</li>
<li>EQC_ENUM_PARAMETER_CHECK</li>
<li>EQC_ENUM_POWER_UP_COMPARE</li>
<li>EQC_ENUM_RAM_REGISTER_UNPACK</li>
<li>EQC_ENUM_RAM_UNMERGING</li>
<li>EQC_ENUM_RENAMING_RULES</li>
<li>EQC_ENUM_RENAMING_RULES_LIST</li>
<li>EQC_ENUM_SET_PARTITION_BB_TO_VCC_GND</li>
<li>EQC_ENUM_SHOW_ALL_MAPPED_POINTS</li>
<li>EQC_ENUM_STRUCTURE_MATCHING</li>
<li>EQC_ENUM_SUB_CONE_REPORT</li>
<li>EQC_LVDS_MERGE</li>
<li>EQC_MAC_REGISTER_UNPACK</li>
<li>EQC_PARAMETER_CHECK</li>
<li>EQC_POWER_UP_COMPARE</li>
<li>EQC_RAM_REGISTER_UNPACK</li>
<li>EQC_RAM_UNMERGING</li>
<li>EQC_RENAMING_RULES</li>
<li>EQC_RENAMING_RULES_LIST</li>
<li>EQC_SET_PARTITION_BB_TO_VCC_GND</li>
<li>EQC_SHOW_ALL_MAPPED_POINTS</li>
<li>EQC_STRUCTURE_MATCHING</li>
<li>EQC_SUB_CONE_REPORT</li>
<li>EQUATION_FILE</li>
<li>EQUIVALENCE_CHECKER_ASSIGNMENT</li>
<li>EQZP_DIS_PEAKING</li>
<li>EQZP_EN_PEAKING</li>
<li>ERROR_CHECK_FREQUENCY_DIVISOR</li>
<li>ESTIMATE_POWER_CONSUMPTION</li>
<li>EXCALIBUR_ARM</li>
<li>EXCALIBUR_CONFIGURATION_DEVICE</li>
<li>EXCALIBUR_CONFIGURATION_SCHEME</li>
<li>EXC_BUSTRANS_SIM_FILE</li>
<li>EXCLUDE_FMAX_PATHS_GREATER_THAN</li>
<li>EXCLUDE_SLACK_PATHS_GREATER_THAN</li>
<li>EXCLUDE_TCO_PATHS_LESS_THAN</li>
<li>EXCLUDE_TH_PATHS_LESS_THAN</li>
<li>EXCLUDE_TPD_PATHS_LESS_THAN</li>
<li>EXCLUDE_TSU_PATHS_LESS_THAN</li>
<li>EXCLUSIVE_IO_GROUP</li>
<li>EXI9</li>
<li>EXPANDED</li>
<li>EXPORT_BLOCK_NAME_OBFUSCATION</li>
<li>EXPORT_PARTITION_SNAPSHOT_FINAL</li>
<li>EXPORT_PARTITION_SNAPSHOT_SYNTHESIZED</li>
<li>EXTENDS_TOP_BLOCK</li>
<li>EXTERNAL_FEEDBACK</li>
<li>EXTERNAL_FLASH_FALLBACK_ADDRESS</li>
<li>EXTERNAL_INPUT_DELAY</li>
<li>EXTERNAL</li>
<li>EXTERNAL_LVDS_RX_USES_DPA</li>
<li>EXTERNAL_OUTPUT_DELAY</li>
<li>EXTERNAL_PIN_CONNECTION</li>
<li>EXTERNAL_RESISTOR</li>
<li>EXTRACT_AND_OPTIMIZE_BUS_MUXES</li>
<li>EXTRACT_VERILOG_STATE_MACHINES</li>
<li>EXTRACT_VHDL_STATE_MACHINES</li>
<li>EXTRA_EFFORT</li>
<li>EYEQ_BW_1G_TO_2P5G</li>
<li>EYEQ_BW_2P5G_TO_7P5G</li>
<li>EYEQ_BW_GREATER_THAN_7P5G</li>
<li>EYEQ_BW_LESS_THAN_1G</li>
<li>F10K_ACEX1K_PCI_LOW_CAP</li>
<li>FALLBACK_TO_EXTERNAL_FLASH</li>
<li>FALL</li>
<li>FALSE</li>
<li>FAMILY</li>
<li>FANIN_PER_CELL_MAX7000</li>
<li>FAP_NAME</li>
<li>FAR_END</li>
<li>FAR_GLOBAL_CLOCK</li>
<li>FAR_REGIONAL_CLOCK</li>
<li>FAST_FIT_COMPILATION</li>
<li>FAST_FIT</li>
<li>FAST_INPUT_REGISTER</li>
<li>FAST_IO</li>
<li>FAST</li>
<li>FAST_OCT_REGISTER</li>
<li>FAST_OPENCL_COMPILE</li>
<li>FAST_OUTPUT_ENABLE_REGISTER</li>
<li>FAST_OUTPUT_REGISTER</li>
<li>FAST_PASSIVE_PARALLEL</li>
<li>FAST_POR_DELAY</li>
<li>FAST_PRESERVE</li>
<li>FAST_REGIONAL_CLOCK</li>
<li>FASTROW_INTERCONNECT</li>
<li>FAST_VIO</li>
<li>FBCLK_COUNTER_OUT</li>
<li>FFFFFFFF</li>
<li>FFFF</li>
<li>FILES</li>
<li>FILTER_PACKAGE</li>
<li>FILTER_PIN_COUNT</li>
<li>FILTER_SPEED_GRADE</li>
<li>FILTER_VOLTAGE</li>
<li>FINAL_PLACEMENT_OPTIMIZATION</li>
<li>FIR_POST_1T_NEG</li>
<li>FIR_POST_1T_POS</li>
<li>FIR_POST_2T_NEG</li>
<li>FIR_POST_2T_POS</li>
<li>FIR_PRE_1T_NEG</li>
<li>FIR_PRE_1T_POS</li>
<li>FIR_PRE_2T_NEG</li>
<li>FIR_PRE_2T_POS</li>
<li>FIT_ATTEMPTS_TO_SKIP</li>
<li>FIT_FAST_FORWARD</li>
<li>FIT_FINALIZE</li>
<li>FIT_INI_VARS</li>
<li>FIT_ONLY_ONE_ATTEMPT</li>
<li>FIT_PLACE</li>
<li>FIT_PLAN</li>
<li>FIT_ROUTE</li>
<li>FIT_SCRIPT_FILE</li>
<li>FIT_SEED</li>
<li>FIT_SMART_IO</li>
<li>FITTER_ADJUST_HC_SHORT_PATH_GUARDBAND</li>
<li>FITTER_AGGRESSIVE_ROUTABILITY_OPTIMIZATION</li>
<li>FITTER_ASSIGNMENT</li>
<li>FITTER_AUTO_EFFORT_DESIRED_SLACK_MARGIN</li>
<li>FITTER_EARLY_RETIMING</li>
<li>FITTER_EARLY_TIMING_ESTIMATE_MODE</li>
<li>FITTER_EFFORT</li>
<li>FITTER_OPTIMIZED</li>
<li>FITTER_PACK_AGGRESSIVE_ROUTABILITY</li>
<li>FITTER_PLL_SCAN_CHAIN_RECONFIG_FILE</li>
<li>FITTER_RESYNTHESIS</li>
<li>FITTER_TCL_CALLBACK_FILE</li>
<li>FITTER_TYPE</li>
<li>FITTER_WILDARDS</li>
<li>FITTER_WILDCARDS</li>
<li>FIT_WYSIWYG_PIA</li>
<li>FLASH_NCE_RESERVED</li>
<li>FLASH_PROGRAMMING_FILE_NAME</li>
<li>FLEX10KA</li>
<li>FLEX10KB</li>
<li>FLEX10K_CARRY_CHAIN_LENGTH</li>
<li>FLEX10K_CLIQUE_TYPE</li>
<li>FLEX10K_CONFIG_DEVICE_JTAG_USER_CODE</li>
<li>FLEX10K_CONFIGURATION_DEVICE</li>
<li>FLEX10K_CONFIGURATION_SCHEME</li>
<li>FLEX10K_DECREASE_INPUT_DELAY_TO_INTERNAL_CELLS</li>
<li>FLEX10K_DEVICE_IO_STANDARD</li>
<li>FLEX10KE</li>
<li>FLEX10K_ENABLE_LOCK_OUTPUT</li>
<li>FLEX10K_ENABLE_LOW_VOLTAGE_MODE_ON_CONFIG_DEVICE</li>
<li>FLEX10KE_PCI_LOW_CAP_ADJUST</li>
<li>FLEX10K_JTAG_USER_CODE</li>
<li>FLEX10K</li>
<li>FLEX10K_MAX_PERIPHERAL_OE</li>
<li>FLEX10K_OPTIMIZATION_TECHNIQUE</li>
<li>FLEX10K_TECHNOLOGY_MAPPER</li>
<li>FLEX6000</li>
<li>FLEX6K_CARRY_CHAIN_LENGTH</li>
<li>FLEX6K_CLIQUE_TYPE</li>
<li>FLEX6K_CONFIG_DEVICE_JTAG_USER_CODE</li>
<li>FLEX6K_CONFIGURATION_DEVICE</li>
<li>FLEX6K_CONFIGURATION_SCHEME</li>
<li>FLEX6K_DECREASE_INPUT_DELAY_TO_INTERNAL_CELLS</li>
<li>FLEX6K_DEVICE_IO_STANDARD</li>
<li>FLEX6K_ENABLE_LOW_VOLTAGE_MODE_ON_CONFIG_DEVICE</li>
<li>FLEX6K_JTAG_USER_CODE</li>
<li>FLEX6K_LOCAL_ROUTING_DESTINATION</li>
<li>FLEX6K_LOCAL_ROUTING_SOURCE</li>
<li>FLEX6K_OPTIMIZATION_TECHNIQUE</li>
<li>FLEX6K_TECHNOLOGY_MAPPER</li>
<li>FLEX8000</li>
<li>FLEXIBLE_TIMING</li>
<li>FLOATING</li>
<li>FLOATING_REGION</li>
<li>FLOW_DISABLE_ASSEMBLER</li>
<li>FLOW_ENABLE_DESIGN_ASSISTANT</li>
<li>FLOW_ENABLE_EARLY_PLACE</li>
<li>FLOW_ENABLE_HC_COMPARE</li>
<li>FLOW_ENABLE_HCII_COMPARE</li>
<li>FLOW_ENABLE_HYPER_RETIMER_FAST_FORWARD</li>
<li>FLOW_ENABLE_IO_ASSIGNMENT_ANALYSIS</li>
<li>FLOW_ENABLE_PARALLEL_MODULES</li>
<li>FLOW_ENABLE_POWER_ANALYZER</li>
<li>FLOW_ENABLE_RTL_VIEWER</li>
<li>FLOW_ENABLE_TIMEQUEST_AFTER_EARLY_PLACE_STAGE</li>
<li>FLOW_ENABLE_TIMEQUEST_AFTER_PLAN_STAGE</li>
<li>FLOW_ENABLE_TIMING_ANALYZER_AFTER_EARLY_PLACE_STAGE</li>
<li>FLOW_ENABLE_TIMING_ANALYZER_AFTER_PLAN_STAGE</li>
<li>FLOW_ENABLE_TIMING_CONSTRAINT_CHECK</li>
<li>FLOW_HARDCOPY_DESIGN_READINESS_CHECK</li>
<li>FMAX_REQUIREMENT</li>
<li>FOCUS_ENTITY_NAME</li>
<li>FORCE_ALL_TILES_WITH_FAILING_TIMING_PATHS_TO_HIGH_SPEED</li>
<li>FORCE_ALL_USED_TILES_TO_HIGH_SPEED</li>
<li>FORCE_CONFIGURATION_VCCIO</li>
<li>FORCED_IF_ASYNCHRONOUS</li>
<li>FORCED</li>
<li>FORCE_FITTER_TO_AVOID_PERIPHERY_PLACEMENT_WARNINGS</li>
<li>FORCE_FRACTURED_MODE_ALM_IMPLEMENTATION</li>
<li>FORCE_HYPER_REGISTER_FOR_CORE_PERIPHERY_TRANSFER</li>
<li>FORCE_HYPER_REGISTER_FOR_PERIPHERY_CORE_TRANSFER</li>
<li>FORCE_HYPER_REGISTER_FOR_UIB_ESRAM_CORE_REGISTER</li>
<li>FORCE_MERGE_PLL_FANOUTS</li>
<li>FORCE_MERGE_PLL</li>
<li>FORCE_NON_FRACTURED_MODE_ALM_IMPLEMENTATION</li>
<li>FORCE_POINT_TO_POINT</li>
<li>FORCE_RECOMPILE</li>
<li>FORCE_SLACK</li>
<li>FORCE_SSMCLK_TO_ISMCLK</li>
<li>FORCE_SYNCH_CLEAR</li>
<li>FORM_DDR_CLUSTERING_CLIQUE</li>
<li>FPLL</li>
<li>FPLL_VREG1_BOOST_1_STEP</li>
<li>FPLL_VREG1_BOOST_2_STEP</li>
<li>FPLL_VREG1_BOOST_3_STEP</li>
<li>FPLL_VREG1_BOOST_4_STEP</li>
<li>FPLL_VREG1_BOOST_5_STEP</li>
<li>FPLL_VREG1_BOOST_6_STEP</li>
<li>FPLL_VREG1_BOOST_7_STEP</li>
<li>FPLL_VREG1_NO_VOLTAGE_BOOST</li>
<li>FPLL_VREG_BOOST_1_STEP</li>
<li>FPLL_VREG_BOOST_2_STEP</li>
<li>FPLL_VREG_BOOST_3_STEP</li>
<li>FPLL_VREG_BOOST_4_STEP</li>
<li>FPLL_VREG_BOOST_5_STEP</li>
<li>FPLL_VREG_BOOST_6_STEP</li>
<li>FPLL_VREG_BOOST_7_STEP</li>
<li>FPLL_VREG_NO_VOLTAGE_BOOST</li>
<li>FRACTAL_SYNTHESIS</li>
<li>FREQ_100MHZ</li>
<li>FREQ_12_5MHZ</li>
<li>FREQ_20MHZ</li>
<li>FREQ_25MHZ</li>
<li>FREQ_40MHZ</li>
<li>FREQ_50MHZ</li>
<li>FSDA_LEVEL_AUTO</li>
<li>FSDA_LEVEL_C1</li>
<li>FSDA_LEVEL_C2</li>
<li>FSDA_LEVEL_U</li>
<li>FSM_CAT</li>
<li>FSM_RULE_DEADLOCK_STATE</li>
<li>FSM_RULE_NO_RESET_STATE</li>
<li>FSM_RULE_NO_SZER_ACLK_DOMAIN</li>
<li>FSM_RULE_UNREACHABLE_STATE</li>
<li>FSM_RULE_UNUSED_TRANSITION</li>
<li>FSYN_AND_ICP_REGTEST_MODE</li>
<li>FULL_BW</li>
<li>FULL_COMPILATION</li>
<li>FULL_INCREMENTAL_COMPILATION</li>
<li>FULL_INCREMENTAL_DESIGN</li>
<li>FULL</li>
<li>FULL_VPACK</li>
<li>FULL_VPR</li>
<li>FUNCTIONAL</li>
<li>FV_BLACKBOX</li>
<li>GBE_1250</li>
<li>GDF_FILE</li>
<li>GEN3_OFF</li>
<li>GEN3_ON</li>
<li>GEN4_OFF</li>
<li>GEN4_ON</li>
<li>GENERAL_POOL</li>
<li>GENERATE_CONFIG_HEXOUT_FILE</li>
<li>GENERATE_CONFIG_ISC_FILE</li>
<li>GENERATE_CONFIG_JAM_FILE</li>
<li>GENERATE_CONFIG_JBC_FILE_COMPRESSED</li>
<li>GENERATE_CONFIG_JBC_FILE</li>
<li>GENERATE_CONFIG_SVF_FILE</li>
<li>GENERATE_GXB_RECONFIG_MIF</li>
<li>GENERATE_GXB_RECONFIG_MIF_WITH_PLL</li>
<li>GENERATE_HEX_FILE</li>
<li>GENERATE_ISC_FILE</li>
<li>GENERATE_JAM_FILE</li>
<li>GENERATE_JBC_FILE_COMPRESSED</li>
<li>GENERATE_JBC_FILE</li>
<li>GENERATE_PMSF_FILES</li>
<li>GENERATE_PR_RBF_FILE</li>
<li>GENERATE_RBF_FILE</li>
<li>GENERATE_SVF_FILE</li>
<li>GENERATE_TTF_FILE</li>
<li>GENERATION_DIRECTORY</li>
<li>GENERIC_TRAIT</li>
<li>GIGE</li>
<li>GIVE_ERROR</li>
<li>GIVE_INFO</li>
<li>GIVE_WARNING</li>
<li>GLITCH_DETECTION</li>
<li>GLITCH_DETECTION_PULSE</li>
<li>GLITCH_INTERVAL</li>
<li>GLOBAL_CLOCK</li>
<li>GLOBAL</li>
<li>GLOBAL_PLACEMENT_EFFORT</li>
<li>GLOBAL_SIGNAL_CLKCTRL_LOCATION</li>
<li>GLOBAL_SIGNAL</li>
<li>GLOBAL_SKEW_BALANCED</li>
<li>GNDIO_CURRENT_1PT8V</li>
<li>GNDIO_CURRENT_2PT5V</li>
<li>GNDIO_CURRENT_GTL</li>
<li>GNDIO_CURRENT_GTL_PLUS</li>
<li>GNDIO_CURRENT_LVCMOS</li>
<li>GNDIO_CURRENT_LVTTL</li>
<li>GNDIO_CURRENT_PCI</li>
<li>GNDIO_CURRENT_SSTL2_CLASS1</li>
<li>GNDIO_CURRENT_SSTL2_CLASS2</li>
<li>GNDIO_CURRENT_SSTL3_CLASS1</li>
<li>GNDIO_CURRENT_SSTL3_CLASS2</li>
<li>GNU_ASM_COMMAND_LINE</li>
<li>GNU_CPP_COMMAND_LINE</li>
<li>GNU_CSP_ASM_COMMAND_LINE</li>
<li>GNU_CSP_CPP_COMMAND_LINE</li>
<li>GNU_CSP_LINK_COMMAND_LINE</li>
<li>GNU_LINK_COMMAND_LINE</li>
<li>GNUPRO_ARM_ASM_COMMAND_LINE</li>
<li>GNUPRO_ARM_CPP_COMMAND_LINE</li>
<li>GNUPRO_ARM_LINK_COMMAND_LINE</li>
<li>GNUPRO_MIPS_ASM_COMMAND_LINE</li>
<li>GNUPRO_MIPS_CPP_COMMAND_LINE</li>
<li>GNUPRO_MIPS_LINK_COMMAND_LINE</li>
<li>GNUPRO_NIOS_ASM_COMMAND_LINE</li>
<li>GNUPRO_NIOS_CPP_COMMAND_LINE</li>
<li>GNUPRO_NIOS_LINK_COMMAND_LINE</li>
<li>GPH9</li>
<li>GPLL_TO_LVDS_TX</li>
<li>GPON_1244</li>
<li>GPON_155</li>
<li>GPON_2488</li>
<li>GPON_622</li>
<li>GRAY</li>
<li>GROUNDED</li>
<li>GROUP_COMB_LOGIC_IN_CLOUD</li>
<li>GROUP_COMB_LOGIC_IN_CLOUD_TMV</li>
<li>GROUP_NODES</li>
<li>GROUP_NODES_TMV</li>
<li>GUARANTEE_MIN_DELAY_CORNER_IO_ZERO_HOLD_TIME</li>
<li>GXB_0PPM_CLOCK_GROUP_DRIVER</li>
<li>GXB_0PPM_CLOCK_GROUP</li>
<li>GXB_0PPM_CORECLK</li>
<li>GXB_0PPM_CORE_CLOCK</li>
<li>GXB_CLOCK_GROUP_DRIVER</li>
<li>GXB_CLOCK_GROUP</li>
<li>GXB_IO_PIN_TERMINATION</li>
<li>GXB_RECONFIG_GROUP</li>
<li>GXB_RECONFIG_MIF</li>
<li>GXB_RECONFIG_MIF_PLL</li>
<li>GXB_REFCLK_COUPLING_TERMINATION_SETTING</li>
<li>GXB_REFCLK_PIN_TERMINATION</li>
<li>GXB_RESERVED_TRANSMIT_CHANNEL</li>
<li>GXB_TX_PLL_RECONFIG_GROUP</li>
<li>GXB_VCCA_VOLTAGE</li>
<li>GXB_VCCR_VCCT_VOLTAGE</li>
<li>H9K8</li>
<li>HALF_BW</li>
<li>HALF</li>
<li>HALF_MEGALAB_COLUMN</li>
<li>HALF_RESOLUTION</li>
<li>HALF_ROW</li>
<li>HARD_BLOCK_PARTITION</li>
<li>HARDCOPY_DEVICE_IDENTIFIER</li>
<li>HARDCOPY_EXTERNAL_CLOCK_JITTER</li>
<li>HARDCOPY_FLOW_AUTOMATION</li>
<li>HARDCOPYII_COMPANION_REVISION_NAME</li>
<li>HARDCOPYII_POWER_ON_EXTRA_DELAY</li>
<li>HARDCOPYII_RUN_COMPARISON_ON_EVERY_COMPILE</li>
<li>HARDCOPYII_SAVE_MIGRATION_INFO_DURING_COMPILATION</li>
<li>HARDCOPY_INDIVIDUAL_SETTINGS</li>
<li>HARDCOPY_INPUT_TRANSITION_CLOCK_PIN</li>
<li>HARDCOPY_INPUT_TRANSITION_DATA_PIN</li>
<li>HARDCOPY_NEW_PROJECT_PATH</li>
<li>HARD_POST_FIT</li>
<li>HCII_OUTPUT_DIR</li>
<li>HC_OUTPUT_DIR</li>
<li>HCPY_ALOAD_SIGNALS</li>
<li>HCPY_ASYN_RAM</li>
<li>HCPY_CAT</li>
<li>HCPY_EXCEED_RAM_USAGE</li>
<li>HCPY_EXCEED_USER_IO_USAGE</li>
<li>HCPY_EXT_CLK_JITTER_CHECK</li>
<li>HCPY_EXT_CLK_JITTER_EDGE</li>
<li>HCPY_EXT_CLK_JITTER</li>
<li>HCPY_ILLEGAL_HC_DEV_PKG</li>
<li>HCPY_INPUT_TRANS_CLK_PIN</li>
<li>HCPY_INPUT_TRANS_DATA_PIN</li>
<li>HCPY_PLL_MULTIPLE_CLK_NETWORK_TYPES</li>
<li>HCPY_TRANS_CONDITION_CLK_PIN</li>
<li>HCPY_TRANS_CONDITION_DATA_PIN</li>
<li>HCPY_TRANS_EDGE_CLK_PIN</li>
<li>HCPY_TRANS_EDGE_DATA_PIN</li>
<li>HCPY_VREF_PINS</li>
<li>HDL_INITIAL_FANOUT_LIMIT</li>
<li>HDL_INTERFACE_INSTANCE_ENTITY</li>
<li>HDL_INTERFACE_INSTANCE_NAME</li>
<li>HDL_INTERFACE_INSTANCE_PARAMETERS</li>
<li>HDL_INTERFACE_OUTPUT_PATH</li>
<li>HDL_MESSAGE_LEVEL</li>
<li>HDL_MESSAGE_OFF</li>
<li>HDL_MESSAGE_ON</li>
<li>HDL_SETTINGS</li>
<li>HDL_VERSION</li>
<li>HEIGHT</li>
<li>HEX_FILE_COUNT_UP_DOWN</li>
<li>HEX_FILE_COUNT_UP_OR_DOWN</li>
<li>HEX_FILE</li>
<li>HEX_FILE_START_ADDRESS</li>
<li>HEXOUT_FILE_COUNT_DIRECTION</li>
<li>HEXOUT_FILE</li>
<li>HEXOUT_FILE_START_ADDRESS</li>
<li>HEX_OUTPUT_FILE</li>
<li>HIDE_RCF_WARNINGS</li>
<li>HIERARCHICAL_COMPILE</li>
<li>HIERARCHICAL_PRPOF_ID_CHECK</li>
<li>HIERARCHY_BLACKBOX_FILE</li>
<li>HIGH_EFFORT</li>
<li>HIGH_EFFORT_ROUTE_INI</li>
<li>HIGH</li>
<li>HIGH_PACKING_ROUTABILITY_EFFORT</li>
<li>HIGH_PERF</li>
<li>HIGH_PERFORMANCE_EFFORT</li>
<li>HIGH_PERFORMANCE_EFFORT_WITH_MAXIMUM_PLACEMENT_EFFORT</li>
<li>HIGH_PLACEMENT_ROUTABILITY_EFFORT</li>
<li>HIGH_POWER_EFFORT</li>
<li>HIGH_ROUTABILITY_EFFORT</li>
<li>HIGH_VCM</li>
<li>HIGIG_4062</li>
<li>HIGIG_5000</li>
<li>HIGIG_6250</li>
<li>HIGIG_6562</li>
<li>HOLD_MULTICYCLE_DEFAULT</li>
<li>HOLD_MULTICYCLE</li>
<li>HOLD_RELATIONSHIP</li>
<li>HPS_AUTO_PARTITION</li>
<li>HPS_COLD_RESET_PIN_MODE</li>
<li>HPS_DAP_SPLIT_MODE</li>
<li>HPS_EARLY_IO_RELEASE</li>
<li>HPS_FIRST</li>
<li>HPS_INITIALIZATION</li>
<li>HPS_IO</li>
<li>HPS_ISW_DATA</li>
<li>HPS_ISW_EMIF</li>
<li>HPS_ISW_FILE</li>
<li>HPS_LOCATION</li>
<li>HPS_PARTITION</li>
<li>HPS_PINS</li>
<li>HPS_WARM_RESET_PIN_MODE</li>
<li>HSSI_A10_CDR_PLL_ANALOG_MODE</li>
<li>HSSI_A10_CDR_PLL_POWER_MODE</li>
<li>HSSI_A10_CDR_PLL_REQUIRES_GT_CAPABLE_CHANNEL</li>
<li>HSSI_A10_CDR_PLL_UC_RO_CAL</li>
<li>HSSI_A10_CMU_FPLL_ANALOG_MODE</li>
<li>HSSI_A10_CMU_FPLL_PLL_DPRIO_CLK_VREG_BOOST</li>
<li>HSSI_A10_CMU_FPLL_PLL_DPRIO_FPLL_VREG1_BOOST</li>
<li>HSSI_A10_CMU_FPLL_PLL_DPRIO_FPLL_VREG_BOOST</li>
<li>HSSI_A10_CMU_FPLL_PLL_DPRIO_STATUS_SELECT</li>
<li>HSSI_A10_CMU_FPLL_POWER_MODE</li>
<li>HSSI_A10_LC_PLL_ANALOG_MODE</li>
<li>HSSI_A10_LC_PLL_POWER_MODE</li>
<li>HSSI_A10_PM_UC_CLKDIV_SEL</li>
<li>HSSI_A10_PM_UC_CLKSEL_CORE</li>
<li>HSSI_A10_PM_UC_CLKSEL_OSC</li>
<li>HSSI_A10_REFCLK_TERM_TRISTATE</li>
<li>HSSI_A10_RX_ADAPT_DFE_CONTROL_SEL</li>
<li>HSSI_A10_RX_ADAPT_DFE_SEL</li>
<li>HSSI_A10_RX_ADAPT_VGA_SEL</li>
<li>HSSI_A10_RX_ADAPT_VREF_SEL</li>
<li>HSSI_A10_RX_ADP_CTLE_ACGAIN_4S</li>
<li>HSSI_A10_RX_ADP_CTLE_EQZ_1S_SEL</li>
<li>HSSI_A10_RX_ADP_DFE_FLTAP_POSITION</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP10</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP10_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP11</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP11_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP1</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP2</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP2_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP3</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP3_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP4</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP4_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP5</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP5_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP6</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP6_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP7</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP7_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP8</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP8_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP9</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP9_SGN</li>
<li>HSSI_A10_RX_ADP_LFEQ_FB_SEL</li>
<li>HSSI_A10_RX_ADP_ONETIME_DFE</li>
<li>HSSI_A10_RX_ADP_VGA_SEL</li>
<li>HSSI_A10_RX_ADP_VREF_SEL</li>
<li>HSSI_A10_RX_BYPASS_EQZ_STAGES_234</li>
<li>HSSI_A10_RX_EQ_BW_SEL</li>
<li>HSSI_A10_RX_EQ_DC_GAIN_TRIM</li>
<li>HSSI_A10_RX_INPUT_VCM_SEL</li>
<li>HSSI_A10_RX_LINK</li>
<li>HSSI_A10_RX_OFFSET_CANCELLATION_CTRL</li>
<li>HSSI_A10_RX_ONE_STAGE_ENABLE</li>
<li>HSSI_A10_RX_POWER_MODE</li>
<li>HSSI_A10_RX_QPI_ENABLE</li>
<li>HSSI_A10_RX_RX_SEL_BIAS_SOURCE</li>
<li>HSSI_A10_RX_SD_OUTPUT_OFF</li>
<li>HSSI_A10_RX_SD_OUTPUT_ON</li>
<li>HSSI_A10_RX_SD_THRESHOLD</li>
<li>HSSI_A10_RX_TERM_SEL</li>
<li>HSSI_A10_RX_TERM_TRI_ENABLE</li>
<li>HSSI_A10_RX_UC_RX_DFE_CAL</li>
<li>HSSI_A10_RX_VCCELA_SUPPLY_VOLTAGE</li>
<li>HSSI_A10_RX_VCM_CURRENT_ADD</li>
<li>HSSI_A10_RX_VCM_SEL</li>
<li>HSSI_A10_RX_XRX_PATH_ANALOG_MODE</li>
<li>HSSI_A10_TX_COMPENSATION_EN</li>
<li>HSSI_A10_TX_DCD_DETECTION_EN</li>
<li>HSSI_A10_TX_DPRIO_CGB_VREG_BOOST</li>
<li>HSSI_A10_TX_LINK</li>
<li>HSSI_A10_TX_LOW_POWER_EN</li>
<li>HSSI_A10_TX_POWER_MODE</li>
<li>HSSI_A10_TX_PRE_EMP_SIGN_1ST_POST_TAP</li>
<li>HSSI_A10_TX_PRE_EMP_SIGN_2ND_POST_TAP</li>
<li>HSSI_A10_TX_PRE_EMP_SIGN_PRE_TAP_1T</li>
<li>HSSI_A10_TX_PRE_EMP_SIGN_PRE_TAP_2T</li>
<li>HSSI_A10_TX_PRE_EMP_SWITCHING_CTRL_1ST_POST_TAP</li>
<li>HSSI_A10_TX_PRE_EMP_SWITCHING_CTRL_2ND_POST_TAP</li>
<li>HSSI_A10_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP_1T</li>
<li>HSSI_A10_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP_2T</li>
<li>HSSI_A10_TX_RES_CAL_LOCAL</li>
<li>HSSI_A10_TX_RX_DET</li>
<li>HSSI_A10_TX_RX_DET_OUTPUT_SEL</li>
<li>HSSI_A10_TX_RX_DET_PDB</li>
<li>HSSI_A10_TX_SLEW_RATE_CTRL</li>
<li>HSSI_A10_TX_TERM_CODE</li>
<li>HSSI_A10_TX_TERM_SEL</li>
<li>HSSI_A10_TX_UC_DCD_CAL</li>
<li>HSSI_A10_TX_UC_GEN3</li>
<li>HSSI_A10_TX_UC_GEN4</li>
<li>HSSI_A10_TX_UC_SKEW_CAL</li>
<li>HSSI_A10_TX_UC_TXVOD_CAL_CONT</li>
<li>HSSI_A10_TX_UC_TXVOD_CAL</li>
<li>HSSI_A10_TX_UC_VCC_SETTING</li>
<li>HSSI_A10_TX_USER_FIR_COEFF_CTRL_SEL</li>
<li>HSSI_A10_TX_VOD_OUTPUT_SWING_CTRL</li>
<li>HSSI_A10_TX_XTX_PATH_ANALOG_MODE</li>
<li>HSSI_ADCE_RGEN_MODE</li>
<li>HSSI_ANALOG_SETTINGS_PROTOCOL</li>
<li>HSSI_C10_CDR_PLL_ANALOG_MODE</li>
<li>HSSI_C10_CDR_PLL_POWER_MODE</li>
<li>HSSI_C10_CDR_PLL_REQUIRES_GT_CAPABLE_CHANNEL</li>
<li>HSSI_C10_CDR_PLL_UC_RO_CAL</li>
<li>HSSI_C10_CMU_FPLL_ANALOG_MODE</li>
<li>HSSI_C10_CMU_FPLL_PLL_DPRIO_CLK_VREG_BOOST</li>
<li>HSSI_C10_CMU_FPLL_PLL_DPRIO_FPLL_VREG1_BOOST</li>
<li>HSSI_C10_CMU_FPLL_PLL_DPRIO_FPLL_VREG_BOOST</li>
<li>HSSI_C10_CMU_FPLL_PLL_DPRIO_STATUS_SELECT</li>
<li>HSSI_C10_CMU_FPLL_POWER_MODE</li>
<li>HSSI_C10_LC_PLL_ANALOG_MODE</li>
<li>HSSI_C10_LC_PLL_POWER_MODE</li>
<li>HSSI_C10_PM_UC_CLKDIV_SEL</li>
<li>HSSI_C10_PM_UC_CLKSEL_CORE</li>
<li>HSSI_C10_PM_UC_CLKSEL_OSC</li>
<li>HSSI_C10_REFCLK_TERM_TRISTATE</li>
<li>HSSI_C10_RX_ADAPT_DFE_CONTROL_SEL</li>
<li>HSSI_C10_RX_ADAPT_DFE_SEL</li>
<li>HSSI_C10_RX_ADAPT_VGA_SEL</li>
<li>HSSI_C10_RX_ADAPT_VREF_SEL</li>
<li>HSSI_C10_RX_ADP_CTLE_ACGAIN_4S</li>
<li>HSSI_C10_RX_ADP_CTLE_EQZ_1S_SEL</li>
<li>HSSI_C10_RX_ADP_DFE_FLTAP_POSITION</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP10</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP10_SGN</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP11</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP11_SGN</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP1</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP2</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP2_SGN</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP3</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP3_SGN</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP4</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP4_SGN</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP5</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP5_SGN</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP6</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP6_SGN</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP7</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP7_SGN</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP8</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP8_SGN</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP9</li>
<li>HSSI_C10_RX_ADP_DFE_FXTAP9_SGN</li>
<li>HSSI_C10_RX_ADP_LFEQ_FB_SEL</li>
<li>HSSI_C10_RX_ADP_ONETIME_DFE</li>
<li>HSSI_C10_RX_ADP_VGA_SEL</li>
<li>HSSI_C10_RX_ADP_VREF_SEL</li>
<li>HSSI_C10_RX_BYPASS_EQZ_STAGES_234</li>
<li>HSSI_C10_RX_EQ_BW_SEL</li>
<li>HSSI_C10_RX_EQ_DC_GAIN_TRIM</li>
<li>HSSI_C10_RX_INPUT_VCM_SEL</li>
<li>HSSI_C10_RX_LINK</li>
<li>HSSI_C10_RX_OFFSET_CANCELLATION_CTRL</li>
<li>HSSI_C10_RX_ONE_STAGE_ENABLE</li>
<li>HSSI_C10_RX_POWER_MODE</li>
<li>HSSI_C10_RX_QPI_ENABLE</li>
<li>HSSI_C10_RX_RX_SEL_BIAS_SOURCE</li>
<li>HSSI_C10_RX_SD_OUTPUT_OFF</li>
<li>HSSI_C10_RX_SD_OUTPUT_ON</li>
<li>HSSI_C10_RX_SD_THRESHOLD</li>
<li>HSSI_C10_RX_TERM_SEL</li>
<li>HSSI_C10_RX_TERM_TRI_ENABLE</li>
<li>HSSI_C10_RX_UC_RX_DFE_CAL</li>
<li>HSSI_C10_RX_VCCELA_SUPPLY_VOLTAGE</li>
<li>HSSI_C10_RX_VCM_CURRENT_ADD</li>
<li>HSSI_C10_RX_VCM_SEL</li>
<li>HSSI_C10_RX_XRX_PATH_ANALOG_MODE</li>
<li>HSSI_C10_TX_COMPENSATION_EN</li>
<li>HSSI_C10_TX_DCD_DETECTION_EN</li>
<li>HSSI_C10_TX_DPRIO_CGB_VREG_BOOST</li>
<li>HSSI_C10_TX_LINK</li>
<li>HSSI_C10_TX_LOW_POWER_EN</li>
<li>HSSI_C10_TX_POWER_MODE</li>
<li>HSSI_C10_TX_PRE_EMP_SIGN_1ST_POST_TAP</li>
<li>HSSI_C10_TX_PRE_EMP_SIGN_2ND_POST_TAP</li>
<li>HSSI_C10_TX_PRE_EMP_SIGN_PRE_TAP_1T</li>
<li>HSSI_C10_TX_PRE_EMP_SIGN_PRE_TAP_2T</li>
<li>HSSI_C10_TX_PRE_EMP_SWITCHING_CTRL_1ST_POST_TAP</li>
<li>HSSI_C10_TX_PRE_EMP_SWITCHING_CTRL_2ND_POST_TAP</li>
<li>HSSI_C10_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP_1T</li>
<li>HSSI_C10_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP_2T</li>
<li>HSSI_C10_TX_RES_CAL_LOCAL</li>
<li>HSSI_C10_TX_RX_DET</li>
<li>HSSI_C10_TX_RX_DET_OUTPUT_SEL</li>
<li>HSSI_C10_TX_RX_DET_PDB</li>
<li>HSSI_C10_TX_SLEW_RATE_CTRL</li>
<li>HSSI_C10_TX_TERM_CODE</li>
<li>HSSI_C10_TX_TERM_SEL</li>
<li>HSSI_C10_TX_UC_DCD_CAL</li>
<li>HSSI_C10_TX_UC_GEN3</li>
<li>HSSI_C10_TX_UC_GEN4</li>
<li>HSSI_C10_TX_UC_SKEW_CAL</li>
<li>HSSI_C10_TX_UC_TXVOD_CAL_CONT</li>
<li>HSSI_C10_TX_UC_TXVOD_CAL</li>
<li>HSSI_C10_TX_UC_VCC_SETTING</li>
<li>HSSI_C10_TX_USER_FIR_COEFF_CTRL_SEL</li>
<li>HSSI_C10_TX_VOD_OUTPUT_SWING_CTRL</li>
<li>HSSI_C10_TX_XTX_PATH_ANALOG_MODE</li>
<li>HSSI_CLOCK_TOPOLOGY</li>
<li>HSSI_FAST_LOCK_MODE</li>
<li>HSSI_GT_FORCE_VCO_CONST</li>
<li>HSSI_GT_RX_CTLE</li>
<li>HSSI_GT_RX_RX_DC_GAIN</li>
<li>HSSI_GT_RX_VCM_SEL</li>
<li>HSSI_GT_TERMINATION</li>
<li>HSSI_GT_TX_COMMON_MODE_DRIVER_SEL</li>
<li>HSSI_GT_TX_PRE_EMP_SWITCHING_CTRL_1ST_POST_TAP</li>
<li>HSSI_GT_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP</li>
<li>HSSI_GT_TX_SIG_INV_PRE_TAP</li>
<li>HSSI_GT_TX_VOD_SWITCHING_CTRL_MAIN_TAP</li>
<li>HSSI_ODI_EYE_MONITOR_BW_SEL</li>
<li>HSSI_PARAMETER</li>
<li>HSSI_REFCLK_TERMINATION</li>
<li>HSSI_RX_ACGAIN_A</li>
<li>HSSI_RX_ACGAIN_V</li>
<li>HSSI_RX_ADCE_HSF_HFBW</li>
<li>HSSI_RX_ADCE_RGEN_BW</li>
<li>HSSI_RX_BYPASS_EQZ_STAGES_234</li>
<li>HSSI_RX_CT_EQUALIZER_SETTING</li>
<li>HSSI_RX_DFE_PI_BW</li>
<li>HSSI_RX_ENABLE_RX_GAINCTRL_PCIEMODE</li>
<li>HSSI_RX_EQ_BW_SEL</li>
<li>HSSI_RX_INPUT_VCM_SEL</li>
<li>HSSI_RX_PDB_SD</li>
<li>HSSI_RX_PMOS_GAIN_PEAK</li>
<li>HSSI_RX_QPI_ENABLE</li>
<li>HSSI_RX_RX_DC_GAIN</li>
<li>HSSI_RX_RX_SEL_BIAS_SOURCE</li>
<li>HSSI_RX_SD_OFF</li>
<li>HSSI_RX_SD_ON</li>
<li>HSSI_RX_SD_THRESHOLD</li>
<li>HSSI_RX_SEL_HALF_BW</li>
<li>HSSI_RX_VCCELA_SUPPLY_VOLTAGE</li>
<li>HSSI_RX_VCM_CURRENT_ADD</li>
<li>HSSI_RX_VCM_SEL</li>
<li>HSSI_S10_REFCLK_TERM_TRISTATE</li>
<li>HSSI_TERMINATION</li>
<li>HSSI_TX_COMMON_MODE_DRIVER_SEL</li>
<li>HSSI_TX_DRIVER_RESOLUTION_CTRL</li>
<li>HSSI_TX_FIR_COEFF_CTRL_SEL</li>
<li>HSSI_TX_LOCAL_IB_CTL</li>
<li>HSSI_TX_PRE_EMP_SWITCHING_CTRL_1ST_POST_TAP</li>
<li>HSSI_TX_PRE_EMP_SWITCHING_CTRL_2ND_POST_TAP</li>
<li>HSSI_TX_PRE_EMP_SWITCHING_CTRL_2ND_POST_TAP_USER</li>
<li>HSSI_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP</li>
<li>HSSI_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP_USER</li>
<li>HSSI_TX_QPI_EN</li>
<li>HSSI_TX_RX_DET</li>
<li>HSSI_TX_RX_DET_OUTPUT_SEL</li>
<li>HSSI_TX_RX_DET_PDB</li>
<li>HSSI_TX_SIG_INV_2ND_TAP</li>
<li>HSSI_TX_SIG_INV_PRE_TAP</li>
<li>HSSI_TX_SLEW_RATE_CTRL</li>
<li>HSSI_TX_SWING_BOOST</li>
<li>HSSI_TX_VCM_CTRL_SEL</li>
<li>HSSI_TX_VCM_CURRENT_ADDL</li>
<li>HSSI_TX_VOD_BOOST</li>
<li>HSSI_TX_VOD_SWITCHING_CTRL_MAIN_TAP</li>
<li>HSSI_VCCEH_VOLTAGE</li>
<li>HSSI_VCCER_VCCET_VOLTAGE</li>
<li>HTML_FILE</li>
<li>HTML_REPORT_FILE</li>
<li>HUB_AUTO_INSERT</li>
<li>HUB_ENTITY_NAME</li>
<li>HUB_INSTANCE_NAME</li>
<li>HUB_SOURCE_FILE</li>
<li>HYBRID_FLOW_NEW_EXTRACTOR</li>
<li>HYBRID</li>
<li>HYPER_AWARE_OPTIMIZE_REGISTER_CHAINS</li>
<li>HYPER_AWARE_OPTIMIZE_SHORT_PATHS</li>
<li>HYPER_AWARE_OPTIMIZE_TIMING</li>
<li>HYPER_AWARE_REGISTER_PLACEMENT</li>
<li>HYPER_AWARE_SET_REGISTER_BYPASS</li>
<li>HYPER_AWARE_SET_REGISTER_INITIAL_STATE</li>
<li>HYPER_EARLY_RETIMER</li>
<li>HYPER_REGISTER_DELAY_CHAIN</li>
<li>HYPER_REGISTER</li>
<li>HYPER_RETIMER_ADD_PIPELINING_GROUP</li>
<li>HYPER_RETIMER_ADD_PIPELINING</li>
<li>HYPER_RETIMER_ENABLE_ADD_PIPELINING</li>
<li>HYPER_RETIMER_FALSE_PATH_RESTRICTION</li>
<li>HYPER_RETIMER_FAST_FORWARD_ADD_PIPELINING</li>
<li>HYPER_RETIMER_FAST_FORWARD_ADD_PIPELINING_MAX</li>
<li>HYPER_RETIMER_FAST_FORWARD_AGGRESSIVE_EXPLORATION</li>
<li>HYPER_RETIMER_FAST_FORWARD_ASYNCH_CLEAR</li>
<li>HYPER_RETIMER_FAST_FORWARD_CUT_ALL_CLOCK_TRANSFERS</li>
<li>HYPER_RETIMER_FAST_FORWARD_DSP_BLOCKS</li>
<li>HYPER_RETIMER_FAST_FORWARD_EMULATE_ADD_PIPELINING</li>
<li>HYPER_RETIMER_FAST_FORWARD_EMULATE_AGGRESSIVE_EXPLORATION</li>
<li>HYPER_RETIMER_FAST_FORWARD_EMULATE_ASYNCH_CLEAR</li>
<li>HYPER_RETIMER_FAST_FORWARD_EMULATE_USER_PRESERVE_RESTRICTION</li>
<li>HYPER_RETIMER_FAST_FORWARD</li>
<li>HYPER_RETIMER_FAST_FORWARD_OFF_DESCRIPTION</li>
<li>HYPER_RETIMER_FAST_FORWARD_RAM_BLOCKS</li>
<li>HYPER_RETIMER_FAST_FORWARD_TARGET_MAX_PERFORMANCE</li>
<li>HYPER_RETIMER_FAST_FORWARD_USER_PRESERVE_RESTRICTION</li>
<li>HYPER_RETIMER</li>
<li>HYPER_RETIMER_REGISTERS_REMOVED</li>
<li>IB_22OHM</li>
<li>IB_29OHM</li>
<li>IB_42OHM</li>
<li>IB_49OHM</li>
<li>IEEE_10G_BASE_CR_10312</li>
<li>IEEE_10G_KR_10312</li>
<li>IEEE_40G_BASE_KR_10312</li>
<li>IGNORE_CARRY_BUFFERS</li>
<li>IGNORE_CARRY</li>
<li>IGNORE_CASCADE_BUFFERS</li>
<li>IGNORE_CASCADE</li>
<li>IGNORE_CLOCK_SETTINGS</li>
<li>IGNORE_DUPLICATE_DESIGN_ENTITY</li>
<li>IGNORE_GLOBAL_BUFFERS</li>
<li>IGNORE_GLOBAL</li>
<li>IGNORE_HSSI_COLUMN_POWER_FOR_BTI_MITIGATION</li>
<li>IGNORE_HSSI_COLUMN_POWER_WHEN_PRESERVING_UNUSED_XCVR_CHANNELS</li>
<li>IGNORE_LCELL_BUFFERS</li>
<li>IGNORE_LCELL</li>
<li>IGNORE_LCELL_MAX7000</li>
<li>IGNORE_MAX_FANOUT_ASSIGNMENTS</li>
<li>IGNORE_MODE_FOR_MERGE</li>
<li>IGNORE_PARTITIONS</li>
<li>IGNORE_ROW_GLOBAL_BUFFERS</li>
<li>IGNORE_ROW_GLOBAL</li>
<li>IGNORE_SOFT_BUFFERS</li>
<li>IGNORE_SOFT</li>
<li>IGNORE_SOFT_MAX7000</li>
<li>IGNORE_TRANSLATE_OFF_AND_SYNTHESIS_OFF</li>
<li>IGNORE_TRANSLATE_OFF</li>
<li>IGNORE_VERILOG_INITIAL_CONSTRUCTS</li>
<li>IGNORE_VREF_RESTRICTION</li>
<li>IMMEDIATE_ASSERTION_FAIL_ACTION</li>
<li>IMMEDIATE_ASSERTION_FAIL_MESSAGE</li>
<li>IMMEDIATE_ASSERTION</li>
<li>IMMEDIATE_ASSERTION_PASS_MESSAGE</li>
<li>IMMEDIATE_ASSERTION_STATE</li>
<li>IMMEDIATE_ASSERTION_TEST_CONDITION</li>
<li>IMPLEMENT_AS_CLOCK_ENABLE</li>
<li>IMPLEMENT_AS_LCELL</li>
<li>IMPLEMENT_AS_OUTPUT_OF_LOGIC_CELL</li>
<li>IMPLEMENT_MLAB_IN_16_BIT_DEEP_MODE</li>
<li>IMPLEMENTS_FREE_RUNNING_CLOCK</li>
<li>IMPORT_BASED_POST_FIT</li>
<li>IMPORT_BLOCK</li>
<li>IMPORTED</li>
<li>IMPORT</li>
<li>INCLUDED_IN_OLD_CHIP_SECTION</li>
<li>INCLUDED_IN_OLD_PROJECT_INFO_SECTION</li>
<li>INCLUDE_EXTERNAL_PIN_DELAYS_IN_FMAX_CALCULATIONS</li>
<li>INCLUDE_FILE</li>
<li>INCLUDE_IN_ALL_TB2</li>
<li>INCLUDE_IN_COMPILER_REPORT</li>
<li>INCLUDE_IN_FITTER_TB2</li>
<li>INCLUDE_IN_POWER_TB2</li>
<li>INCLUDE_IN_SIMULATOR_REPORT</li>
<li>INCLUDE_IN_SYNTHESIS_REPORT</li>
<li>INCLUDE_IN_SYNTHESIS_TB2</li>
<li>INCLUDE_IN_TIMING_TB2</li>
<li>INCLUDE_PATHS_GREATER_THAN_TCO</li>
<li>INCLUDE_PATHS_GREATER_THAN_TH</li>
<li>INCLUDE_PATHS_GREATER_THAN_TPD</li>
<li>INCLUDE_PATHS_GREATER_THAN_TSU</li>
<li>INCLUDE_PATHS_LESS_THAN_FMAX</li>
<li>INCLUDE_PATHS_LESS_THAN_SLACK</li>
<li>INCLUDE_PIN_DELAYS_IN_CALCULATIONS</li>
<li>INC_PLACE_PREF_LOCATION</li>
<li>INC_PLC_MODE</li>
<li>INCREASE_DELAY_TO_OUTPUT_ENABLE_PIN</li>
<li>INCREASE_DELAY_TO_OUTPUT_PIN</li>
<li>INCREASE_INPUT_CLOCK_ENABLE_DELAY</li>
<li>INCREASE_INPUT_DELAY_TO_CE_IO_REGISTER</li>
<li>INCREASE_OUTPUT_CLOCK_ENABLE_DELAY</li>
<li>INCREASE_OUTPUT_ENABLE_CLOCK_ENABLE_DELAY</li>
<li>INCREASE_OUTPUT_ENABLE_CLOCK_ENABLE_DELAYR</li>
<li>INCREASE_TZX_DELAY_TO_OUTPUT_PIN</li>
<li>INCREMENTAL_COMPILATION_EXPORT_FILE</li>
<li>INCREMENTAL_COMPILATION_EXPORT_FLATTEN</li>
<li>INCREMENTAL_COMPILATION_EXPORT_NETLIST_TYPE</li>
<li>INCREMENTAL_COMPILATION_EXPORT_PARTITION_NAME</li>
<li>INCREMENTAL_COMPILATION_EXPORT_POST_FIT</li>
<li>INCREMENTAL_COMPILATION_EXPORT_POST_SYNTH</li>
<li>INCREMENTAL_COMPILATION_EXPORT_ROUTING</li>
<li>INCREMENTAL_COMPILATION</li>
<li>INCREMENTAL_INPUT_VECTOR_FILE</li>
<li>INCREMENTAL_SYNTHESIS_FULL</li>
<li>INCREMENTAL_SYNTHESIS</li>
<li>INCREMENTAL_SYNTHESIS_PARTITION</li>
<li>INCREMENTAL_SYNTHESIS_TOP</li>
<li>INCREMENTAL_TIME_INPUT</li>
<li>INCREMENTAL_VECTOR_INPUT_SOURCE</li>
<li>INCR_SIGNALTAP_PARTITION</li>
<li>INCR_TAP</li>
<li>INDIRECT_PORT_ASSIGNMENT</li>
<li>INERTIAL</li>
<li>INFER_RAMS_FROM_RAW_LOGIC</li>
<li>INIT_CLKUSR</li>
<li>INIT_DCLK</li>
<li>INIT_DONE_OPEN_DRAIN</li>
<li>INIT_DONE_OUTPUT</li>
<li>INITIALIZATION_CLOCK</li>
<li>INITIAL_PLACEMENT_CONFIGURATION</li>
<li>INIT_INTOSC</li>
<li>INI_VARS</li>
<li>INNER_NUM</li>
<li>INPUT_DELAY_CHAIN</li>
<li>INPUT_DELAY</li>
<li>INPUT_EDGE</li>
<li>INPUT</li>
<li>INPUT_MAX_DELAY</li>
<li>INPUT_MIN_DELAY</li>
<li>INPUT_OCT_VALUE</li>
<li>INPUT_ONLY</li>
<li>INPUT_PERSONA</li>
<li>INPUT_REFERENCE</li>
<li>INPUT_REGISTER</li>
<li>INPUT_TERMINATION</li>
<li>INPUT_TRANSITION_TIME</li>
<li>INSERT_ADDITIONAL_LOGIC_CELL</li>
<li>INSERT_BOUNDARY_WIRE_LUTS</li>
<li>INSTANT_ON</li>
<li>INTERFACE</li>
<li>INTERFACE_ROLE</li>
<li>INTERFACES</li>
<li>INTERFACE_TYPE</li>
<li>INTERLAKEN_11100</li>
<li>INTERLAKEN_12500</li>
<li>INTERLAKEN_3125</li>
<li>INTERLAKEN_6375</li>
<li>INTERLAKEN</li>
<li>INTERNAL_CONFIGURATION</li>
<li>INTERNAL_FLASH_UPDATE_MODE</li>
<li>INTERNAL</li>
<li>INTERNAL_OSCILLATOR_DIVIDE_DOWN</li>
<li>INTERNAL_SCRUBBING</li>
<li>INTERNAL_VREF_MODE</li>
<li>INVALID_DESIGN_SOURCE</li>
<li>INVERT_BASE_CLOCK</li>
<li>INVERTED_CLOCK</li>
<li>IO_12_LANE_INPUT_DATA_DELAY_CHAIN</li>
<li>IO_12_LANE_INPUT_DATA_DELAY</li>
<li>IO_12_LANE_INPUT_STROBE_DELAY_CHAIN</li>
<li>IO_12_LANE_INPUT_STROBE_DELAY</li>
<li>IOBANK</li>
<li>IOBANK_VCCIO</li>
<li>IO_MAXIMUM_TOGGLE_RATE</li>
<li>IO_PARTITION_PLACEMENT</li>
<li>IO_PATHS_AND_MINIMUM_TPD_PATHS</li>
<li>IO_PLACEMENT_OPTIMIZATION</li>
<li>IOPLL</li>
<li>IO_SSO_CHECKING</li>
<li>IO_STANDARD</li>
<li>IP_ADVISOR_FILE</li>
<li>IPA_FILE</li>
<li>IP_COMPONENT_AUTHOR</li>
<li>IP_COMPONENT_DESCRIPTION</li>
<li>IP_COMPONENT_DISPLAY_NAME</li>
<li>IP_COMPONENT_DOCUMENTATION_LINK</li>
<li>IP_COMPONENT_GROUP</li>
<li>IP_COMPONENT_INTERNAL</li>
<li>IP_COMPONENT_NAME</li>
<li>IP_COMPONENT_PARAMETER</li>
<li>IP_COMPONENT_REPORT_HIERARCHY</li>
<li>IP_COMPONENT_SETTING</li>
<li>IP_COMPONENT_VERSION</li>
<li>IP_DEBUG_VISIBLE</li>
<li>IP_FILE</li>
<li>IP_GENERATED_DEVICE_FAMILY</li>
<li>IP_QSYS_MODE</li>
<li>IP_SEARCH_PATHS</li>
<li>IP_SHOW_ANALYSIS_MESSAGES</li>
<li>IP_SHOW_ELABORATION_MESSAGES</li>
<li>IP_TARGETED_DEVICE_FAMILY</li>
<li>IP_TARGETED_PART_TRAIT</li>
<li>IP_TOOL_ENV</li>
<li>IP_TOOL_HIERARCHY_LEVELS</li>
<li>IP_TOOL_NAME</li>
<li>IP_TOOL_VENDOR_NAME</li>
<li>IP_TOOL_VERSION_CREATED</li>
<li>IP_TOOL_VERSION</li>
<li>IP_TOP_LEVEL_COMPONENT_NAME</li>
<li>IP_TOP_LEVEL_ENTITY_NAME</li>
<li>IPX_FILE</li>
<li>ISC_FILE</li>
<li>IS_DEBUG</li>
<li>IS_FREEFORM</li>
<li>ISL82XX</li>
<li>ISP_CLAMP_STATE_DEFAULT</li>
<li>ISP_CLAMP_STATE</li>
<li>JAM_FILE</li>
<li>JBC_FILE</li>
<li>JESD204_A_B_12500</li>
<li>JESD204_A_B_6375</li>
<li>JOHNSON</li>
<li>JTAG_BST_SUPPORT</li>
<li>JTAG_BST_SUPPORT_MAX7000</li>
<li>JTAG_PIN_SHARING</li>
<li>JTAG_USER_CODE_DALI</li>
<li>JTAG_USER_CODE_FLEX6K</li>
<li>JTAG_USER_CODE</li>
<li>K0H9</li>
<li>KEEP_LCELL_FOLLOWING_PLL</li>
<li>KEEP_LUT_SYN_ONLY</li>
<li>KXL9</li>
<li>LARGE</li>
<li>LARGE_PERIPHERY_CLOCK</li>
<li>LAST_QUARTUS_VERSION</li>
<li>LATE_CLOCK_LATENCY</li>
<li>LCELL_AS_VIO</li>
<li>LCELL_INSERTION</li>
<li>LCELL_PERIPHERY_ROUTER</li>
<li>LEVEL1</li>
<li>LEVEL2</li>
<li>LEVEL3</li>
<li>LIBRARY</li>
<li>LIBRARY_SEARCH_ORDER</li>
<li>LICENSE_FILE</li>
<li>LIMIT_AHDL_INTEGERS_TO_32_BITS</li>
<li>LINEAR_FORMAT</li>
<li>LL_AUTO_SIZE</li>
<li>LL_COLOR</li>
<li>LL_CORE_ONLY</li>
<li>LL_ENABLED</li>
<li>LL_EXCLUDE</li>
<li>LL_FSDA_LEVEL</li>
<li>LL_FSDA_ROUTING_INTERFACE</li>
<li>LL_HEIGHT</li>
<li>LL_HORIZONTAL_FLIP</li>
<li>LL_IGNORE_IO_BANK_FSDA_CONSTRAINT</li>
<li>LL_IGNORE_IO_BANK_SECURITY_CONSTRAINT</li>
<li>LL_IGNORE_IO_PIN_FSDA_CONSTRAINT</li>
<li>LL_IGNORE_IO_PIN_SECURITY_CONSTRAINT</li>
<li>LL_IMPORT_FILE</li>
<li>LL_MEMBER_EXCEPTIONS</li>
<li>LL_MEMBER_OF_FSDA_ROUTING_INTERFACE</li>
<li>LL_MEMBER_OF</li>
<li>LL_MEMBER_OF_SECURITY_ROUTING_INTERFACE</li>
<li>LL_MEMBER_OPTION</li>
<li>LL_MEMBER_RESOURCE_EXCLUDE</li>
<li>LL_MEMBER_STATE</li>
<li>LL_NODE_LOCATION</li>
<li>LL_OLD_BEHAVIOR</li>
<li>LL_ORIGIN</li>
<li>LL_OUTPUT_SIGNAL_FSDA_LEVEL</li>
<li>LL_PARENT</li>
<li>LL_PATH_EXCLUDE</li>
<li>LL_PATH_INCLUDE</li>
<li>LL_PRIORITY</li>
<li>LL_PR_REGION</li>
<li>LL_RCF_IMPORT_FILE</li>
<li>LL_RECT</li>
<li>LL_REGION_SECURITY_LEVEL</li>
<li>LL_RESERVED_IS_LIMITED</li>
<li>LL_RESERVED</li>
<li>LL_RESERVED_MEMBERS_OF_IMMEDIATE_PARENT_REGION_HIERARCHY_ONLY</li>
<li>LL_RESERVE</li>
<li>LL_ROOT_REGION</li>
<li>LL_ROUGH</li>
<li>LL_ROUTING_REGION_EXPANSION_SIZE</li>
<li>LL_ROUTING_REGION</li>
<li>LL_SECURITY_ROUTING_INTERFACE</li>
<li>LL_SIGNAL_SECURITY_LEVEL</li>
<li>LL_SOFT</li>
<li>LL_SOURCE_PARTITION_HIERARCHY</li>
<li>LL_SOURCE_PARTITION</li>
<li>LL_SOURCE_REGION</li>
<li>LL_STATE</li>
<li>LL_WIDTH</li>
<li>LMF_FILE</li>
<li>LOCAL</li>
<li>LOCAL_LINE_DELAY_CHAIN</li>
<li>LOCATION</li>
<li>LOCATION_PIN_ASSIGNMENT</li>
<li>LOCKED</li>
<li>LOGIC_ANALYZER_INTERFACE_FILE</li>
<li>LOGIC_ELEMENTS</li>
<li>LOGIC</li>
<li>LOGICLOCK_ASSIGNMENT</li>
<li>LOGICLOCK_INCREMENTAL_COMPILE_ASSIGNMENT</li>
<li>LOGICLOCK_INCREMENTAL_COMPILE_FILE</li>
<li>LOGICLOCK_REGION</li>
<li>LOGIC_MINIMIZATION_SCRIPT</li>
<li>LOW_CAP_ADJUST_FLEX10KE</li>
<li>LOW_POWER</li>
<li>LOW_VCM</li>
<li>LTM4677</li>
<li>LUTRAM_INSTANCES_FOR_ASIC_PROTOTYPING</li>
<li>LVDS_CLOCK_DATA_DESKEW_ADJUST</li>
<li>LVDS_DESKEW</li>
<li>LVDS_DIRECT_LOOPBACK_MODE</li>
<li>LVDS_FIXED_CLOCK_DATA_PHASE</li>
<li>LVDS</li>
<li>LVDS_RX_REGISTER</li>
<li>M10K</li>
<li>M144K_BLOCK_READ_CLOCK_DUTY_CYCLE_DEPENDENCY</li>
<li>M144K</li>
<li>M144K_USE_DCD</li>
<li>M20K</li>
<li>M512</li>
<li>MACRO_HEAD</li>
<li>MACRO_MEMBER</li>
<li>MACRO_TIMING</li>
<li>MAP_FILE</li>
<li>MAPPER_SYNTHESIS_ASSIGNMENT</li>
<li>MASK</li>
<li>MASK_REVISION</li>
<li>MATCH_PLL_COMPENSATION_CLOCK</li>
<li>MAX10FPGA_CONFIGURATION_SCHEME</li>
<li>MAX3000A</li>
<li>MAX7000AE</li>
<li>MAX7000A</li>
<li>MAX7000B</li>
<li>MAX7000B_VCCIO_IOBANK1</li>
<li>MAX7000B_VCCIO_IOBANK2</li>
<li>MAX7000_DEVICE_IO_STANDARD</li>
<li>MAX7000_ENABLE_JTAG_BST_SUPPORT</li>
<li>MAX7000_FANIN_PER_CELL</li>
<li>MAX7000_IGNORE_LCELL_BUFFERS</li>
<li>MAX7000_IGNORE_SOFT_BUFFERS</li>
<li>MAX7000_INDIVIDUAL_TURBO_BIT</li>
<li>MAX7000_JTAG_USER_CODE</li>
<li>MAX7000_OPTIMIZATION_TECHNIQUE</li>
<li>MAX7000_PARALLEL_EXPANDER_CHAIN_LENGTH</li>
<li>MAX7000S_JTAG_USER_CODE</li>
<li>MAX7000S</li>
<li>MAX7000_TECHNOLOGY_MAPPER</li>
<li>MAX7000_USE_CHECKSUM_AS_USERCODE</li>
<li>MAX7K_CLIQUE_TYPE</li>
<li>MAX9000</li>
<li>MAX_AUTO_GLOBAL_REGISTER_CONTROLS</li>
<li>MAX_BALANCING_DSP_BLOCKS</li>
<li>MAX_CLOCK_ARRIVAL_SKEW</li>
<li>MAX_CLOCKS_ALLOWED</li>
<li>MAX_CONSECUTIVE_OUTPUTS_FOR_ELECTROMIGRATION</li>
<li>MAX_CONSECUTIVE_VIO_OUTPUTS_FOR_ELECTROMIGRATION</li>
<li>MAX_CORE_JUNCTION_TEMP</li>
<li>MAX_CORE_SUPPLY_VOLTAGE</li>
<li>MAX_CURRENT_FOR_ELECTROMIGRATION</li>
<li>MAX_CURRENT_FOR_VIO_ELECTROMIGRATION</li>
<li>MAX_DATA_ARRIVAL_SKEW</li>
<li>MAX_DELAY_FOR_CORE_PERIPHERY_TRANSFER</li>
<li>MAX_DELAY_FOR_PERIPHERY_CORE_TRANSFER</li>
<li>MAX_DELAY</li>
<li>MAX_FANOUT</li>
<li>MAX_GLOBAL_CLOCKS_ALLOWED</li>
<li>MAX_IGNORED_ASGN_MSG</li>
<li>MAXII_CARRY_CHAIN_LENGTH</li>
<li>MAXII_DECREASE_INPUT_DELAY_TO_INTERNAL_CELLS</li>
<li>MAXII_OPTIMIZATION_TECHNIQUE</li>
<li>MAXIMUM_EFFORT</li>
<li>MAXIMUM</li>
<li>MAX_LABS</li>
<li>MAX_LARGE_PERIPHERY_CLOCKS_ALLOWED</li>
<li>MAX_NUMBER_OF_REGISTERS_FROM_UNINFERRED_RAMS</li>
<li>MAX_PERIPHERY_CLOCKS_ALLOWED</li>
<li>MAXPLUSII</li>
<li>MAX_PROCESSORS_USED_FOR_MULTITHREADING</li>
<li>MAX_RAM_BLOCKS_M4K</li>
<li>MAX_RAM_BLOCKS_M512</li>
<li>MAX_RAM_BLOCKS_MRAM</li>
<li>MAX_REGIONAL_CLOCKS_ALLOWED</li>
<li>MAX_SCC_SIZE</li>
<li>MAX_WIRES_FOR_CORE_PERIPHERY_ROUTER</li>
<li>MAX_WIRES_FOR_CORE_PERIPHERY_TRANSFER</li>
<li>MAX_WIRES_FOR_PERIPHERY_CORE_ROUTER</li>
<li>MAX_WIRES_FOR_PERIPHERY_CORE_TRANSFER</li>
<li>MEDIUM</li>
<li>MEGAFUNCTION_GENERATED_TRI</li>
<li>MEGALAB_COLUMN</li>
<li>MEGALAB</li>
<li>MEGARAM</li>
<li>MEMBER_OF</li>
<li>MEM_INTERFACE_DELAY_CHAIN_CONFIG</li>
<li>MEMORY_INTERFACE_DATA_PIN_GROUP</li>
<li>MERCURY_CARRY_CHAIN_LENGTH</li>
<li>MERCURY_CLIQUE_TYPE</li>
<li>MERCURY_CONFIG_DEVICE_JTAG_USER_CODE</li>
<li>MERCURY_CONFIGURATION_DEVICE</li>
<li>MERCURY_CONFIGURATION_SCHEME</li>
<li>MERCURY_DECREASE_INPUT_DELAY_TO_INTERNAL_CELLS</li>
<li>MERCURY_DEVICE_IO_STANDARD</li>
<li>MERCURY_FITTER_TYPE</li>
<li>MERCURY_JTAG_USER_CODE</li>
<li>MERCURY_OPTIMIZATION_TECHNIQUE</li>
<li>MERCURY_TECHNOLOGY_MAPPER</li>
<li>MERGE_EQUIVALENT_BIDIRS</li>
<li>MERGE_EQUIVALENT_INPUTS</li>
<li>MERGE_HEX_FILE</li>
<li>MERGE_TX_PLL_DRIVEN_BY_REGISTERS_WITH_SAME_CLEAR</li>
<li>MESSAGE_DISABLE</li>
<li>MESSAGE_ENABLE</li>
<li>MESSAGE_SUPPRESSION_RULE_FILE</li>
<li>MFCU</li>
<li>MID_POWER</li>
<li>MIF_FILE</li>
<li>MIGRATION_ASSIGNMENT</li>
<li>MIGRATION_AUTO_PACKED_REGISTERS</li>
<li>MIGRATION_AUTO_PORT_SWAP</li>
<li>MIGRATION_CONSTRAIN_CORE_RESOURCES</li>
<li>MIGRATION_DEVICES</li>
<li>MIGRATION_DIFFERENT_SOURCE_FILE</li>
<li>MIGRATION_ONLY</li>
<li>MIGRATION_PORT_SWAPPING</li>
<li>MIGRATION_RAM_INFORMATION</li>
<li>MIGRATION_RAM_PACKING_INFORMATION</li>
<li>MIGRATION_REGISTER_PACKING</li>
<li>MILLIVOLTS</li>
<li>MIN_CORE_JUNCTION_TEMP</li>
<li>MIN_CORE_SUPPLY_VOLTAGE</li>
<li>MIN_DELAY_FOR_CORE_PERIPHERY_TRANSFER</li>
<li>MIN_DELAY_FOR_PERIPHERY_CORE_TRANSFER</li>
<li>MIN_DELAY</li>
<li>MINIMAL_BITS</li>
<li>MINIMIZE_AREA</li>
<li>MINIMIZE_AREA_WITH_CHAINS</li>
<li>MINIMIZE_POWER_ONLY</li>
<li>MINIMUM_DELAY_REQUIREMENT</li>
<li>MINIMUM</li>
<li>MINIMUM_SEU_INTERVAL</li>
<li>MINIMUM_TPD_REQUIREMENT</li>
<li>MINIMUM_WIDTH_CLOCK_ENABLE</li>
<li>MINIMUM_WIDTH_SLOAD_SCLEAR</li>
<li>MIN_MTBF_REQUIREMENT</li>
<li>MIN_TCO_REQUIREMENT</li>
<li>MIN_TPD_REQUIREMENT</li>
<li>MINUS_DELTA10</li>
<li>MINUS_DELTA11</li>
<li>MINUS_DELTA12</li>
<li>MINUS_DELTA13</li>
<li>MINUS_DELTA14</li>
<li>MINUS_DELTA15</li>
<li>MINUS_DELTA1</li>
<li>MINUS_DELTA2</li>
<li>MINUS_DELTA3</li>
<li>MINUS_DELTA4</li>
<li>MINUS_DELTA5</li>
<li>MINUS_DELTA6</li>
<li>MINUS_DELTA7</li>
<li>MINUS_DELTA8</li>
<li>MINUS_DELTA9</li>
<li>MIN_WIRES_FOR_CORE_PERIPHERY_TRANSFER</li>
<li>MIN_WIRES_FOR_PERIPHERY_CORE_TRANSFER</li>
<li>MISC_FILE</li>
<li>MLAB_ADD_TIMING_CONSTRAINTS_FOR_MIXED_PORT_FEED_THROUGH_MODE_SETTING_DONT_CARE</li>
<li>MLAB</li>
<li>MLAB_TIMING_CONSTRAINTS_IN_FEED_THROUGH_DONT_CARE_MODE</li>
<li>MODE_0</li>
<li>MODE_10</li>
<li>MODE_11</li>
<li>MODE_12</li>
<li>MODE_13</li>
<li>MODE_14</li>
<li>MODE_15</li>
<li>MODE_1</li>
<li>MODE_2</li>
<li>MODE_3</li>
<li>MODE_4</li>
<li>MODE_5</li>
<li>MODE_6</li>
<li>MODE_7</li>
<li>MODE_8</li>
<li>MODE_9</li>
<li>MODE_DEFAULT</li>
<li>MODEL_1</li>
<li>MODEL_2</li>
<li>MODEL_3</li>
<li>MODULE_BLOATING_FACTOR</li>
<li>MOVE_TO_TOP_IO</li>
<li>MP2_EXPORT_FILE</li>
<li>MULTICYCLE_HOLD</li>
<li>MULTICYCLE</li>
<li>MULTIPLY_BASE_CLOCK_BY</li>
<li>MULTIPLY_BASE_CLOCK_PERIOD_BY</li>
<li>MULTITAP_FILE</li>
<li>MUX_RESTRUCTURE</li>
<li>MUX_USE_ROUTING_ASSIGNMENT</li>
<li>NCEO_OPEN_DRAIN</li>
<li>NCEO_RESERVED_CYCLONEII</li>
<li>NCEO_RESERVED</li>
<li>NCE_PIN</li>
<li>NDQS_LOCAL_CLOCK_DELAY_CHAIN</li>
<li>NEAR_END</li>
<li>NEAR_GLOBAL_CLOCK</li>
<li>NEAR_REGIONAL_CLOCK</li>
<li>NEGATIVE_180</li>
<li>NEGATIVE_90</li>
<li>NEGATIVE_EDGE</li>
<li>NETLIST_ONLY</li>
<li>NETLIST_VIEWER_ASSIGNMENT</li>
<li>NETO_ASSIGNMENT</li>
<li>NEVER_ALLOW</li>
<li>NEVER</li>
<li>NEVER_REGENERATE_IP</li>
<li>NEVER_REGENERATE_IP_SIM</li>
<li>NEW_EXTRACTOR</li>
<li>NO_AUTO_INST_DISCOVERY</li>
<li>NO_BACK_ANNOTATION</li>
<li>NO_BYTE_ENABLE</li>
<li>NO_DC_GAIN</li>
<li>NO_GLOBAL_ROUTE</li>
<li>NOMINAL_CORE_SUPPLY_VOLTAGE</li>
<li>NONDEFAULT_LIBS</li>
<li>NONE</li>
<li>NON_LOCAL</li>
<li>NON_QPI_MODE</li>
<li>NON_S1_MODE</li>
<li>NONSYNCHSTRUCT_CAT</li>
<li>NONSYNCHSTRUCT_RULE_COMB_DRIVES_RAM_WE</li>
<li>NONSYNCHSTRUCT_RULE_COMBLOOP</li>
<li>NONSYNCHSTRUCT_RULE_DELAY_CHAIN</li>
<li>NONSYNCHSTRUCT_RULE_DLATCH</li>
<li>NONSYNCHSTRUCT_RULE_ILLEGAL_PULSE_GEN</li>
<li>NONSYNCHSTRUCT_RULE_LATCH_UNIDENTIFIED</li>
<li>NONSYNCHSTRUCT_RULE_MULTI_VIBRATOR</li>
<li>NONSYNCHSTRUCT_RULE_REG_LOOP</li>
<li>NONSYNCHSTRUCT_RULE_RIPPLE_CLK</li>
<li>NONSYNCHSTRUCT_RULE_SRLATCH</li>
<li>NORMAL_COMPILATION</li>
<li>NORMAL_LCELL_INSERT</li>
<li>NORMAL</li>
<li>NO_SDC_PROMOTION</li>
<li>NOT_A_CLOCK</li>
<li>NOT_BOOST</li>
<li>NOT_CLOCK</li>
<li>NOT_GATE_PUSH_BACK</li>
<li>NO_TO_OPTION_REQUIRED</li>
<li>NOT_USED</li>
<li>NO_VOLTAGE_BOOST</li>
<li>NTFQ_MSG_ACF_ASSIGNMENTS_CHANGED</li>
<li>NUMBER_OF_DESTINATION_TO_REPORT</li>
<li>NUMBER_OF_EXAMPLE_NODES_REPORTED</li>
<li>NUMBER_OF_INVERTED_REGISTERS_REPORTED</li>
<li>NUMBER_OF_PATHS_TO_REPORT</li>
<li>NUMBER_OF_PROTECTED_REGISTERS_REPORTED</li>
<li>NUMBER_OF_REMOVED_REGISTERS_REPORTED</li>
<li>NUMBER_OF_SOURCES_PER_DESTINATION_TO_REPORT</li>
<li>NUMBER_OF_SWEPT_NODES_REPORTED</li>
<li>NUMBER_OF_SYNTHESIS_MIGRATION_ROWS</li>
<li>NUM_PARALLEL_PROCESSORS</li>
<li>NWS_NRS_NCS_CS_RESERVED</li>
<li>OBJECT_FILE</li>
<li>OBSAI_1536</li>
<li>OBSAI_3072</li>
<li>OBSAI_6144</li>
<li>OBSAI_768</li>
<li>OBSERVABLE</li>
<li>OCP_AUTO_PARTITION</li>
<li>OCP_FILE</li>
<li>OCP_HW_EVAL</li>
<li>OCP_PARTITION</li>
<li>OCP_TIMEOUT_PARTITION</li>
<li>OCT_100_OHMS</li>
<li>OCT_120_OHMS</li>
<li>OCT_150_OHMS</li>
<li>OCT_AND_IMPEDANCE_MATCHING_CYCLONEII</li>
<li>OCT_AND_IMPEDANCE_MATCHING</li>
<li>OCT_AND_IMPEDANCE_MATCHING_STRATIXII</li>
<li>OCT_CONTROL_BLOCK</li>
<li>OCT_REGISTER</li>
<li>OE_DELAY_CHAIN</li>
<li>OE_DELAY</li>
<li>OE_OPTION</li>
<li>OFFSET_FROM_BASE_CLOCK</li>
<li>OFFSET_MAIN</li>
<li>OFFSET_PO1</li>
<li>OFFSET_PRE</li>
<li>ON_CHIP_BITSTREAM_DECOMPRESSION</li>
<li>ONE_HOT</li>
<li>OPTIMISTIC</li>
<li>OPTIMIZATION_MODE</li>
<li>OPTIMIZATION_TECHNIQUE_APEX20K</li>
<li>OPTIMIZATION_TECHNIQUE_ARMSTRONG</li>
<li>OPTIMIZATION_TECHNIQUE_CYCLONEII</li>
<li>OPTIMIZATION_TECHNIQUE_CYCLONE</li>
<li>OPTIMIZATION_TECHNIQUE_DALI</li>
<li>OPTIMIZATION_TECHNIQUE_FLEX10K</li>
<li>OPTIMIZATION_TECHNIQUE_FLEX6K</li>
<li>OPTIMIZATION_TECHNIQUE</li>
<li>OPTIMIZATION_TECHNIQUE_MAX7000</li>
<li>OPTIMIZATION_TECHNIQUE_TSUNAMI</li>
<li>OPTIMIZATION_TECHNIQUE_YEAGER</li>
<li>OPTIMIZED_EFFORT</li>
<li>OPTIMIZE_FAST_CORNER_TIMING</li>
<li>OPTIMIZE_FOR_METASTABILITY</li>
<li>OPTIMIZE_HOLD_TIMING</li>
<li>OPTIMIZE_INTERNAL_TIMING</li>
<li>OPTIMIZE_IOC_REGISTER_PLACEMENT_FOR_TIMING</li>
<li>OPTIMIZE_IO_TIMING</li>
<li>OPTIMIZE_MULTI_CORNER_TIMING</li>
<li>OPTIMIZE_NETLIST_FOR_ROUTABILITY</li>
<li>OPTIMIZE_PERSONA_ROUTABILITY</li>
<li>OPTIMIZE_POWER_DURING_FITTING</li>
<li>OPTIMIZE_POWER_DURING_SYNTHESIS</li>
<li>OPTIMIZE_SIGNAL_INTEGRITY</li>
<li>OPTIMIZE_SSN</li>
<li>OPTIMIZE_TIMING</li>
<li>OPTIONS_FOR_ENTITIES_ONLY</li>
<li>OPTIONS_FOR_INDIVIDUAL_NODES_ONLY</li>
<li>OPTIONS_FOR_NODES_AND_ENTITIES</li>
<li>ORIGINAL_INTERFACE_PORT_NAME</li>
<li>ORIGINAL_QUARTUS_VERSION</li>
<li>ORIGINATING_COMPANION_REVISION</li>
<li>OSC_CLK_1_100MHZ</li>
<li>OSC_CLK_1_125MHZ</li>
<li>OSC_CLK_1_25MHZ</li>
<li>OTHER_APF_RESERVED</li>
<li>OTHER</li>
<li>OTP_AUTO_PARTITION</li>
<li>OTP_PARTITION</li>
<li>OUTPUT_BUFFER_DELAY_CONTROL</li>
<li>OUTPUT_BUFFER_DELAY</li>
<li>OUTPUT_DELAY_CHAIN</li>
<li>OUTPUT_DELAY</li>
<li>OUTPUT_ENABLE_DELAY</li>
<li>OUTPUT_ENABLE_GROUP</li>
<li>OUTPUT_ENABLE_REGISTER_DUPLICATION</li>
<li>OUTPUT_ENABLE_REGISTER</li>
<li>OUTPUT_ENABLE_ROUTING</li>
<li>OUTPUT_FILE_NAME</li>
<li>OUTPUT_IO_TIMING_ENDPOINT</li>
<li>OUTPUT_IO_TIMING_FAR_END_VMEAS</li>
<li>OUTPUT_IO_TIMING_NEAR_END_VMEAS</li>
<li>OUTPUT</li>
<li>OUTPUT_MAX_DELAY</li>
<li>OUTPUT_MIN_DELAY</li>
<li>OUTPUT_OCT_VALUE</li>
<li>OUTPUT_PIN_C_FAR</li>
<li>OUTPUT_PIN_C_NEAR</li>
<li>OUTPUT_PIN_C_PER_LENGTH</li>
<li>OUTPUT_PIN_LENGTH</li>
<li>OUTPUT_PIN_LOAD</li>
<li>OUTPUT_PIN_L_PER_LENGTH</li>
<li>OUTPUT_PIN_R_FAR_HIGH</li>
<li>OUTPUT_PIN_R_FAR_LOW</li>
<li>OUTPUT_PIN_R_FAR_SERIES</li>
<li>OUTPUT_PIN_R_NEAR_HIGH</li>
<li>OUTPUT_PIN_R_NEAR_LOW</li>
<li>OUTPUT_PIN_R_NEAR_SERIES</li>
<li>OUTPUT_PIN_V_TERMINATION</li>
<li>OUTPUT_REGISTER</li>
<li>OUTPUT_TERMINATION</li>
<li>OUTPUT_TYPE</li>
<li>OVERRIDE_DEFAULT_ELECTROMIGRATION_PARAMETERS</li>
<li>OWNED_BY_UPPER_PARTITION</li>
<li>P0H9</li>
<li>P0L9</li>
<li>PACKAGE_SKEW_COMPENSATION</li>
<li>PACK_ALL_IO_REGISTERS</li>
<li>PAD_TO_CORE_DELAY</li>
<li>PAD_TO_DDIO_REGISTER_DELAY</li>
<li>PAD_TO_INPUT_REGISTER_DELAY</li>
<li>PARALLEL_50_OHMS_WITH_CALIBRATION</li>
<li>PARALLEL_EXPANDER_CHAIN_LENGTH</li>
<li>PARALLEL</li>
<li>PARALLEL_SYNTHESIS</li>
<li>PARAMETER_ARRAY</li>
<li>PARAMETER_BOOL</li>
<li>PARAMETER_CHAR</li>
<li>PARAMETER_ENUM</li>
<li>PARAMETER</li>
<li>PARAMETER_PHYSICAL</li>
<li>PARAMETER_SIGNED_BIN</li>
<li>PARAMETER_SIGNED_DEC</li>
<li>PARAMETER_SIGNED_FLOAT</li>
<li>PARAMETER_SIGNED_HEX</li>
<li>PARAMETER_SIGNED_OCT</li>
<li>PARAMETERS</li>
<li>PARAMETER_STRING</li>
<li>PARAMETER_UNKNOWN</li>
<li>PARAMETER_UNSIGNED_BIN</li>
<li>PARAMETER_UNSIGNED_DEC</li>
<li>PARAMETER_UNSIGNED_FLOAT</li>
<li>PARAMETER_UNSIGNED_HEX</li>
<li>PARAMETER_UNSIGNED_OCT</li>
<li>PARAMETER_UNSIZED_BIT_LITERAL</li>
<li>PARTIAL_RECONFIGURATION_PARTITION</li>
<li>PARTIAL_SRAM_OBJECT_FILE</li>
<li>PARTITION_ALWAYS_USE_QXP_NETLIST</li>
<li>PARTITION_ASD_REGION_ID</li>
<li>PARTITION_ASD_REGION</li>
<li>PARTITION_BACK_ANNOTATION</li>
<li>PARTITION_COLOR</li>
<li>PARTITION_COLOUR</li>
<li>PARTITION_ENABLE_STRICT_PRESERVATION</li>
<li>PARTITION_EXTRACT_HARD_BLOCK_NODES</li>
<li>PARTITION_FITTER_PRESERVATION_LEVEL</li>
<li>PARTITION_HIERARCHY</li>
<li>PARTITION_IGNORE_SOURCE_FILE_CHANGES</li>
<li>PARTITION_IMPORT_ASSIGNMENTS</li>
<li>PARTITION_IMPORT_EXISTING_ASSIGNMENTS</li>
<li>PARTITION_IMPORT_EXISTING_LOGICLOCK_REGIONS</li>
<li>PARTITION_IMPORT_FILE</li>
<li>PARTITION_IMPORT_NEW_ASSIGNMENTS</li>
<li>PARTITION_IMPORT_PIN_ASSIGNMENTS</li>
<li>PARTITION_IMPORT_PROMOTE_ASSIGNMENTS</li>
<li>PARTITION_LAST_IMPORTED_FILE</li>
<li>PARTITION</li>
<li>PARTITION_NETLIST_TYPE</li>
<li>PARTITION_ONLY</li>
<li>PARTITION_PRESERVE_HIGH_SPEED_TILES</li>
<li>PARTITION_SOURCE</li>
<li>PARTITION_TYPE</li>
<li>PASSIVE_PARALLEL_ASYNCHRONOUS</li>
<li>PASSIVE_PARALLEL_SYNCHRONOUS</li>
<li>PASSIVE_PARALLEL_X16</li>
<li>PASSIVE_PARALLEL_X32</li>
<li>PASSIVE_PARALLEL_X8</li>
<li>PASSIVE_PROGRAMMING_FILE_NAME</li>
<li>PASSIVE_RESISTOR</li>
<li>PASSIVE_SERIAL_ASYNCHRONOUS</li>
<li>PASSIVE_SERIAL</li>
<li>PBIP_FILE</li>
<li>PCB_LAYERS</li>
<li>PCIE_CABLE</li>
<li>PCIE_GEN1_3P5DB</li>
<li>PCIE_GEN1</li>
<li>PCIE_GEN2_3P5DB</li>
<li>PCIE_GEN2_6DB</li>
<li>PCIE_GEN2</li>
<li>PCIE_GEN3</li>
<li>PCIE_PRE_EMPH_GEN1</li>
<li>PCIE_PRE_EMPH_GEN2_3_5DB_DEEMPH</li>
<li>PCIE_PRE_EMPH_GEN2_6DB_DEEMPH</li>
<li>PCIE_PRE_EMPH_GEN2_LOW_MARGIN</li>
<li>PCIE_PRE_EMPH_GEN2_LOW_SWING</li>
<li>PCIE_VOD_GEN1</li>
<li>PCIE_VOD_GEN2_3_5DB_DEEMPH</li>
<li>PCIE_VOD_GEN2_6DB_DEEMPH</li>
<li>PCIE_VOD_GEN2_LOW_MARGIN</li>
<li>PCIE_VOD_GEN2_LOW_SWING</li>
<li>PCI_IO</li>
<li>PDC_FILE</li>
<li>PERIPHERAL</li>
<li>PERIPHERY_CLOCK</li>
<li>PERIPHERY_REUSE_CORE</li>
<li>PERIPHERY_SEED</li>
<li>PERIPHERY_TO_CORE_PLACEMENT_AND_ROUTING_OPTIMIZATION</li>
<li>PERIPH_FITTER_SCRIPT</li>
<li>PERIPH_REPORT_SCRIPT</li>
<li>PERSONA_FILE</li>
<li>PESSIMISTIC</li>
<li>PEXP_LENGTH</li>
<li>PEXP_LENGTH_MAX7000</li>
<li>PHASE_FROM_BASE_CLOCK</li>
<li>PHASE_OF_0_DEGREES</li>
<li>PHASE_OF_72_DEGREES</li>
<li>PHASE_OF_90_DEGREES</li>
<li>PHYSICAL_SHIFT_REGISTER_INFERENCE</li>
<li>PHYSICAL_SYNTHESIS_ASYNCHRONOUS_SIGNAL_PIPELINING_DISABLE_DESTINATION_CHECK</li>
<li>PHYSICAL_SYNTHESIS_ASYNCHRONOUS_SIGNAL_PIPELINING</li>
<li>PHYSICAL_SYNTHESIS_ASYNCHRONOUS_SIGNAL_PIPELINING_REG_REACH</li>
<li>PHYSICAL_SYNTHESIS_COMBO_LOGIC_FOR_AREA</li>
<li>PHYSICAL_SYNTHESIS_COMBO_LOGIC</li>
<li>PHYSICAL_SYNTHESIS_EFFORT</li>
<li>PHYSICAL_SYNTHESIS</li>
<li>PHYSICAL_SYNTHESIS_LOG_FILE</li>
<li>PHYSICAL_SYNTHESIS_MAP_LOGIC_TO_MEMORY_FOR_AREA</li>
<li>PHYSICAL_SYNTHESIS_PIPELINE</li>
<li>PHYSICAL_SYNTHESIS_REGISTER_DUPLICATION</li>
<li>PHYSICAL_SYNTHESIS_REGISTER_RETIMING</li>
<li>PIN_CONNECT_FROM_NODE</li>
<li>PIN_FILE</li>
<li>PIN_PLANNER_DISPLAY_ASSIGNMENT_VALUE_FROM_POSITIVE_PIN_TO_NEGATIVE_PIN</li>
<li>PIN_PLANNER_FILE</li>
<li>PIN_PLANNER_GROUP_EXCEPTION</li>
<li>PIN_PLANNER_GROUP_MEMBER</li>
<li>PIN_PLANNER_GROUP_SETTINGS</li>
<li>PLACEMENT_AND_ROUTING_AND_HIGH_SPEED_TILE</li>
<li>PLACEMENT_AND_ROUTING_AND_HIGH_SPEED_TILES</li>
<li>PLACEMENT_AND_ROUTING_AND_TILE</li>
<li>PLACEMENT_AND_ROUTING</li>
<li>PLACEMENT_EFFORT_MULTIPLIER</li>
<li>PLACEMENT</li>
<li>PLACE_REGION</li>
<li>PLD_TO_STRIPE_INTERRUPTS_EPXA4_10</li>
<li>PLL_APLLY_PFD_ISSUE_WORKAROUND</li>
<li>PLL_AUTO_RESET</li>
<li>PLL_BANDWIDTH_PRESET</li>
<li>PLL_C_COUNTER_DELAY_CHAIN</li>
<li>PLL_CHANNEL_SPACING</li>
<li>PLL_COMPENSATE</li>
<li>PLL_COMPENSATION_MODE</li>
<li>PLL_DISABLE_COUNTER_SETTINGS_OPTIMIZATION</li>
<li>PLL_ENFORCE_USER_PHASE_SHIFT</li>
<li>PLL_EXTERNAL_FEEDBACK_BOARD_DELAY</li>
<li>PLL_FEEDBACK_CLOCK_SIGNAL</li>
<li>PLL_FORCE_OUTPUT_COUNTER_HARDCOPY_REPLAY</li>
<li>PLL_FORCE_OUTPUT_COUNTER</li>
<li>PLL_IGNORE_MIGRATION_DEVICES</li>
<li>PLL_LOCK_10K</li>
<li>PLL_LOCK</li>
<li>PLL_LVDS_DELAY_CHAIN</li>
<li>PLL_OPTIMIZE_PHASE_SHIFT_FOR_TIMING</li>
<li>PLL_OUTPUT_CLOCK_FREQUENCY</li>
<li>PLL_PFD_CLOCK_FREQUENCY</li>
<li>PLL_PHASE_RECONFIG_COUNTER_REMAP_LCELL</li>
<li>PLL_PRE_C_COUNTER_DELAY_CHAIN</li>
<li>PLL_SCAN_RECONFIG_COUNTER_REMAP_LCELL</li>
<li>PLL_TYPE</li>
<li>PLL_VCO_CLOCK_FREQUENCY</li>
<li>PLUS_DELTA10</li>
<li>PLUS_DELTA11</li>
<li>PLUS_DELTA12</li>
<li>PLUS_DELTA13</li>
<li>PLUS_DELTA14</li>
<li>PLUS_DELTA15</li>
<li>PLUS_DELTA1</li>
<li>PLUS_DELTA2</li>
<li>PLUS_DELTA3</li>
<li>PLUS_DELTA4</li>
<li>PLUS_DELTA5</li>
<li>PLUS_DELTA6</li>
<li>PLUS_DELTA7</li>
<li>PLUS_DELTA8</li>
<li>PLUS_DELTA9</li>
<li>PMBUS_MASTER</li>
<li>PMBUS_SLAVE</li>
<li>POF_VERIFY_PROTECT</li>
<li>POR_SCHEME</li>
<li>POSITIVE_180</li>
<li>POSITIVE_90</li>
<li>POSITIVE_EDGE</li>
<li>POST_BUILD_COMMAND_LINE</li>
<li>POST_CONFIG</li>
<li>POST_FIT_CONNECT_FROM_SLD_NODE_ENTITY_PORT</li>
<li>POST_FIT_CONNECT_TO_SLD_NODE_ENTITY_PORT</li>
<li>POST_FIT</li>
<li>POST_FIT_WITH_ROUTING</li>
<li>POST_FLOW_SCRIPT_FILE</li>
<li>POST_MAPPING_RESYNTHESIS</li>
<li>POST_MODULE_SCRIPT_FILE</li>
<li>POST_SYNTH</li>
<li>POWER_APPLY_THERMAL_MARGIN</li>
<li>POWER_AUTO_COMPUTE_TJ</li>
<li>POWER_BOARD_TEMPERATURE</li>
<li>POWER_BOARD_THERMAL_MODEL</li>
<li>POWER_COOLING_FOR_MAX_TJ</li>
<li>POWER_DEFAULT_INPUT_IO_TOGGLE_RATE</li>
<li>POWER_DEFAULT_TOGGLE_RATE</li>
<li>POWER_ESTIMATION_ASSIGNMENT</li>
<li>POWER_ESTIMATION_END_TIME</li>
<li>POWER_ESTIMATION_START_TIME</li>
<li>POWER_GLITCH_FACTOR</li>
<li>POWER_HPS_DYNAMIC_POWER_DUAL</li>
<li>POWER_HPS_DYNAMIC_POWER_SINGLE</li>
<li>POWER_HPS_ENABLE</li>
<li>POWER_HPS_JUNCTION_TEMPERATURE</li>
<li>POWER_HPS_PROC_FREQ</li>
<li>POWER_HPS_STATIC_POWER</li>
<li>POWER_HPS_TOTAL_POWER</li>
<li>POWER_HSSI_LEFT</li>
<li>POWER_HSSI</li>
<li>POWER_HSSI_RIGHT</li>
<li>POWER_HSSI_VCCHIP_LEFT</li>
<li>POWER_HSSI_VCCHIP_RIGHT</li>
<li>POWER_INPUT_FILE</li>
<li>POWER_INPUT_FILE_NAME</li>
<li>POWER_INPUT_FILE_SETTINGS</li>
<li>POWER_INPUT_FILE_TYPE</li>
<li>POWER</li>
<li>POWER_MAX_TJ_VALUE</li>
<li>POWER_OCS_VALUE</li>
<li>POWER_OJB_VALUE</li>
<li>POWER_OJC_VALUE</li>
<li>POWER_OSA_VALUE</li>
<li>POWER_OUTPUT_SAF_NAME</li>
<li>POWER_PRESET_COOLING_SOLUTION</li>
<li>POWER_READ_INPUT_FILE</li>
<li>POWER_REPORT_POWER_DISSIPATION</li>
<li>POWER_REPORT_SIGNAL_ACTIVITY</li>
<li>POWER_STATIC_PROBABILITY</li>
<li>POWER_STATIC_TOGGLE_RATE</li>
<li>POWER_TJ_VALUE</li>
<li>POWER_TOGGLE_RATE</li>
<li>POWER_TOGGLE_RATE_PERCENTAGE</li>
<li>POWER_UP_HIGH</li>
<li>POWER_UP_LEVEL</li>
<li>POWER_USE_CUSTOM_COOLING_SOLUTION</li>
<li>POWER_USE_DEVICE_CHARACTERISTICS</li>
<li>POWER_USE_INPUT_FILES</li>
<li>POWER_USE_PVA</li>
<li>POWER_USE_TA_VALUE</li>
<li>POWER_USE_VOLTAGE</li>
<li>POWER_VCCA_FPLL_USER_VOLTAGE</li>
<li>POWER_VCCA_GTBR_USER_VOLTAGE</li>
<li>POWER_VCCA_GTB_USER_VOLTAGE</li>
<li>POWER_VCCA_GXBL_USER_OPTION</li>
<li>POWER_VCCA_GXBL_USER_VOLTAGE</li>
<li>POWER_VCCA_GXBR_USER_OPTION</li>
<li>POWER_VCCA_GXBR_USER_VOLTAGE</li>
<li>POWER_VCCA_GXB_USER_OPTION</li>
<li>POWER_VCCA_GXB_USER_VOLTAGE</li>
<li>POWER_VCCA_L_USER_OPTION</li>
<li>POWER_VCCA_L_USER_VOLTAGE</li>
<li>POWER_VCCA_PLL_USER_VOLTAGE</li>
<li>POWER_VCCA_R_USER_OPTION</li>
<li>POWER_VCCA_R_USER_VOLTAGE</li>
<li>POWER_VCCA_USER_VOLTAGE</li>
<li>POWER_VCCAUX_SHARED_USER_VOLTAGE</li>
<li>POWER_VCCAUX_USER_OPTION</li>
<li>POWER_VCCAUX_USER_VOLTAGE</li>
<li>POWER_VCCBAT_USER_VOLTAGE</li>
<li>POWER_VCCCB_USER_OPTION</li>
<li>POWER_VCCCB_USER_VOLTAGE</li>
<li>POWER_VCCD_FPLL_USER_VOLTAGE</li>
<li>POWER_VCCD_PLL_USER_VOLTAGE</li>
<li>POWER_VCCD_USER_VOLTAGE</li>
<li>POWER_VCCE_GXBL_USER_VOLTAGE</li>
<li>POWER_VCCE_GXBR_USER_VOLTAGE</li>
<li>POWER_VCCE_GXB_USER_VOLTAGE</li>
<li>POWER_VCCEH_GXBL_USER_VOLTAGE</li>
<li>POWER_VCCEH_GXBR_USER_VOLTAGE</li>
<li>POWER_VCCEH_GXB_USER_VOLTAGE</li>
<li>POWER_VCCERAM_USER_VOLTAGE</li>
<li>POWER_VCCE_USER_VOLTAGE</li>
<li>POWER_VCCH_GTBR_USER_VOLTAGE</li>
<li>POWER_VCCH_GTB_USER_VOLTAGE</li>
<li>POWER_VCCH_GXBL_USER_OPTION</li>
<li>POWER_VCCH_GXBL_USER_VOLTAGE</li>
<li>POWER_VCCH_GXBR_USER_OPTION</li>
<li>POWER_VCCH_GXBR_USER_VOLTAGE</li>
<li>POWER_VCCH_GXB_USER_OPTION</li>
<li>POWER_VCCH_GXB_USER_VOLTAGE</li>
<li>POWER_VCCHIP_L_USER_VOLTAGE</li>
<li>POWER_VCCHIP_R_USER_VOLTAGE</li>
<li>POWER_VCCHIP_USER_VOLTAGE</li>
<li>POWER_VCCH_L_USER_VOLTAGE</li>
<li>POWER_VCC_HPS_USER_VOLTAGE</li>
<li>POWER_VCCH_R_USER_VOLTAGE</li>
<li>POWER_VCCHSSI_L_USER_VOLTAGE</li>
<li>POWER_VCCHSSI_R_USER_VOLTAGE</li>
<li>POWER_VCCINT_USER_VOLTAGE</li>
<li>POWER_VCCIO_HPS_USER_VOLTAGE</li>
<li>POWER_VCCIOREF_HPS_USER_VOLTAGE</li>
<li>POWER_VCCIO_USER_OPTION</li>
<li>POWER_VCCIO_USER_VOLTAGE</li>
<li>POWER_VCCL_GTBL_USER_VOLTAGE</li>
<li>POWER_VCCL_GTBR_USER_VOLTAGE</li>
<li>POWER_VCCL_GTB_USER_VOLTAGE</li>
<li>POWER_VCCL_GXBL_USER_VOLTAGE</li>
<li>POWER_VCCL_GXBR_USER_VOLTAGE</li>
<li>POWER_VCCL_GXB_USER_OPTION</li>
<li>POWER_VCCL_GXB_USER_VOLTAGE</li>
<li>POWER_VCCL_HPS_USER_VOLTAGE</li>
<li>POWER_VCCL_USER_VOLTAGE</li>
<li>POWER_VCCPD_USER_OPTION</li>
<li>POWER_VCCPD_USER_VOLTAGE</li>
<li>POWER_VCCPGM_USER_VOLTAGE</li>
<li>POWER_VCCPLL_HPS_USER_VOLTAGE</li>
<li>POWER_VCCPT_USER_VOLTAGE</li>
<li>POWER_VCCP_USER_VOLTAGE</li>
<li>POWER_VCCR_GTBL_USER_VOLTAGE</li>
<li>POWER_VCCR_GTBR_USER_VOLTAGE</li>
<li>POWER_VCCR_GTB_USER_VOLTAGE</li>
<li>POWER_VCCR_GXBL_USER_OPTION</li>
<li>POWER_VCCR_GXBL_USER_VOLTAGE</li>
<li>POWER_VCCR_GXBR_USER_OPTION</li>
<li>POWER_VCCR_GXBR_USER_VOLTAGE</li>
<li>POWER_VCCR_GXB_USER_OPTION</li>
<li>POWER_VCCR_GXB_USER_VOLTAGE</li>
<li>POWER_VCCR_L_USER_VOLTAGE</li>
<li>POWER_VCCR_R_USER_VOLTAGE</li>
<li>POWER_VCCRSTCLK_HPS_USER_VOLTAGE</li>
<li>POWER_VCCR_USER_VOLTAGE</li>
<li>POWER_VCCT_GTBL_USER_VOLTAGE</li>
<li>POWER_VCCT_GTBR_USER_VOLTAGE</li>
<li>POWER_VCCT_GTB_USER_VOLTAGE</li>
<li>POWER_VCCT_GXBL_USER_OPTION</li>
<li>POWER_VCCT_GXBL_USER_VOLTAGE</li>
<li>POWER_VCCT_GXBR_USER_OPTION</li>
<li>POWER_VCCT_GXBR_USER_VOLTAGE</li>
<li>POWER_VCCT_GXB_USER_OPTION</li>
<li>POWER_VCCT_GXB_USER_VOLTAGE</li>
<li>POWER_VCCT_L_USER_VOLTAGE</li>
<li>POWER_VCCT_R_USER_VOLTAGE</li>
<li>POWER_VCCT_USER_VOLTAGE</li>
<li>POWER_VCC_USER_VOLTAGE</li>
<li>POWER_VCD_FILE_END_TIME</li>
<li>POWER_VCD_FILE_START_TIME</li>
<li>POWER_VCD_FILTER_GLITCHES</li>
<li>POWER_WILDCARDS</li>
<li>PPF_FILE</li>
<li>PPLQ_GROUP_EXCEPTION</li>
<li>PPLQ_GROUP</li>
<li>PPLQ_GROUP_MEMBER</li>
<li>PR_ALLOW_GLOBAL_LIMS</li>
<li>PR_BASE</li>
<li>PR_BASE_MSF</li>
<li>PR_BASE_SOF</li>
<li>PR_DONE_OPEN_DRAIN</li>
<li>PRE_CONFIG</li>
<li>PRE_FLOW_SCRIPT_FILE</li>
<li>PRE_MAPPING_RESYNTHESIS</li>
<li>PR_ERROR_OPEN_DRAIN</li>
<li>PRESERVED_HANGING_NODES</li>
<li>PRESERVE_FANOUT_FREE_NODE</li>
<li>PRESERVE_FANOUT_FREE_WYSIWYG</li>
<li>PRESERVE_HIERARCHICAL_BOUNDARY</li>
<li>PRESERVE</li>
<li>PRESERVE_PLL_COUNTER_ORDER</li>
<li>PRESERVE_PORT_NAME</li>
<li>PRESERVE_REGISTER</li>
<li>PRESERVE_REGISTER_SYN_ONLY</li>
<li>PRESERVE_SYNONYMS</li>
<li>PRESERVE_UNUSED_XCVR_CHANNEL</li>
<li>PR_IMPL</li>
<li>PRINT_DEBUG_MSG_AND_EXIT</li>
<li>PRIORITY_SEU_AREA</li>
<li>PROCESSOR_DEBUG_EXTENSIONS_EPXA4_10</li>
<li>PROCESSOR</li>
<li>PRODUCT_TERM</li>
<li>PROGRAMMABLE_POWER_MAXIMUM_HIGH_SPEED_FRACTION_OF_USED_LAB_TILES</li>
<li>PROGRAMMABLE_POWER_TECHNOLOGY_SETTING</li>
<li>PROGRAMMABLE_PREEMPHASIS</li>
<li>PROGRAMMABLE_VOD</li>
<li>PROGRAMMER_ASSIGNMENT</li>
<li>PROGRAMMER_OBJECT_FILE</li>
<li>PROGRAMMING_BITSTREAM_ENCRYPTION_KEY_SELECT</li>
<li>PROGRAMMING_BITSTREAM_ENCRYPTION_UPDATE_RATIO</li>
<li>PROGRAMMING_FILE_TYPE</li>
<li>PROGRAMMING_MODE_APEX20KF</li>
<li>PROGRAMMING_MODE_APEX20K</li>
<li>PROGRAMMING_MODE_ARMSTRONG</li>
<li>PROGRAMMING_MODE_CUDA</li>
<li>PROGRAMMING_MODE_CYCLONEII</li>
<li>PROGRAMMING_MODE_DALI</li>
<li>PROGRAMMING_MODE_EXCALIBUR</li>
<li>PROGRAMMING_MODE_FLEX10K</li>
<li>PROGRAMMING_MODE_FLEX6K</li>
<li>PROGRAMMING_MODE</li>
<li>PROGRAMMING_MODE_TITAN</li>
<li>PROGRAMMING_MODE_TORNADO</li>
<li>PROGRAMMING_MODE_YEAGER</li>
<li>PROGRAMMING_MODE_ZIPPLEBACK</li>
<li>PROJECT_ASSIGNMENT</li>
<li>PROJECT_CREATION_TIME_DATE</li>
<li>PROJECT_INFO</li>
<li>PROJECT_IP_GEN_PARALLEL_ENABLED</li>
<li>PROJECT_IP_GEN_SIM_FILESETS_WITH_SYNTHESIS</li>
<li>PROJECT_IP_REGENERATION_POLICY</li>
<li>PROJECT_IP_SEARCH_PATHS</li>
<li>PROJECT_IP_SIM_REGENERATION_POLICY</li>
<li>PROJECT_MIGRATION_TIMESTAMP</li>
<li>PROJECT_OUTPUT_DIRECTORY</li>
<li>PROJECT_SHOW_ENTITY_NAME</li>
<li>PROJECT_SOURCE_FILE</li>
<li>PROJECT_THUNDER_BAY</li>
<li>PROJECT_USE_SIMPLIFIED_NAMES</li>
<li>PRO_ONLY</li>
<li>PROPAGATE_CONSTANTS_ON_INPUTS</li>
<li>PROPAGATE_INVERSIONS_ON_INPUTS</li>
<li>PR_PARTITION</li>
<li>PR_PINS_OPEN_DRAIN</li>
<li>PRPOF_ID_CHECK</li>
<li>PRPOF_ID</li>
<li>PRPOF_ID_VALUE</li>
<li>PR_READY_OPEN_DRAIN</li>
<li>PR_SECURITY_VALIDATION</li>
<li>PR_SKIP_BASE_CHECK</li>
<li>PR_SYN</li>
<li>PULL_DN</li>
<li>PULLDOWN_DRIVE_STRENGTH_BITS</li>
<li>PULL_DOWN</li>
<li>PULL_RESISTOR</li>
<li>PULLUP_DRIVE_STRENGTH_BITS</li>
<li>PULL_UP</li>
<li>PULL_UP_TO_VCCELA</li>
<li>PULSE_WIDTH_0</li>
<li>PULSE_WIDTH_1</li>
<li>PULSE_WIDTH_2_LARGE</li>
<li>PULSE_WIDTH_2</li>
<li>PULSE_WIDTH_NONE</li>
<li>PWRMGT_ADV_CLOCK_DATA_FALL_TIME</li>
<li>PWRMGT_ADV_CLOCK_DATA_RISE_TIME</li>
<li>PWRMGT_ADV_DATA_HOLD_TIME</li>
<li>PWRMGT_ADV_DATA_SETUP_TIME</li>
<li>PWRMGT_ADV_FPGA_RELEASE_DELAY</li>
<li>PWRMGT_ADV_INITIAL_DELAY</li>
<li>PWRMGT_ADV_VOLTAGE_STABLE_DELAY</li>
<li>PWRMGT_ADV_VOUT_READING_ERR_MARGIN</li>
<li>PWRMGT_BUS_SPEED_MODE</li>
<li>PWRMGT_DEVICE_ADDRESS_IN_PMBUS_SLAVE_MODE</li>
<li>PWRMGT_DIRECT_FORMAT_COEFFICIENT_B</li>
<li>PWRMGT_DIRECT_FORMAT_COEFFICIENT_M</li>
<li>PWRMGT_DIRECT_FORMAT_COEFFICIENT_R</li>
<li>PWRMGT_LINEAR_FORMAT_N</li>
<li>PWRMGT_PAGE_COMMAND_ENABLE</li>
<li>PWRMGT_SLAVE_DEVICE0_ADDRESS</li>
<li>PWRMGT_SLAVE_DEVICE1_ADDRESS</li>
<li>PWRMGT_SLAVE_DEVICE2_ADDRESS</li>
<li>PWRMGT_SLAVE_DEVICE3_ADDRESS</li>
<li>PWRMGT_SLAVE_DEVICE4_ADDRESS</li>
<li>PWRMGT_SLAVE_DEVICE5_ADDRESS</li>
<li>PWRMGT_SLAVE_DEVICE6_ADDRESS</li>
<li>PWRMGT_SLAVE_DEVICE7_ADDRESS</li>
<li>PWRMGT_SLAVE_DEVICE_TYPE</li>
<li>PWRMGT_TABLE_VERSION</li>
<li>PWRMGT_TRANSLATED_VOLTAGE_VALUE_UNIT</li>
<li>PWRMGT_VOLTAGE_OUTPUT_FORMAT</li>
<li>QAR_FILE</li>
<li>QARLOG_FILE</li>
<li>QDB_FILE</li>
<li>QDB_FILE_PARTITION</li>
<li>QDB_PATH</li>
<li>QDFS_USE_CHERRY</li>
<li>QDR_D_PIN_GROUP</li>
<li>QHD_MODE</li>
<li>QIC_EXPORT_FILE</li>
<li>QIC_EXPORT_FLATTEN</li>
<li>QIC_EXPORT_NETLIST_TYPE</li>
<li>QIC_EXPORT_PARTITION_NAME</li>
<li>QIC_EXPORT_ROUTING</li>
<li>QIC_USE_BINARY_DATABASES</li>
<li>QID_ASSIGNMENT</li>
<li>QII_AUTO_PACKED_REGISTERS</li>
<li>QIP_FILE</li>
<li>QKY_FILE</li>
<li>QPI_MODE</li>
<li>QSGMII_5000</li>
<li>QSYS_FILE</li>
<li>QUARTUS_ACF_FILE</li>
<li>QUARTUS_COMPILER_SETTINGS_FILE</li>
<li>QUARTUS_ENTITY_SETTINGS_FILE</li>
<li>QUARTUS_GUI_SIGNATURE_ID</li>
<li>QUARTUSII</li>
<li>QUARTUS_PROJECT_FILE</li>
<li>QUARTUS_PROJECT_SETTINGS_FILE</li>
<li>QUARTUS_PTF_FILE</li>
<li>QUARTUS_SBD_FILE</li>
<li>QUARTUS_SIMULATOR_SETTINGS_FILE</li>
<li>QUARTUS_SOFTWARE_SETTINGS_FILE</li>
<li>QUARTUS_STANDARD_DELAY_FILE</li>
<li>QUARTUS_WORKSPACE_FILE</li>
<li>QVAR_FILE</li>
<li>QXP_FILE</li>
<li>R_ADAPT_DFE_CONTROL_SEL_0</li>
<li>R_ADAPT_DFE_CONTROL_SEL_1</li>
<li>R_ADAPT_DFE_CONTROL_SEL_2</li>
<li>R_ADAPT_DFE_CONTROL_SEL_3</li>
<li>R_ADAPT_DFE_SEL_0</li>
<li>R_ADAPT_DFE_SEL_1</li>
<li>R_ADAPT_VGA_SEL_0</li>
<li>R_ADAPT_VGA_SEL_1</li>
<li>R_ADAPT_VREF_SEL_0</li>
<li>R_ADAPT_VREF_SEL_1</li>
<li>R_ADAPT_VREF_SEL_2</li>
<li>R_ADAPT_VREF_SEL_3</li>
<li>RADP_CTLE_ACGAIN_4S_0</li>
<li>RADP_CTLE_ACGAIN_4S_10</li>
<li>RADP_CTLE_ACGAIN_4S_11</li>
<li>RADP_CTLE_ACGAIN_4S_12</li>
<li>RADP_CTLE_ACGAIN_4S_13</li>
<li>RADP_CTLE_ACGAIN_4S_14</li>
<li>RADP_CTLE_ACGAIN_4S_15</li>
<li>RADP_CTLE_ACGAIN_4S_16</li>
<li>RADP_CTLE_ACGAIN_4S_17</li>
<li>RADP_CTLE_ACGAIN_4S_18</li>
<li>RADP_CTLE_ACGAIN_4S_19</li>
<li>RADP_CTLE_ACGAIN_4S_1</li>
<li>RADP_CTLE_ACGAIN_4S_20</li>
<li>RADP_CTLE_ACGAIN_4S_21</li>
<li>RADP_CTLE_ACGAIN_4S_22</li>
<li>RADP_CTLE_ACGAIN_4S_23</li>
<li>RADP_CTLE_ACGAIN_4S_24</li>
<li>RADP_CTLE_ACGAIN_4S_25</li>
<li>RADP_CTLE_ACGAIN_4S_26</li>
<li>RADP_CTLE_ACGAIN_4S_27</li>
<li>RADP_CTLE_ACGAIN_4S_28</li>
<li>RADP_CTLE_ACGAIN_4S_2</li>
<li>RADP_CTLE_ACGAIN_4S_3</li>
<li>RADP_CTLE_ACGAIN_4S_4</li>
<li>RADP_CTLE_ACGAIN_4S_5</li>
<li>RADP_CTLE_ACGAIN_4S_6</li>
<li>RADP_CTLE_ACGAIN_4S_7</li>
<li>RADP_CTLE_ACGAIN_4S_8</li>
<li>RADP_CTLE_ACGAIN_4S_9</li>
<li>RADP_CTLE_EQZ_1S_SEL_0</li>
<li>RADP_CTLE_EQZ_1S_SEL_10</li>
<li>RADP_CTLE_EQZ_1S_SEL_11</li>
<li>RADP_CTLE_EQZ_1S_SEL_12</li>
<li>RADP_CTLE_EQZ_1S_SEL_13</li>
<li>RADP_CTLE_EQZ_1S_SEL_14</li>
<li>RADP_CTLE_EQZ_1S_SEL_15</li>
<li>RADP_CTLE_EQZ_1S_SEL_1</li>
<li>RADP_CTLE_EQZ_1S_SEL_2</li>
<li>RADP_CTLE_EQZ_1S_SEL_3</li>
<li>RADP_CTLE_EQZ_1S_SEL_4</li>
<li>RADP_CTLE_EQZ_1S_SEL_5</li>
<li>RADP_CTLE_EQZ_1S_SEL_6</li>
<li>RADP_CTLE_EQZ_1S_SEL_7</li>
<li>RADP_CTLE_EQZ_1S_SEL_8</li>
<li>RADP_CTLE_EQZ_1S_SEL_9</li>
<li>RADP_DFE_FLTAP_POSITION_0</li>
<li>RADP_DFE_FLTAP_POSITION_10</li>
<li>RADP_DFE_FLTAP_POSITION_11</li>
<li>RADP_DFE_FLTAP_POSITION_12</li>
<li>RADP_DFE_FLTAP_POSITION_13</li>
<li>RADP_DFE_FLTAP_POSITION_14</li>
<li>RADP_DFE_FLTAP_POSITION_15</li>
<li>RADP_DFE_FLTAP_POSITION_16</li>
<li>RADP_DFE_FLTAP_POSITION_17</li>
<li>RADP_DFE_FLTAP_POSITION_18</li>
<li>RADP_DFE_FLTAP_POSITION_19</li>
<li>RADP_DFE_FLTAP_POSITION_1</li>
<li>RADP_DFE_FLTAP_POSITION_20</li>
<li>RADP_DFE_FLTAP_POSITION_21</li>
<li>RADP_DFE_FLTAP_POSITION_22</li>
<li>RADP_DFE_FLTAP_POSITION_23</li>
<li>RADP_DFE_FLTAP_POSITION_24</li>
<li>RADP_DFE_FLTAP_POSITION_25</li>
<li>RADP_DFE_FLTAP_POSITION_26</li>
<li>RADP_DFE_FLTAP_POSITION_27</li>
<li>RADP_DFE_FLTAP_POSITION_28</li>
<li>RADP_DFE_FLTAP_POSITION_29</li>
<li>RADP_DFE_FLTAP_POSITION_2</li>
<li>RADP_DFE_FLTAP_POSITION_30</li>
<li>RADP_DFE_FLTAP_POSITION_31</li>
<li>RADP_DFE_FLTAP_POSITION_32</li>
<li>RADP_DFE_FLTAP_POSITION_33</li>
<li>RADP_DFE_FLTAP_POSITION_34</li>
<li>RADP_DFE_FLTAP_POSITION_35</li>
<li>RADP_DFE_FLTAP_POSITION_36</li>
<li>RADP_DFE_FLTAP_POSITION_37</li>
<li>RADP_DFE_FLTAP_POSITION_38</li>
<li>RADP_DFE_FLTAP_POSITION_39</li>
<li>RADP_DFE_FLTAP_POSITION_3</li>
<li>RADP_DFE_FLTAP_POSITION_40</li>
<li>RADP_DFE_FLTAP_POSITION_41</li>
<li>RADP_DFE_FLTAP_POSITION_42</li>
<li>RADP_DFE_FLTAP_POSITION_43</li>
<li>RADP_DFE_FLTAP_POSITION_44</li>
<li>RADP_DFE_FLTAP_POSITION_45</li>
<li>RADP_DFE_FLTAP_POSITION_46</li>
<li>RADP_DFE_FLTAP_POSITION_47</li>
<li>RADP_DFE_FLTAP_POSITION_48</li>
<li>RADP_DFE_FLTAP_POSITION_49</li>
<li>RADP_DFE_FLTAP_POSITION_4</li>
<li>RADP_DFE_FLTAP_POSITION_50</li>
<li>RADP_DFE_FLTAP_POSITION_51</li>
<li>RADP_DFE_FLTAP_POSITION_52</li>
<li>RADP_DFE_FLTAP_POSITION_53</li>
<li>RADP_DFE_FLTAP_POSITION_54</li>
<li>RADP_DFE_FLTAP_POSITION_55</li>
<li>RADP_DFE_FLTAP_POSITION_5</li>
<li>RADP_DFE_FLTAP_POSITION_6</li>
<li>RADP_DFE_FLTAP_POSITION_7</li>
<li>RADP_DFE_FLTAP_POSITION_8</li>
<li>RADP_DFE_FLTAP_POSITION_9</li>
<li>RADP_DFE_FXTAP10_0</li>
<li>RADP_DFE_FXTAP10_10</li>
<li>RADP_DFE_FXTAP10_11</li>
<li>RADP_DFE_FXTAP10_12</li>
<li>RADP_DFE_FXTAP10_13</li>
<li>RADP_DFE_FXTAP10_14</li>
<li>RADP_DFE_FXTAP10_15</li>
<li>RADP_DFE_FXTAP10_16</li>
<li>RADP_DFE_FXTAP10_17</li>
<li>RADP_DFE_FXTAP10_18</li>
<li>RADP_DFE_FXTAP10_19</li>
<li>RADP_DFE_FXTAP10_1</li>
<li>RADP_DFE_FXTAP10_20</li>
<li>RADP_DFE_FXTAP10_21</li>
<li>RADP_DFE_FXTAP10_22</li>
<li>RADP_DFE_FXTAP10_23</li>
<li>RADP_DFE_FXTAP10_24</li>
<li>RADP_DFE_FXTAP10_25</li>
<li>RADP_DFE_FXTAP10_26</li>
<li>RADP_DFE_FXTAP10_27</li>
<li>RADP_DFE_FXTAP10_28</li>
<li>RADP_DFE_FXTAP10_29</li>
<li>RADP_DFE_FXTAP10_2</li>
<li>RADP_DFE_FXTAP10_30</li>
<li>RADP_DFE_FXTAP10_31</li>
<li>RADP_DFE_FXTAP10_32</li>
<li>RADP_DFE_FXTAP10_33</li>
<li>RADP_DFE_FXTAP10_34</li>
<li>RADP_DFE_FXTAP10_35</li>
<li>RADP_DFE_FXTAP10_36</li>
<li>RADP_DFE_FXTAP10_37</li>
<li>RADP_DFE_FXTAP10_38</li>
<li>RADP_DFE_FXTAP10_39</li>
<li>RADP_DFE_FXTAP10_3</li>
<li>RADP_DFE_FXTAP10_40</li>
<li>RADP_DFE_FXTAP10_41</li>
<li>RADP_DFE_FXTAP10_42</li>
<li>RADP_DFE_FXTAP10_43</li>
<li>RADP_DFE_FXTAP10_44</li>
<li>RADP_DFE_FXTAP10_45</li>
<li>RADP_DFE_FXTAP10_46</li>
<li>RADP_DFE_FXTAP10_47</li>
<li>RADP_DFE_FXTAP10_48</li>
<li>RADP_DFE_FXTAP10_49</li>
<li>RADP_DFE_FXTAP10_4</li>
<li>RADP_DFE_FXTAP10_50</li>
<li>RADP_DFE_FXTAP10_51</li>
<li>RADP_DFE_FXTAP10_52</li>
<li>RADP_DFE_FXTAP10_53</li>
<li>RADP_DFE_FXTAP10_54</li>
<li>RADP_DFE_FXTAP10_55</li>
<li>RADP_DFE_FXTAP10_56</li>
<li>RADP_DFE_FXTAP10_57</li>
<li>RADP_DFE_FXTAP10_58</li>
<li>RADP_DFE_FXTAP10_59</li>
<li>RADP_DFE_FXTAP10_5</li>
<li>RADP_DFE_FXTAP10_60</li>
<li>RADP_DFE_FXTAP10_61</li>
<li>RADP_DFE_FXTAP10_62</li>
<li>RADP_DFE_FXTAP10_63</li>
<li>RADP_DFE_FXTAP10_6</li>
<li>RADP_DFE_FXTAP10_7</li>
<li>RADP_DFE_FXTAP10_8</li>
<li>RADP_DFE_FXTAP10_9</li>
<li>RADP_DFE_FXTAP1_0</li>
<li>RADP_DFE_FXTAP10_SGN_0</li>
<li>RADP_DFE_FXTAP10_SGN_1</li>
<li>RADP_DFE_FXTAP1_100</li>
<li>RADP_DFE_FXTAP1_101</li>
<li>RADP_DFE_FXTAP1_102</li>
<li>RADP_DFE_FXTAP1_103</li>
<li>RADP_DFE_FXTAP1_104</li>
<li>RADP_DFE_FXTAP1_105</li>
<li>RADP_DFE_FXTAP1_106</li>
<li>RADP_DFE_FXTAP1_107</li>
<li>RADP_DFE_FXTAP1_108</li>
<li>RADP_DFE_FXTAP1_109</li>
<li>RADP_DFE_FXTAP1_10</li>
<li>RADP_DFE_FXTAP11_0</li>
<li>RADP_DFE_FXTAP1_110</li>
<li>RADP_DFE_FXTAP11_10</li>
<li>RADP_DFE_FXTAP1_111</li>
<li>RADP_DFE_FXTAP11_11</li>
<li>RADP_DFE_FXTAP1_112</li>
<li>RADP_DFE_FXTAP11_12</li>
<li>RADP_DFE_FXTAP1_113</li>
<li>RADP_DFE_FXTAP11_13</li>
<li>RADP_DFE_FXTAP1_114</li>
<li>RADP_DFE_FXTAP11_14</li>
<li>RADP_DFE_FXTAP1_115</li>
<li>RADP_DFE_FXTAP11_15</li>
<li>RADP_DFE_FXTAP1_116</li>
<li>RADP_DFE_FXTAP11_16</li>
<li>RADP_DFE_FXTAP1_117</li>
<li>RADP_DFE_FXTAP11_17</li>
<li>RADP_DFE_FXTAP1_118</li>
<li>RADP_DFE_FXTAP11_18</li>
<li>RADP_DFE_FXTAP1_119</li>
<li>RADP_DFE_FXTAP11_19</li>
<li>RADP_DFE_FXTAP1_11</li>
<li>RADP_DFE_FXTAP11_1</li>
<li>RADP_DFE_FXTAP1_120</li>
<li>RADP_DFE_FXTAP11_20</li>
<li>RADP_DFE_FXTAP1_121</li>
<li>RADP_DFE_FXTAP11_21</li>
<li>RADP_DFE_FXTAP1_122</li>
<li>RADP_DFE_FXTAP11_22</li>
<li>RADP_DFE_FXTAP1_123</li>
<li>RADP_DFE_FXTAP11_23</li>
<li>RADP_DFE_FXTAP1_124</li>
<li>RADP_DFE_FXTAP11_24</li>
<li>RADP_DFE_FXTAP1_125</li>
<li>RADP_DFE_FXTAP11_25</li>
<li>RADP_DFE_FXTAP1_126</li>
<li>RADP_DFE_FXTAP11_26</li>
<li>RADP_DFE_FXTAP1_127</li>
<li>RADP_DFE_FXTAP11_27</li>
<li>RADP_DFE_FXTAP11_28</li>
<li>RADP_DFE_FXTAP11_29</li>
<li>RADP_DFE_FXTAP1_12</li>
<li>RADP_DFE_FXTAP11_2</li>
<li>RADP_DFE_FXTAP11_30</li>
<li>RADP_DFE_FXTAP11_31</li>
<li>RADP_DFE_FXTAP11_32</li>
<li>RADP_DFE_FXTAP11_33</li>
<li>RADP_DFE_FXTAP11_34</li>
<li>RADP_DFE_FXTAP11_35</li>
<li>RADP_DFE_FXTAP11_36</li>
<li>RADP_DFE_FXTAP11_37</li>
<li>RADP_DFE_FXTAP11_38</li>
<li>RADP_DFE_FXTAP11_39</li>
<li>RADP_DFE_FXTAP1_13</li>
<li>RADP_DFE_FXTAP11_3</li>
<li>RADP_DFE_FXTAP11_40</li>
<li>RADP_DFE_FXTAP11_41</li>
<li>RADP_DFE_FXTAP11_42</li>
<li>RADP_DFE_FXTAP11_43</li>
<li>RADP_DFE_FXTAP11_44</li>
<li>RADP_DFE_FXTAP11_45</li>
<li>RADP_DFE_FXTAP11_46</li>
<li>RADP_DFE_FXTAP11_47</li>
<li>RADP_DFE_FXTAP11_48</li>
<li>RADP_DFE_FXTAP11_49</li>
<li>RADP_DFE_FXTAP1_14</li>
<li>RADP_DFE_FXTAP11_4</li>
<li>RADP_DFE_FXTAP11_50</li>
<li>RADP_DFE_FXTAP11_51</li>
<li>RADP_DFE_FXTAP11_52</li>
<li>RADP_DFE_FXTAP11_53</li>
<li>RADP_DFE_FXTAP11_54</li>
<li>RADP_DFE_FXTAP11_55</li>
<li>RADP_DFE_FXTAP11_56</li>
<li>RADP_DFE_FXTAP11_57</li>
<li>RADP_DFE_FXTAP11_58</li>
<li>RADP_DFE_FXTAP11_59</li>
<li>RADP_DFE_FXTAP1_15</li>
<li>RADP_DFE_FXTAP11_5</li>
<li>RADP_DFE_FXTAP11_60</li>
<li>RADP_DFE_FXTAP11_61</li>
<li>RADP_DFE_FXTAP11_62</li>
<li>RADP_DFE_FXTAP11_63</li>
<li>RADP_DFE_FXTAP1_16</li>
<li>RADP_DFE_FXTAP11_6</li>
<li>RADP_DFE_FXTAP1_17</li>
<li>RADP_DFE_FXTAP11_7</li>
<li>RADP_DFE_FXTAP1_18</li>
<li>RADP_DFE_FXTAP11_8</li>
<li>RADP_DFE_FXTAP1_19</li>
<li>RADP_DFE_FXTAP11_9</li>
<li>RADP_DFE_FXTAP1_1</li>
<li>RADP_DFE_FXTAP11_SGN_0</li>
<li>RADP_DFE_FXTAP11_SGN_1</li>
<li>RADP_DFE_FXTAP1_20</li>
<li>RADP_DFE_FXTAP1_21</li>
<li>RADP_DFE_FXTAP1_22</li>
<li>RADP_DFE_FXTAP1_23</li>
<li>RADP_DFE_FXTAP1_24</li>
<li>RADP_DFE_FXTAP1_25</li>
<li>RADP_DFE_FXTAP1_26</li>
<li>RADP_DFE_FXTAP1_27</li>
<li>RADP_DFE_FXTAP1_28</li>
<li>RADP_DFE_FXTAP1_29</li>
<li>RADP_DFE_FXTAP1_2</li>
<li>RADP_DFE_FXTAP1_30</li>
<li>RADP_DFE_FXTAP1_31</li>
<li>RADP_DFE_FXTAP1_32</li>
<li>RADP_DFE_FXTAP1_33</li>
<li>RADP_DFE_FXTAP1_34</li>
<li>RADP_DFE_FXTAP1_35</li>
<li>RADP_DFE_FXTAP1_36</li>
<li>RADP_DFE_FXTAP1_37</li>
<li>RADP_DFE_FXTAP1_38</li>
<li>RADP_DFE_FXTAP1_39</li>
<li>RADP_DFE_FXTAP1_3</li>
<li>RADP_DFE_FXTAP1_40</li>
<li>RADP_DFE_FXTAP1_41</li>
<li>RADP_DFE_FXTAP1_42</li>
<li>RADP_DFE_FXTAP1_43</li>
<li>RADP_DFE_FXTAP1_44</li>
<li>RADP_DFE_FXTAP1_45</li>
<li>RADP_DFE_FXTAP1_46</li>
<li>RADP_DFE_FXTAP1_47</li>
<li>RADP_DFE_FXTAP1_48</li>
<li>RADP_DFE_FXTAP1_49</li>
<li>RADP_DFE_FXTAP1_4</li>
<li>RADP_DFE_FXTAP1_50</li>
<li>RADP_DFE_FXTAP1_51</li>
<li>RADP_DFE_FXTAP1_52</li>
<li>RADP_DFE_FXTAP1_53</li>
<li>RADP_DFE_FXTAP1_54</li>
<li>RADP_DFE_FXTAP1_55</li>
<li>RADP_DFE_FXTAP1_56</li>
<li>RADP_DFE_FXTAP1_57</li>
<li>RADP_DFE_FXTAP1_58</li>
<li>RADP_DFE_FXTAP1_59</li>
<li>RADP_DFE_FXTAP1_5</li>
<li>RADP_DFE_FXTAP1_60</li>
<li>RADP_DFE_FXTAP1_61</li>
<li>RADP_DFE_FXTAP1_62</li>
<li>RADP_DFE_FXTAP1_63</li>
<li>RADP_DFE_FXTAP1_64</li>
<li>RADP_DFE_FXTAP1_65</li>
<li>RADP_DFE_FXTAP1_66</li>
<li>RADP_DFE_FXTAP1_67</li>
<li>RADP_DFE_FXTAP1_68</li>
<li>RADP_DFE_FXTAP1_69</li>
<li>RADP_DFE_FXTAP1_6</li>
<li>RADP_DFE_FXTAP1_70</li>
<li>RADP_DFE_FXTAP1_71</li>
<li>RADP_DFE_FXTAP1_72</li>
<li>RADP_DFE_FXTAP1_73</li>
<li>RADP_DFE_FXTAP1_74</li>
<li>RADP_DFE_FXTAP1_75</li>
<li>RADP_DFE_FXTAP1_76</li>
<li>RADP_DFE_FXTAP1_77</li>
<li>RADP_DFE_FXTAP1_78</li>
<li>RADP_DFE_FXTAP1_79</li>
<li>RADP_DFE_FXTAP1_7</li>
<li>RADP_DFE_FXTAP1_80</li>
<li>RADP_DFE_FXTAP1_81</li>
<li>RADP_DFE_FXTAP1_82</li>
<li>RADP_DFE_FXTAP1_83</li>
<li>RADP_DFE_FXTAP1_84</li>
<li>RADP_DFE_FXTAP1_85</li>
<li>RADP_DFE_FXTAP1_86</li>
<li>RADP_DFE_FXTAP1_87</li>
<li>RADP_DFE_FXTAP1_88</li>
<li>RADP_DFE_FXTAP1_89</li>
<li>RADP_DFE_FXTAP1_8</li>
<li>RADP_DFE_FXTAP1_90</li>
<li>RADP_DFE_FXTAP1_91</li>
<li>RADP_DFE_FXTAP1_92</li>
<li>RADP_DFE_FXTAP1_93</li>
<li>RADP_DFE_FXTAP1_94</li>
<li>RADP_DFE_FXTAP1_95</li>
<li>RADP_DFE_FXTAP1_96</li>
<li>RADP_DFE_FXTAP1_97</li>
<li>RADP_DFE_FXTAP1_98</li>
<li>RADP_DFE_FXTAP1_99</li>
<li>RADP_DFE_FXTAP1_9</li>
<li>RADP_DFE_FXTAP2_0</li>
<li>RADP_DFE_FXTAP2_100</li>
<li>RADP_DFE_FXTAP2_101</li>
<li>RADP_DFE_FXTAP2_102</li>
<li>RADP_DFE_FXTAP2_103</li>
<li>RADP_DFE_FXTAP2_104</li>
<li>RADP_DFE_FXTAP2_105</li>
<li>RADP_DFE_FXTAP2_106</li>
<li>RADP_DFE_FXTAP2_107</li>
<li>RADP_DFE_FXTAP2_108</li>
<li>RADP_DFE_FXTAP2_109</li>
<li>RADP_DFE_FXTAP2_10</li>
<li>RADP_DFE_FXTAP2_110</li>
<li>RADP_DFE_FXTAP2_111</li>
<li>RADP_DFE_FXTAP2_112</li>
<li>RADP_DFE_FXTAP2_113</li>
<li>RADP_DFE_FXTAP2_114</li>
<li>RADP_DFE_FXTAP2_115</li>
<li>RADP_DFE_FXTAP2_116</li>
<li>RADP_DFE_FXTAP2_117</li>
<li>RADP_DFE_FXTAP2_118</li>
<li>RADP_DFE_FXTAP2_119</li>
<li>RADP_DFE_FXTAP2_11</li>
<li>RADP_DFE_FXTAP2_120</li>
<li>RADP_DFE_FXTAP2_121</li>
<li>RADP_DFE_FXTAP2_122</li>
<li>RADP_DFE_FXTAP2_123</li>
<li>RADP_DFE_FXTAP2_124</li>
<li>RADP_DFE_FXTAP2_125</li>
<li>RADP_DFE_FXTAP2_126</li>
<li>RADP_DFE_FXTAP2_127</li>
<li>RADP_DFE_FXTAP2_12</li>
<li>RADP_DFE_FXTAP2_13</li>
<li>RADP_DFE_FXTAP2_14</li>
<li>RADP_DFE_FXTAP2_15</li>
<li>RADP_DFE_FXTAP2_16</li>
<li>RADP_DFE_FXTAP2_17</li>
<li>RADP_DFE_FXTAP2_18</li>
<li>RADP_DFE_FXTAP2_19</li>
<li>RADP_DFE_FXTAP2_1</li>
<li>RADP_DFE_FXTAP2_20</li>
<li>RADP_DFE_FXTAP2_21</li>
<li>RADP_DFE_FXTAP2_22</li>
<li>RADP_DFE_FXTAP2_23</li>
<li>RADP_DFE_FXTAP2_24</li>
<li>RADP_DFE_FXTAP2_25</li>
<li>RADP_DFE_FXTAP2_26</li>
<li>RADP_DFE_FXTAP2_27</li>
<li>RADP_DFE_FXTAP2_28</li>
<li>RADP_DFE_FXTAP2_29</li>
<li>RADP_DFE_FXTAP2_2</li>
<li>RADP_DFE_FXTAP2_30</li>
<li>RADP_DFE_FXTAP2_31</li>
<li>RADP_DFE_FXTAP2_32</li>
<li>RADP_DFE_FXTAP2_33</li>
<li>RADP_DFE_FXTAP2_34</li>
<li>RADP_DFE_FXTAP2_35</li>
<li>RADP_DFE_FXTAP2_36</li>
<li>RADP_DFE_FXTAP2_37</li>
<li>RADP_DFE_FXTAP2_38</li>
<li>RADP_DFE_FXTAP2_39</li>
<li>RADP_DFE_FXTAP2_3</li>
<li>RADP_DFE_FXTAP2_40</li>
<li>RADP_DFE_FXTAP2_41</li>
<li>RADP_DFE_FXTAP2_42</li>
<li>RADP_DFE_FXTAP2_43</li>
<li>RADP_DFE_FXTAP2_44</li>
<li>RADP_DFE_FXTAP2_45</li>
<li>RADP_DFE_FXTAP2_46</li>
<li>RADP_DFE_FXTAP2_47</li>
<li>RADP_DFE_FXTAP2_48</li>
<li>RADP_DFE_FXTAP2_49</li>
<li>RADP_DFE_FXTAP2_4</li>
<li>RADP_DFE_FXTAP2_50</li>
<li>RADP_DFE_FXTAP2_51</li>
<li>RADP_DFE_FXTAP2_52</li>
<li>RADP_DFE_FXTAP2_53</li>
<li>RADP_DFE_FXTAP2_54</li>
<li>RADP_DFE_FXTAP2_55</li>
<li>RADP_DFE_FXTAP2_56</li>
<li>RADP_DFE_FXTAP2_57</li>
<li>RADP_DFE_FXTAP2_58</li>
<li>RADP_DFE_FXTAP2_59</li>
<li>RADP_DFE_FXTAP2_5</li>
<li>RADP_DFE_FXTAP2_60</li>
<li>RADP_DFE_FXTAP2_61</li>
<li>RADP_DFE_FXTAP2_62</li>
<li>RADP_DFE_FXTAP2_63</li>
<li>RADP_DFE_FXTAP2_64</li>
<li>RADP_DFE_FXTAP2_65</li>
<li>RADP_DFE_FXTAP2_66</li>
<li>RADP_DFE_FXTAP2_67</li>
<li>RADP_DFE_FXTAP2_68</li>
<li>RADP_DFE_FXTAP2_69</li>
<li>RADP_DFE_FXTAP2_6</li>
<li>RADP_DFE_FXTAP2_70</li>
<li>RADP_DFE_FXTAP2_71</li>
<li>RADP_DFE_FXTAP2_72</li>
<li>RADP_DFE_FXTAP2_73</li>
<li>RADP_DFE_FXTAP2_74</li>
<li>RADP_DFE_FXTAP2_75</li>
<li>RADP_DFE_FXTAP2_76</li>
<li>RADP_DFE_FXTAP2_77</li>
<li>RADP_DFE_FXTAP2_78</li>
<li>RADP_DFE_FXTAP2_79</li>
<li>RADP_DFE_FXTAP2_7</li>
<li>RADP_DFE_FXTAP2_80</li>
<li>RADP_DFE_FXTAP2_81</li>
<li>RADP_DFE_FXTAP2_82</li>
<li>RADP_DFE_FXTAP2_83</li>
<li>RADP_DFE_FXTAP2_84</li>
<li>RADP_DFE_FXTAP2_85</li>
<li>RADP_DFE_FXTAP2_86</li>
<li>RADP_DFE_FXTAP2_87</li>
<li>RADP_DFE_FXTAP2_88</li>
<li>RADP_DFE_FXTAP2_89</li>
<li>RADP_DFE_FXTAP2_8</li>
<li>RADP_DFE_FXTAP2_90</li>
<li>RADP_DFE_FXTAP2_91</li>
<li>RADP_DFE_FXTAP2_92</li>
<li>RADP_DFE_FXTAP2_93</li>
<li>RADP_DFE_FXTAP2_94</li>
<li>RADP_DFE_FXTAP2_95</li>
<li>RADP_DFE_FXTAP2_96</li>
<li>RADP_DFE_FXTAP2_97</li>
<li>RADP_DFE_FXTAP2_98</li>
<li>RADP_DFE_FXTAP2_99</li>
<li>RADP_DFE_FXTAP2_9</li>
<li>RADP_DFE_FXTAP2_SGN_0</li>
<li>RADP_DFE_FXTAP2_SGN_1</li>
<li>RADP_DFE_FXTAP3_0</li>
<li>RADP_DFE_FXTAP3_100</li>
<li>RADP_DFE_FXTAP3_101</li>
<li>RADP_DFE_FXTAP3_102</li>
<li>RADP_DFE_FXTAP3_103</li>
<li>RADP_DFE_FXTAP3_104</li>
<li>RADP_DFE_FXTAP3_105</li>
<li>RADP_DFE_FXTAP3_106</li>
<li>RADP_DFE_FXTAP3_107</li>
<li>RADP_DFE_FXTAP3_108</li>
<li>RADP_DFE_FXTAP3_109</li>
<li>RADP_DFE_FXTAP3_10</li>
<li>RADP_DFE_FXTAP3_110</li>
<li>RADP_DFE_FXTAP3_111</li>
<li>RADP_DFE_FXTAP3_112</li>
<li>RADP_DFE_FXTAP3_113</li>
<li>RADP_DFE_FXTAP3_114</li>
<li>RADP_DFE_FXTAP3_115</li>
<li>RADP_DFE_FXTAP3_116</li>
<li>RADP_DFE_FXTAP3_117</li>
<li>RADP_DFE_FXTAP3_118</li>
<li>RADP_DFE_FXTAP3_119</li>
<li>RADP_DFE_FXTAP3_11</li>
<li>RADP_DFE_FXTAP3_120</li>
<li>RADP_DFE_FXTAP3_121</li>
<li>RADP_DFE_FXTAP3_122</li>
<li>RADP_DFE_FXTAP3_123</li>
<li>RADP_DFE_FXTAP3_124</li>
<li>RADP_DFE_FXTAP3_125</li>
<li>RADP_DFE_FXTAP3_126</li>
<li>RADP_DFE_FXTAP3_127</li>
<li>RADP_DFE_FXTAP3_12</li>
<li>RADP_DFE_FXTAP3_13</li>
<li>RADP_DFE_FXTAP3_14</li>
<li>RADP_DFE_FXTAP3_15</li>
<li>RADP_DFE_FXTAP3_16</li>
<li>RADP_DFE_FXTAP3_17</li>
<li>RADP_DFE_FXTAP3_18</li>
<li>RADP_DFE_FXTAP3_19</li>
<li>RADP_DFE_FXTAP3_1</li>
<li>RADP_DFE_FXTAP3_20</li>
<li>RADP_DFE_FXTAP3_21</li>
<li>RADP_DFE_FXTAP3_22</li>
<li>RADP_DFE_FXTAP3_23</li>
<li>RADP_DFE_FXTAP3_24</li>
<li>RADP_DFE_FXTAP3_25</li>
<li>RADP_DFE_FXTAP3_26</li>
<li>RADP_DFE_FXTAP3_27</li>
<li>RADP_DFE_FXTAP3_28</li>
<li>RADP_DFE_FXTAP3_29</li>
<li>RADP_DFE_FXTAP3_2</li>
<li>RADP_DFE_FXTAP3_30</li>
<li>RADP_DFE_FXTAP3_31</li>
<li>RADP_DFE_FXTAP3_32</li>
<li>RADP_DFE_FXTAP3_33</li>
<li>RADP_DFE_FXTAP3_34</li>
<li>RADP_DFE_FXTAP3_35</li>
<li>RADP_DFE_FXTAP3_36</li>
<li>RADP_DFE_FXTAP3_37</li>
<li>RADP_DFE_FXTAP3_38</li>
<li>RADP_DFE_FXTAP3_39</li>
<li>RADP_DFE_FXTAP3_3</li>
<li>RADP_DFE_FXTAP3_40</li>
<li>RADP_DFE_FXTAP3_41</li>
<li>RADP_DFE_FXTAP3_42</li>
<li>RADP_DFE_FXTAP3_43</li>
<li>RADP_DFE_FXTAP3_44</li>
<li>RADP_DFE_FXTAP3_45</li>
<li>RADP_DFE_FXTAP3_46</li>
<li>RADP_DFE_FXTAP3_47</li>
<li>RADP_DFE_FXTAP3_48</li>
<li>RADP_DFE_FXTAP3_49</li>
<li>RADP_DFE_FXTAP3_4</li>
<li>RADP_DFE_FXTAP3_50</li>
<li>RADP_DFE_FXTAP3_51</li>
<li>RADP_DFE_FXTAP3_52</li>
<li>RADP_DFE_FXTAP3_53</li>
<li>RADP_DFE_FXTAP3_54</li>
<li>RADP_DFE_FXTAP3_55</li>
<li>RADP_DFE_FXTAP3_56</li>
<li>RADP_DFE_FXTAP3_57</li>
<li>RADP_DFE_FXTAP3_58</li>
<li>RADP_DFE_FXTAP3_59</li>
<li>RADP_DFE_FXTAP3_5</li>
<li>RADP_DFE_FXTAP3_60</li>
<li>RADP_DFE_FXTAP3_61</li>
<li>RADP_DFE_FXTAP3_62</li>
<li>RADP_DFE_FXTAP3_63</li>
<li>RADP_DFE_FXTAP3_64</li>
<li>RADP_DFE_FXTAP3_65</li>
<li>RADP_DFE_FXTAP3_66</li>
<li>RADP_DFE_FXTAP3_67</li>
<li>RADP_DFE_FXTAP3_68</li>
<li>RADP_DFE_FXTAP3_69</li>
<li>RADP_DFE_FXTAP3_6</li>
<li>RADP_DFE_FXTAP3_70</li>
<li>RADP_DFE_FXTAP3_71</li>
<li>RADP_DFE_FXTAP3_72</li>
<li>RADP_DFE_FXTAP3_73</li>
<li>RADP_DFE_FXTAP3_74</li>
<li>RADP_DFE_FXTAP3_75</li>
<li>RADP_DFE_FXTAP3_76</li>
<li>RADP_DFE_FXTAP3_77</li>
<li>RADP_DFE_FXTAP3_78</li>
<li>RADP_DFE_FXTAP3_79</li>
<li>RADP_DFE_FXTAP3_7</li>
<li>RADP_DFE_FXTAP3_80</li>
<li>RADP_DFE_FXTAP3_81</li>
<li>RADP_DFE_FXTAP3_82</li>
<li>RADP_DFE_FXTAP3_83</li>
<li>RADP_DFE_FXTAP3_84</li>
<li>RADP_DFE_FXTAP3_85</li>
<li>RADP_DFE_FXTAP3_86</li>
<li>RADP_DFE_FXTAP3_87</li>
<li>RADP_DFE_FXTAP3_88</li>
<li>RADP_DFE_FXTAP3_89</li>
<li>RADP_DFE_FXTAP3_8</li>
<li>RADP_DFE_FXTAP3_90</li>
<li>RADP_DFE_FXTAP3_91</li>
<li>RADP_DFE_FXTAP3_92</li>
<li>RADP_DFE_FXTAP3_93</li>
<li>RADP_DFE_FXTAP3_94</li>
<li>RADP_DFE_FXTAP3_95</li>
<li>RADP_DFE_FXTAP3_96</li>
<li>RADP_DFE_FXTAP3_97</li>
<li>RADP_DFE_FXTAP3_98</li>
<li>RADP_DFE_FXTAP3_99</li>
<li>RADP_DFE_FXTAP3_9</li>
<li>RADP_DFE_FXTAP3_SGN_0</li>
<li>RADP_DFE_FXTAP3_SGN_1</li>
<li>RADP_DFE_FXTAP4_0</li>
<li>RADP_DFE_FXTAP4_10</li>
<li>RADP_DFE_FXTAP4_11</li>
<li>RADP_DFE_FXTAP4_12</li>
<li>RADP_DFE_FXTAP4_13</li>
<li>RADP_DFE_FXTAP4_14</li>
<li>RADP_DFE_FXTAP4_15</li>
<li>RADP_DFE_FXTAP4_16</li>
<li>RADP_DFE_FXTAP4_17</li>
<li>RADP_DFE_FXTAP4_18</li>
<li>RADP_DFE_FXTAP4_19</li>
<li>RADP_DFE_FXTAP4_1</li>
<li>RADP_DFE_FXTAP4_20</li>
<li>RADP_DFE_FXTAP4_21</li>
<li>RADP_DFE_FXTAP4_22</li>
<li>RADP_DFE_FXTAP4_23</li>
<li>RADP_DFE_FXTAP4_24</li>
<li>RADP_DFE_FXTAP4_25</li>
<li>RADP_DFE_FXTAP4_26</li>
<li>RADP_DFE_FXTAP4_27</li>
<li>RADP_DFE_FXTAP4_28</li>
<li>RADP_DFE_FXTAP4_29</li>
<li>RADP_DFE_FXTAP4_2</li>
<li>RADP_DFE_FXTAP4_30</li>
<li>RADP_DFE_FXTAP4_31</li>
<li>RADP_DFE_FXTAP4_32</li>
<li>RADP_DFE_FXTAP4_33</li>
<li>RADP_DFE_FXTAP4_34</li>
<li>RADP_DFE_FXTAP4_35</li>
<li>RADP_DFE_FXTAP4_36</li>
<li>RADP_DFE_FXTAP4_37</li>
<li>RADP_DFE_FXTAP4_38</li>
<li>RADP_DFE_FXTAP4_39</li>
<li>RADP_DFE_FXTAP4_3</li>
<li>RADP_DFE_FXTAP4_40</li>
<li>RADP_DFE_FXTAP4_41</li>
<li>RADP_DFE_FXTAP4_42</li>
<li>RADP_DFE_FXTAP4_43</li>
<li>RADP_DFE_FXTAP4_44</li>
<li>RADP_DFE_FXTAP4_45</li>
<li>RADP_DFE_FXTAP4_46</li>
<li>RADP_DFE_FXTAP4_47</li>
<li>RADP_DFE_FXTAP4_48</li>
<li>RADP_DFE_FXTAP4_49</li>
<li>RADP_DFE_FXTAP4_4</li>
<li>RADP_DFE_FXTAP4_50</li>
<li>RADP_DFE_FXTAP4_51</li>
<li>RADP_DFE_FXTAP4_52</li>
<li>RADP_DFE_FXTAP4_53</li>
<li>RADP_DFE_FXTAP4_54</li>
<li>RADP_DFE_FXTAP4_55</li>
<li>RADP_DFE_FXTAP4_56</li>
<li>RADP_DFE_FXTAP4_57</li>
<li>RADP_DFE_FXTAP4_58</li>
<li>RADP_DFE_FXTAP4_59</li>
<li>RADP_DFE_FXTAP4_5</li>
<li>RADP_DFE_FXTAP4_60</li>
<li>RADP_DFE_FXTAP4_61</li>
<li>RADP_DFE_FXTAP4_62</li>
<li>RADP_DFE_FXTAP4_63</li>
<li>RADP_DFE_FXTAP4_6</li>
<li>RADP_DFE_FXTAP4_7</li>
<li>RADP_DFE_FXTAP4_8</li>
<li>RADP_DFE_FXTAP4_9</li>
<li>RADP_DFE_FXTAP4_SGN_0</li>
<li>RADP_DFE_FXTAP4_SGN_1</li>
<li>RADP_DFE_FXTAP5_0</li>
<li>RADP_DFE_FXTAP5_10</li>
<li>RADP_DFE_FXTAP5_11</li>
<li>RADP_DFE_FXTAP5_12</li>
<li>RADP_DFE_FXTAP5_13</li>
<li>RADP_DFE_FXTAP5_14</li>
<li>RADP_DFE_FXTAP5_15</li>
<li>RADP_DFE_FXTAP5_16</li>
<li>RADP_DFE_FXTAP5_17</li>
<li>RADP_DFE_FXTAP5_18</li>
<li>RADP_DFE_FXTAP5_19</li>
<li>RADP_DFE_FXTAP5_1</li>
<li>RADP_DFE_FXTAP5_20</li>
<li>RADP_DFE_FXTAP5_21</li>
<li>RADP_DFE_FXTAP5_22</li>
<li>RADP_DFE_FXTAP5_23</li>
<li>RADP_DFE_FXTAP5_24</li>
<li>RADP_DFE_FXTAP5_25</li>
<li>RADP_DFE_FXTAP5_26</li>
<li>RADP_DFE_FXTAP5_27</li>
<li>RADP_DFE_FXTAP5_28</li>
<li>RADP_DFE_FXTAP5_29</li>
<li>RADP_DFE_FXTAP5_2</li>
<li>RADP_DFE_FXTAP5_30</li>
<li>RADP_DFE_FXTAP5_31</li>
<li>RADP_DFE_FXTAP5_32</li>
<li>RADP_DFE_FXTAP5_33</li>
<li>RADP_DFE_FXTAP5_34</li>
<li>RADP_DFE_FXTAP5_35</li>
<li>RADP_DFE_FXTAP5_36</li>
<li>RADP_DFE_FXTAP5_37</li>
<li>RADP_DFE_FXTAP5_38</li>
<li>RADP_DFE_FXTAP5_39</li>
<li>RADP_DFE_FXTAP5_3</li>
<li>RADP_DFE_FXTAP5_40</li>
<li>RADP_DFE_FXTAP5_41</li>
<li>RADP_DFE_FXTAP5_42</li>
<li>RADP_DFE_FXTAP5_43</li>
<li>RADP_DFE_FXTAP5_44</li>
<li>RADP_DFE_FXTAP5_45</li>
<li>RADP_DFE_FXTAP5_46</li>
<li>RADP_DFE_FXTAP5_47</li>
<li>RADP_DFE_FXTAP5_48</li>
<li>RADP_DFE_FXTAP5_49</li>
<li>RADP_DFE_FXTAP5_4</li>
<li>RADP_DFE_FXTAP5_50</li>
<li>RADP_DFE_FXTAP5_51</li>
<li>RADP_DFE_FXTAP5_52</li>
<li>RADP_DFE_FXTAP5_53</li>
<li>RADP_DFE_FXTAP5_54</li>
<li>RADP_DFE_FXTAP5_55</li>
<li>RADP_DFE_FXTAP5_56</li>
<li>RADP_DFE_FXTAP5_57</li>
<li>RADP_DFE_FXTAP5_58</li>
<li>RADP_DFE_FXTAP5_59</li>
<li>RADP_DFE_FXTAP5_5</li>
<li>RADP_DFE_FXTAP5_60</li>
<li>RADP_DFE_FXTAP5_61</li>
<li>RADP_DFE_FXTAP5_62</li>
<li>RADP_DFE_FXTAP5_63</li>
<li>RADP_DFE_FXTAP5_6</li>
<li>RADP_DFE_FXTAP5_7</li>
<li>RADP_DFE_FXTAP5_8</li>
<li>RADP_DFE_FXTAP5_9</li>
<li>RADP_DFE_FXTAP5_SGN_0</li>
<li>RADP_DFE_FXTAP5_SGN_1</li>
<li>RADP_DFE_FXTAP6_0</li>
<li>RADP_DFE_FXTAP6_10</li>
<li>RADP_DFE_FXTAP6_11</li>
<li>RADP_DFE_FXTAP6_12</li>
<li>RADP_DFE_FXTAP6_13</li>
<li>RADP_DFE_FXTAP6_14</li>
<li>RADP_DFE_FXTAP6_15</li>
<li>RADP_DFE_FXTAP6_16</li>
<li>RADP_DFE_FXTAP6_17</li>
<li>RADP_DFE_FXTAP6_18</li>
<li>RADP_DFE_FXTAP6_19</li>
<li>RADP_DFE_FXTAP6_1</li>
<li>RADP_DFE_FXTAP6_20</li>
<li>RADP_DFE_FXTAP6_21</li>
<li>RADP_DFE_FXTAP6_22</li>
<li>RADP_DFE_FXTAP6_23</li>
<li>RADP_DFE_FXTAP6_24</li>
<li>RADP_DFE_FXTAP6_25</li>
<li>RADP_DFE_FXTAP6_26</li>
<li>RADP_DFE_FXTAP6_27</li>
<li>RADP_DFE_FXTAP6_28</li>
<li>RADP_DFE_FXTAP6_29</li>
<li>RADP_DFE_FXTAP6_2</li>
<li>RADP_DFE_FXTAP6_30</li>
<li>RADP_DFE_FXTAP6_31</li>
<li>RADP_DFE_FXTAP6_3</li>
<li>RADP_DFE_FXTAP6_4</li>
<li>RADP_DFE_FXTAP6_5</li>
<li>RADP_DFE_FXTAP6_6</li>
<li>RADP_DFE_FXTAP6_7</li>
<li>RADP_DFE_FXTAP6_8</li>
<li>RADP_DFE_FXTAP6_9</li>
<li>RADP_DFE_FXTAP6_SGN_0</li>
<li>RADP_DFE_FXTAP6_SGN_1</li>
<li>RADP_DFE_FXTAP7_0</li>
<li>RADP_DFE_FXTAP7_10</li>
<li>RADP_DFE_FXTAP7_11</li>
<li>RADP_DFE_FXTAP7_12</li>
<li>RADP_DFE_FXTAP7_13</li>
<li>RADP_DFE_FXTAP7_14</li>
<li>RADP_DFE_FXTAP7_15</li>
<li>RADP_DFE_FXTAP7_16</li>
<li>RADP_DFE_FXTAP7_17</li>
<li>RADP_DFE_FXTAP7_18</li>
<li>RADP_DFE_FXTAP7_19</li>
<li>RADP_DFE_FXTAP7_1</li>
<li>RADP_DFE_FXTAP7_20</li>
<li>RADP_DFE_FXTAP7_21</li>
<li>RADP_DFE_FXTAP7_22</li>
<li>RADP_DFE_FXTAP7_23</li>
<li>RADP_DFE_FXTAP7_24</li>
<li>RADP_DFE_FXTAP7_25</li>
<li>RADP_DFE_FXTAP7_26</li>
<li>RADP_DFE_FXTAP7_27</li>
<li>RADP_DFE_FXTAP7_28</li>
<li>RADP_DFE_FXTAP7_29</li>
<li>RADP_DFE_FXTAP7_2</li>
<li>RADP_DFE_FXTAP7_30</li>
<li>RADP_DFE_FXTAP7_31</li>
<li>RADP_DFE_FXTAP7_3</li>
<li>RADP_DFE_FXTAP7_4</li>
<li>RADP_DFE_FXTAP7_5</li>
<li>RADP_DFE_FXTAP7_6</li>
<li>RADP_DFE_FXTAP7_7</li>
<li>RADP_DFE_FXTAP7_8</li>
<li>RADP_DFE_FXTAP7_9</li>
<li>RADP_DFE_FXTAP7_SGN_0</li>
<li>RADP_DFE_FXTAP7_SGN_1</li>
<li>RADP_DFE_FXTAP8_0</li>
<li>RADP_DFE_FXTAP8_10</li>
<li>RADP_DFE_FXTAP8_11</li>
<li>RADP_DFE_FXTAP8_12</li>
<li>RADP_DFE_FXTAP8_13</li>
<li>RADP_DFE_FXTAP8_14</li>
<li>RADP_DFE_FXTAP8_15</li>
<li>RADP_DFE_FXTAP8_16</li>
<li>RADP_DFE_FXTAP8_17</li>
<li>RADP_DFE_FXTAP8_18</li>
<li>RADP_DFE_FXTAP8_19</li>
<li>RADP_DFE_FXTAP8_1</li>
<li>RADP_DFE_FXTAP8_20</li>
<li>RADP_DFE_FXTAP8_21</li>
<li>RADP_DFE_FXTAP8_22</li>
<li>RADP_DFE_FXTAP8_23</li>
<li>RADP_DFE_FXTAP8_24</li>
<li>RADP_DFE_FXTAP8_25</li>
<li>RADP_DFE_FXTAP8_26</li>
<li>RADP_DFE_FXTAP8_27</li>
<li>RADP_DFE_FXTAP8_28</li>
<li>RADP_DFE_FXTAP8_29</li>
<li>RADP_DFE_FXTAP8_2</li>
<li>RADP_DFE_FXTAP8_30</li>
<li>RADP_DFE_FXTAP8_31</li>
<li>RADP_DFE_FXTAP8_32</li>
<li>RADP_DFE_FXTAP8_33</li>
<li>RADP_DFE_FXTAP8_34</li>
<li>RADP_DFE_FXTAP8_35</li>
<li>RADP_DFE_FXTAP8_36</li>
<li>RADP_DFE_FXTAP8_37</li>
<li>RADP_DFE_FXTAP8_38</li>
<li>RADP_DFE_FXTAP8_39</li>
<li>RADP_DFE_FXTAP8_3</li>
<li>RADP_DFE_FXTAP8_40</li>
<li>RADP_DFE_FXTAP8_41</li>
<li>RADP_DFE_FXTAP8_42</li>
<li>RADP_DFE_FXTAP8_43</li>
<li>RADP_DFE_FXTAP8_44</li>
<li>RADP_DFE_FXTAP8_45</li>
<li>RADP_DFE_FXTAP8_46</li>
<li>RADP_DFE_FXTAP8_47</li>
<li>RADP_DFE_FXTAP8_48</li>
<li>RADP_DFE_FXTAP8_49</li>
<li>RADP_DFE_FXTAP8_4</li>
<li>RADP_DFE_FXTAP8_50</li>
<li>RADP_DFE_FXTAP8_51</li>
<li>RADP_DFE_FXTAP8_52</li>
<li>RADP_DFE_FXTAP8_53</li>
<li>RADP_DFE_FXTAP8_54</li>
<li>RADP_DFE_FXTAP8_55</li>
<li>RADP_DFE_FXTAP8_56</li>
<li>RADP_DFE_FXTAP8_57</li>
<li>RADP_DFE_FXTAP8_58</li>
<li>RADP_DFE_FXTAP8_59</li>
<li>RADP_DFE_FXTAP8_5</li>
<li>RADP_DFE_FXTAP8_60</li>
<li>RADP_DFE_FXTAP8_61</li>
<li>RADP_DFE_FXTAP8_62</li>
<li>RADP_DFE_FXTAP8_63</li>
<li>RADP_DFE_FXTAP8_6</li>
<li>RADP_DFE_FXTAP8_7</li>
<li>RADP_DFE_FXTAP8_8</li>
<li>RADP_DFE_FXTAP8_9</li>
<li>RADP_DFE_FXTAP8_SGN_0</li>
<li>RADP_DFE_FXTAP8_SGN_1</li>
<li>RADP_DFE_FXTAP9_0</li>
<li>RADP_DFE_FXTAP9_10</li>
<li>RADP_DFE_FXTAP9_11</li>
<li>RADP_DFE_FXTAP9_12</li>
<li>RADP_DFE_FXTAP9_13</li>
<li>RADP_DFE_FXTAP9_14</li>
<li>RADP_DFE_FXTAP9_15</li>
<li>RADP_DFE_FXTAP9_16</li>
<li>RADP_DFE_FXTAP9_17</li>
<li>RADP_DFE_FXTAP9_18</li>
<li>RADP_DFE_FXTAP9_19</li>
<li>RADP_DFE_FXTAP9_1</li>
<li>RADP_DFE_FXTAP9_20</li>
<li>RADP_DFE_FXTAP9_21</li>
<li>RADP_DFE_FXTAP9_22</li>
<li>RADP_DFE_FXTAP9_23</li>
<li>RADP_DFE_FXTAP9_24</li>
<li>RADP_DFE_FXTAP9_25</li>
<li>RADP_DFE_FXTAP9_26</li>
<li>RADP_DFE_FXTAP9_27</li>
<li>RADP_DFE_FXTAP9_28</li>
<li>RADP_DFE_FXTAP9_29</li>
<li>RADP_DFE_FXTAP9_2</li>
<li>RADP_DFE_FXTAP9_30</li>
<li>RADP_DFE_FXTAP9_31</li>
<li>RADP_DFE_FXTAP9_32</li>
<li>RADP_DFE_FXTAP9_33</li>
<li>RADP_DFE_FXTAP9_34</li>
<li>RADP_DFE_FXTAP9_35</li>
<li>RADP_DFE_FXTAP9_36</li>
<li>RADP_DFE_FXTAP9_37</li>
<li>RADP_DFE_FXTAP9_38</li>
<li>RADP_DFE_FXTAP9_39</li>
<li>RADP_DFE_FXTAP9_3</li>
<li>RADP_DFE_FXTAP9_40</li>
<li>RADP_DFE_FXTAP9_41</li>
<li>RADP_DFE_FXTAP9_42</li>
<li>RADP_DFE_FXTAP9_43</li>
<li>RADP_DFE_FXTAP9_44</li>
<li>RADP_DFE_FXTAP9_45</li>
<li>RADP_DFE_FXTAP9_46</li>
<li>RADP_DFE_FXTAP9_47</li>
<li>RADP_DFE_FXTAP9_48</li>
<li>RADP_DFE_FXTAP9_49</li>
<li>RADP_DFE_FXTAP9_4</li>
<li>RADP_DFE_FXTAP9_50</li>
<li>RADP_DFE_FXTAP9_51</li>
<li>RADP_DFE_FXTAP9_52</li>
<li>RADP_DFE_FXTAP9_53</li>
<li>RADP_DFE_FXTAP9_54</li>
<li>RADP_DFE_FXTAP9_55</li>
<li>RADP_DFE_FXTAP9_56</li>
<li>RADP_DFE_FXTAP9_57</li>
<li>RADP_DFE_FXTAP9_58</li>
<li>RADP_DFE_FXTAP9_59</li>
<li>RADP_DFE_FXTAP9_5</li>
<li>RADP_DFE_FXTAP9_60</li>
<li>RADP_DFE_FXTAP9_61</li>
<li>RADP_DFE_FXTAP9_62</li>
<li>RADP_DFE_FXTAP9_63</li>
<li>RADP_DFE_FXTAP9_6</li>
<li>RADP_DFE_FXTAP9_7</li>
<li>RADP_DFE_FXTAP9_8</li>
<li>RADP_DFE_FXTAP9_9</li>
<li>RADP_DFE_FXTAP9_SGN_0</li>
<li>RADP_DFE_FXTAP9_SGN_1</li>
<li>RADP_LFEQ_FB_SEL_0</li>
<li>RADP_LFEQ_FB_SEL_1</li>
<li>RADP_LFEQ_FB_SEL_2</li>
<li>RADP_LFEQ_FB_SEL_3</li>
<li>RADP_LFEQ_FB_SEL_4</li>
<li>RADP_LFEQ_FB_SEL_5</li>
<li>RADP_LFEQ_FB_SEL_6</li>
<li>RADP_LFEQ_FB_SEL_7</li>
<li>RADP_ONETIME_DFE_0</li>
<li>RADP_ONETIME_DFE_1</li>
<li>RADP_VGA_SEL_0</li>
<li>RADP_VGA_SEL_1</li>
<li>RADP_VGA_SEL_2</li>
<li>RADP_VGA_SEL_3</li>
<li>RADP_VGA_SEL_4</li>
<li>RADP_VGA_SEL_5</li>
<li>RADP_VGA_SEL_6</li>
<li>RADP_VGA_SEL_7</li>
<li>RADP_VREF_SEL_0</li>
<li>RADP_VREF_SEL_10</li>
<li>RADP_VREF_SEL_11</li>
<li>RADP_VREF_SEL_12</li>
<li>RADP_VREF_SEL_13</li>
<li>RADP_VREF_SEL_14</li>
<li>RADP_VREF_SEL_15</li>
<li>RADP_VREF_SEL_16</li>
<li>RADP_VREF_SEL_17</li>
<li>RADP_VREF_SEL_18</li>
<li>RADP_VREF_SEL_19</li>
<li>RADP_VREF_SEL_1</li>
<li>RADP_VREF_SEL_20</li>
<li>RADP_VREF_SEL_21</li>
<li>RADP_VREF_SEL_22</li>
<li>RADP_VREF_SEL_23</li>
<li>RADP_VREF_SEL_24</li>
<li>RADP_VREF_SEL_25</li>
<li>RADP_VREF_SEL_26</li>
<li>RADP_VREF_SEL_27</li>
<li>RADP_VREF_SEL_28</li>
<li>RADP_VREF_SEL_29</li>
<li>RADP_VREF_SEL_2</li>
<li>RADP_VREF_SEL_30</li>
<li>RADP_VREF_SEL_31</li>
<li>RADP_VREF_SEL_3</li>
<li>RADP_VREF_SEL_4</li>
<li>RADP_VREF_SEL_5</li>
<li>RADP_VREF_SEL_6</li>
<li>RADP_VREF_SEL_7</li>
<li>RADP_VREF_SEL_8</li>
<li>RADP_VREF_SEL_9</li>
<li>RAM_BLOCK_READ_CLOCK_DUTY_CYCLE_DEPENDENCY</li>
<li>RAM_CTL</li>
<li>RAM_REGISTER_DUPLICATION</li>
<li>RAMSTYLE_ATTRIBUTE</li>
<li>RAM_USE_DCD</li>
<li>RANDOM</li>
<li>RANDOM_PIN</li>
<li>RANDOM_PIN_SEED</li>
<li>RAPID_RECOMPILE_ASSIGNMENT_CHECKING</li>
<li>RAPID_RECOMPILE_MODE</li>
<li>RAPID_RECOMPILE_SYNTHESIS_MODE</li>
<li>RAW_BINARY_FILE</li>
<li>RBCGEN_CRITICAL_WARNING_TO_ERROR</li>
<li>RBF_FILE_GENERATION_FOR_SUPR</li>
<li>RDYNBUSY_RESERVED</li>
<li>READ</li>
<li>READ_OR_WRITE_IN_BYTE_ADDRESS</li>
<li>REALISTIC</li>
<li>RECOMMENDED</li>
<li>RECOMPILE_QUESTION</li>
<li>RECONFIGURABLE</li>
<li>RECONFIGURABLE_REVISION</li>
<li>REFCLK_COUNTER_OUT</li>
<li>REFCLK_COUPLING_OCT</li>
<li>REGENERATE_IP_IF_HDL_QSYS_MISMATCH</li>
<li>REGIONAL_CLOCK</li>
<li>REGION_NAME</li>
<li>REGISTER_LOCATION_TYPE</li>
<li>REGISTER_PACKING_ARMSTRONG</li>
<li>REGISTER_PACKING</li>
<li>REGISTER_PACKING_TSUNAMI</li>
<li>REGISTERS_ONLY</li>
<li>RELATIVE_NEUTRON_FLUX</li>
<li>RELEASE_CLEARS_BEFORE_TRI</li>
<li>RELEASE_CLEARS_BEFORE_TRI_STATES</li>
<li>REMOTE</li>
<li>REMOVE_DUPLICATE_LOGIC</li>
<li>REMOVE_DUPLICATE_REGISTERS</li>
<li>REMOVE_FANOUT_FREE_REGISTERS</li>
<li>REMOVE</li>
<li>REMOVE_LOGIC_ON_UNCONNECTED_OUTPUTS</li>
<li>REMOVE_REDUNDANT_LOGIC_CELLS</li>
<li>REMOVE_REDUNDANT_USER_CELLS</li>
<li>REPLACE_CONFLICTING</li>
<li>REPORT_AS_DQS</li>
<li>REPORT_CONNECTIVITY_CHECKS</li>
<li>REPORT_DELAY</li>
<li>REPORT_IO_PATHS_SEPARATELY</li>
<li>REPORT_PARAMETER_SETTINGS</li>
<li>REPORT_PARAMETER_SETTINGS_PRO</li>
<li>REPORT_PR_INITIAL_VALUES_AS_ERROR</li>
<li>REPORT_SOURCE_ASSIGNMENTS</li>
<li>REPORT_SOURCE_ASSIGNMENTS_PRO</li>
<li>REQUIRED_DUTY_CYCLE</li>
<li>REQUIRED_FMAX</li>
<li>RESERVE_ALL_UNUSED_PINS</li>
<li>RESERVE_ALL_UNUSED_PINS_NO_OUTPUT_GND</li>
<li>RESERVE_ALL_UNUSED_PINS_WEAK_PULLUP</li>
<li>RESERVE_ASDO_AFTER_CONFIGURATION</li>
<li>RESERVE_AVST_CLK_AFTER_CONFIGURATION</li>
<li>RESERVE_AVST_DATA15_THROUGH_DATA0_AFTER_CONFIGURATION</li>
<li>RESERVE_AVST_DATA31_THROUGH_DATA16_AFTER_CONFIGURATION</li>
<li>RESERVE_AVST_VALID_AFTER_CONFIGURATION</li>
<li>RESERVED1</li>
<li>RESERVED2</li>
<li>RESERVED3</li>
<li>RESERVED_ALL_UNUSED_PINS</li>
<li>RESERVED_ALL_UNUSED_PINS_NO_OUTPUT_GND</li>
<li>RESERVE_DATA0_AFTER_CONFIGURATION</li>
<li>RESERVE_DATA15_THROUGH_DATA8_AFTER_CONFIGURATION</li>
<li>RESERVE_DATA1_AFTER_CONFIGURATION</li>
<li>RESERVE_DATA31_THROUGH_DATA16_AFTER_CONFIGURATION</li>
<li>RESERVE_DATA7_THROUGH_DATA1_AFTER_CONFIGURATION</li>
<li>RESERVE_DATA7_THROUGH_DATA2_AFTER_CONFIGURATION</li>
<li>RESERVE_DATA7_THROUGH_DATA5_AFTER_CONFIGURATION</li>
<li>RESERVE_DCLK_AFTER_CONFIGURATION</li>
<li>RESERVED_CORE</li>
<li>RESERVED</li>
<li>RESERVED_PIN</li>
<li>RESERVE_FLASH_NCE_AFTER_CONFIGURATION</li>
<li>RESERVE_FLEXIBLE_CLOCK_NETWORK</li>
<li>RESERVE_NCEO_AFTER_CONFIGURATION</li>
<li>RESERVE_NWS_NRS_NCS_CS_AFTER_CONFIGURATION</li>
<li>RESERVE_OTHER_APF_PINS_AFTER_CONFIGURATION</li>
<li>RESERVE_OTHER_AP_PINS_AFTER_CONFIGURATION</li>
<li>RESERVE_PIN</li>
<li>RESERVE_PLACE_REGION</li>
<li>RESERVE_PR_PINS</li>
<li>RESERVE_RDYNBUSY_AFTER_CONFIGURATION</li>
<li>RESERVE_ROUTE_REGION</li>
<li>RESERVE_ROUTING_OUTPUT_FLEXIBILITY</li>
<li>RESERVE_SDO_AFTER_CONFIGURATION</li>
<li>RESET_CAT</li>
<li>RESET_RULE_ALL</li>
<li>RESET_RULE_COMB_ASYNCH_RESET</li>
<li>RESET_RULE_IMSYNCH_ASYNCH_DOMAIN</li>
<li>RESET_RULE_IMSYNCH_EXRESET</li>
<li>RESET_RULE_INPINS_RESETNET</li>
<li>RESET_RULE_REG_ASNYCH</li>
<li>RESET_RULE_UNSYNCH_ASYNCH_DOMAIN</li>
<li>RESET_RULE_UNSYNCH_EXRESET</li>
<li>RESOLVE_FILENAME</li>
<li>RESOURCE_ALLOCATION</li>
<li>RESYNTHESIS_EXTRA_DEBUGGING_INFORMATION</li>
<li>RESYNTHESIS_OPTIMIZATION_EFFORT</li>
<li>RESYNTHESIS_PHYSICAL_SYNTHESIS</li>
<li>RESYNTHESIS_RETIMING</li>
<li>RETAIN_COMB_LOGIC_OUTSIDE_CLOUD</li>
<li>RETIMER_ASSIGNMENT</li>
<li>RETIMER_FAST_FORWARD_ASSIGNMENT</li>
<li>REVISION_BASED_FILE_NAME</li>
<li>REVISION_CONTROL_DIR</li>
<li>REVISION_CONTROL_SYSTEM</li>
<li>REVISION_CONTROL_TCL</li>
<li>REVISION_CONTROL_TCL_SCRIPT</li>
<li>REVISION_TYPE</li>
<li>R_EXT0</li>
<li>RISE</li>
<li>ROOT</li>
<li>ROUTER_CLOCKING_TOPOLOGY_ANALYSIS</li>
<li>ROUTER_EFFORT_MULTIPLIER</li>
<li>ROUTE_REGION</li>
<li>ROUTER_LCELL_INSERTION_AND_LOGIC_DUPLICATION</li>
<li>ROUTER_REGISTER_DUPLICATION</li>
<li>ROUTER_TIMING_OPTIMIZATION_LEVEL</li>
<li>ROUTING_BACK_ANNOTATE</li>
<li>ROUTING_BACK_ANNOTATION_FILE</li>
<li>ROUTING_BACK_ANNOTATION_MODE</li>
<li>ROW_GLOBAL</li>
<li>ROW_GLOBAL_SIGNAL</li>
<li>R_R1</li>
<li>R_R2</li>
<li>RR_HYBRID</li>
<li>RTERM_CODE0</li>
<li>RTERM_CODE10</li>
<li>RTERM_CODE11</li>
<li>RTERM_CODE12</li>
<li>RTERM_CODE13</li>
<li>RTERM_CODE14</li>
<li>RTERM_CODE15</li>
<li>RTERM_CODE1</li>
<li>RTERM_CODE2</li>
<li>RTERM_CODE3</li>
<li>RTERM_CODE4</li>
<li>RTERM_CODE5</li>
<li>RTERM_CODE6</li>
<li>RTERM_CODE7</li>
<li>RTERM_CODE8</li>
<li>RTERM_CODE9</li>
<li>RTLV_GROUP_COMB_LOGIC_IN_CLOUD</li>
<li>RTLV_GROUP_COMB_LOGIC_IN_CLOUD_TMV</li>
<li>RTLV_GROUP_RELATED_NODES</li>
<li>RTLV_GROUP_RELATED_NODES_TMV</li>
<li>RTLV_PRESERVED_HANGING_NODES</li>
<li>RTLV_REMOVE_FANOUT_FREE_REGISTERS</li>
<li>RTLV_RETAIN_COMB_LOGIC_OUTSIDE_CLOUD</li>
<li>RTLV_SIMPLIFIED_LOGIC</li>
<li>RUN_ALL_TIMING_ANALYSES</li>
<li>RUN_CLOCK_TAN</li>
<li>RUN_COMPARISON_ON_EVERY_COMPILE</li>
<li>RUN_DRC_DURING_COMPILATION</li>
<li>RUN_FITTER_IN_SIGNALPROBE_MODE</li>
<li>RUN_FULL_COMPILE_ON_DEVICE_CHANGE</li>
<li>RUN_P2P_TAN</li>
<li>RUN_TAN</li>
<li>RUN_TIMING_ANALYSES</li>
<li>RUN_TIMING_ANALYSES_ONLY_FOR_TIMING_ASSIGNMENTS</li>
<li>RX_DET_OFF</li>
<li>RX_DET_ON</li>
<li>RX_DET_PCIE_OUT</li>
<li>RX_DET_QPI_OUT</li>
<li>RZQ_GROUP</li>
<li>S0H9</li>
<li>S1_MODE</li>
<li>SAFE_STATE_MACHINE</li>
<li>SAME_AS_MULTICYCLE</li>
<li>SAMPLE_AND_SUSTAIN</li>
<li>SAP_NAME</li>
<li>SATA1_I</li>
<li>SATA1_M</li>
<li>SATA1_X</li>
<li>SATA2_I</li>
<li>SATA2_M</li>
<li>SATA2_X</li>
<li>SAVE_DISK_SPACE</li>
<li>SAVE_INTERMEDIATE_FITTING_RESULTS</li>
<li>SAVE_MIGRATION_INFO_DURING_COMPILATION</li>
<li>SBI_FILE</li>
<li>SCE_PIN</li>
<li>SDC_ENTITY_FILE</li>
<li>SDC_ENTITY_HELPER_FILE</li>
<li>SDC_FILE</li>
<li>SDC_STATEMENT</li>
<li>SDC_UNIQUIFIED_STATEMENT</li>
<li>SDF_OUTPUT_FILE</li>
<li>SDI_1485_HD</li>
<li>SDI_270_SD</li>
<li>SDI_2970_3G</li>
<li>SDLV_0</li>
<li>SDLV_10</li>
<li>SDLV_11</li>
<li>SDLV_12</li>
<li>SDLV_13</li>
<li>SDLV_14</li>
<li>SDLV_15</li>
<li>SDLV_1</li>
<li>SDLV_2</li>
<li>SDLV_3</li>
<li>SDLV_4</li>
<li>SDLV_5</li>
<li>SDLV_6</li>
<li>SDLV_7</li>
<li>SDLV_8</li>
<li>SDLV_9</li>
<li>SDM_DIRECT_TO_FACTORY_IMAGE</li>
<li>SDM_PCIE_CALIB_START</li>
<li>SDM_PINS</li>
<li>SDO_PIN</li>
<li>SDO_RESERVED</li>
<li>SEARCH_PATH</li>
<li>SECTION_COLUMN</li>
<li>SECTION</li>
<li>SECURITY_BIT</li>
<li>SEED</li>
<li>SELECTED_EDGE</li>
<li>SEQUENTIAL</li>
<li>SERIAL_BITSTREAM_FILE</li>
<li>SERIAL_LITE_III_16400</li>
<li>SERIAL_LITE_III_17400</li>
<li>SERIAL_VECTOR_FILE</li>
<li>SERIES_25_OHMS</li>
<li>SERIES_25_OHMS_WITH_CALIBRATION</li>
<li>SERIES_25_OHMS_WITHOUT_CALIBRATION</li>
<li>SERIES_50_OHMS</li>
<li>SERIES_50_OHMS_WITH_CALIBRATION</li>
<li>SERIES_50_OHMS_WITHOUT_CALIBRATION</li>
<li>SERIES</li>
<li>SET_PULSE_WIDTH</li>
<li>SETUP_HOLD_DETECTION_INPUT_REGISTERS_BIDIR_PINS_DISABLED</li>
<li>SETUP_HOLD_DETECTION</li>
<li>SETUP_HOLD_TIME_VIOLATION_DETECTION</li>
<li>SETUP_RELATIONSHIP</li>
<li>SEU_FIT_REPORT</li>
<li>SFCU</li>
<li>SFI_S_6250</li>
<li>SFIS</li>
<li>SHIFT_REGISTER_RECOGNITION_ACLR_SIGNAL</li>
<li>SHOW_ALL_TAN_PANELS</li>
<li>SHOW_PARAMETER_SETTINGS_TABLES_IN_SYNTHESIS_REPORT</li>
<li>SHOW_REGISTRATION_MESSAGE</li>
<li>SHOW_TIMING_MODEL_CHANGE_MESSAGE</li>
<li>SIGNAL_INTEGRITY_ASSIGNMENT</li>
<li>SIGNAL_INTEGRITY_WILDCARDS</li>
<li>SIGNALPROBE_ALLOW_OVERUSE</li>
<li>SIGNALPROBE_ASSIGNMENT</li>
<li>SIGNALPROBE_CLOCK</li>
<li>SIGNALPROBE_DURING_NORMAL_COMPILATION</li>
<li>SIGNAL_PROBE_ENABLE</li>
<li>SIGNALPROBE_ENABLE</li>
<li>SIGNALPROBE</li>
<li>SIGNALPROBE_NUM_REGISTERS</li>
<li>SIGNAL_PROBE_SOURCE</li>
<li>SIGNALPROBE_SOURCE</li>
<li>SIGNALRACE_CAT</li>
<li>SIGNALRACE_RULE_ASYNCHPIN_SYNCH_CLKPIN</li>
<li>SIGNALRACE_RULE_CLK_PORT_RACE</li>
<li>SIGNALRACE_RULE_RESET_RACE</li>
<li>SIGNALRACE_RULE_SECOND_SIGNAL_RACE</li>
<li>SIGNALRACE_RULE_TRISTATE</li>
<li>SIGNALTAP_ASSIGNMENTS</li>
<li>SIGNALTAP_FILE</li>
<li>SIGNALTAP</li>
<li>SIGNALTAP_LOGIC_ANALYZER_PROJECT_FILES</li>
<li>SIGNALTAP_LOGIC_ANALYZER_SETTINGS</li>
<li>SIM_AUTO_USE_GLITCH_FILTERING</li>
<li>SIM_BEHAVIOR_SIMULATION</li>
<li>SIM_BUS_CHANNEL_GROUPING</li>
<li>SIM_CELL_DELAY_MODEL_TYPE</li>
<li>SIM_COMPARE_SIGNAL</li>
<li>SIM_COMPILE_HDL_FILES</li>
<li>SIM_DEFAULT_VECTOR_COMPARE_TOLERANCE</li>
<li>SIM_DELAY_MODEL_TYPE</li>
<li>SIM_ENABLE_SIMULATION_NETLIST_VIEWER</li>
<li>SIMGEN_ARBITRARY_BLACKBOX</li>
<li>SIMGEN_BLACKBOX_FILE</li>
<li>SIMGEN_PARAMETER</li>
<li>SIM_HDL_TOP_MODULE_NAME</li>
<li>SIM_INTERCONNECT_DELAY_MODEL_TYPE</li>
<li>SIM_NO_DELAYS</li>
<li>SIM_OUTPUT_POWERPLAY_VCD</li>
<li>SIM_OUTPUT_POWERPLAY_VCD_NAME</li>
<li>SIM_OUTPUT_SAF</li>
<li>SIM_OUTPUT_SAF_NAME</li>
<li>SIM_OVERWRITE_WAVEFORM_INPUTS</li>
<li>SIMPLE_18_BIT_MULTIPLIERS</li>
<li>SIMPLE_MULTIPLIERS</li>
<li>SIMPLE_MULT</li>
<li>SIMPLE_MULT_UPGRADE_WIDTH</li>
<li>SIMPLIFIED_LOGIC</li>
<li>SIM_POWERPLAY_VCD_END_TIME</li>
<li>SIM_POWERPLAY_VCD_START_TIME</li>
<li>SIM_PVT_TIMING_MODEL_TYPE</li>
<li>SIM_SET_NO_DELAYS_VIRTUAL_IO</li>
<li>SIM_SIGNAL_ACTIVITY_END_TIME</li>
<li>SIM_SIGNAL_ACTIVITY_START_TIME</li>
<li>SIM_SIGNAL_COMPARE_TOLERANCE</li>
<li>SIM_SIGNAL_TRIGGER_VECTOR_COMPARE</li>
<li>SIM_SIMULATION_DEBUGGER</li>
<li>SIM_TAP_REGISTER_D_Q_PORTS</li>
<li>SIMULATION_ASSIGNMENT</li>
<li>SIMULATION_BUS_CHANNEL_GROUPING</li>
<li>SIMULATION_CELL_DELAY_MODEL_TYPE</li>
<li>SIMULATION_COMPARE_SIGNAL</li>
<li>SIMULATION_COMPLETE_COVERAGE_REPORT_PANEL</li>
<li>SIMULATION_COVERAGE</li>
<li>SIMULATION_DEFAULT_VECTOR_COMPARE_TOLERANCE</li>
<li>SIMULATION_DELAY_MODEL_TYPE</li>
<li>SIMULATION_INCREMENTAL_TIME_INPUT</li>
<li>SIMULATION_INTERCONNECT_DELAY_MODEL_TYPE</li>
<li>SIMULATION</li>
<li>SIMULATION_MISSING_0_VALUE_COVERAGE_REPORT_PANEL</li>
<li>SIMULATION_MISSING_1_VALUE_COVERAGE_REPORT_PANEL</li>
<li>SIMULATION_MODE</li>
<li>SIMULATION_NETLIST_VIEWER</li>
<li>SIMULATION_SIGNAL_COMPARE_TOLERANCE</li>
<li>SIMULATION_TYPE</li>
<li>SIMULATION_VDB_RESULT_FLUSH</li>
<li>SIMULATION_VECTOR_COMPARE_BEGIN_TIME</li>
<li>SIMULATION_VECTOR_COMPARE_END_TIME</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_0</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_1</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_DC</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_H</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_L</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_U</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_W</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_X</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_Z</li>
<li>SIMULATION_WITH_AUTO_GLITCH_FILTERING</li>
<li>SIMULATION_WITH_GLITCH_FILTERING_IN_NORMAL_FLOW</li>
<li>SIMULATION_WITH_GLITCH_FILTERING</li>
<li>SIMULATION_WITH_GLITCH_FILTERING_WHEN_GENERATING_SAF</li>
<li>SIMULATOR_ACTION_POINTS</li>
<li>SIMULATOR_GENERATE_POWERPLAY_VCD_FILE</li>
<li>SIMULATOR_GENERATE_SIGNAL_ACTIVITY_FILE</li>
<li>SIMULATOR_POWERPLAY_VCD_FILE_END_TIME</li>
<li>SIMULATOR_POWERPLAY_VCD_FILE_OUTPUT_DESTINATION</li>
<li>SIMULATOR_POWERPLAY_VCD_FILE_START_TIME</li>
<li>SIMULATOR_PVT_TIMING_MODEL_TYPE</li>
<li>SIMULATOR_SETTINGS</li>
<li>SIMULATOR_SETTINGS_LIST</li>
<li>SIMULATOR_SIGNAL_ACTIVITY_FILE_END_TIME</li>
<li>SIMULATOR_SIGNAL_ACTIVITY_FILE_OUTPUT_DESTINATION</li>
<li>SIMULATOR_SIGNAL_ACTIVITY_FILE_START_TIME</li>
<li>SIMULATOR_TCL_SCRIPT_FILE</li>
<li>SIM_USE_FAST_TIMING_MODEL</li>
<li>SIM_USE_GLITCH_FILTERING</li>
<li>SIM_USE_GLITCH_FILTERING_WHEN_GENERATING_SAF</li>
<li>SIM_USE_PDB_NETLIST</li>
<li>SIM_VDB_RESULT_FLUSH</li>
<li>SIM_VECTOR_COMPARE_BEGIN_TIME</li>
<li>SIM_VECTOR_COMPARED_CLOCK_DUTY_CYCLE</li>
<li>SIM_VECTOR_COMPARED_CLOCK_OFFSET</li>
<li>SIM_VECTOR_COMPARED_CLOCK_PERIOD</li>
<li>SIM_VECTOR_COMPARE_END_TIME</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_0</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_1</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_DC</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_H</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_L</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_U</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_W</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_X</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_Z</li>
<li>SIM_VECTOR_COMPARE_TRIGGER_CLOCK</li>
<li>SIM_VECTOR_COMPARE_TRIGGER_MODE</li>
<li>SIM_VECTOR_COMPARE_TRIGGER_SIGNAL</li>
<li>SIM_VECTOR_OUTPUT_FILE</li>
<li>SIM_VECTOR_OUTPUT_FORMAT</li>
<li>SINGLE_COMP_IMAGE</li>
<li>SINGLE_COMP_IMAGE_WITH_ERAM</li>
<li>SINGLE_IMAGE</li>
<li>SINGLE_IMAGE_WITH_ERAM</li>
<li>SINGLE_PIN</li>
<li>SIP_FILE</li>
<li>SIZE_OF_LATCH_REPORT</li>
<li>SIZE_OF_PR_INITIAL_CONDITIONS_REPORT</li>
<li>SKIP_ATOM_SWEEPER</li>
<li>SKIP_CONFLICTING</li>
<li>SKIP_CRC_CHECK_IN_HC</li>
<li>SKIP_REGENERATING_IP_IF_HDL_MODIFIED</li>
<li>SLD_BIDIR_PIN_CONNECT_FROM_PORT</li>
<li>SLD_FABRIC_PARTITION</li>
<li>SLD_FILE</li>
<li>SLD_INCR_NODE_CREATOR_ID</li>
<li>SLD_INCR_NODE_ENTITY_NAME</li>
<li>SLD_INCR_NODE_PARAMETER_ASSIGNMENT</li>
<li>SLD_INCR_NODE_SOURCE_FILE</li>
<li>SLD_INFO</li>
<li>SLD_NODE_CONNECT_FROM_PORT</li>
<li>SLD_NODE_CONNECT_TO_PORT</li>
<li>SLD_NODE_CREATOR_ID</li>
<li>SLD_NODE_ENTITY_NAME</li>
<li>SLD_NODE_PARAMETER_ASSIGNMENT</li>
<li>SLD_NODE_SOURCE_FILE</li>
<li>SLD_PARAMETER_ASSIGNMENT</li>
<li>SLD_PARAMETER_COMPATIBILITY_STRING</li>
<li>SLD_PIN_CONNECT_FROM_PORT</li>
<li>SLD_PIN_CONNECT_TO_PORT</li>
<li>SLD_PRE_SYN_COMPATIBILITY_STRING</li>
<li>SLEW_R0</li>
<li>SLEW_R1</li>
<li>SLEW_R2</li>
<li>SLEW_R3</li>
<li>SLEW_R4</li>
<li>SLEW_R5</li>
<li>SLEW_R6</li>
<li>SLEW_R7</li>
<li>SLEW_RATE</li>
<li>SLOW_POR_DELAY</li>
<li>SLOW_SLEW_RATE</li>
<li>SMALL</li>
<li>SMART_COMPILE_IGNORES_TDC_FOR_STRATIX_PLL_CHANGES</li>
<li>SMART_RECOMPILE</li>
<li>SMF_FILE</li>
<li>SMP_PROCESS_TYPE</li>
<li>SOFT</li>
<li>SOFTWARE_ACTION_POINTS</li>
<li>SOFTWARE_LIBRARY_FILE</li>
<li>SOFTWARE_SETTINGS</li>
<li>SOFTWARE_SETTINGS_LIST</li>
<li>SONET</li>
<li>SONET_OC12_622</li>
<li>SONET_OC192_9953</li>
<li>SONET_OC3_155</li>
<li>SONET_OC48_2488</li>
<li>SOPC_BUILDER_SIGNATURE_ID</li>
<li>SOPC_FILE</li>
<li>SOPCINFO_FILE</li>
<li>SOURCE_FILE</li>
<li>SOURCE</li>
<li>SOURCE_MULTICYCLE_HOLD</li>
<li>SOURCE_MULTICYCLE</li>
<li>SOURCES_PER_DESTINATION_INCLUDE_COUNT</li>
<li>SOURCE_SYNCHRONOUS</li>
<li>SOURCE_TCL_SCRIPT_FILE</li>
<li>SOURCE_TCL_SCRIPT</li>
<li>SPARSE_AUTO</li>
<li>SPARSE</li>
<li>SPAUI_6250</li>
<li>SPD_FILE</li>
<li>SPECTRAQ_PHYSICAL_SYNTHESIS</li>
<li>SPEED_DISK_USAGE_TRADEOFF</li>
<li>SPEED</li>
<li>SRAM_OBJECT_FILE</li>
<li>SRC_HOLD_MULTICYCLE</li>
<li>SRC_MULTICYCLE</li>
<li>SRECORDS_FILE</li>
<li>SRIO_1250_LR</li>
<li>SRIO_1250_SR</li>
<li>SRIO_2500_LR</li>
<li>SRIO_2500_SR</li>
<li>SRIO_3125_LR</li>
<li>SRIO_3125_SR</li>
<li>SRIO_5000_LR</li>
<li>SRIO_5000_MR</li>
<li>SRIO_5000_SR</li>
<li>SRIO_6250_LR</li>
<li>SRIO_6250_MR</li>
<li>SRIO_6250_SR</li>
<li>SRIO</li>
<li>STA_IGNORED_EMBEDDED_SDC_STATEMENT</li>
<li>STA_MODE</li>
<li>STANDARD_DELAY_FORMAT_OUTPUT_FILE</li>
<li>STANDARD_FIT</li>
<li>STANDARD</li>
<li>STANDARD_PARTITION</li>
<li>START_TIME</li>
<li>START_UP_CLOCK</li>
<li>STATE_MACHINE_PROCESSING</li>
<li>STD_ONLY</li>
<li>STG1_GAIN7</li>
<li>STG2_GAIN7</li>
<li>STG3_GAIN7</li>
<li>STG4_GAIN7</li>
<li>STOP</li>
<li>STP_FILE</li>
<li>STP_INCREMENTAL_SOURCE</li>
<li>STP_SIGNAL_PROBE_SOURCE</li>
<li>STP_SIGNALPROBE_SOURCE</li>
<li>STP_VIRTUAL_PIN_CLK_SOURCE</li>
<li>STP_VIRTUAL_PIN</li>
<li>STRATIX_CARRY_CHAIN_LENGTH</li>
<li>STRATIX_CONFIG_DEVICE_JTAG_USER_CODE</li>
<li>STRATIX_CONFIGURATION_DEVICE</li>
<li>STRATIX_CONFIGURATION_SCHEME</li>
<li>STRATIX_CRC_ERROR_CHECKING</li>
<li>STRATIX_DECREASE_INPUT_DELAY_TO_INTERNAL_CELLS</li>
<li>STRATIX_DEVICE_IO_STANDARD</li>
<li>STRATIX_FAST_PLL_INCREASE_LOCK_WINDOW</li>
<li>STRATIXGX_ALLOW_CLOCK_FANOUT_WITH_ANALOG_RESET</li>
<li>STRATIXGX_ALLOW_DEDICATED_CLOCK_FANOUT_WITH_ANALOG_RESET</li>
<li>STRATIXGX_ALLOW_GIGE_IN_DOUBLE_DATA_WIDTH_MODE</li>
<li>STRATIXGX_ALLOW_GIGE_UNDER_FULL_DATARATE_RANGE</li>
<li>STRATIXGX_ALLOW_GIGE_WITH_CORECLK_SELECTED_AT_RATE_MATCHER</li>
<li>STRATIXGX_ALLOW_GIGE_WITHOUT_8B10B</li>
<li>STRATIXGX_ALLOW_GIGE_WITH_RX_CORECLK_FROM_NON_TXPLL_SOURCE</li>
<li>STRATIXGX_ALLOW_PARALLEL_LOOPBACK_IN_DOUBLE_DATA_WIDTH_MODE</li>
<li>STRATIXGX_ALLOW_POST8B10B_LOOPBACK</li>
<li>STRATIXGX_ALLOW_REVERSE_PARALLEL_LOOPBACK</li>
<li>STRATIXGX_ALLOW_RX_CORECLK_FROM_NON_RX_CLKOUT_SOURCE_IN_DOUBLE_DATA_WIDTH_MODE</li>
<li>STRATIXGX_ALLOW_USE_OF_GXB_COUPLED_IOS</li>
<li>STRATIXGX_ALLOW_XAUI_IN_SINGLE_DATA_WIDTH_MODE</li>
<li>STRATIXGX_ALLOW_XAUI_WITH_CORECLK_SELECTED_AT_RATE_MATCHER</li>
<li>STRATIXGX_ALLOW_XAUI_WITH_RX_CORECLK_FROM_NON_TXPLL_SOURCE</li>
<li>STRATIXGX_BYPASS_REMAPPING_OF_FORCE_SIGNAL_DETECT_SIGNAL_THRESHOLD_SELECT</li>
<li>STRATIXGX_OCT_VALUE</li>
<li>STRATIXGX_TERMINATION_VALUE</li>
<li>STRATIXII_ALLOW_DUAL_PORT_DUAL_CLOCK_MRAM_USAGE</li>
<li>STRATIXII_CARRY_CHAIN_LENGTH</li>
<li>STRATIX_II_CONFIGURATION_DEVICE</li>
<li>STRATIXII_CONFIGURATION_DEVICE</li>
<li>STRATIX_II_CONFIGURATION_SCHEME</li>
<li>STRATIXII_CONFIGURATION_SCHEME</li>
<li>STRATIXII_EP2S60ES_ALLOW_MRAM_USAGE</li>
<li>STRATIXIIGX_OCT_VALUE</li>
<li>STRATIXIIGX_TERMINATION_VALUE</li>
<li>STRATIXIII_CONFIGURATION_SCHEME</li>
<li>STRATIXIII_LUTAB_SLOWDOWN</li>
<li>STRATIXIII_MRAM_COMPATIBILITY</li>
<li>STRATIXIII_OUTPUT_DUTY_CYCLE_DELAY</li>
<li>STRATIXIII_UPDATE_MODE</li>
<li>STRATIXII_MRAM_COMPATIBILITY</li>
<li>STRATIXII_OPTIMIZATION_TECHNIQUE</li>
<li>STRATIXII_OUTPUT_DUTY_CYCLE_CONTROL</li>
<li>STRATIXII_SILICON_VERSION</li>
<li>STRATIXII_TERMINATION</li>
<li>STRATIXIV_CONFIGURATION_SCHEME</li>
<li>STRATIX_JTAG_USER_CODE</li>
<li>STRATIX_OPTIMIZATION_TECHNIQUE</li>
<li>STRATIX_TECHNOLOGY_MAPPER</li>
<li>STRATIX_UPDATE_MODE</li>
<li>STRATIXV_CONFIGURATION_SCHEME</li>
<li>STRICT_POST_FIT</li>
<li>STRICT_RAM_RECOGNITION</li>
<li>STRIPE_TO_PLD_BRIDGE_EPXA4_10</li>
<li>STRIPE_TO_PLD_INTERRUPTS_EPXA4_10</li>
<li>SUBCLIQUE_OF</li>
<li>SUPERIOR_PERFORMANCE</li>
<li>SUPERIOR_PERFORMANCE_WITH_MAXIMUM_PLACEMENT_EFFORT</li>
<li>SUPPRESS_DA_RULE_INTERNAL</li>
<li>SUPPRESS_REG_MINIMIZATION_MSG</li>
<li>SVF_FILE</li>
<li>SXL9</li>
<li>SYMBOL_FILE</li>
<li>SYM_FILE</li>
<li>SYNCHRONIZATION_REGISTER_CHAIN_LENGTH</li>
<li>SYNCHRONIZER_IDENTIFICATION</li>
<li>SYNCHRONIZER_TOGGLE_RATE</li>
<li>SYNTH_CHECK_PORT_CONNECTIONS</li>
<li>SYNTH_CLOCK_MUX_PROTECTION</li>
<li>SYNTH_CRITICAL_CLOCK</li>
<li>SYNTH_CRITICAL_CLOCK_TO_OUTPUT</li>
<li>SYNTH_CRITICAL_ENABLE</li>
<li>SYNTH_CRITICAL_INPUT_TO_CLOCK</li>
<li>SYNTH_CRITICAL_PIN</li>
<li>SYNTHESIS_EFFORT</li>
<li>SYNTHESIS_FITTING_SETTINGS</li>
<li>SYNTHESIS_KEEP_SYNCH_CLEAR_PRESET_BEHAVIOR_IN_UNMAPPER</li>
<li>SYNTHESIS_ON_ATOMS</li>
<li>SYNTHESIS_ONLY</li>
<li>SYNTHESIS_ONLY_QIP</li>
<li>SYNTHESIS_S10_MIGRATION_CHECKS</li>
<li>SYNTHESIS_SEED</li>
<li>SYNTHESIS_WILDCARDS</li>
<li>SYNTHESIZE_LATCHES_AS_HIPIS</li>
<li>SYNTH_GATED_CLOCK_CONVERSION</li>
<li>SYNTH_MESSAGE_LEVEL</li>
<li>SYNTH_PROTECT_SDC_CONSTRAINT</li>
<li>SYNTH_REPORT_SOURCE_ASSIGNMENTS</li>
<li>SYNTH_RESOURCE_AWARE_INFERENCE_FOR_BLOCK_RAM</li>
<li>SYNTH_RPT_SHOW_PARAMS_PER_ENTITY_INSTANCE</li>
<li>SYNTH_TIMING_DRIVEN_BALANCED_MAPPING</li>
<li>SYNTH_TIMING_DRIVEN_REGISTER_DUPLICATION</li>
<li>SYNTH_TIMING_DRIVEN_SYNTHESIS</li>
<li>SYSTEMVERILOG_2005</li>
<li>SYSTEMVERILOG_2009</li>
<li>SYSTEMVERILOG_FILE</li>
<li>T10_DELAY</li>
<li>T10_FINE_DELAY</li>
<li>T10_OCT_DELAY</li>
<li>T10_OE_DELAY</li>
<li>T10_OE_FINE_DELAY</li>
<li>T11_0_DELAY</li>
<li>T11_1_DELAY</li>
<li>T11_DELAY</li>
<li>T11_FINE_DELAY</li>
<li>T1_DELAY</li>
<li>T1_FINE_DELAY</li>
<li>T2_DELAY</li>
<li>T3_DELAY</li>
<li>T4_DELAY</li>
<li>T7_DELAY</li>
<li>T7_FINE_DELAY</li>
<li>T8_DELAY0</li>
<li>T8_DELAY1</li>
<li>T9_DELAY</li>
<li>T9_FINE_DELAY</li>
<li>T9_OCT_DELAY</li>
<li>T9_OE_DELAY</li>
<li>TAN_SCRIPT_FILE</li>
<li>TAO_FILE</li>
<li>TAO_FILE_NAME</li>
<li>TBFF_PULSE_WIDTH</li>
<li>TCL_ENTITY_FILE</li>
<li>TCL_FILE</li>
<li>TCL_SCRIPT_FILE</li>
<li>TCO_REQUIREMENT</li>
<li>TDC_AGGRESSIVE_HOLD_CLOSURE_EFFORT</li>
<li>TDC_CCPP_TRADEOFF_TOLERANCE</li>
<li>TDO_DUMP_FILE</li>
<li>TECH_MAPPER_APEX20K</li>
<li>TECH_MAPPER_DALI</li>
<li>TECH_MAPPER_FLEX10K</li>
<li>TECH_MAPPER_FLEX6K</li>
<li>TECH_MAPPER</li>
<li>TECH_MAPPER_MAX7000</li>
<li>TECH_MAPPER_YEAGER</li>
<li>TECHNOLOGY_MAPPER_DALI</li>
<li>TECHNOLOGY_MAPPER_FLEX6K</li>
<li>TECHNOLOGY_MAPPER</li>
<li>TEMPLATE_FILE</li>
<li>TENG_1588</li>
<li>TENG_BASER</li>
<li>TENG_KR_10312</li>
<li>TENG_SDI</li>
<li>TERMINATION_CONTROL_BLOCK</li>
<li>TERMINATION</li>
<li>TEST_BENCH_MODE</li>
<li>TESTING_BOOL</li>
<li>TESTING_ENUM</li>
<li>TESTING_FILE</li>
<li>TESTING_INT_GLOBAL_DISALLOWED_IN_QIP</li>
<li>TESTING_INT</li>
<li>TESTING_SINGLE_ABSOLUTE_NODE_ENTITY_INT</li>
<li>TESTING_SINGLE_BOOL</li>
<li>TESTING_SINGLE_ENUM</li>
<li>TESTING_SINGLE_INT</li>
<li>TESTING_SINGLE_RELATIVE_BOOL</li>
<li>TESTING_SINGLE_RELATIVE_ENTITY_INT</li>
<li>TESTING_SINGLE_RELATIVE_NODE_ENTITY_BOOL</li>
<li>TESTING_SINGLE_RELATIVE_NODE_ENTITY_INT</li>
<li>TESTING_SINGLE_RELATIVE_NODE_INT</li>
<li>TESTING_SINGLE_STRING</li>
<li>TESTING_STRING</li>
<li>TEXT_FILE</li>
<li>TEXT_FORMAT_REPORT_FILE</li>
<li>THIRD_PARTY_EDA_TOOLS</li>
<li>THREE</li>
<li>TH_REQUIREMENT</li>
<li>THR_THREAD_MAIN_ID</li>
<li>TIMEGROUP_EXCEPTION</li>
<li>TIMEGROUP_MEMBER</li>
<li>TIMEQUEST2</li>
<li>TIMEQUEST_CCPP_TRADEOFF_TOLERANCE</li>
<li>TIMEQUEST_DO_CCPP_REMOVAL</li>
<li>TIMEQUEST_DO_REPORT_CDC_VIEWER</li>
<li>TIMEQUEST_DO_REPORT_TIMING</li>
<li>TIMEQUEST_MULTICORNER_ANALYSIS</li>
<li>TIMEQUEST_REPORT_NUM_WORST_CASE_TIMING_PATHS</li>
<li>TIMEQUEST_REPORT_SCRIPT_INCLUDE_DEFAULT_ANALYSIS</li>
<li>TIMEQUEST_REPORT_SCRIPT</li>
<li>TIMEQUEST_REPORT_WORST_CASE_TIMING_PATHS</li>
<li>TIMEQUEST_SIMULTANEOUS_MULTICORNER_ANALYSIS</li>
<li>TIMEQUEST_SPECTRA_Q</li>
<li>TIMING_ANALYSIS_OUTPUT_FILE</li>
<li>TIMING_ANALYZER_CCPP_TRADEOFF_TOLERANCE</li>
<li>TIMING_ANALYZER_DO_CCPP_REMOVAL</li>
<li>TIMING_ANALYZER_DO_REPORT_CDC_VIEWER</li>
<li>TIMING_ANALYZER_DO_REPORT_TIMING</li>
<li>TIMING_ANALYZER_MULTICORNER_ANALYSIS</li>
<li>TIMING_ANALYZER_REPORT_NUM_WORST_CASE_TIMING_PATHS</li>
<li>TIMING_ANALYZER_REPORT_SCRIPT_INCLUDE_DEFAULT_ANALYSIS</li>
<li>TIMING_ANALYZER_REPORT_SCRIPT</li>
<li>TIMING_ANALYZER_REPORT_WORST_CASE_TIMING_PATHS</li>
<li>TIMING_ANALYZER_SIMULTANEOUS_MULTICORNER_ANALYSIS</li>
<li>TIMING_ASSIGNMENT</li>
<li>TIMING_CAT</li>
<li>TIMING_DERATING_FILE</li>
<li>TIMING_DRIVEN_COMPILE</li>
<li>TIMING</li>
<li>TIMING_REQUIREMENTS</li>
<li>TIMING_RULE_COIN_CLKEDGE</li>
<li>TIMING_RULE_HIGH_FANOUTS</li>
<li>TIMING_RULE_SHIFT_REG</li>
<li>TIMING_USING_FAST_TIMING_MODEL</li>
<li>TOGGLE_RATE</li>
<li>TOOLSET</li>
<li>TOP_LEVEL_ENTITY</li>
<li>TOP_PARTITION_PIN</li>
<li>TPD_REQUIREMENT</li>
<li>TRANSPORT</li>
<li>TREAT_BIDIR_AS_OUTPUT</li>
<li>TRI_CONVERTED_FROM_DIRECTIONAL_BUFFER</li>
<li>TRIGGER_EQUATION</li>
<li>TRIGGER_VECTOR_COMPARE_ON_SIGNAL</li>
<li>TRISTATE1</li>
<li>TRISTATED1</li>
<li>TRI_STATE</li>
<li>TRISTATE</li>
<li>TRISTATE_OFF</li>
<li>TRISTATE_ON</li>
<li>TRI_STATE_SPI_PINS</li>
<li>TRUE</li>
<li>TRUE_WYSIWYG_FLOW</li>
<li>TSUNAMI_OPTIMIZATION_TECHNIQUE</li>
<li>TSU_REQUIREMENT</li>
<li>TURBO_BIT</li>
<li>TXPMA_SLEW_RATE</li>
<li>TYPICAL</li>
<li>U0H9</li>
<li>UC_DCD_CAL_OFF</li>
<li>UC_DCD_CAL_ON</li>
<li>UC_RO_CAL_OFF</li>
<li>UC_RO_CAL_ON</li>
<li>UC_RX_DFE_CAL_OFF</li>
<li>UC_RX_DFE_CAL_ON</li>
<li>UC_SKEW_CAL_OFF</li>
<li>UC_SKEW_CAL_ON</li>
<li>UC_TX_VOD_CAL_CONT_OFF</li>
<li>UC_TX_VOD_CAL_CONT_ON</li>
<li>UC_TX_VOD_CAL_OFF</li>
<li>UC_TX_VOD_CAL_ON</li>
<li>UI_DEFAULT_ASSEMBLER_SETTING</li>
<li>UI_DEFAULT_COMP_PROCESS_SETTING</li>
<li>UI_DEFAULT_EDA_NATIVELINK_SETTING</li>
<li>UI_DEFAULT_EDA_SIMULATION_SETTING</li>
<li>UI_DEFAULT_FITTER_SETTING</li>
<li>UI_DEFAULT_HYPERFLEX_SETTING</li>
<li>UI_DEFAULT_OPTIMIZATION_SETTING</li>
<li>UI_DEFAULT_SIMULATOR_SETTING</li>
<li>UI_DEFAULT_SYNTHESIS_SETTING</li>
<li>UI_DEFAULT_TIMING_SETTING</li>
<li>UNFORCE_MERGE_PLL</li>
<li>UNFORCE_MERGE_PLL_OUTPUT_COUNTER</li>
<li>UNIPHY_SEQUENCER_DQS_CONFIG_ENABLE</li>
<li>UNIPHY_TEMP_VER_CODE</li>
<li>UNNAMED_POOL</li>
<li>UNSECURED</li>
<li>UNUSED_RXCLK_BTI_MITIGATION</li>
<li>UNUSED_RXTXCLK_BTI_MITIGATION</li>
<li>UNUSED_TSD_PINS_GND</li>
<li>UPCORE_TRANSACTION_MODEL_FILE</li>
<li>UPDATE_ASE_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_ASSIGNMENT_GROUP_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_CHIP_EDITOR_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_CONFLICTING</li>
<li>UPDATE_ECMC_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_FLOORPLAN_EDITOR_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_MODE_INTERNAL_FLASH</li>
<li>UPDATE_MODE_TITAN</li>
<li>UPDATE_MODE_YEAGER</li>
<li>UPDATE_PAT_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_PIN_PLANNER_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_SIM_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_SSN_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_TAN_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPGRADE_WIDTH</li>
<li>USE_ADVANCED_DETAILED_LAB_LEGALITY</li>
<li>USE_AS_3V_GPIO</li>
<li>USE_AS_PROGRAMMING_PIN</li>
<li>USE_AS_REGULAR_IO</li>
<li>USE_CAP</li>
<li>USE_CHECKERED_PATTERN_AS_UNINITIALIZED_RAM_CONTENT</li>
<li>USE_CHECKSUM_AS_USERCODE</li>
<li>USE_CHECKSUM_AS_USERCODE_MAX7000</li>
<li>USE_CLK_FOR_VIRTUAL_PIN</li>
<li>USE_CLOCK</li>
<li>USE_CLOCK_SETTINGS</li>
<li>USE_COMPILER_SETTINGS</li>
<li>USE_CONF_DONE</li>
<li>USE_CONFIGURATION_DEVICE</li>
<li>USE_CONFIGURATION_DEVICE_NAME_APEX20K</li>
<li>USE_CONFIGURATION_DEVICE_NAME_ARMSTRONG</li>
<li>USE_CONFIGURATION_DEVICE_NAME_CUDA</li>
<li>USE_CONFIGURATION_DEVICE_NAME_CYCLONE</li>
<li>USE_CONFIGURATION_DEVICE_NAME_DALI</li>
<li>USE_CONFIGURATION_DEVICE_NAME_EXCALIBUR</li>
<li>USE_CONFIGURATION_DEVICE_NAME_FLEX10K</li>
<li>USE_CONFIGURATION_DEVICE_NAME_FLEX6K</li>
<li>USE_CONFIGURATION_DEVICE_NAME</li>
<li>USE_CONFIGURATION_DEVICE_NAME_YEAGER</li>
<li>USE_CONFIGURATION_DEVICE_OPTIONS</li>
<li>USE_C_PREPROCESSOR_FOR_GNU_ASM_FILES</li>
<li>USE_CVP_CONFDONE</li>
<li>USE_DATA_UNLOCK</li>
<li>USE_DLL_FREQUENCY_FOR_DQS_DELAY_CHAIN</li>
<li>USE_DMF</li>
<li>USE_GENERATED_PHYSICAL_CONSTRAINTS</li>
<li>USE_GLOBAL_SETTINGS</li>
<li>USE_HIGH_SPEED_ADDER</li>
<li>USE_HPS_COLD_RESET</li>
<li>USE_HPS_WARM_RESET</li>
<li>USE_INIT_DONE</li>
<li>USE_LOCAL_APEX20K</li>
<li>USE_LOCAL_FLEX6K</li>
<li>USE_LOCAL</li>
<li>USE_LOGIC_ANALYZER_INTERFACE_FILE</li>
<li>USE_LOGICLOCK_CONSTRAINTS_IN_BALANCING</li>
<li>USE_LPM_FOR_AHDL_OPERATORS</li>
<li>USE_MULTITAP_FILE</li>
<li>USE_NEW_TEXT_REPORT_TABLE_FORMAT</li>
<li>USE_PWRMGT_ALERT</li>
<li>USE_PWRMGT_PWM0</li>
<li>USE_PWRMGT_SCL</li>
<li>USE_PWRMGT_SDA</li>
<li>USER_CUSTOM</li>
<li>USER_ENABLED</li>
<li>USER_ENCODED</li>
<li>USER_FILES_NEW_EXTRACTOR</li>
<li>USER_JTAG_CODE_APEX20K</li>
<li>USER_JTAG_CODE_DALI</li>
<li>USER_JTAG_CODE_FLEX10K</li>
<li>USER_JTAG_CODE_FLEX6K</li>
<li>USER_JTAG_CODE</li>
<li>USER_JTAG_CODE_MAX7000</li>
<li>USER_JTAG_CODE_MAX7000S</li>
<li>USER_JTAG_CODE_YEAGER</li>
<li>USER_LIBRARIES</li>
<li>USER_MESSAGE</li>
<li>USER_START_UP_CLOCK</li>
<li>USER_VALUE</li>
<li>USE_SEU_ERROR</li>
<li>USE_SIGNALTAP_FILE</li>
<li>USE_TCL_PROC</li>
<li>USE_TIMEQUEST_TIMING_ANALYZER</li>
<li>USE_TIMING_DRIVEN_COMPILATION</li>
<li>USE_UIB_CATTRIP</li>
<li>USE_VPACK</li>
<li>USE_VPR</li>
<li>USE_VQM_INSTEAD_OF_SOURCE</li>
<li>V0P00</li>
<li>V0P58</li>
<li>V0P64</li>
<li>V0P67</li>
<li>V0P70</li>
<li>V0P75</li>
<li>V0P81</li>
<li>V0P86</li>
<li>V0P87</li>
<li>V0P93</li>
<li>V0P96</li>
<li>V1P00</li>
<li>V1P04</li>
<li>V1P13</li>
<li>V1P22</li>
<li>V1P30</li>
<li>V1P39</li>
<li>VALUE_IS_NODE</li>
<li>VARIABLE_VALUE_CANNOT_BE_CHANGED</li>
<li>VCCA_FPLL_USER_VOLTAGE</li>
<li>VCCA_GTBR_USER_VOLTAGE</li>
<li>VCCA_GTB_USER_VOLTAGE</li>
<li>VCCA_GXBL_USER_VOLTAGE</li>
<li>VCCA_GXBR_USER_VOLTAGE</li>
<li>VCCA_GXB_USER_VOLTAGE</li>
<li>VCCA_L_USER_VOLTAGE</li>
<li>VCCA_PLL_USER_VOLTAGE</li>
<li>VCCA_R_USER_VOLTAGE</li>
<li>VCCA_USER_VOLTAGE</li>
<li>VCCAUX_SHARED_USER_VOLTAGE</li>
<li>VCCAUX_USER_VOLTAGE</li>
<li>VCCBAT_USER_VOLTAGE</li>
<li>VCCCB_USER_VOLTAGE</li>
<li>VCCD_FPLL_USER_VOLTAGE</li>
<li>VCCD_PLL_USER_VOLTAGE</li>
<li>VCCD_USER_VOLTAGE</li>
<li>VCCE_GXBL_USER_VOLTAGE</li>
<li>VCCE_GXBR_USER_VOLTAGE</li>
<li>VCCE_GXB_USER_VOLTAGE</li>
<li>VCCEH_GXBL_USER_VOLTAGE</li>
<li>VCCEH_GXBR_USER_VOLTAGE</li>
<li>VCCEH_GXB_USER_VOLTAGE</li>
<li>VCCELA_0P85V</li>
<li>VCCELA_0P9V</li>
<li>VCCELA_1P0V</li>
<li>VCCELA_1P1V</li>
<li>VCCERAM_USER_VOLTAGE</li>
<li>VCCER</li>
<li>VCCE_USER_VOLTAGE</li>
<li>VCCH_GTBR_USER_VOLTAGE</li>
<li>VCCH_GTB_USER_VOLTAGE</li>
<li>VCCH_GXBL_USER_VOLTAGE</li>
<li>VCCH_GXBR_USER_VOLTAGE</li>
<li>VCCH_GXB_USER_VOLTAGE</li>
<li>VCCHIP_L_USER_VOLTAGE</li>
<li>VCCHIP_R_USER_VOLTAGE</li>
<li>VCCHIP_USER_VOLTAGE</li>
<li>VCCH_L_USER_VOLTAGE</li>
<li>VCC_HPS_USER_VOLTAGE</li>
<li>VCCH_R_USER_VOLTAGE</li>
<li>VCCHSSI_L_USER_VOLTAGE</li>
<li>VCCHSSI_R_USER_VOLTAGE</li>
<li>VCCINT_USER_VOLTAGE</li>
<li>VCCIO_45</li>
<li>VCCIO_50</li>
<li>VCCIO_55</li>
<li>VCCIO_65</li>
<li>VCCIO_70</li>
<li>VCCIO_75</li>
<li>VCCIO_CURRENT_1PT8V</li>
<li>VCCIO_CURRENT_2PT5V</li>
<li>VCCIO_CURRENT_GTL</li>
<li>VCCIO_CURRENT_GTL_PLUS</li>
<li>VCCIO_CURRENT_LVCMOS</li>
<li>VCCIO_CURRENT_LVTTL</li>
<li>VCCIO_CURRENT_PCI</li>
<li>VCCIO_CURRENT_SSTL2_CLASS1</li>
<li>VCCIO_CURRENT_SSTL2_CLASS2</li>
<li>VCCIO_CURRENT_SSTL3_CLASS1</li>
<li>VCCIO_CURRENT_SSTL3_CLASS2</li>
<li>VCCIO_HPS_USER_VOLTAGE</li>
<li>VCCIO_IOBANK1_MAX7000B</li>
<li>VCCIO_IOBANK2_MAX7000B</li>
<li>VCCIOREF_HPS_USER_VOLTAGE</li>
<li>VCCIO_USER_VOLTAGE</li>
<li>VCCL_GTBL_USER_VOLTAGE</li>
<li>VCCL_GTBR_USER_VOLTAGE</li>
<li>VCCL_GTB_USER_VOLTAGE</li>
<li>VCCL_GXBL_USER_VOLTAGE</li>
<li>VCCL_GXBR_USER_VOLTAGE</li>
<li>VCCL_GXB_USER_VOLTAGE</li>
<li>VCCL_HPS_USER_VOLTAGE</li>
<li>VCCL_USER_VOLTAGE</li>
<li>VCCPD_USER_VOLTAGE</li>
<li>VCCPD_VOLTAGE</li>
<li>VCCPGM_USER_VOLTAGE</li>
<li>VCCPLL_HPS_USER_VOLTAGE</li>
<li>VCCPT_USER_VOLTAGE</li>
<li>VCCP_USER_VOLTAGE</li>
<li>VCCR_GTBL_USER_VOLTAGE</li>
<li>VCCR_GTBR_USER_VOLTAGE</li>
<li>VCCR_GTB_USER_VOLTAGE</li>
<li>VCCR_GXBL_USER_VOLTAGE</li>
<li>VCCR_GXBR_USER_VOLTAGE</li>
<li>VCCR_GXB_USER_VOLTAGE</li>
<li>VCCR_L_USER_VOLTAGE</li>
<li>VCCR_R_USER_VOLTAGE</li>
<li>VCCRSTCLK_HPS_USER_VOLTAGE</li>
<li>VCCR_USER_VOLTAGE</li>
<li>VCC_SETTING0</li>
<li>VCC_SETTING1</li>
<li>VCC_SETTING2</li>
<li>VCC_SETTING3</li>
<li>VCCT_GTBL_USER_VOLTAGE</li>
<li>VCCT_GTBR_USER_VOLTAGE</li>
<li>VCCT_GTB_USER_VOLTAGE</li>
<li>VCCT_GXBL_USER_VOLTAGE</li>
<li>VCCT_GXBR_USER_VOLTAGE</li>
<li>VCCT_GXB_USER_VOLTAGE</li>
<li>VCCT_L_USER_VOLTAGE</li>
<li>VCCT_R_USER_VOLTAGE</li>
<li>VCCT_USER_VOLTAGE</li>
<li>VCC_USER_VOLTAGE</li>
<li>VCD_FILE</li>
<li>VCM_CURRENT_1</li>
<li>VCM_CURRENT_2</li>
<li>VCM_CURRENT_3</li>
<li>VCM_CURRENT_DEFAULT</li>
<li>VCM_SETTING_00</li>
<li>VCM_SETTING_01</li>
<li>VCM_SETTING_02</li>
<li>VCM_SETTING_03</li>
<li>VCM_SETTING_04</li>
<li>VCM_SETTING_05</li>
<li>VCM_SETTING_06</li>
<li>VCM_SETTING_07</li>
<li>VCM_SETTING_08</li>
<li>VCM_SETTING_09</li>
<li>VCM_SETTING_10</li>
<li>VCM_SETTING_11</li>
<li>VCM_SETTING_12</li>
<li>VCM_SETTING_13</li>
<li>VCM_SETTING_14</li>
<li>VCM_SETTING_15</li>
<li>VECTOR_CHANNEL_FILE</li>
<li>VECTOR_COMPARE_TRIGGER_MODE</li>
<li>VECTOR_FILE</li>
<li>VECTOR_INPUT_SOURCE</li>
<li>VECTOR_OUTPUT_DESTINATION</li>
<li>VECTOR_OUTPUT_FORMAT</li>
<li>VECTOR_SOURCE_FILE</li>
<li>VECTOR_TABLE_OUTPUT_FILE</li>
<li>VECTOR_TEXT_FILE</li>
<li>VECTOR_WAVEFORM_FILE</li>
<li>VER_COMPATIBLE_DB_DIR</li>
<li>VERILOG_1995</li>
<li>VERILOG_2001</li>
<li>VERILOG_CONSTANT_LOOP_LIMIT</li>
<li>VERILOG_CU_MODE</li>
<li>VERILOG_FILE</li>
<li>VERILOG_GLOBAL_COMPILER_MACRO_FILE</li>
<li>VERILOG_INCLUDE_FILE</li>
<li>VERILOG_INPUT_VERSION</li>
<li>VERILOG_LMF_FILE</li>
<li>VERILOG_MACRO</li>
<li>VERILOG_NON_CONSTANT_LOOP_LIMIT</li>
<li>VERILOG_OUTPUT_FILE</li>
<li>VERILOG_SHOW_LMF_MAPPING_MESSAGES</li>
<li>VERILOG_SHOW_LMF_MAPPING_MSGS</li>
<li>VERILOG_TEST_BENCH_FILE</li>
<li>VERILOG_VH_FILE</li>
<li>VHDL_1987</li>
<li>VHDL_1993</li>
<li>VHDL_2008</li>
<li>VHDL87</li>
<li>VHDL93</li>
<li>VHDL_FILE</li>
<li>VHDL_INPUT_LIBRARY</li>
<li>VHDL_INPUT_VERSION</li>
<li>VHDL_LMF_FILE</li>
<li>VHDL_OUTPUT_FILE</li>
<li>VHDL_SHOW_LMF_MAPPING_MESSAGES</li>
<li>VHDL_SHOW_LMF_MAPPING_MSGS</li>
<li>VHDL_TEST_BENCH_FILE</li>
<li>VID_OPERATION_MODE</li>
<li>VIRTUAL_CLOCK_REFERENCE</li>
<li>VIRTUAL_EFUSES</li>
<li>VIRTUAL_IO_DRIVES_CLOCK_PORT</li>
<li>VIRTUAL_PIN</li>
<li>VOLT_0MV</li>
<li>VOLT_0P35V</li>
<li>VOLT_0P50V</li>
<li>VOLT_0P55V</li>
<li>VOLT_0P60V</li>
<li>VOLT_0P65V</li>
<li>VOLT_0P70V</li>
<li>VOLT_0P75V</li>
<li>VOLT_0P80V</li>
<li>VOLTS</li>
<li>VPACK</li>
<li>VPACK_ONLY</li>
<li>VQM_FILE</li>
<li>VREF_MODE</li>
<li>VREF_VOLT_0</li>
<li>VREF_VOLT_0P5</li>
<li>VREF_VOLT_0P75</li>
<li>VREF_VOLT_1P0</li>
<li>VTT_0P35V</li>
<li>VTT_0P50V</li>
<li>VTT_0P55V</li>
<li>VTT_0P60V</li>
<li>VTT_0P65V</li>
<li>VTT_0P70V</li>
<li>VTT_0P75V</li>
<li>VTT_0P80V</li>
<li>VTT_PDN_STRONG</li>
<li>VTT_PDN_WEAK</li>
<li>VTT_PUP_STRONG</li>
<li>VTT_PUP_WEAK</li>
<li>VTT_VCMOFF0</li>
<li>VTT_VCMOFF1</li>
<li>VTT_VCMOFF2</li>
<li>VTT_VCMOFF3</li>
<li>VTT_VCMOFF4</li>
<li>VTT_VCMOFF5</li>
<li>VTT_VCMOFF6</li>
<li>VTT_VCMOFF7</li>
<li>WAIT_1_MS</li>
<li>WAIT_2_MS</li>
<li>WAIT_4_MS</li>
<li>WAIT_50_MS</li>
<li>WAIT_8_MS</li>
<li>WEAK_PULL_UP</li>
<li>WEAK_PULL_UP_RESISTOR</li>
<li>WHEN_REQUESTED_BY_FPGA</li>
<li>WHEN_TSU_AND_TPD_CONSTRAINTS_PERMIT</li>
<li>WIDTH_0</li>
<li>WIDTH_18_BIT_MULTIPLIERS</li>
<li>WIDTH_1</li>
<li>WIDTH_2</li>
<li>WIDTH_3</li>
<li>WIDTH</li>
<li>WRITE</li>
<li>X1_PLL_FREQUENCY</li>
<li>XACTO_INCREMENTAL_COMPILE_ASSIGNMENT</li>
<li>XACTO_INCREMENTAL_COMPILE_FILE</li>
<li>XACTO_REGION</li>
<li>XACTO_VQM_FILES</li>
<li>XAUI_3125</li>
<li>XAUI</li>
<li>XCVR_A10_CDR_PLL_ANALOG_MODE</li>
<li>XCVR_A10_CDR_PLL_POWER_MODE</li>
<li>XCVR_A10_CDR_PLL_REQUIRES_GT_CAPABLE_CHANNEL</li>
<li>XCVR_A10_CDR_PLL_UC_RO_CAL</li>
<li>XCVR_A10_CMU_FPLL_ANALOG_MODE</li>
<li>XCVR_A10_CMU_FPLL_PLL_DPRIO_CLK_VREG_BOOST</li>
<li>XCVR_A10_CMU_FPLL_PLL_DPRIO_FPLL_VREG1_BOOST</li>
<li>XCVR_A10_CMU_FPLL_PLL_DPRIO_FPLL_VREG_BOOST</li>
<li>XCVR_A10_CMU_FPLL_PLL_DPRIO_STATUS_SELECT</li>
<li>XCVR_A10_CMU_FPLL_POWER_MODE</li>
<li>XCVR_A10_LC_PLL_ANALOG_MODE</li>
<li>XCVR_A10_LC_PLL_POWER_MODE</li>
<li>XCVR_A10_PM_UC_CLKDIV_SEL</li>
<li>XCVR_A10_PM_UC_CLKSEL_CORE</li>
<li>XCVR_A10_PM_UC_CLKSEL_OSC</li>
<li>XCVR_A10_REFCLK_TERM_TRISTATE</li>
<li>XCVR_A10_RX_ADAPT_DFE_CONTROL_SEL</li>
<li>XCVR_A10_RX_ADAPT_DFE_SEL</li>
<li>XCVR_A10_RX_ADAPT_VGA_SEL</li>
<li>XCVR_A10_RX_ADAPT_VREF_SEL</li>
<li>XCVR_A10_RX_ADP_CTLE_ACGAIN_4S</li>
<li>XCVR_A10_RX_ADP_CTLE_EQZ_1S_SEL</li>
<li>XCVR_A10_RX_ADP_DFE_FLTAP_POSITION</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP10</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP10_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP11</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP11_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP1</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP2</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP2_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP3</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP3_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP4</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP4_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP5</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP5_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP6</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP6_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP7</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP7_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP8</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP8_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP9</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP9_SGN</li>
<li>XCVR_A10_RX_ADP_LFEQ_FB_SEL</li>
<li>XCVR_A10_RX_ADP_ONETIME_DFE</li>
<li>XCVR_A10_RX_ADP_VGA_SEL</li>
<li>XCVR_A10_RX_ADP_VREF_SEL</li>
<li>XCVR_A10_RX_BYPASS_EQZ_STAGES_234</li>
<li>XCVR_A10_RX_EQ_BW_SEL</li>
<li>XCVR_A10_RX_EQ_DC_GAIN_TRIM</li>
<li>XCVR_A10_RX_INPUT_VCM_SEL</li>
<li>XCVR_A10_RX_LINK</li>
<li>XCVR_A10_RX_OFFSET_CANCELLATION_CTRL</li>
<li>XCVR_A10_RX_ONE_STAGE_ENABLE</li>
<li>XCVR_A10_RX_POWER_MODE</li>
<li>XCVR_A10_RX_QPI_ENABLE</li>
<li>XCVR_A10_RX_RX_SEL_BIAS_SOURCE</li>
<li>XCVR_A10_RX_SD_OUTPUT_OFF</li>
<li>XCVR_A10_RX_SD_OUTPUT_ON</li>
<li>XCVR_A10_RX_SD_THRESHOLD</li>
<li>XCVR_A10_RX_TERM_SEL</li>
<li>XCVR_A10_RX_TERM_TRI_ENABLE</li>
<li>XCVR_A10_RX_UC_RX_DFE_CAL</li>
<li>XCVR_A10_RX_VCCELA_SUPPLY_VOLTAGE</li>
<li>XCVR_A10_RX_VCM_CURRENT_ADD</li>
<li>XCVR_A10_RX_VCM_SEL</li>
<li>XCVR_A10_RX_XRX_PATH_ANALOG_MODE</li>
<li>XCVR_A10_TX_COMPENSATION_EN</li>
<li>XCVR_A10_TX_DCD_DETECTION_EN</li>
<li>XCVR_A10_TX_DPRIO_CGB_VREG_BOOST</li>
<li>XCVR_A10_TX_LINK</li>
<li>XCVR_A10_TX_LOW_POWER_EN</li>
<li>XCVR_A10_TX_POWER_MODE</li>
<li>XCVR_A10_TX_PRE_EMP_SIGN_1ST_POST_TAP</li>
<li>XCVR_A10_TX_PRE_EMP_SIGN_2ND_POST_TAP</li>
<li>XCVR_A10_TX_PRE_EMP_SIGN_PRE_TAP_1T</li>
<li>XCVR_A10_TX_PRE_EMP_SIGN_PRE_TAP_2T</li>
<li>XCVR_A10_TX_PRE_EMP_SWITCHING_CTRL_1ST_POST_TAP</li>
<li>XCVR_A10_TX_PRE_EMP_SWITCHING_CTRL_2ND_POST_TAP</li>
<li>XCVR_A10_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP_1T</li>
<li>XCVR_A10_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP_2T</li>
<li>XCVR_A10_TX_RES_CAL_LOCAL</li>
<li>XCVR_A10_TX_RX_DET</li>
<li>XCVR_A10_TX_RX_DET_OUTPUT_SEL</li>
<li>XCVR_A10_TX_RX_DET_PDB</li>
<li>XCVR_A10_TX_SLEW_RATE_CTRL</li>
<li>XCVR_A10_TX_TERM_CODE</li>
<li>XCVR_A10_TX_TERM_SEL</li>
<li>XCVR_A10_TX_UC_DCD_CAL</li>
<li>XCVR_A10_TX_UC_GEN3</li>
<li>XCVR_A10_TX_UC_GEN4</li>
<li>XCVR_A10_TX_UC_SKEW_CAL</li>
<li>XCVR_A10_TX_UC_TXVOD_CAL_CONT</li>
<li>XCVR_A10_TX_UC_TXVOD_CAL</li>
<li>XCVR_A10_TX_UC_VCC_SETTING</li>
<li>XCVR_A10_TX_USER_FIR_COEFF_CTRL_SEL</li>
<li>XCVR_A10_TX_VOD_OUTPUT_SWING_CTRL</li>
<li>XCVR_A10_TX_XTX_PATH_ANALOG_MODE</li>
<li>XCVR_ANALOG_SETTINGS_PROTOCOL</li>
<li>XCVR_C10_CDR_PLL_ANALOG_MODE</li>
<li>XCVR_C10_CDR_PLL_POWER_MODE</li>
<li>XCVR_C10_CDR_PLL_REQUIRES_GT_CAPABLE_CHANNEL</li>
<li>XCVR_C10_CDR_PLL_UC_RO_CAL</li>
<li>XCVR_C10_CMU_FPLL_ANALOG_MODE</li>
<li>XCVR_C10_CMU_FPLL_PLL_DPRIO_CLK_VREG_BOOST</li>
<li>XCVR_C10_CMU_FPLL_PLL_DPRIO_FPLL_VREG1_BOOST</li>
<li>XCVR_C10_CMU_FPLL_PLL_DPRIO_FPLL_VREG_BOOST</li>
<li>XCVR_C10_CMU_FPLL_PLL_DPRIO_STATUS_SELECT</li>
<li>XCVR_C10_CMU_FPLL_POWER_MODE</li>
<li>XCVR_C10_LC_PLL_ANALOG_MODE</li>
<li>XCVR_C10_LC_PLL_POWER_MODE</li>
<li>XCVR_C10_PM_UC_CLKDIV_SEL</li>
<li>XCVR_C10_PM_UC_CLKSEL_CORE</li>
<li>XCVR_C10_PM_UC_CLKSEL_OSC</li>
<li>XCVR_C10_REFCLK_TERM_TRISTATE</li>
<li>XCVR_C10_RX_ADAPT_DFE_CONTROL_SEL</li>
<li>XCVR_C10_RX_ADAPT_DFE_SEL</li>
<li>XCVR_C10_RX_ADAPT_VGA_SEL</li>
<li>XCVR_C10_RX_ADAPT_VREF_SEL</li>
<li>XCVR_C10_RX_ADP_CTLE_ACGAIN_4S</li>
<li>XCVR_C10_RX_ADP_CTLE_EQZ_1S_SEL</li>
<li>XCVR_C10_RX_ADP_DFE_FLTAP_POSITION</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP10</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP10_SGN</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP11</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP11_SGN</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP1</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP2</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP2_SGN</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP3</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP3_SGN</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP4</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP4_SGN</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP5</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP5_SGN</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP6</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP6_SGN</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP7</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP7_SGN</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP8</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP8_SGN</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP9</li>
<li>XCVR_C10_RX_ADP_DFE_FXTAP9_SGN</li>
<li>XCVR_C10_RX_ADP_LFEQ_FB_SEL</li>
<li>XCVR_C10_RX_ADP_ONETIME_DFE</li>
<li>XCVR_C10_RX_ADP_VGA_SEL</li>
<li>XCVR_C10_RX_ADP_VREF_SEL</li>
<li>XCVR_C10_RX_BYPASS_EQZ_STAGES_234</li>
<li>XCVR_C10_RX_EQ_BW_SEL</li>
<li>XCVR_C10_RX_EQ_DC_GAIN_TRIM</li>
<li>XCVR_C10_RX_INPUT_VCM_SEL</li>
<li>XCVR_C10_RX_LINK</li>
<li>XCVR_C10_RX_OFFSET_CANCELLATION_CTRL</li>
<li>XCVR_C10_RX_ONE_STAGE_ENABLE</li>
<li>XCVR_C10_RX_POWER_MODE</li>
<li>XCVR_C10_RX_QPI_ENABLE</li>
<li>XCVR_C10_RX_RX_SEL_BIAS_SOURCE</li>
<li>XCVR_C10_RX_SD_OUTPUT_OFF</li>
<li>XCVR_C10_RX_SD_OUTPUT_ON</li>
<li>XCVR_C10_RX_SD_THRESHOLD</li>
<li>XCVR_C10_RX_TERM_SEL</li>
<li>XCVR_C10_RX_TERM_TRI_ENABLE</li>
<li>XCVR_C10_RX_UC_RX_DFE_CAL</li>
<li>XCVR_C10_RX_VCCELA_SUPPLY_VOLTAGE</li>
<li>XCVR_C10_RX_VCM_CURRENT_ADD</li>
<li>XCVR_C10_RX_VCM_SEL</li>
<li>XCVR_C10_RX_XRX_PATH_ANALOG_MODE</li>
<li>XCVR_C10_TX_COMPENSATION_EN</li>
<li>XCVR_C10_TX_DCD_DETECTION_EN</li>
<li>XCVR_C10_TX_DPRIO_CGB_VREG_BOOST</li>
<li>XCVR_C10_TX_LINK</li>
<li>XCVR_C10_TX_LOW_POWER_EN</li>
<li>XCVR_C10_TX_POWER_MODE</li>
<li>XCVR_C10_TX_PRE_EMP_SIGN_1ST_POST_TAP</li>
<li>XCVR_C10_TX_PRE_EMP_SIGN_2ND_POST_TAP</li>
<li>XCVR_C10_TX_PRE_EMP_SIGN_PRE_TAP_1T</li>
<li>XCVR_C10_TX_PRE_EMP_SIGN_PRE_TAP_2T</li>
<li>XCVR_C10_TX_PRE_EMP_SWITCHING_CTRL_1ST_POST_TAP</li>
<li>XCVR_C10_TX_PRE_EMP_SWITCHING_CTRL_2ND_POST_TAP</li>
<li>XCVR_C10_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP_1T</li>
<li>XCVR_C10_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP_2T</li>
<li>XCVR_C10_TX_RES_CAL_LOCAL</li>
<li>XCVR_C10_TX_RX_DET</li>
<li>XCVR_C10_TX_RX_DET_OUTPUT_SEL</li>
<li>XCVR_C10_TX_RX_DET_PDB</li>
<li>XCVR_C10_TX_SLEW_RATE_CTRL</li>
<li>XCVR_C10_TX_TERM_CODE</li>
<li>XCVR_C10_TX_TERM_SEL</li>
<li>XCVR_C10_TX_UC_DCD_CAL</li>
<li>XCVR_C10_TX_UC_GEN3</li>
<li>XCVR_C10_TX_UC_GEN4</li>
<li>XCVR_C10_TX_UC_SKEW_CAL</li>
<li>XCVR_C10_TX_UC_TXVOD_CAL_CONT</li>
<li>XCVR_C10_TX_UC_TXVOD_CAL</li>
<li>XCVR_C10_TX_UC_VCC_SETTING</li>
<li>XCVR_C10_TX_USER_FIR_COEFF_CTRL_SEL</li>
<li>XCVR_C10_TX_VOD_OUTPUT_SWING_CTRL</li>
<li>XCVR_C10_TX_XTX_PATH_ANALOG_MODE</li>
<li>XCVR_FAST_LOCK_MODE</li>
<li>XCVR_GT_IO_PIN_TERMINATION</li>
<li>XCVR_GT_RX_COMMON_MODE_VOLTAGE</li>
<li>XCVR_GT_RX_CTLE</li>
<li>XCVR_GT_RX_DC_GAIN</li>
<li>XCVR_GT_RX_FORCE_VCO_CONST</li>
<li>XCVR_GT_TX_COMMON_MODE_VOLTAGE</li>
<li>XCVR_GT_TX_PRE_EMP_1ST_POST_TAP</li>
<li>XCVR_GT_TX_PRE_EMP_INV_PRE_TAP</li>
<li>XCVR_GT_TX_PRE_EMP_PRE_TAP</li>
<li>XCVR_GT_TX_VOD_MAIN_TAP</li>
<li>XCVR_IO_PIN_TERMINATION</li>
<li>XCVR_RECONFIG_AVMM_GROUP</li>
<li>XCVR_RECONFIG_GROUP</li>
<li>XCVR_REFCLK_PIN_TERMINATION</li>
<li>XCVR_RX_ACGAIN_A</li>
<li>XCVR_RX_ACGAIN_V</li>
<li>XCVR_RX_ADCE_HSF_HFBW</li>
<li>XCVR_RX_ADCE_RGEN_BW</li>
<li>XCVR_RX_ADCE_RGEN_MODE</li>
<li>XCVR_RX_BYPASS_EQ_STAGES_234</li>
<li>XCVR_RX_COMMON_MODE_VOLTAGE</li>
<li>XCVR_RX_DC_GAIN</li>
<li>XCVR_RX_DFE_PI_BW</li>
<li>XCVR_RX_ENABLE_LINEAR_EQUALIZER_PCIEMODE</li>
<li>XCVR_RX_EQ_BW_SEL</li>
<li>XCVR_RX_EYEQ_BANDWIDTH</li>
<li>XCVR_RX_INPUT_VCM_SEL</li>
<li>XCVR_RX_LINEAR_EQUALIZER_CONTROL</li>
<li>XCVR_RX_PMOS_GAIN_PEAK</li>
<li>XCVR_RX_QPI_ENABLE</li>
<li>XCVR_RX_SD_ENABLE</li>
<li>XCVR_RX_SD_OFF</li>
<li>XCVR_RX_SD_ON</li>
<li>XCVR_RX_SD_THRESHOLD</li>
<li>XCVR_RX_SEL_BIAS_SOURCE</li>
<li>XCVR_RX_SEL_HALF_BW</li>
<li>XCVR_RX_VCM_DRIVE_STRENGTH</li>
<li>XCVR_S10_REFCLK_TERM_TRISTATE</li>
<li>XCVR_TX_COMMON_MODE_VOLTAGE</li>
<li>XCVR_TX_DRIVER_RESOLUTION_CTRL</li>
<li>XCVR_TX_LOCAL_IB_CTL</li>
<li>XCVR_TX_PLL_RECONFIG_GROUP</li>
<li>XCVR_TX_PRE_EMP_1ST_POST_TAP</li>
<li>XCVR_TX_PRE_EMP_2ND_POST_TAP</li>
<li>XCVR_TX_PRE_EMP_2ND_POST_TAP_USER</li>
<li>XCVR_TX_PRE_EMP_INV_2ND_TAP</li>
<li>XCVR_TX_PRE_EMP_INV_PRE_TAP</li>
<li>XCVR_TX_PRE_EMP_PRE_TAP</li>
<li>XCVR_TX_PRE_EMP_PRE_TAP_USER</li>
<li>XCVR_TX_QPI_EN</li>
<li>XCVR_TX_RX_DET_ENABLE</li>
<li>XCVR_TX_RX_DET_MODE</li>
<li>XCVR_TX_RX_DET_OUTPUT_SEL</li>
<li>XCVR_TX_SLEW_RATE_CTRL</li>
<li>XCVR_TX_SWING_BOOST</li>
<li>XCVR_TX_VCM_CTRL_SRC</li>
<li>XCVR_TX_VCM_DRIVE_STRENGTH</li>
<li>XCVR_TX_VOD_BOOST</li>
<li>XCVR_TX_VOD</li>
<li>XCVR_TX_VOD_PRE_EMP_CTRL_SRC</li>
<li>XCVR_USE_HQ_REFCLK</li>
<li>XCVR_USE_SKEW_BALANCED</li>
<li>XCVR_VCCA_VOLTAGE</li>
<li>XCVR_VCCR_VCCT_VOLTAGE</li>
<li>X_ON_VIOLATION_OPTION</li>
<li>XOR_SYNTHESIS</li>
<li>XR_AUTO_SIZE</li>
<li>XR_CORE_ONLY</li>
<li>XR_EXCLUDE</li>
<li>XR_HEIGHT</li>
<li>XR_MEMBER_OF</li>
<li>XR_MEMBER_OPTION</li>
<li>XR_MEMBER_RESOURCE_EXCLUDE</li>
<li>XR_MEMBER_STATE</li>
<li>XR_NODE_LOCATION</li>
<li>XR_ORIGIN</li>
<li>XR_PARENT</li>
<li>XR_PATH_EXCLUDE</li>
<li>XR_PATH_INCLUDE</li>
<li>XR_PRIORITY</li>
<li>XR_RESERVE</li>
<li>XR_ROOT_REGION</li>
<li>XR_ROUGH</li>
<li>XR_SOFT</li>
<li>XR_STATE</li>
<li>XR_WIDTH</li>
<li>XSTL_INPUT_ALLOW_SE_BUFFER</li>
<li>YEAGER_CONFIGURATION_DEVICE</li>
<li>YEAGER_CRC_ERROR_CHECKING</li>
<li>YEAGER_DECREASE_INPUT_DELAY_TO_INTERNAL_CELLS</li>
<li>YEAGER_DEVICE_IO_STANDARD</li>
<li>YEAGER_OCT_AND_IMPEDANCE_MATCHING</li>
<li>YEAGER_OPTIMIZATION_TECHNIQUE</li>
<li>YEAGER_TECHNOLOGY_MAPPER</li>
<li>YEAGER_UPDATE_MODE</li>
<li>ZBT_OE_FALLING_EDGE_DELAY</li>
<li>ZERO_DELAY_BUFFER</li>
<li>ZERO</li>
<li>ZIP_VECTOR_CHANNEL_FILE</li>
<li>ZIP_VECTOR_WAVEFORM_FILE</li>
</ul>
]]></content:encoded>
			<wfw:commentRss>https://billauer.se/blog/2021/10/quartus-pro-qsf-list/feed/</wfw:commentRss>
		<slash:comments>0</slash:comments>
		</item>
		<item>
		<title>Quartus 17.1 (non-pro): List of QSF parameter names</title>
		<link>https://billauer.se/blog/2021/10/quartus-qsf-list/</link>
		<comments>https://billauer.se/blog/2021/10/quartus-qsf-list/#comments</comments>
		<pubDate>Thu, 14 Oct 2021 15:11:16 +0000</pubDate>
		<dc:creator>eli</dc:creator>
				<category><![CDATA[FPGA]]></category>
		<category><![CDATA[Intel FPGA (Altera)]]></category>

		<guid isPermaLink="false">https://billauer.se/blog/?p=6417</guid>
		<description><![CDATA[Due to rather peculiar reasons described in this post, I found myself looking for all QSF parameter names that Quartus recognizes. I ended up searching a binary file in Quartus&#8217; installation directory. So this is by no means an authoritative list, but since I made it, I thought I should post it. Just in case [...]]]></description>
			<content:encoded><![CDATA[<p>Due to rather peculiar reasons described in <a title="Reverse engineering Cyclone 10 transceiver’s attributes" href="https://billauer.se/blog/2021/10/arria-cyclone-10-signal-detect-oob/" target="_blank">this post</a>, I found myself looking for all QSF parameter names that Quartus recognizes. I ended up searching a binary file in Quartus&#8217; installation directory. So this is by no means an authoritative list, but since I made it, I thought I should post it. Just in case someone else is in the business of guesswork.</p>
<p>So this was done with non-Pro Quartus 17.1 running Linux. For Quartus Pro 19.2, refer to <a title="Quartus Pro 19.2: List of QSF parameter names" href="https://billauer.se/blog/2021/10/quartus-pro-qsf-list/" target="_blank">this post</a>.</p>
<p>This is plain text search, so quite clearly not all items appearing here are legal QSF parameters, and neither is it clear if this list is complete. Or otherwise useful, for that matter.</p>
<pre>$ <strong>strings ./quartus/linux64/libdb_acf.so | perl -ne '/^[A-Z][A-Z0-9_]+\n*$/ &amp;&amp; print' | sort -u</strong></pre>
<ul>
<li>ABSORB_PATHS_FROM_OUTPUTS_TO_INPUTS</li>
<li>ACCEPTS_NEGATIVE</li>
<li>ACCEPTS_OPEN</li>
<li>ACCEPTS_SHORT</li>
<li>ACCEPTS_TRACK_VCCIO</li>
<li>ACCEPTS_WILDCARDS</li>
<li>ACCEPTS_ZERO</li>
<li>AC_COUPLING</li>
<li>ACF_ASSIGNMENT_USE_STRING_POOL</li>
<li>ACF_NOTIFY_ACF_MANAGER_ASSIGNMENTS_CHANGED</li>
<li>ACF_STRING_POOL_MASSIVE_DUMP</li>
<li>ACF_VARIABLE_TRAIT_TYPE_MAX_TRAIT_TYPE</li>
<li>ACF_VARIABLE_TYPE_ACF_ACF_LAST_VARIABLE</li>
<li>ACLK_CAT</li>
<li>ACLK_RULE_IMSZER_ADOMAIN</li>
<li>ACLK_RULE_NO_SZER_ACLK_DOMAIN</li>
<li>ACLK_RULE_SZER_BTW_ACLK_DOMAIN</li>
<li>ACTIVE_PARALLEL</li>
<li>ACTIVE_SERIAL_CLOCK</li>
<li>ACTIVE_SERIAL</li>
<li>ACTIVE_SERIAL_X1</li>
<li>ACTIVE_SERIAL_X4</li>
<li>ADCE_ENABLED</li>
<li>ADCE_FULL_BW</li>
<li>ADCE_HALF_BW</li>
<li>ADCE_HIGH_BW</li>
<li>ADCE_HIGH_FREQ_MODE</li>
<li>ADCE_LOW_BW</li>
<li>ADCE_LOW_FREQ_MODE</li>
<li>ADCE_MED_HIGH_BW</li>
<li>ADCE_MED_HIGH_MODE</li>
<li>ADCE_MED_LOW_BW</li>
<li>ADCE_MED_LOW_MODE</li>
<li>ADD_DEFAULT_PINS_TO_OUTPUT_VECTOR_FILE</li>
<li>ADD_DEFAULT_PINS_TO_SIMULATION_OUTPUT_WAVEFORMS</li>
<li>ADD_PASS_THROUGH_LOGIC_TO_INFERRED_RAMS</li>
<li>ADD_TO_SIMULATION_OUTPUT_WAVEFORMS</li>
<li>ADVANCED_CLOCK_OPTIMIZATION</li>
<li>ADVANCED</li>
<li>ADVANCED_PHYSICAL_OPTIMIZATION</li>
<li>ADVANCED_PHYSICAL_RETIMING</li>
<li>ADVANCED_PHYSICAL_SYNTHESIS</li>
<li>ADV_NETLIST_OPT_ALLOWED</li>
<li>ADV_NETLIST_OPT_DONT_TOUCH</li>
<li>ADV_NETLIST_OPT_FIT_LE_DUPLICATION</li>
<li>ADV_NETLIST_OPT_FIT_LE_DUPLICATION_WITH_LUT_RESYNTHESIS</li>
<li>ADV_NETLIST_OPT_FIT_LE_RETIME</li>
<li>ADV_NETLIST_OPT_METASTABLE_REGS</li>
<li>ADV_NETLIST_OPT_RETIME_CORE_AND_IO</li>
<li>ADV_NETLIST_OPT_STRING</li>
<li>ADV_NETLIST_OPT_SYNTH_ALLOW_IP_WYS_UNMAPPING</li>
<li>ADV_NETLIST_OPT_SYNTH_GATE_RETIME_1</li>
<li>ADV_NETLIST_OPT_SYNTH_GATE_RETIME_2</li>
<li>ADV_NETLIST_OPT_SYNTH_GATE_RETIME</li>
<li>ADV_NETLIST_OPT_SYNTH_REMAP_1</li>
<li>ADV_NETLIST_OPT_SYNTH_REMAP_2</li>
<li>ADV_NETLIST_OPT_SYNTH_USE_FITTER_INFO</li>
<li>ADV_NETLIST_OPT_SYNTH_WYSIWYG_REMAP</li>
<li>ADV_NETLIST_OPT_TEST</li>
<li>AGGREGATE</li>
<li>AGGREGATE_REVISION</li>
<li>AGGRESSIVE_AREA</li>
<li>AGGRESSIVE</li>
<li>AGGRESSIVE_PERFORMANCE</li>
<li>AGGRESSIVE_POWER</li>
<li>AHDL_FILE</li>
<li>AHDL_INCLUDE_FILE</li>
<li>AHDL_LIMIT_INT_TO_32</li>
<li>AHDL_TEXT_DESIGN_OUTPUT_FILE</li>
<li>AHDL_USE_LPM_FOR_OPERATORS</li>
<li>ALIAS</li>
<li>ALL_EDGE</li>
<li>ALL_EXCEPT_COMBINATIONAL_LOGIC_ELEMENT_OUTPUTS</li>
<li>ALL_NODES</li>
<li>ALLOW_ACLR_FOR_SHIFT_REGISTER_RECOGNITION</li>
<li>ALLOW_ANY_RAM_SIZE_FOR_RECOGNITION</li>
<li>ALLOW_ANY_ROM_SIZE_FOR_RECOGNITION</li>
<li>ALLOW_ANY_SHIFT_REGISTER_SIZE_FOR_RECOGNITION</li>
<li>ALLOW_CASCADE_GPLL_TO_LVDS_TX</li>
<li>ALLOW_CHILD_PARTITIONS</li>
<li>ALLOW_LVTTL_LVCMOS_INPUT_LEVELS_TO_OVERDRIVE_INPUT_BUFFER</li>
<li>ALLOW_MULTIPLE_PERSONAS</li>
<li>ALLOW_PARALLEL_TERMINATION</li>
<li>ALLOW_POWER_UP_DONT_CARE</li>
<li>ALLOW_REGISTER_DUPLICATION</li>
<li>ALLOW_REGISTER_MERGING</li>
<li>ALLOW_REGISTER_RETIMING</li>
<li>ALLOW_SERIES_TERMINATION</li>
<li>ALLOW_SERIES_WITH_CALIBRATION_TERMINATION</li>
<li>ALLOW_SHIFT_REGISTER_MERGING_ACROSS_HIERARCHIES</li>
<li>ALLOW_SYNCH_CTRL_USAGE</li>
<li>ALLOW_XOR_GATE_USAGE</li>
<li>ALL_PATHS</li>
<li>ALL_STAGES_ENABLED</li>
<li>ALM_REGISTER</li>
<li>ALM_REGISTER_PACKING_EFFORT</li>
<li>ALTERA_A10_IOPLL_BOOTSTRAP</li>
<li>ALTERA_INTERNAL_FIB</li>
<li>ALTERA</li>
<li>ALWAYS_ALLOW</li>
<li>ALWAYS_ENABLE_INPUT_BUFFERS</li>
<li>ALWAYS</li>
<li>ALWAYS_REGENERATE_IP</li>
<li>ALWAYS_WRITE_TO_FILE</li>
<li>ANALYZE_LATCHES_AS_SYNCHRONOUS_ELEMENTS</li>
<li>ANALYZE_LATCHES</li>
<li>ANALYZE_METASTABILITY</li>
<li>APEX20K_CLIQUE_TYPE</li>
<li>APEX20K_CONFIG_DEVICE_JTAG_USER_CODE</li>
<li>APEX20K_CONFIGURATION_DEVICE</li>
<li>APEX20K_CONFIGURATION_SCHEME</li>
<li>APEX20K_DECREASE_INPUT_DELAY_TO_INTERNAL_CELLS</li>
<li>APEX20K_DEVICE_IO_STANDARD</li>
<li>APEX20KE_DEVICE_IO_STANDARD</li>
<li>APEX20KF_DEVICE_IO_STANDARD</li>
<li>APEX20K_JTAG_USER_CODE</li>
<li>APEX20K_LOCAL_ROUTING_SOURCE</li>
<li>APEX20K_OPTIMIZATION_TECHNIQUE</li>
<li>APEX20K_TECHNOLOGY_MAPPER</li>
<li>APEX_FITTER_TYPE</li>
<li>APEXII_1_8V_HSTL</li>
<li>APEX_II_CONFIGURATION_SCHEME</li>
<li>APEXII_CONFIGURATION_SCHEME</li>
<li>APEXII_DEVICE_IO_STANDARD</li>
<li>AREF_VOLT_0</li>
<li>AREF_VOLT_0P5</li>
<li>AREF_VOLT_0P75</li>
<li>AREF_VOLT_1P0</li>
<li>ARMSTRONG_CARRY_CHAIN_LENGTH</li>
<li>ARMSTRONG_OPTIMIZATION_TECHNIQUE</li>
<li>ARRIAIIGX_RX_CDR_LOCKUP_FIX_OVERRIDE</li>
<li>AS_BIDIRECTIONAL</li>
<li>ASCII_REPORT_FILE</li>
<li>AS_FREQ_100MHZ</li>
<li>AS_FREQ_25MHZ</li>
<li>AS_FREQ_50MHZ</li>
<li>AS_INPUT_TRI_STATED</li>
<li>AS_INPUT_TRI_STATED_WITH_BUS_HOLD</li>
<li>AS_INPUT_TRI_STATED_WITH_WEAK_PULL_UP</li>
<li>ASM_FILE</li>
<li>ASM_OPTIONS_FILE_KEYWORD</li>
<li>AS_OUTPUT_DRIVING_AN_UNSPECIFIED_SIGNAL</li>
<li>AS_OUTPUT_DRIVING_GROUND</li>
<li>AS_OUTPUT_DRIVING_VCC</li>
<li>ASP_ASM_COMMAND_LINE</li>
<li>ASP_CPP_COMMAND_LINE</li>
<li>ASP_LINK_COMMAND_LINE</li>
<li>ASSEMBLER_ASSIGNMENT</li>
<li>ASSG_CAT</li>
<li>ASSG_RULE_MISSING_FMAX</li>
<li>ASSG_RULE_MISSING_TIMING</li>
<li>AS_SIGNALPROBE_OUTPUT</li>
<li>ASSIGNMENT_GROUP_ASSIGNMENT</li>
<li>ASSIGNMENT_GROUP_EXCEPTION</li>
<li>ASSIGNMENT_GROUP_MEMBER</li>
<li>AS_VREFA</li>
<li>AS_VREFB</li>
<li>AS_VREF</li>
<li>ASYNC_PIPELINE_DISABLE_DESTINATION_CHECK</li>
<li>ASYNC_PIPELINE_REG_REACH</li>
<li>ATUH</li>
<li>ATUSH</li>
<li>ATUS</li>
<li>AUATA</li>
<li>AUATI</li>
<li>AUATL</li>
<li>AUATUD</li>
<li>AUATUH</li>
<li>AUATU</li>
<li>AUATUSH</li>
<li>AUATUS</li>
<li>AUTO_C3_M9K_BIT_SKIP</li>
<li>AUTO_CARRY_CHAINS</li>
<li>AUTO_CARRY</li>
<li>AUTO_CASCADE_CHAINS</li>
<li>AUTO_CASCADE</li>
<li>AUTO_CLOCK_ENABLE_RECOGNITION</li>
<li>AUTO_DELAY_CHAINS_FOR_HIGH_FANOUT_INPUT_PINS</li>
<li>AUTO_DELAY_CHAINS</li>
<li>AUTO_DISCOVER_AND_SORT</li>
<li>AUTO_DISCOVERY</li>
<li>AUTO_DSP_RECOGNITION</li>
<li>AUTO_ENABLE_SMART_COMPILE</li>
<li>AUTO_EXPORT_INCREMENTAL_COMPILATION</li>
<li>AUTO_EXPORT_VER_COMPATIBLE_DB</li>
<li>AUTO_FAST_INPUT_REGISTERS</li>
<li>AUTO_FAST_OUTPUT_ENABLE_REGISTERS</li>
<li>AUTO_FAST_OUTPUT_REGISTERS</li>
<li>AUTO_FIT</li>
<li>AUTO_GLOBAL_CLOCK</li>
<li>AUTO_GLOBAL_CLOCK_MAX</li>
<li>AUTO_GLOBAL_MEM_CTRL</li>
<li>AUTO_GLOBAL_MEMORY_CONTROLS</li>
<li>AUTO_GLOBAL_OE</li>
<li>AUTO_GLOBAL_OE_MAX</li>
<li>AUTO_GLOBAL_REG_CTRL</li>
<li>AUTO_GLOBAL_REG_CTRL_MAX</li>
<li>AUTO_GLOBAL_REGISTER_CONTROLS</li>
<li>AUTO_IMPLEMENT_IN_ROM</li>
<li>AUTO_INCREMENT_CONFIG_DEVICE_JTAG_USER_CODE</li>
<li>AUTO_INCREMENT_EPROM_JTAG_CODE</li>
<li>AUTO_INCREMENT_USER_JTAG_CODE</li>
<li>AUTO_INPUT_REGISTER</li>
<li>AUTO_INPUT_REGISTERS</li>
<li>AUTO_INSERT_SLD_HUB_ENTITY</li>
<li>AUTO_INSERT_SLD_INCR_NODE_ENTITY</li>
<li>AUTO_INSERT_SLD_NODE_ENTITY</li>
<li>AUTO_LCELL_INSERTION</li>
<li>AUTOMATIC</li>
<li>AUTO_MERGE_PLLS</li>
<li>AUTO_MODIFIED_PACKED_REGISTERS</li>
<li>AUTO_OPEN_DRAIN</li>
<li>AUTO_OPEN_DRAIN_PINS</li>
<li>AUTO_OUTPUT_ENABLE_REGISTER</li>
<li>AUTO_OUTPUT_REGISTER</li>
<li>AUTO_OUTPUT_REGISTERS</li>
<li>AUTO_PACKED_REG_CYCLONE</li>
<li>AUTO_PACKED_REGISTERS_ARMSTRONG</li>
<li>AUTO_PACKED_REGISTERS_CYCLONE</li>
<li>AUTO_PACKED_REGISTERS_MAXII</li>
<li>AUTO_PACKED_REGISTERS_MAX</li>
<li>AUTO_PACKED_REGISTERS_STRATIXII</li>
<li>AUTO_PACKED_REGISTERS_STRATIX</li>
<li>AUTO_PACKED_REGISTERS_TSUNAMI</li>
<li>AUTO_PARALLEL_EXPANDERS</li>
<li>AUTO_PARALLEL_SYNTHESIS</li>
<li>AUTO_PERIPH</li>
<li>AUTO_PEXP</li>
<li>AUTO_QIC_EXPORT</li>
<li>AUTO_QXP_PARTITION</li>
<li>AUTO_RAM_BLOCK_BALANCING</li>
<li>AUTO_RAM_RECOGNITION</li>
<li>AUTO_RAM_TO_LCELL_CONVERSION</li>
<li>AUTO_RESERVE_CLKUSR_FOR_CALIBRATION</li>
<li>AUTO_RESOURCE_SHARING</li>
<li>AUTO_RESTART_CONFIGURATION</li>
<li>AUTO_RESTART</li>
<li>AUTO_ROM</li>
<li>AUTO_ROM_RECOGNITION</li>
<li>AUTO_SHIFT_REGISTER_RECOGNITION</li>
<li>AUTO_SLD_HUB_ENTITY</li>
<li>AUTO_TURBO_BIT</li>
<li>AUTO_USE_SIMULATION_PDB_NETLIST</li>
<li>AVAUA</li>
<li>AVAUATI</li>
<li>AVAUATUH</li>
<li>AVAUATUSD</li>
<li>AVAUATUSH</li>
<li>AVAUI</li>
<li>AVST_CLK_RESERVED</li>
<li>AVST_DATA15_0_RESERVED</li>
<li>AVST_DATA31_16_RESERVED</li>
<li>AVST_VALID_RESERVED</li>
<li>AVST_X16</li>
<li>AVST_X32</li>
<li>AVST_X8</li>
<li>AWAVA</li>
<li>AWAVAUA</li>
<li>AWAVAUATA</li>
<li>AWAVAUATE</li>
<li>AWAVAUATI</li>
<li>AWAVAUATL</li>
<li>AWAVAUATUH</li>
<li>AWAVAUATUSH</li>
<li>AWAVAUI</li>
<li>AWAVE</li>
<li>AWAVI</li>
<li>AWAVL</li>
<li>AWAVM</li>
<li>BAK_AUTO_EXPORT</li>
<li>BAK_EXPORT_DIR</li>
<li>BALANCED</li>
<li>BASED_ON_CLOCK_SETTINGS</li>
<li>BASEO</li>
<li>BASE_PIN_OUT_FILE_ON_SAMEFRAME_DEVICE</li>
<li>BASE_REVISION</li>
<li>BASE_REVISION_PROJECT_OUTPUT_DIRECTORY</li>
<li>BASIC</li>
<li>BDF_FILE</li>
<li>BEST</li>
<li>BIAS_INT</li>
<li>BIAS_VCMDRV</li>
<li>BLOCK_DESIGN_NAMING</li>
<li>BLOCK_RAM_AND_MLAB_EQUIVALENT_PAUSED_READ_CAPABILITIES</li>
<li>BLOCK_RAM_AND_MLAB_EQUIVALENT_POWER_UP_CONDITIONS</li>
<li>BLOCK_RAM_TO_MLAB_CELL_CONVERSION</li>
<li>BOARD</li>
<li>BOARD_MODEL_CUSTOM</li>
<li>BOARD_MODEL_EBD_FAR_END</li>
<li>BOARD_MODEL_EBD_FILE_NAME</li>
<li>BOARD_MODEL_EBD_SIGNAL_NAME</li>
<li>BOARD_MODEL_FAR_C</li>
<li>BOARD_MODEL_FAR_DIFFERENTIAL_R</li>
<li>BOARD_MODEL_FAR_PULLDOWN_R</li>
<li>BOARD_MODEL_FAR_PULLUP_R</li>
<li>BOARD_MODEL_FAR_SERIES_R</li>
<li>BOARD_MODEL_NEAR_C</li>
<li>BOARD_MODEL_NEAR_DIFFERENTIAL_R</li>
<li>BOARD_MODEL_NEAR_PULLDOWN_R</li>
<li>BOARD_MODEL_NEAR_PULLUP_R</li>
<li>BOARD_MODEL_NEAR_SERIES_C</li>
<li>BOARD_MODEL_NEAR_SERIES_R</li>
<li>BOARD_MODEL_NEAR_TLINE_C_PER_LENGTH</li>
<li>BOARD_MODEL_NEAR_TLINE_LENGTH</li>
<li>BOARD_MODEL_NEAR_TLINE_L_PER_LENGTH</li>
<li>BOARD_MODEL_TERMINATION_V</li>
<li>BOARD_MODEL_TLINE_C_PER_LENGTH</li>
<li>BOARD_MODEL_TLINE_LENGTH</li>
<li>BOARD_MODEL_TLINE_L_PER_LENGTH</li>
<li>BOTH_EDGES</li>
<li>BREAKPOINT_FILE</li>
<li>BREAKPOINT</li>
<li>BREAKPOINT_LINE_NUMBER</li>
<li>BREAKPOINT_STATE</li>
<li>BSF_FILE</li>
<li>BW_FULL_12P5</li>
<li>BW_HALF_6P5</li>
<li>BYPASS_ERROR_RELEASE_CLEARS_BEFORE_TRISTATES_1S25</li>
<li>BYPASS</li>
<li>BYPASS_OFF</li>
<li>BYPASS_STAGES_234</li>
<li>BYTE_ORDER</li>
<li>BYYPASS_STAGES_234</li>
<li>CALIBRATED</li>
<li>CALIBRATED_SSTL</li>
<li>CAL_SIM_ACTIVATOR</li>
<li>CAP_NAME</li>
<li>CARRY_CHAIN_LENGTH_ARMSTRONG</li>
<li>CARRY_CHAIN_LENGTH_DALI</li>
<li>CARRY_CHAIN_LENGTH_FLEX10K</li>
<li>CARRY_CHAIN_LENGTH_FLEX6K</li>
<li>CARRY_CHAIN_LENGTH_TSUNAMI</li>
<li>CARRY_CHAIN_LENGTH_YEAGER</li>
<li>CARRY_OUT_PINS_LCELL_INSERT</li>
<li>CASCADE_CHAIN_LENGTH</li>
<li>CASE_SENSITIVE</li>
<li>CAT_ASSEMBLER</li>
<li>CAT_ASSIGNMENT_GROUP</li>
<li>CAT_DESIGN_ASSISTANT</li>
<li>CAT_FITTER</li>
<li>CAT_INCREMENTAL_COMPILATION</li>
<li>CAT_LOCATION_PIN</li>
<li>CAT_LOGICLOCK</li>
<li>CAT_MAPPER_SYNTHESIS</li>
<li>CAT_NETO</li>
<li>CAT_PARAMETERS</li>
<li>CAT_POWER_ESTIMATION</li>
<li>CAT_PROGRAMMER</li>
<li>CAT_SIGNALPROBE</li>
<li>CAT_SIGNALTAP</li>
<li>CAT_SIMULATION</li>
<li>CAT_SOFTWARE_BUILDER</li>
<li>CAT_TIMEGROUP</li>
<li>CAT_TIMING_ANALYSIS</li>
<li>CAT_TIMING</li>
<li>CB_CLKUSR</li>
<li>CB_INTOSC</li>
<li>CDF_FILE</li>
<li>CDR_BANDWIDTH_PRESET</li>
<li>CEI_11100_LR</li>
<li>CEI_11100_SR</li>
<li>CEI_4976_LR</li>
<li>CEI_4976_SR</li>
<li>CEI_6375_LR</li>
<li>CEI_6375_SR</li>
<li>CEI_9950_LR</li>
<li>CEI_9950_SR</li>
<li>CE_OPTION</li>
<li>CHAIN_FILE</li>
<li>CHECK_AGAINST_TSM_DELAY</li>
<li>CHECK_OUTPUTS</li>
<li>CHIP</li>
<li>CKN_CK_PAIR</li>
<li>CLAMPING_DIODE</li>
<li>CLIQUE_TYPE_APEX20K</li>
<li>CLIQUE_TYPE_DALI</li>
<li>CLIQUE_TYPE_FLEX10K</li>
<li>CLIQUE_TYPE_FLEX6K</li>
<li>CLIQUE_TYPE_MAX7K</li>
<li>CLK_FPLL_VREG_BOOST_1_STEP</li>
<li>CLK_FPLL_VREG_BOOST_2_STEP</li>
<li>CLK_FPLL_VREG_BOOST_3_STEP</li>
<li>CLK_FPLL_VREG_BOOST_4_STEP</li>
<li>CLK_FPLL_VREG_BOOST_5_STEP</li>
<li>CLK_FPLL_VREG_BOOST_6_STEP</li>
<li>CLK_FPLL_VREG_BOOST_7_STEP</li>
<li>CLK_FPLL_VREG_NO_VOLTAGE_BOOST</li>
<li>CLKLOCKX1_INPUT_FREQ</li>
<li>CLK_RULE_ALL</li>
<li>CLK_RULE_CLKNET_CLKSPINES</li>
<li>CLK_RULE_CLKNET_CLKSPINES_THRESHOLD</li>
<li>CLK_RULE_COMB_CLOCK</li>
<li>CLK_RULE_GATED_CLK_FANOUT</li>
<li>CLK_RULE_GATING_SCHEME</li>
<li>CLK_RULE_INPINS_CLKNET</li>
<li>CLK_RULE_INV_CLOCK</li>
<li>CLK_RULE_MIX_EDGES</li>
<li>CLOCK_ANALYSIS_ONLY</li>
<li>CLOCK_ENABLE_MULTICYCLE_HOLD</li>
<li>CLOCK_ENABLE_MULTICYCLE</li>
<li>CLOCK_ENABLE_ROUTING</li>
<li>CLOCK_ENABLE_SOURCE_MULTICYCLE_HOLD</li>
<li>CLOCK_ENABLE_SOURCE_MULTICYCLE</li>
<li>CLOCK_HOLD_UNCERTAINTY</li>
<li>CLOCK_SETUP_UNCERTAINTY</li>
<li>CLOCK_SOURCE</li>
<li>CLOCK_SPINE</li>
<li>CLOCK_TO_OUTPUT_DELAY</li>
<li>CLOUD_NOTIFY_COMPILE_ID</li>
<li>CLOUD_NOTIFY_ENABLE</li>
<li>CLOUD_NOTIFY_ENABLE_LOGGING</li>
<li>CLOUD_NOTIFY_GROUP_ID</li>
<li>CLOUD_NOTIFY_LOGGING</li>
<li>CLOUD_NOTIFY_PROXY</li>
<li>CLOUD_NOTIFY_SEND_CRIT_WARNINGS</li>
<li>CLOUD_NOTIFY_SEND_ERRORS</li>
<li>CLOUD_NOTIFY_SEND_JSON_REPORTS</li>
<li>CLOUD_NOTIFY_SERVER</li>
<li>CLOUD_NOTIFY_TOKEN</li>
<li>COMMAND_MACRO_FILE</li>
<li>COMMAND_MACRO_MODE</li>
<li>COMPANION_REVISION_NAME</li>
<li>COMPARED_CLOCK</li>
<li>COMPATIBLE_PLACEMENT_AND_ROUTING</li>
<li>COMPATIBLE_PLACEMENT</li>
<li>COMPILATION_LEVEL</li>
<li>COMPILE_NEW_PROJECT</li>
<li>COMPILER_ACTION_POINTS</li>
<li>COMPILER_ASSIGNMENT</li>
<li>COMPILER_CONFIGURED</li>
<li>COMPILER_SETTINGS_LIST</li>
<li>COMPILER_SIGNATURE_ID</li>
<li>COMPRESSION_MODE</li>
<li>CONBINATION10</li>
<li>CONBINATION11</li>
<li>CONBINATION1</li>
<li>CONBINATION2</li>
<li>CONBINATION3</li>
<li>CONBINATION4</li>
<li>CONBINATION5</li>
<li>CONBINATION6</li>
<li>CONBINATION7</li>
<li>CONBINATION8</li>
<li>CONBINATION9</li>
<li>CONFIG_DEVICE_JTAG_USER_CODE_DALI</li>
<li>CONFIG_DEVICE_JTAG_USER_CODE_FLEX6K</li>
<li>CONFIG_DEVICE_JTAG_USER_CODE</li>
<li>CONFIGURATION_CLOCK_DIVISOR</li>
<li>CONFIGURATION_CLOCK_FREQUENCY</li>
<li>CONFIGURATION_DEVICE_DALI</li>
<li>CONFIGURATION_DEVICE_FLEX6K</li>
<li>CONFIGURATION_SCHEME_DALI</li>
<li>CONFIGURATION_SCHEME_FLEX6K</li>
<li>CONFIGURATION_VCCIO_LEVEL</li>
<li>CONNECT_BIDIR_PIN_FROM_SLD_INCR_NODE_ENTITY_PORT</li>
<li>CONNECT_BIDIR_PIN_FROM_SLD_NODE_ENTITY_PORT</li>
<li>CONNECT_FROM_SLD_INCR_NODE_ENTITY_PORT</li>
<li>CONNECT_FROM_SLD_NODE_ENTITY_PORT</li>
<li>CONNECT_PIN_FROM_SLD_INCR_NODE_ENTITY_PORT</li>
<li>CONNECT_PIN_FROM_SLD_NODE_ENTITY_PORT</li>
<li>CONNECT_PIN_TO_SLD_INCR_NODE_ENTITY_PORT</li>
<li>CONNECT_PIN_TO_SLD_NODE_ENTITY_PORT</li>
<li>CONNECT_TO</li>
<li>CONNECT_TO_SLD_INCR_NODE_ENTITY_PORT</li>
<li>CONNECT_TO_SLD_NODE_ENTITY_PORT</li>
<li>CONTAINS_FAMILY_SPECIFIC_DATA</li>
<li>CONVERT_ALOAD_TO_CLEAR_PRESET</li>
<li>CONVERT_PR_WARNINGS_TO_ERRORS</li>
<li>COPY_IF_NODE_IS_DUPLICATED</li>
<li>COPY_VARIABLE_TYPE_IN_PIN_PLANNER</li>
<li>CORE_INITIALIZATION_AND_UPDATE</li>
<li>CORE_INITIALIZATION</li>
<li>CORE_ONLY_PLACE_REGION</li>
<li>CORE_UPDATE</li>
<li>COVERAGE_COMPLETE_PANEL_ENABLED</li>
<li>COVERAGE_MISSING_0_VALUE_PANEL_ENABLED</li>
<li>COVERAGE_MISSING_1_VALUE_PANEL_ENABLED</li>
<li>CPP_FILE</li>
<li>CPP_INCLUDE_FILE</li>
<li>CPRI_12500</li>
<li>CPRI_E12HV</li>
<li>CPRI_E12LVIII</li>
<li>CPRI_E12LVII</li>
<li>CPRI_E12LV</li>
<li>CPRI_E24LVIII</li>
<li>CPRI_E24LVII</li>
<li>CPRI_E24LV</li>
<li>CPRI_E30LVIII</li>
<li>CPRI_E30LVII</li>
<li>CPRI_E30LV</li>
<li>CPRI_E48LVIII</li>
<li>CPRI_E48LVII</li>
<li>CPRI_E60LVIII</li>
<li>CPRI_E60LVII</li>
<li>CPRI_E6HV</li>
<li>CPRI_E6LVIII</li>
<li>CPRI_E6LVII</li>
<li>CPRI_E6LV</li>
<li>CPRI_E96LVIII</li>
<li>CPRI_E99LVIII</li>
<li>CPRI</li>
<li>CRC_ERROR_CHECKING_YEAGER</li>
<li>CRC_ERROR_OPEN_DRAIN</li>
<li>CREATED_BY</li>
<li>CREATED_FROM</li>
<li>CROSS_BOUNDARY_OPTIMIZATIONS</li>
<li>CURRENT_STRENGTH</li>
<li>CURRENT_STRENGTH_NEW</li>
<li>CUSP_FILE</li>
<li>CUSTOM_BUILD_COMMAND_LINE</li>
<li>CUSTOM_CLOCK_TREE</li>
<li>CUT_OFF_CLEAR_AND_PRESET_PATHS</li>
<li>CUT_OFF_IO_PIN_FEEDBACK</li>
<li>CUT_OFF_PATHS_BETWEEN_CLOCK_DOMAINS</li>
<li>CUT_OFF_READ_DURING_WRITE_PATH</li>
<li>CUT_OFF_READ_DURING_WRITE_PATHS</li>
<li>CVPCIE_CONFDONE_OPEN_DRAIN</li>
<li>CVPCIE_MODE</li>
<li>CVP_CONFDONE_OPEN_DRAIN</li>
<li>CVP_MODE</li>
<li>CVP_REVISION</li>
<li>CVWF</li>
<li>CYCLONE_CONFIGURATION_DEVICE</li>
<li>CYCLONE_CONFIGURATION_SCHEME</li>
<li>CYCLONEII_CONFIGURATION_SCHEME</li>
<li>CYCLONEIII_CONFIGURATION_DEVICE</li>
<li>CYCLONEIII_CONFIGURATION_SCHEME</li>
<li>CYCLONEII_M4K_COMPATIBILITY</li>
<li>CYCLONEII_OPTIMIZATION_TECHNIQUE</li>
<li>CYCLONEII_RESERVE_NCEO_AFTER_CONFIGURATION</li>
<li>CYCLONEII_TERMINATION</li>
<li>CYCLONE_OPTIMIZATION_TECHNIQUE</li>
<li>D1_DELAY</li>
<li>D1_FINE_DELAY</li>
<li>D2_DELAY</li>
<li>D3_DELAY</li>
<li>D4_DELAY</li>
<li>D4_FINE_DELAY</li>
<li>D5_DELAY</li>
<li>D5_FINE_DELAY</li>
<li>D5_OCT_DELAY</li>
<li>D5_OE_DELAY</li>
<li>D6_DELAY</li>
<li>D6_FINE_DELAY</li>
<li>D6_OCT_DELAY</li>
<li>D6_OE_DELAY</li>
<li>D6_OE_FINE_DELAY</li>
<li>DA_CUSTOM_RULE_FILE</li>
<li>DATA0_PIN</li>
<li>DATA0_RESERVED</li>
<li>DATA15_8_RESERVED</li>
<li>DATA1_RESERVED</li>
<li>DATA7_1_RESERVED</li>
<li>DATA7_2_RESERVED</li>
<li>DATA7_5_RESERVED</li>
<li>DC_COUPLING_EXTERNAL_RESISTOR</li>
<li>DC_COUPLING_EXTERNAL_TERMINATION</li>
<li>DC_COUPLING_INTERNAL_100_OHMS</li>
<li>DC_CURRENT_FOR_ELECTROMIGRATION_CHECK</li>
<li>DCLK_PIN</li>
<li>DCLK_RESERVED</li>
<li>DDIO_INPUT_REGISTER</li>
<li>DDIO_OUTPUT_REGISTER_DISTANCE</li>
<li>DDIO_OUTPUT_REGISTER</li>
<li>DEBUG_BOUNDARY</li>
<li>DEBUG_TRACE</li>
<li>DECREASE_INPUT_DELAY_TO_INPUT_REGISTER</li>
<li>DECREASE_INPUT_DELAY_TO_OUTPUT_REGISTER</li>
<li>DEFAULT_DESIGN_ASSISTANT_SETTINGS</li>
<li>DEFAULT_DEVICE_OPTIONS</li>
<li>DEFAULT_EQUIVALENCE_CHECKER_SETTINGS</li>
<li>DEFAULT_HARDCOPY_SETTINGS</li>
<li>DEFAULT_HOLD_MULTICYCLE</li>
<li>DEFAULT_LOGIC_OPTIONS</li>
<li>DEFAULT_NETLIST_VIEWER_SETTINGS</li>
<li>DEFAULT_PARAMETERS</li>
<li>DEFAULT_SDC_FILE</li>
<li>DEFAULT_TIMING_REQUIREMENTS</li>
<li>DEFAULT_VALUE</li>
<li>DELAY_SETTING_FROM_CORE_TO_CE_INPUT_REGISTER</li>
<li>DELAY_SETTING_FROM_CORE_TO_CE_IO_REGISTER</li>
<li>DELAY_SETTING_FROM_CORE_TO_CE_OE_REGISTER</li>
<li>DELAY_SETTING_FROM_CORE_TO_CE_OUTPUT_REGISTER</li>
<li>DELAY_SETTING_FROM_CORE_TO_OUTPUT_REGISTER</li>
<li>DELAY_SETTING_FROM_VIO_TO_CORE</li>
<li>DELAY_SETTING_TO_CORE_APEX20K</li>
<li>DELAY_SETTING_TO_CORE_DALI</li>
<li>DELAY_SETTING_TO_CORE_FLEX10K</li>
<li>DELAY_SETTING_TO_CORE_FLEX6K</li>
<li>DELAY_SETTING_TO_CORE_TO_OUTPUT_REGISTER</li>
<li>DELAY_SETTING_TO_CORE_TSUNAMI</li>
<li>DELAY_SETTING_TO_CORE_YEAGER</li>
<li>DELAY_SETTING_TO_INPUT_REGISTER</li>
<li>DELAY_SETTING_TO_OUTPUT_ENABLE</li>
<li>DELAY_SETTING_TO_OUTPUT</li>
<li>DELAY_SETTING_TO_ZBT</li>
<li>DEPENDENCY_FILE</li>
<li>DESIGN_ASSISTANT_ASSIGNMENT</li>
<li>DEV_FAMILY_ACEX1K</li>
<li>DEV_FAMILY_APEX20KC</li>
<li>DEV_FAMILY_APEX20KE</li>
<li>DEV_FAMILY_APEX20K</li>
<li>DEV_FAMILY_APEXII</li>
<li>DEV_FAMILY_ARMSTRONG</li>
<li>DEV_FAMILY_ARRIAIIGZ</li>
<li>DEV_FAMILY_ARRIAVGZ</li>
<li>DEV_FAMILY_ARRIAV</li>
<li>DEV_FAMILY_ASC</li>
<li>DEV_FAMILY_AURORA</li>
<li>DEV_FAMILY_BEDROCK</li>
<li>DEV_FAMILY_BS</li>
<li>DEV_FAMILY_CUDA</li>
<li>DEV_FAMILY_CYCLONE10LP</li>
<li>DEV_FAMILY_CYCLONEII</li>
<li>DEV_FAMILY_CYCLONEIVE</li>
<li>DEV_FAMILY_CYCLONEV</li>
<li>DEV_FAMILY_DALI</li>
<li>DEV_FAMILY_EMBEDDED_PROCESSOR</li>
<li>DEV_FAMILY_EPC1</li>
<li>DEV_FAMILY_EPC2</li>
<li>DEV_FAMILY_EXCALIBUR_ARM</li>
<li>DEV_FAMILY_FLASH_LOGIC</li>
<li>DEV_FAMILY_FLEX10KA</li>
<li>DEV_FAMILY_FLEX10KB</li>
<li>DEV_FAMILY_FLEX10KE</li>
<li>DEV_FAMILY_FLEX10K</li>
<li>DEV_FAMILY_FLEX6K</li>
<li>DEV_FAMILY_FLEX8000</li>
<li>DEV_FAMILY_FUSION</li>
<li>DEV_FAMILY_HCXIV</li>
<li>DEV_FAMILY_HCX</li>
<li>DEV_FAMILY_INTEL_CFI</li>
<li>DEV_FAMILY_MAX3000A</li>
<li>DEV_FAMILY_MAX7000AE</li>
<li>DEV_FAMILY_MAX7000A</li>
<li>DEV_FAMILY_MAX7000B</li>
<li>DEV_FAMILY_MAX7000S</li>
<li>DEV_FAMILY_MAX9000</li>
<li>DEV_FAMILY_MAXV</li>
<li>DEV_FAMILY_NADDER_EMULATOR</li>
<li>DEV_FAMILY_NADDER</li>
<li>DEV_FAMILY_NIGHTFURY</li>
<li>DEV_FAMILY_PIRANHA</li>
<li>DEV_FAMILY_SOC_SERIES_V</li>
<li>DEV_FAMILY_STINGRAY</li>
<li>DEV_FAMILY_STRATIXHC</li>
<li>DEV_FAMILY_STRATIXIIGX</li>
<li>DEV_FAMILY_STRATIXIIGXLITE</li>
<li>DEV_FAMILY_STRATIXV</li>
<li>DEV_FAMILY_SYN</li>
<li>DEV_FAMILY_TARPON</li>
<li>DEV_FAMILY_TGX</li>
<li>DEV_FAMILY_TITAN</li>
<li>DEV_FAMILY_TORNADO</li>
<li>DEV_FAMILY_TSUNAMI</li>
<li>DEV_FAMILY_VERMEER</li>
<li>DEV_FAMILY_VIRTUAL_JTAG_TAP</li>
<li>DEV_FAMILY_YEAGER</li>
<li>DEV_FAMILY_ZIPPLEBACK</li>
<li>DEVICE_FILTER_PACKAGE</li>
<li>DEVICE_FILTER_PIN_COUNT</li>
<li>DEVICE_FILTER_SPEED_GRADE</li>
<li>DEVICE_FILTER_VOLTAGE</li>
<li>DEVICE_INITIALIZATION_CLOCK</li>
<li>DEVICE_IO_STANDARD_APEX20KE</li>
<li>DEVICE_IO_STANDARD_APEX20KF</li>
<li>DEVICE_IO_STANDARD_APEX20K</li>
<li>DEVICE_IO_STANDARD_DALI</li>
<li>DEVICE_IO_STANDARD_FLEX10K</li>
<li>DEVICE_IO_STANDARD_FLEX6K</li>
<li>DEVICE_IO_STANDARD_MAX7000</li>
<li>DEVICE_IO_STANDARD_YEAGER</li>
<li>DEVICE_MIGRATION_LIST</li>
<li>DEVICE_TECHNOLOGY_MIGRATION_LIST</li>
<li>DEV_PART_GENERIC</li>
<li>DEV_PART_INVALID</li>
<li>DEV_PART_MAX</li>
<li>DFE_PI_BW_0P5GHZ</li>
<li>DFE_PI_BW_10GHZ</li>
<li>DFE_PI_BW_2P5GHZ</li>
<li>DFE_PI_BW_5GHZ</li>
<li>DIFFERENTIAL</li>
<li>DIRECT_FORMAT</li>
<li>DIRECT</li>
<li>DISABLE_CONF_DONE_AND_NSTATUS_ON_EPROM</li>
<li>DISABLE_CONF_DONE_AND_NSTATUS_PULLUPS_ON_CONFIG_DEVICE</li>
<li>DISABLE_CORE_CLK</li>
<li>DISABLE_DA_GX_RULE</li>
<li>DISABLE_DA_RULE</li>
<li>DISABLED</li>
<li>DISABLE_DSP_NEGATE_INFERENCING</li>
<li>DISABLE_EMBEDDED_TIMING_CONSTRAINT</li>
<li>DISABLE_MLAB_RAM_USE</li>
<li>DISABLE_NCS_AND_OE_PULLUPS_ON_CONFIG_DEVICE</li>
<li>DISABLE_OCP_HW_EVAL</li>
<li>DISABLE_PLL_COMPENSATION_DELAY_CHANGE_WARNING</li>
<li>DISABLE_REGISTER_MERGING_ACROSS_HIERARCHIES</li>
<li>DISABLE_TRI</li>
<li>DISALLOW_GLOBAL_ASSIGNMENT_IN_QIP</li>
<li>DIV2</li>
<li>DIV4</li>
<li>DIVIDE_BASE_CLOCK_BY</li>
<li>DIVIDE_BASE_CLOCK_PERIOD_BY</li>
<li>DM_PIN</li>
<li>DO_COMBINED_ANALYSIS</li>
<li>DO_MIN_ANALYSIS</li>
<li>DO_MINMAX_ANALYSIS_USING_RISEFALL_DELAYS</li>
<li>DO_MIN_TIMING</li>
<li>DONT_AUTODISCOVER_CPP_FILES</li>
<li>DONT_CONVERT_TO_USER_FRIENDLY_STRING</li>
<li>DONT_COPY_TO_CREATED_COMPANION_REVISION</li>
<li>DONT_COPY_TO_NEW_FILE_FORMAT</li>
<li>DONT_COPY_TO_NEW_REVISION</li>
<li>DONT_MERGE_REGISTER</li>
<li>DONT_REUSE_REMOVED_ASSIGNMENT</li>
<li>DONT_TOUCH_USER_CELL</li>
<li>DO_POST_BUILD_COMMAND_LINE</li>
<li>DO_SYSTEM_FMAX</li>
<li>DP_1620</li>
<li>DP_2700</li>
<li>DP_5400</li>
<li>DPRAM_32BIT_SINGLE_PORT_MODE_INPUT_EPXA1</li>
<li>DPRAM_32BIT_SINGLE_PORT_MODE_OTHER_SIGNALS_EPXA1</li>
<li>DPRAM_32BIT_SINGLE_PORT_MODE_OUTPUT_EPXA1</li>
<li>DPRAM_8BIT_16BIT_SINGLE_PORT_MODE_INPUT_EPXA1</li>
<li>DPRAM_8BIT_16BIT_SINGLE_PORT_MODE_OTHER_SIGNALS_EPXA1</li>
<li>DPRAM_8BIT_16BIT_SINGLE_PORT_MODE_OUTPUT_EPXA1</li>
<li>DPRAM_DEEP_MODE_INPUT_EPXA4_10</li>
<li>DPRAM_DEEP_MODE_OTHER_SIGNALS_EPXA4_10</li>
<li>DPRAM_DEEP_MODE_OUTPUT_EPXA4_10</li>
<li>DPRAM_DUAL_PORT_MODE_INPUT_EPXA1</li>
<li>DPRAM_DUAL_PORT_MODE_INPUT_EPXA4_10</li>
<li>DPRAM_DUAL_PORT_MODE_OTHER_SIGNALS_EPXA1</li>
<li>DPRAM_DUAL_PORT_MODE_OTHER_SIGNALS_EPXA4_10</li>
<li>DPRAM_DUAL_PORT_MODE_OUTPUT_EPXA1</li>
<li>DPRAM_DUAL_PORT_MODE_OUTPUT_EPXA4_10</li>
<li>DPRAM_INPUT_EPXA4_10</li>
<li>DPRAM_OTHER_SIGNALS_EPXA4_10</li>
<li>DPRAM_OUTPUT_EPXA4_10</li>
<li>DPRAM_SINGLE_PORT_MODE_INPUT_EPXA4_10</li>
<li>DPRAM_SINGLE_PORT_MODE_OTHER_SIGNALS_EPXA4_10</li>
<li>DPRAM_SINGLE_PORT_MODE_OUTPUT_EPXA4_10</li>
<li>DPRAM_WIDE_MODE_INPUT_EPXA4_10</li>
<li>DPRAM_WIDE_MODE_OTHER_SIGNALS_EPXA4_10</li>
<li>DPRAM_WIDE_MODE_OUTPUT_EPXA4_10</li>
<li>DPRIO_CHANNEL_NUM</li>
<li>DPRIO_CRUCLK_NUM</li>
<li>DPRIO_INTERFACE_REG</li>
<li>DPRIO_NORMAL_STATUS</li>
<li>DPRIO_QUAD_NUM</li>
<li>DPRIO_QUAD_PLL_NUM</li>
<li>DPRIO_TX_PLL0_REFCLK_NUM</li>
<li>DPRIO_TX_PLL1_REFCLK_NUM</li>
<li>DPRIO_TX_PLL_NUM</li>
<li>DQ_GROUP</li>
<li>DQ_PIN</li>
<li>DQSB_DQS_PAIR</li>
<li>DQS_DELAY</li>
<li>DQS_ENABLE_DELAY_CHAIN</li>
<li>DQS_FREQUENCY</li>
<li>DQSOUT_DELAY_CHAIN</li>
<li>DQS_SHIFT</li>
<li>DQS_SYSTEM_CLOCK</li>
<li>DRC_DEADLOCK_STATE_LIMIT</li>
<li>DRC_DETAIL_MESSAGE_LIMIT</li>
<li>DRC_FANOUT_EXCEEDING</li>
<li>DRC_GATED_CLOCK_FEED</li>
<li>DRC_MAX_TOP_FANOUT</li>
<li>DRC_REPORT_FANOUT_EXCEEDING</li>
<li>DRC_REPORT_MAX_TOP_FANOUT</li>
<li>DRC_REPORT_TOP_FANOUT</li>
<li>DRC_TOP_FANOUT</li>
<li>DRC_VIOLATION_MESSAGE_LIMIT</li>
<li>DSE_SEND_REPORT_PANEL</li>
<li>DSE_SERVER_SEND_REPORTS</li>
<li>DSE_SERVER_URL</li>
<li>DSE_SYNTH_EXTRA_EFFORT_MODE</li>
<li>DSE_WORKER_ID</li>
<li>DSM_DFT_OUT</li>
<li>DSM_LSB_OUT</li>
<li>DSM_MSB_OUT</li>
<li>DSP_BLOCK_BALANCING_IMPLEMENTATION</li>
<li>DSP_BLOCK_BALANCING</li>
<li>DSPBUILDER_FILE</li>
<li>DUAL_FAST_REGIONAL_CLOCK</li>
<li>DUAL_IMAGES</li>
<li>DUAL_PURPOSE_CLOCK_PIN_DELAY</li>
<li>DUAL_REGIONAL_CLOCK</li>
<li>DUPLICATE_ATOM</li>
<li>DUPLICATE_LOGIC_EXTRACTION</li>
<li>DUPLICATE_REGISTER_EXTRACTION</li>
<li>DUP_LOGIC_EXTRACTION</li>
<li>DUP_REG_EXTRACTION</li>
<li>DYNAMIC_ATOM_CONNECTION</li>
<li>DYNAMIC_CTL</li>
<li>DYNAMIC_OCT_CONTROL_GROUP</li>
<li>E8H9</li>
<li>EARLY_CLOCK_LATENCY</li>
<li>ECO_ALLOW_ROUTING_CHANGES</li>
<li>ECO_OPTIMIZE_TIMING</li>
<li>ECO_REGENERATE_REPORT</li>
<li>ECO_TIMING_DRIVEN_COMPILE</li>
<li>EDA_BOARD_BOUNDARY_SCAN_OPERATION</li>
<li>EDA_BOARD_DESIGN_BOUNDARY_SCAN_TOOL</li>
<li>EDA_BOARD_DESIGN_SIGNAL_INTEGRITY_TOOL</li>
<li>EDA_BOARD_DESIGN_SYMBOL_TOOL</li>
<li>EDA_BOARD_DESIGN_TIMING_TOOL</li>
<li>EDA_BOARD_DESIGN_TOOL</li>
<li>EDA_DATA_FORMAT</li>
<li>EDA_DESIGN_ENTRY_SYNTHESIS_TOOL</li>
<li>EDA_DESIGN_EXTRA_ALTERA_SIM_LIB</li>
<li>EDA_DESIGN_INSTANCE_NAME</li>
<li>EDA_ENABLE_GLITCH_FILTERING</li>
<li>EDA_ENABLE_IPUTF_MODE</li>
<li>EDA_ENABLE_OCV_TIMING_ANALYSIS</li>
<li>EDA_EXCALIBUR_ATOMS_AS_SINGLE_STRIPE</li>
<li>EDA_EXCALIBUR_SINGLE_SLICE</li>
<li>EDA_EXTRA_ELAB_OPTION</li>
<li>EDA_FLATTEN_BUSES</li>
<li>EDA_FORMAL_VERIFICATION_ALLOW_RETIMING</li>
<li>EDA_FORMAL_VERIFICATION_TOOL</li>
<li>EDA_FV_HIERARCHY</li>
<li>EDA_GENERATE_FUNCTIONAL_NETLIST</li>
<li>EDA_GENERATE_GATE_LEVEL_SIMULATION_COMMAND_SCRIPT</li>
<li>EDA_GENERATE_POWER_INPUT_FILE</li>
<li>EDA_GENERATE_RTL_SIMULATION_COMMAND_SCRIPT</li>
<li>EDA_GENERATE_SDF_OUTPUT_FILE</li>
<li>EDA_GENERATE_TIMING_CLOSURE_DATA</li>
<li>EDA_IBIS_EXTENDED_MODEL_SELECTOR</li>
<li>EDA_IBIS_MODEL_SELECTOR</li>
<li>EDA_IBIS_MUTUAL_COUPLING</li>
<li>EDA_IBIS_SPECIFICATION_VERSION</li>
<li>EDA_INCLUDE_VHDL_CONFIGURATION_DECLARATION</li>
<li>EDA_INPUT_DATA_FORMAT</li>
<li>EDA_INPUT_GND</li>
<li>EDA_INPUT_GND_NAME</li>
<li>EDA_INPUT_VCC</li>
<li>EDA_INPUT_VCC_NAME</li>
<li>EDA_IPFS_FILE</li>
<li>EDA_LAUNCH_CMD_LINE_TOOL</li>
<li>EDA_LAUNCH_TOOL</li>
<li>EDA_LMF_FILE</li>
<li>EDA_MAINTAIN_DESIGN_HIERARCHY</li>
<li>EDA_MAP_ILLEGAL_CHARACTERS</li>
<li>EDA_MAP_ILLEGAL</li>
<li>EDA_NATIVELINK_GENERATE_SCRIPT_ONLY</li>
<li>EDA_NATIVELINK_PORTABLE_FILE_PATHS</li>
<li>EDA_NATIVELINK_SIMULATION_SETUP_SCRIPT</li>
<li>EDA_NATIVELINK_SIMULATION_TEST_BENCH</li>
<li>EDA_NETLIST_TYPE</li>
<li>EDA_NETLIST_WRITER_OUTPUT_DIR</li>
<li>EDA_OCV_CORE_DERATING_FACTOR</li>
<li>EDA_OCV_IO_DERATING_FACTOR</li>
<li>EDA_OUTPUT_DATA_FORMAT</li>
<li>EDA_RESYNTHESIS_TOOL</li>
<li>EDA_RTL_SIM_MODE</li>
<li>EDA_RTL_SIMULATION_RUN_SCRIPT</li>
<li>EDA_RTL_TEST_BENCH_FILE_NAME</li>
<li>EDA_RTL_TEST_BENCH_NAME</li>
<li>EDA_RTL_TEST_BENCH_RUN_FOR</li>
<li>EDA_RUN_TOOL_AUTOMATICALLY</li>
<li>EDA_SDC_FILE_NAME</li>
<li>EDA_SETUP_HOLD_DETECTION_INPUT_REGISTERS_BIDIR_PINS_DISABLED</li>
<li>EDA_SHOW_LMF_MAPPING_MESSAGES</li>
<li>EDA_SHOW_LMF_MAPPING_MSGS</li>
<li>EDA_SIMULATION_RUN_SCRIPT</li>
<li>EDA_SIMULATION_TOOL</li>
<li>EDA_SIMULATION_VCD_OUTPUT_SIGNALS_TO_TCL_FILE</li>
<li>EDA_SIMULATION_VCD_OUTPUT_TCL_FILE</li>
<li>EDA_SIMULATION_VCD_OUTPUT_TCL_FILE_NAME</li>
<li>EDA_TEST_BENCH_DESIGN_INSTANCE_NAME</li>
<li>EDA_TEST_BENCH_ENABLE_STATUS</li>
<li>EDA_TEST_BENCH_ENTITY_MODULE_NAME</li>
<li>EDA_TEST_BENCH_EXTRA_ALTERA_SIM_LIB</li>
<li>EDA_TEST_BENCH_FILE</li>
<li>EDA_TEST_BENCH_FILE_NAME</li>
<li>EDA_TEST_BENCH_GATE_LEVEL_NETLIST_LIBRARY</li>
<li>EDA_TEST_BENCH_MODULE_NAME</li>
<li>EDA_TEST_BENCH_NAME</li>
<li>EDA_TEST_BENCH_RUN_FOR</li>
<li>EDA_TEST_BENCH_RUN_SIM_FOR</li>
<li>EDA_TEST_BENCH_SETTINGS</li>
<li>EDA_TIME_SCALE</li>
<li>EDA_TIMESCALE</li>
<li>EDA_TIMING_ANALYSIS_TOOL</li>
<li>EDA_TOOL_SETTINGS</li>
<li>EDA_TRUNCATE_HPATH</li>
<li>EDA_TRUNCATE_LONG_HIERARCHY_PATHS</li>
<li>EDA_USE_IBIS_RLC_TYPE</li>
<li>EDA_USE_LMF</li>
<li>EDA_USER_COMPILED_SIMULATION_LIBRARY_DIRECTORY</li>
<li>EDA_USE_RISE_FALL_DELAYS</li>
<li>EDA_VHDL_ARCH_NAME</li>
<li>EDA_VHDL_LIBRARY</li>
<li>EDA_WAIT_FOR_GUI_TOOL_COMPLETION</li>
<li>EDA_WRITE_CONFIG</li>
<li>EDA_WRITE_DEVICE_CONTROL_PORTS</li>
<li>EDA_WRITE_NODES_FOR_POWER_ESTIMATION</li>
<li>EDA_WRITER_DONT_WRITE_TOP_ENTITY</li>
<li>EDIF_FILE</li>
<li>ELA_FILE</li>
<li>ELEMENT_INDEX</li>
<li>ELF_FILE</li>
<li>EMIF</li>
<li>EMIF_SOC_PHYCLK_ADVANCE_MODELING</li>
<li>EMPTY</li>
<li>ENABLE_ACCELERATED_INCREMENTAL_COMPILE</li>
<li>ENABLE_ADVANCED_IO_ANALYSIS</li>
<li>ENABLE_ADVANCED_IO_DELAY_CHAIN_OPTIMIZATION</li>
<li>ENABLE_ADVANCED_IO_TIMING</li>
<li>ENABLE_ADV_SEU_DETECTION</li>
<li>ENABLE_ALT2GXB_CONFIGURATION</li>
<li>ENABLE_APEX_FITTER_CHOICE</li>
<li>ENABLE_ASMI_FOR_FLASH_LOADER</li>
<li>ENABLE_ASM_OPTIONS_FILE</li>
<li>ENABLE_ATTEMPT_SIMILAR_PLACEMENT</li>
<li>ENABLE_AUTONOMOUS_PCIE_HIP</li>
<li>ENABLE_BENEFICIAL_SKEW_OPTIMIZATION_FOR_NON_GLOBAL_CLOCKS</li>
<li>ENABLE_BENEFICIAL_SKEW_OPTIMIZATION</li>
<li>ENABLE_BOOT_SEL_PIN</li>
<li>ENABLE_BUS_HOLD_CIRCUITRY</li>
<li>ENABLE_BUS_HOLD</li>
<li>ENABLE_CHIP_WIDE_OE</li>
<li>ENABLE_CHIP_WIDE_RESET</li>
<li>ENABLE_CLOCK_LATENCY</li>
<li>ENABLE_COMPACT_REPORT_TABLE</li>
<li>ENABLE_CONFIGURATION_PINS</li>
<li>ENABLE_CORE_CLK</li>
<li>ENABLE_CRC_ERROR_PIN</li>
<li>ENABLE_CVPCIE_CONFDONE</li>
<li>ENABLE_CVP_CONFDONE</li>
<li>ENABLE_DA_RULE</li>
<li>ENABLE_DEVICE_WIDE_OE</li>
<li>ENABLE_DEVICE_WIDE_RESET</li>
<li>ENABLE_DISABLED_STRATIX_LVDS_MODES</li>
<li>ENABLE_DRC</li>
<li>ENABLE_DRC_SETTINGS</li>
<li>ENABLE_ED_CRC_CHECK</li>
<li>ENABLE_EXTRA_DQ_DELAY</li>
<li>ENABLE_FALLBACK_TO_EXTERNAL_FLASH</li>
<li>ENABLE_HOLD_BACK_OFF</li>
<li>ENABLE_HOLD_MULTICYCLE</li>
<li>ENABLE_HPS_INTERNAL_TIMING</li>
<li>ENABLE_INCREMENTAL_DESIGN</li>
<li>ENABLE_INCREMENTAL_REUSE</li>
<li>ENABLE_INCREMENTAL_SYNTHESIS</li>
<li>ENABLE_INIT_DONE_OUTPUT</li>
<li>ENABLE_IP_DEBUG</li>
<li>ENABLE_JTAG_BST_SUPPORT</li>
<li>ENABLE_JTAG_PIN_SHARING</li>
<li>ENABLE_LAB_SHARING_WITH_PARENT_PARTITION</li>
<li>ENABLE_LLIS</li>
<li>ENABLE_LOGIC_ANALYZER_INTERFACE</li>
<li>ENABLE_LOW_VOLT_MODE_FLEX10K</li>
<li>ENABLE_LOW_VOLT_MODE_FLEX6K</li>
<li>ENABLE_LOW_VOLT_MODE</li>
<li>ENABLE_M512</li>
<li>ENABLE_MERCURY_CDR</li>
<li>ENABLE_MIXED_PORT_RDW_OLD_DATA_FOR_RAM_WITH_TWO_CLOCKS</li>
<li>ENABLE_MULTITAP</li>
<li>ENABLE_NCEO_OUTPUT</li>
<li>ENABLE_NCE_PIN</li>
<li>ENABLE_NCONFIG_FROM_CORE</li>
<li>ENABLE_OCT_DONE</li>
<li>ENABLE_OCTDONE</li>
<li>ENABLE_PR_PINS</li>
<li>ENABLE_RAPID_RECOMPILE</li>
<li>ENABLE_RECOVERY_REMOVAL_ANALYSIS</li>
<li>ENABLE_REDUCED_MEMORY_MODE</li>
<li>ENABLE_SIGNALTAP</li>
<li>ENABLE_SMART_VOLTAGE_ID</li>
<li>ENABLE_SOURCE_MULTICYCLE_HOLD</li>
<li>ENABLE_SOURCE_MULTICYCLE</li>
<li>ENABLE_SPI_MODE_CHECK</li>
<li>ENABLE_SRC_HOLD_MULTICYCLE</li>
<li>ENABLE_SRC_MULTICYCLE</li>
<li>ENABLE_STATE_MACHINE_INFERENCE</li>
<li>ENABLE_STRATIX_II_DPA_DEBUG</li>
<li>ENABLE_STRATIXII_DPA_DEBUG</li>
<li>ENABLE_STRATIX_II_LVDS_LOOPBACK</li>
<li>ENABLE_STRATIXII_LVDS_LOOPBACK</li>
<li>ENABLE_STRICT_PRESERVATION</li>
<li>ENABLE_SYNCH_INPUT_REGISTER_1S25</li>
<li>ENABLE_TRI</li>
<li>ENABLE_UNUSED_RX_CLOCK_WORKAROUND</li>
<li>ENABLE_VREFA_PIN</li>
<li>ENABLE_VREFB_PIN</li>
<li>ENCRYPTED_LUTMASK</li>
<li>ENFORCE_CONFIGURATION_VCCIO</li>
<li>EN_SPI_IO_WEAK_PULLUP</li>
<li>EN_USER_IO_WEAK_PULLUP</li>
<li>EPROM_JTAG_CODE_APEX20K</li>
<li>EPROM_JTAG_CODE_DALI</li>
<li>EPROM_JTAG_CODE_FLEX10K</li>
<li>EPROM_JTAG_CODE_FLEX6K</li>
<li>EPROM_JTAG_CODE</li>
<li>EPROM_JTAG_CODE_YEAGER</li>
<li>EPROM_USE_CHECKSUM_AS_USERCODE</li>
<li>EQ_BW_1</li>
<li>EQ_BW_2</li>
<li>EQ_BW_3</li>
<li>EQ_BW_4</li>
<li>EQC_AUTO_BREAK_CONE</li>
<li>EQC_AUTO_COMP_LOOP_CUT</li>
<li>EQC_AUTO_INVERSION</li>
<li>EQC_AUTO_PORTSWAP</li>
<li>EQC_AUTO_TERMINATE</li>
<li>EQC_BBOX_MERGE</li>
<li>EQC_CONSTANT_DFF_DETECTION</li>
<li>EQC_DETECT_DONT_CARES</li>
<li>EQC_DFF_SS_EMULATION</li>
<li>EQC_DUPLICATE_DFF_DETECTION</li>
<li>EQC_ENUM_AUTO_BREAK_CONE</li>
<li>EQC_ENUM_AUTO_COMP_LOOP_CUT</li>
<li>EQC_ENUM_AUTO_INVERSION</li>
<li>EQC_ENUM_AUTO_PORTSWAP</li>
<li>EQC_ENUM_AUTO_TERMINATE</li>
<li>EQC_ENUM_BBOX_MERGE</li>
<li>EQC_ENUM_CONSTANT_DFF_DETECTION</li>
<li>EQC_ENUM_DETECT_DONT_CARES</li>
<li>EQC_ENUM_DFF_SS_EMULATION</li>
<li>EQC_ENUM_DUPLICATE_DFF_DETECTION</li>
<li>EQC_ENUM_IO_BUFFER_CONVERSION</li>
<li>EQC_ENUM_LVDS_MERGE</li>
<li>EQC_ENUM_MAC_REGISTER_UNPACK</li>
<li>EQC_ENUM_MANUAL_MAP_LIST</li>
<li>EQC_ENUM_MAX_BDD_NODES</li>
<li>EQC_ENUM_PARAMETER_CHECK</li>
<li>EQC_ENUM_POWER_UP_COMPARE</li>
<li>EQC_ENUM_RAM_REGISTER_UNPACK</li>
<li>EQC_ENUM_RAM_UNMERGING</li>
<li>EQC_ENUM_RENAMING_RULES</li>
<li>EQC_ENUM_RENAMING_RULES_LIST</li>
<li>EQC_ENUM_SET_PARTITION_BB_TO_VCC_GND</li>
<li>EQC_ENUM_SHOW_ALL_MAPPED_POINTS</li>
<li>EQC_ENUM_STRUCTURE_MATCHING</li>
<li>EQC_ENUM_SUB_CONE_REPORT</li>
<li>EQC_LVDS_MERGE</li>
<li>EQC_MAC_REGISTER_UNPACK</li>
<li>EQC_PARAMETER_CHECK</li>
<li>EQC_POWER_UP_COMPARE</li>
<li>EQC_RAM_REGISTER_UNPACK</li>
<li>EQC_RAM_UNMERGING</li>
<li>EQC_RENAMING_RULES</li>
<li>EQC_RENAMING_RULES_LIST</li>
<li>EQC_SET_PARTITION_BB_TO_VCC_GND</li>
<li>EQC_SHOW_ALL_MAPPED_POINTS</li>
<li>EQC_STRUCTURE_MATCHING</li>
<li>EQC_SUB_CONE_REPORT</li>
<li>EQUATION_FILE</li>
<li>EQUIVALENCE_CHECKER_ASSIGNMENT</li>
<li>EQZP_DIS_PEAKING</li>
<li>EQZP_EN_PEAKING</li>
<li>ERROR_CHECK_FREQUENCY_DIVISOR</li>
<li>ESTIMATE_POWER_CONSUMPTION</li>
<li>EXCALIBUR_CONFIGURATION_DEVICE</li>
<li>EXCALIBUR_CONFIGURATION_SCHEME</li>
<li>EXC_BUSTRANS_SIM_FILE</li>
<li>EXCLUDE_FMAX_PATHS_GREATER_THAN</li>
<li>EXCLUDE_SLACK_PATHS_GREATER_THAN</li>
<li>EXCLUDE_TCO_PATHS_LESS_THAN</li>
<li>EXCLUDE_TH_PATHS_LESS_THAN</li>
<li>EXCLUDE_TPD_PATHS_LESS_THAN</li>
<li>EXCLUDE_TSU_PATHS_LESS_THAN</li>
<li>EXCLUSIVE_IO_GROUP</li>
<li>EXPANDED</li>
<li>EXTENDS_TOP_BLOCK</li>
<li>EXTERNAL_FEEDBACK</li>
<li>EXTERNAL_FLASH_FALLBACK_ADDRESS</li>
<li>EXTERNAL_INPUT_DELAY</li>
<li>EXTERNAL</li>
<li>EXTERNAL_LVDS_RX_USES_DPA</li>
<li>EXTERNAL_OUTPUT_DELAY</li>
<li>EXTERNAL_PIN_CONNECTION</li>
<li>EXTRACT_AND_OPTIMIZE_BUS_MUXES</li>
<li>EXTRACT_VERILOG_STATE_MACHINES</li>
<li>EXTRACT_VHDL_STATE_MACHINES</li>
<li>EXTRA_EFFORT</li>
<li>EXTRA</li>
<li>EYEQ_BW_1G_TO_2P5G</li>
<li>EYEQ_BW_2P5G_TO_7P5G</li>
<li>EYEQ_BW_GREATER_THAN_7P5G</li>
<li>EYEQ_BW_LESS_THAN_1G</li>
<li>F10K_ACEX1K_PCI_LOW_CAP</li>
<li>FALLBACK_TO_EXTERNAL_FLASH</li>
<li>FALL</li>
<li>FALSE</li>
<li>FANIN_PER_CELL_MAX7000</li>
<li>FAP_NAME</li>
<li>FAR_GLOBAL_CLOCK</li>
<li>FAR_REGIONAL_CLOCK</li>
<li>FAST_FIT_COMPILATION</li>
<li>FAST_FIT</li>
<li>FAST_INPUT_REGISTER</li>
<li>FAST_IO</li>
<li>FAST</li>
<li>FAST_OCT_REGISTER</li>
<li>FAST_OUTPUT_ENABLE_REGISTER</li>
<li>FAST_OUTPUT_REGISTER</li>
<li>FAST_PASSIVE_PARALLEL</li>
<li>FAST_POR_DELAY</li>
<li>FASTROW_INTERCONNECT</li>
<li>FAST_VIO</li>
<li>FBCLK_COUNTER_OUT</li>
<li>FFFFFFFF</li>
<li>FINAL_PLACEMENT_OPTIMIZATION</li>
<li>FIR_POST_1T_NEG</li>
<li>FIR_POST_1T_POS</li>
<li>FIR_POST_2T_NEG</li>
<li>FIR_POST_2T_POS</li>
<li>FIR_PRE_1T_NEG</li>
<li>FIR_PRE_1T_POS</li>
<li>FIR_PRE_2T_NEG</li>
<li>FIR_PRE_2T_POS</li>
<li>FIT_ATTEMPTS_TO_SKIP</li>
<li>FIT_INI_VARS</li>
<li>FIT_ONLY_ONE_ATTEMPT</li>
<li>FIT_SCRIPT_FILE</li>
<li>FIT_SEED</li>
<li>FIT_SMART_IO</li>
<li>FITTER_ADJUST_HC_SHORT_PATH_GUARDBAND</li>
<li>FITTER_AGGRESSIVE_ROUTABILITY_OPTIMIZATION</li>
<li>FITTER_ASSIGNMENT</li>
<li>FITTER_AUTO_EFFORT_DESIRED_SLACK_MARGIN</li>
<li>FITTER_EARLY_TIMING_ESTIMATE_MODE</li>
<li>FITTER_EFFORT</li>
<li>FITTER_ONLY</li>
<li>FITTER_OPTIMIZED</li>
<li>FITTER_PLL_SCAN_CHAIN_RECONFIG_FILE</li>
<li>FITTER_TCL_CALLBACK_FILE</li>
<li>FITTER_WILDARDS</li>
<li>FITTER_WILDCARDS</li>
<li>FIT_WYSIWYG_PIA</li>
<li>FLASH_NCE_RESERVED</li>
<li>FLASH_PROGRAMMING_FILE_NAME</li>
<li>FLEX10K_CARRY_CHAIN_LENGTH</li>
<li>FLEX10K_CLIQUE_TYPE</li>
<li>FLEX10K_CONFIG_DEVICE_JTAG_USER_CODE</li>
<li>FLEX10K_CONFIGURATION_DEVICE</li>
<li>FLEX10K_CONFIGURATION_SCHEME</li>
<li>FLEX10K_DECREASE_INPUT_DELAY_TO_INTERNAL_CELLS</li>
<li>FLEX10K_DEVICE_IO_STANDARD</li>
<li>FLEX10K_ENABLE_LOCK_OUTPUT</li>
<li>FLEX10K_ENABLE_LOW_VOLTAGE_MODE_ON_CONFIG_DEVICE</li>
<li>FLEX10KE_PCI_LOW_CAP_ADJUST</li>
<li>FLEX10K_JTAG_USER_CODE</li>
<li>FLEX10K_MAX_PERIPHERAL_OE</li>
<li>FLEX10K_OPTIMIZATION_TECHNIQUE</li>
<li>FLEX10K_TECHNOLOGY_MAPPER</li>
<li>FLEX6000</li>
<li>FLEX6K_CARRY_CHAIN_LENGTH</li>
<li>FLEX6K_CLIQUE_TYPE</li>
<li>FLEX6K_CONFIG_DEVICE_JTAG_USER_CODE</li>
<li>FLEX6K_CONFIGURATION_DEVICE</li>
<li>FLEX6K_CONFIGURATION_SCHEME</li>
<li>FLEX6K_DECREASE_INPUT_DELAY_TO_INTERNAL_CELLS</li>
<li>FLEX6K_DEVICE_IO_STANDARD</li>
<li>FLEX6K_ENABLE_LOW_VOLTAGE_MODE_ON_CONFIG_DEVICE</li>
<li>FLEX6K_JTAG_USER_CODE</li>
<li>FLEX6K_LOCAL_ROUTING_DESTINATION</li>
<li>FLEX6K_LOCAL_ROUTING_SOURCE</li>
<li>FLEX6K_OPTIMIZATION_TECHNIQUE</li>
<li>FLEX6K_TECHNOLOGY_MAPPER</li>
<li>FLEXIBLE_TIMING</li>
<li>FLOATING</li>
<li>FLOW_DISABLE_ASSEMBLER</li>
<li>FLOW_ENABLE_HC_COMPARE</li>
<li>FLOW_ENABLE_HCII_COMPARE</li>
<li>FLOW_ENABLE_HYPER_RETIMER_FAST_FORWARD</li>
<li>FLOW_ENABLE_IO_ASSIGNMENT_ANALYSIS</li>
<li>FLOW_ENABLE_PARALLEL_MODULES</li>
<li>FLOW_ENABLE_POWER_ANALYZER</li>
<li>FLOW_ENABLE_RTL_VIEWER</li>
<li>FLOW_ENABLE_TIMING_CONSTRAINT_CHECK</li>
<li>FLOW_HARDCOPY_DESIGN_READINESS_CHECK</li>
<li>FMAX_REQUIREMENT</li>
<li>FOCUS_ENTITY_NAME</li>
<li>FORCE_ALL_TILES_WITH_FAILING_TIMING_PATHS_TO_HIGH_SPEED</li>
<li>FORCE_ALL_USED_TILES_TO_HIGH_SPEED</li>
<li>FORCED_IF_ASYNCHRONOUS</li>
<li>FORCED</li>
<li>FORCE_FITTER_TO_AVOID_PERIPHERY_PLACEMENT_WARNINGS</li>
<li>FORCE_FRACTURED_MODE_ALM_IMPLEMENTATION</li>
<li>FORCE_MERGE_PLL_FANOUTS</li>
<li>FORCE_NON_FRACTURED_MODE_ALM_IMPLEMENTATION</li>
<li>FORCE_POINT_TO_POINT</li>
<li>FORCE_RECOMPILE</li>
<li>FORCE_SLACK</li>
<li>FORCE_SSMCLK_TO_ISMCLK</li>
<li>FORCE_SYNCH_CLEAR</li>
<li>FORM_DDR_CLUSTERING_CLIQUE</li>
<li>FPLL</li>
<li>FPLL_VREG1_BOOST_1_STEP</li>
<li>FPLL_VREG1_BOOST_2_STEP</li>
<li>FPLL_VREG1_BOOST_3_STEP</li>
<li>FPLL_VREG1_BOOST_4_STEP</li>
<li>FPLL_VREG1_BOOST_5_STEP</li>
<li>FPLL_VREG1_BOOST_6_STEP</li>
<li>FPLL_VREG1_BOOST_7_STEP</li>
<li>FPLL_VREG1_NO_VOLTAGE_BOOST</li>
<li>FPLL_VREG_NO_VOLTAGE_BOOST</li>
<li>FREQ_12_5MHZ</li>
<li>FREQ_20MHZ</li>
<li>FREQ_40MHZ</li>
<li>FSDA_LEVEL_AUTO</li>
<li>FSDA_LEVEL_C1</li>
<li>FSDA_LEVEL_C2</li>
<li>FSDA_LEVEL_U</li>
<li>FSM_CAT</li>
<li>FSM_RULE_DEADLOCK_STATE</li>
<li>FSM_RULE_NO_RESET_STATE</li>
<li>FSM_RULE_NO_SZER_ACLK_DOMAIN</li>
<li>FSM_RULE_UNREACHABLE_STATE</li>
<li>FSM_RULE_UNUSED_TRANSITION</li>
<li>FSYN_AND_ICP_REGTEST_MODE</li>
<li>FULL_COMPILATION</li>
<li>FULL_INCREMENTAL_COMPILATION</li>
<li>FULL_INCREMENTAL_DESIGN</li>
<li>FULL_VPACK</li>
<li>FULL_VPR</li>
<li>FUNCTIONAL</li>
<li>FV_BLACKBOX</li>
<li>G8A94</li>
<li>G8H9</li>
<li>GBE_1250</li>
<li>GDF_FILE</li>
<li>GEN3_OFF</li>
<li>GEN3_ON</li>
<li>GEN4_OFF</li>
<li>GEN4_ON</li>
<li>GENERAL_POOL</li>
<li>GENERATE_CONFIG_HEXOUT_FILE</li>
<li>GENERATE_CONFIG_ISC_FILE</li>
<li>GENERATE_CONFIG_JAM_FILE</li>
<li>GENERATE_CONFIG_JBC_FILE_COMPRESSED</li>
<li>GENERATE_CONFIG_JBC_FILE</li>
<li>GENERATE_CONFIG_SVF_FILE</li>
<li>GENERATE_GXB_RECONFIG_MIF</li>
<li>GENERATE_GXB_RECONFIG_MIF_WITH_PLL</li>
<li>GENERATE_HEX_FILE</li>
<li>GENERATE_ISC_FILE</li>
<li>GENERATE_JAM_FILE</li>
<li>GENERATE_JBC_FILE_COMPRESSED</li>
<li>GENERATE_JBC_FILE</li>
<li>GENERATE_PMSF_FILES</li>
<li>GENERATE_RBF_FILE</li>
<li>GENERATE_SVF_FILE</li>
<li>GENERATE_TTF_FILE</li>
<li>GENERATION_DIRECTORY</li>
<li>GENERIC_TRAIT</li>
<li>GIGE</li>
<li>GIVE_ERROR</li>
<li>GIVE_INFO</li>
<li>GIVE_WARNING</li>
<li>GLITCH_DETECTION</li>
<li>GLITCH_DETECTION_PULSE</li>
<li>GLITCH_INTERVAL</li>
<li>GLOBAL_SIGNAL_CLKCTRL_LOCATION</li>
<li>GNDIO_CURRENT_1PT8V</li>
<li>GNDIO_CURRENT_2PT5V</li>
<li>GNDIO_CURRENT_GTL</li>
<li>GNDIO_CURRENT_GTL_PLUS</li>
<li>GNDIO_CURRENT_LVCMOS</li>
<li>GNDIO_CURRENT_LVTTL</li>
<li>GNDIO_CURRENT_PCI</li>
<li>GNDIO_CURRENT_SSTL2_CLASS1</li>
<li>GNDIO_CURRENT_SSTL2_CLASS2</li>
<li>GNDIO_CURRENT_SSTL3_CLASS1</li>
<li>GNDIO_CURRENT_SSTL3_CLASS2</li>
<li>GNU_ASM_COMMAND_LINE</li>
<li>GNU_CPP_COMMAND_LINE</li>
<li>GNU_CSP_ASM_COMMAND_LINE</li>
<li>GNU_CSP_CPP_COMMAND_LINE</li>
<li>GNU_CSP_LINK_COMMAND_LINE</li>
<li>GNU_LINK_COMMAND_LINE</li>
<li>GNUPRO_ARM_ASM_COMMAND_LINE</li>
<li>GNUPRO_ARM_CPP_COMMAND_LINE</li>
<li>GNUPRO_ARM_LINK_COMMAND_LINE</li>
<li>GNUPRO_MIPS_ASM_COMMAND_LINE</li>
<li>GNUPRO_MIPS_CPP_COMMAND_LINE</li>
<li>GNUPRO_MIPS_LINK_COMMAND_LINE</li>
<li>GNUPRO_NIOS_ASM_COMMAND_LINE</li>
<li>GNUPRO_NIOS_CPP_COMMAND_LINE</li>
<li>GNUPRO_NIOS_LINK_COMMAND_LINE</li>
<li>GPH9</li>
<li>GPON_1244</li>
<li>GPON_155</li>
<li>GPON_2488</li>
<li>GPON_622</li>
<li>GROUNDED</li>
<li>GROUP_COMB_LOGIC_IN_CLOUD</li>
<li>GROUP_COMB_LOGIC_IN_CLOUD_TMV</li>
<li>GROUP_NODES</li>
<li>GROUP_NODES_TMV</li>
<li>GUARANTEE_MIN_DELAY_CORNER_IO_ZERO_HOLD_TIME</li>
<li>GXB_0PPM_CLOCK_GROUP_DRIVER</li>
<li>GXB_0PPM_CLOCK_GROUP</li>
<li>GXB_0PPM_CORECLK</li>
<li>GXB_0PPM_CORE_CLOCK</li>
<li>GXB_CLOCK_GROUP_DRIVER</li>
<li>GXB_CLOCK_GROUP</li>
<li>GXB_IO_PIN_TERMINATION</li>
<li>GXB_RECONFIG_GROUP</li>
<li>GXB_RECONFIG_MIF_PLL</li>
<li>GXB_REFCLK_COUPLING_TERMINATION_SETTING</li>
<li>GXB_REFCLK_PIN_TERMINATION</li>
<li>GXB_RESERVED_TRANSMIT_CHANNEL</li>
<li>GXB_TX_PLL_RECONFIG_GROUP</li>
<li>GXB_VCCA_VOLTAGE</li>
<li>GXB_VCCR_VCCT_VOLTAGE</li>
<li>HALF</li>
<li>HALF_MEGALAB_COLUMN</li>
<li>HALF_RESOLUTION</li>
<li>HALF_ROW</li>
<li>HARD_BLOCK_PARTITION</li>
<li>HARDCOPY_DEVICE_IDENTIFIER</li>
<li>HARDCOPY_EXTERNAL_CLOCK_JITTER</li>
<li>HARDCOPY_FLOW_AUTOMATION</li>
<li>HARDCOPYII_COMPANION_REVISION_NAME</li>
<li>HARDCOPYII_POWER_ON_EXTRA_DELAY</li>
<li>HARDCOPYII_RUN_COMPARISON_ON_EVERY_COMPILE</li>
<li>HARDCOPYII_SAVE_MIGRATION_INFO_DURING_COMPILATION</li>
<li>HARDCOPY_INDIVIDUAL_SETTINGS</li>
<li>HARDCOPY_INPUT_TRANSITION_CLOCK_PIN</li>
<li>HARDCOPY_INPUT_TRANSITION_DATA_PIN</li>
<li>HARDCOPY_NEW_PROJECT_PATH</li>
<li>HARD_POST_FIT</li>
<li>HCII_OUTPUT_DIR</li>
<li>HC_OUTPUT_DIR</li>
<li>HCPY_ALOAD_SIGNALS</li>
<li>HCPY_ASYN_RAM</li>
<li>HCPY_CAT</li>
<li>HCPY_EXCEED_RAM_USAGE</li>
<li>HCPY_EXCEED_USER_IO_USAGE</li>
<li>HCPY_EXT_CLK_JITTER_CHECK</li>
<li>HCPY_EXT_CLK_JITTER_EDGE</li>
<li>HCPY_EXT_CLK_JITTER</li>
<li>HCPY_ILLEGAL_HC_DEV_PKG</li>
<li>HCPY_INPUT_TRANS_CLK_PIN</li>
<li>HCPY_INPUT_TRANS_DATA_PIN</li>
<li>HCPY_PLL_MULTIPLE_CLK_NETWORK_TYPES</li>
<li>HCPY_TRANS_CONDITION_CLK_PIN</li>
<li>HCPY_TRANS_CONDITION_DATA_PIN</li>
<li>HCPY_TRANS_EDGE_CLK_PIN</li>
<li>HCPY_TRANS_EDGE_DATA_PIN</li>
<li>HCPY_VREF_PINS</li>
<li>HDL_INITIAL_FANOUT_LIMIT</li>
<li>HDL_INTERFACE_INSTANCE_ENTITY</li>
<li>HDL_INTERFACE_INSTANCE_NAME</li>
<li>HDL_INTERFACE_INSTANCE_PARAMETERS</li>
<li>HDL_INTERFACE_OUTPUT_PATH</li>
<li>HDL_MESSAGE_LEVEL</li>
<li>HDL_MESSAGE_OFF</li>
<li>HDL_MESSAGE_ON</li>
<li>HDL_SETTINGS</li>
<li>HDL_VERSION</li>
<li>HEX_FILE_COUNT_UP_DOWN</li>
<li>HEX_FILE_COUNT_UP_OR_DOWN</li>
<li>HEX_FILE_START_ADDRESS</li>
<li>HEXOUT_FILE_COUNT_DIRECTION</li>
<li>HEXOUT_FILE_START_ADDRESS</li>
<li>HEX_OUTPUT_FILE</li>
<li>HIDE_RCF_WARNINGS</li>
<li>HIERARCHICAL_COMPILE</li>
<li>HIERARCHY_BLACKBOX_FILE</li>
<li>HIGH_PERF</li>
<li>HIGH_PERFORMANCE_EFFORT</li>
<li>HIGH_POWER_EFFORT</li>
<li>HIGH_VCM</li>
<li>HIGIG_4062</li>
<li>HIGIG_5000</li>
<li>HIGIG_6250</li>
<li>HIGIG_6562</li>
<li>HOLD_MULTICYCLE_DEFAULT</li>
<li>HOLD_RELATIONSHIP</li>
<li>HPS_AUTO_PARTITION</li>
<li>HPS_EARLY_IO_RELEASE</li>
<li>HPS_IO</li>
<li>HPS_ISW_FILE</li>
<li>HPS_LOCATION</li>
<li>HPS_PARTITION</li>
<li>HSSI_A10_CDR_PLL_ANALOG_MODE</li>
<li>HSSI_A10_CDR_PLL_POWER_MODE</li>
<li>HSSI_A10_CDR_PLL_REQUIRES_GT_CAPABLE_CHANNEL</li>
<li>HSSI_A10_CDR_PLL_UC_RO_CAL</li>
<li>HSSI_A10_CMU_FPLL_ANALOG_MODE</li>
<li>HSSI_A10_CMU_FPLL_PLL_DPRIO_CLK_VREG_BOOST</li>
<li>HSSI_A10_CMU_FPLL_PLL_DPRIO_FPLL_VREG1_BOOST</li>
<li>HSSI_A10_CMU_FPLL_PLL_DPRIO_FPLL_VREG_BOOST</li>
<li>HSSI_A10_CMU_FPLL_PLL_DPRIO_STATUS_SELECT</li>
<li>HSSI_A10_CMU_FPLL_POWER_MODE</li>
<li>HSSI_A10_LC_PLL_ANALOG_MODE</li>
<li>HSSI_A10_LC_PLL_POWER_MODE</li>
<li>HSSI_A10_PM_UC_CLKDIV_SEL</li>
<li>HSSI_A10_PM_UC_CLKSEL_CORE</li>
<li>HSSI_A10_PM_UC_CLKSEL_OSC</li>
<li>HSSI_A10_REFCLK_TERM_TRISTATE</li>
<li>HSSI_A10_RX_ADAPT_DFE_CONTROL_SEL</li>
<li>HSSI_A10_RX_ADAPT_DFE_SEL</li>
<li>HSSI_A10_RX_ADAPT_VGA_SEL</li>
<li>HSSI_A10_RX_ADAPT_VREF_SEL</li>
<li>HSSI_A10_RX_ADP_CTLE_ACGAIN_4S</li>
<li>HSSI_A10_RX_ADP_CTLE_EQZ_1S_SEL</li>
<li>HSSI_A10_RX_ADP_DFE_FLTAP_POSITION</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP10</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP10_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP11</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP11_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP1</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP2</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP2_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP3</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP3_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP4</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP4_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP5</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP5_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP6</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP6_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP7</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP7_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP8</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP8_SGN</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP9</li>
<li>HSSI_A10_RX_ADP_DFE_FXTAP9_SGN</li>
<li>HSSI_A10_RX_ADP_LFEQ_FB_SEL</li>
<li>HSSI_A10_RX_ADP_ONETIME_DFE</li>
<li>HSSI_A10_RX_ADP_VGA_SEL</li>
<li>HSSI_A10_RX_ADP_VREF_SEL</li>
<li>HSSI_A10_RX_BYPASS_EQZ_STAGES_234</li>
<li>HSSI_A10_RX_EQ_BW_SEL</li>
<li>HSSI_A10_RX_EQ_DC_GAIN_TRIM</li>
<li>HSSI_A10_RX_INPUT_VCM_SEL</li>
<li>HSSI_A10_RX_LINK</li>
<li>HSSI_A10_RX_OFFSET_CANCELLATION_CTRL</li>
<li>HSSI_A10_RX_ONE_STAGE_ENABLE</li>
<li>HSSI_A10_RX_POWER_MODE</li>
<li>HSSI_A10_RX_QPI_ENABLE</li>
<li>HSSI_A10_RX_RX_SEL_BIAS_SOURCE</li>
<li>HSSI_A10_RX_SD_OUTPUT_OFF</li>
<li>HSSI_A10_RX_SD_OUTPUT_ON</li>
<li>HSSI_A10_RX_SD_THRESHOLD</li>
<li>HSSI_A10_RX_TERM_SEL</li>
<li>HSSI_A10_RX_TERM_TRI_ENABLE</li>
<li>HSSI_A10_RX_UC_RX_DFE_CAL</li>
<li>HSSI_A10_RX_VCCELA_SUPPLY_VOLTAGE</li>
<li>HSSI_A10_RX_VCM_CURRENT_ADD</li>
<li>HSSI_A10_RX_VCM_SEL</li>
<li>HSSI_A10_RX_XRX_PATH_ANALOG_MODE</li>
<li>HSSI_A10_TX_COMPENSATION_EN</li>
<li>HSSI_A10_TX_DCD_DETECTION_EN</li>
<li>HSSI_A10_TX_DPRIO_CGB_VREG_BOOST</li>
<li>HSSI_A10_TX_LINK</li>
<li>HSSI_A10_TX_LOW_POWER_EN</li>
<li>HSSI_A10_TX_POWER_MODE</li>
<li>HSSI_A10_TX_PRE_EMP_SIGN_1ST_POST_TAP</li>
<li>HSSI_A10_TX_PRE_EMP_SIGN_2ND_POST_TAP</li>
<li>HSSI_A10_TX_PRE_EMP_SIGN_PRE_TAP_1T</li>
<li>HSSI_A10_TX_PRE_EMP_SIGN_PRE_TAP_2T</li>
<li>HSSI_A10_TX_PRE_EMP_SWITCHING_CTRL_1ST_POST_TAP</li>
<li>HSSI_A10_TX_PRE_EMP_SWITCHING_CTRL_2ND_POST_TAP</li>
<li>HSSI_A10_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP_1T</li>
<li>HSSI_A10_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP_2T</li>
<li>HSSI_A10_TX_RES_CAL_LOCAL</li>
<li>HSSI_A10_TX_RX_DET</li>
<li>HSSI_A10_TX_RX_DET_OUTPUT_SEL</li>
<li>HSSI_A10_TX_RX_DET_PDB</li>
<li>HSSI_A10_TX_SLEW_RATE_CTRL</li>
<li>HSSI_A10_TX_TERM_CODE</li>
<li>HSSI_A10_TX_TERM_SEL</li>
<li>HSSI_A10_TX_UC_DCD_CAL</li>
<li>HSSI_A10_TX_UC_GEN3</li>
<li>HSSI_A10_TX_UC_GEN4</li>
<li>HSSI_A10_TX_UC_SKEW_CAL</li>
<li>HSSI_A10_TX_UC_TXVOD_CAL_CONT</li>
<li>HSSI_A10_TX_UC_TXVOD_CAL</li>
<li>HSSI_A10_TX_UC_VCC_SETTING</li>
<li>HSSI_A10_TX_USER_FIR_COEFF_CTRL_SEL</li>
<li>HSSI_A10_TX_VOD_OUTPUT_SWING_CTRL</li>
<li>HSSI_A10_TX_XTX_PATH_ANALOG_MODE</li>
<li>HSSI_ADCE_RGEN_MODE</li>
<li>HSSI_ANALOG_SETTINGS_PROTOCOL</li>
<li>HSSI_FAST_LOCK_MODE</li>
<li>HSSI_GT_FORCE_VCO_CONST</li>
<li>HSSI_GT_RX_CTLE</li>
<li>HSSI_GT_RX_RX_DC_GAIN</li>
<li>HSSI_GT_RX_VCM_SEL</li>
<li>HSSI_GT_TERMINATION</li>
<li>HSSI_GT_TX_COMMON_MODE_DRIVER_SEL</li>
<li>HSSI_GT_TX_PRE_EMP_SWITCHING_CTRL_1ST_POST_TAP</li>
<li>HSSI_GT_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP</li>
<li>HSSI_GT_TX_SIG_INV_PRE_TAP</li>
<li>HSSI_GT_TX_VOD_SWITCHING_CTRL_MAIN_TAP</li>
<li>HSSI_ODI_EYE_MONITOR_BW_SEL</li>
<li>HSSI_PARAMETER</li>
<li>HSSI_REFCLK_TERMINATION</li>
<li>HSSI_RX_ACGAIN_A</li>
<li>HSSI_RX_ACGAIN_V</li>
<li>HSSI_RX_ADCE_HSF_HFBW</li>
<li>HSSI_RX_ADCE_RGEN_BW</li>
<li>HSSI_RX_BYPASS_EQZ_STAGES_234</li>
<li>HSSI_RX_CT_EQUALIZER_SETTING</li>
<li>HSSI_RX_DFE_PI_BW</li>
<li>HSSI_RX_ENABLE_RX_GAINCTRL_PCIEMODE</li>
<li>HSSI_RX_EQ_BW_SEL</li>
<li>HSSI_RX_INPUT_VCM_SEL</li>
<li>HSSI_RX_PDB_SD</li>
<li>HSSI_RX_PMOS_GAIN_PEAK</li>
<li>HSSI_RX_QPI_ENABLE</li>
<li>HSSI_RX_RX_DC_GAIN</li>
<li>HSSI_RX_RX_SEL_BIAS_SOURCE</li>
<li>HSSI_RX_SD_OFF</li>
<li>HSSI_RX_SD_ON</li>
<li>HSSI_RX_SD_THRESHOLD</li>
<li>HSSI_RX_SEL_HALF_BW</li>
<li>HSSI_RX_VCCELA_SUPPLY_VOLTAGE</li>
<li>HSSI_RX_VCM_CURRENT_ADD</li>
<li>HSSI_RX_VCM_SEL</li>
<li>HSSI_TERMINATION</li>
<li>HSSI_TX_COMMON_MODE_DRIVER_SEL</li>
<li>HSSI_TX_DRIVER_RESOLUTION_CTRL</li>
<li>HSSI_TX_FIR_COEFF_CTRL_SEL</li>
<li>HSSI_TX_LOCAL_IB_CTL</li>
<li>HSSI_TX_PRE_EMP_SWITCHING_CTRL_1ST_POST_TAP</li>
<li>HSSI_TX_PRE_EMP_SWITCHING_CTRL_2ND_POST_TAP</li>
<li>HSSI_TX_PRE_EMP_SWITCHING_CTRL_2ND_POST_TAP_USER</li>
<li>HSSI_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP</li>
<li>HSSI_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP_USER</li>
<li>HSSI_TX_QPI_EN</li>
<li>HSSI_TX_RX_DET</li>
<li>HSSI_TX_RX_DET_OUTPUT_SEL</li>
<li>HSSI_TX_RX_DET_PDB</li>
<li>HSSI_TX_SIG_INV_2ND_TAP</li>
<li>HSSI_TX_SIG_INV_PRE_TAP</li>
<li>HSSI_TX_SLEW_RATE_CTRL</li>
<li>HSSI_TX_SWING_BOOST</li>
<li>HSSI_TX_VCM_CTRL_SEL</li>
<li>HSSI_TX_VCM_CURRENT_ADDL</li>
<li>HSSI_TX_VOD_BOOST</li>
<li>HSSI_TX_VOD_SWITCHING_CTRL_MAIN_TAP</li>
<li>HSSI_VCCEH_VOLTAGE</li>
<li>HSSI_VCCER_VCCET_VOLTAGE</li>
<li>HTML_FILE</li>
<li>HTML_REPORT_FILE</li>
<li>HUB_AUTO_INSERT</li>
<li>HUB_ENTITY_NAME</li>
<li>HUB_INSTANCE_NAME</li>
<li>HUB_SOURCE_FILE</li>
<li>HYBRID_FLOW_NEW_EXTRACTOR</li>
<li>HYPER_AWARE_OPTIMIZE_REGISTER_CHAINS</li>
<li>HYPER_AWARE_OPTIMIZE_SHORT_PATHS</li>
<li>HYPER_AWARE_OPTIMIZE_TIMING</li>
<li>HYPER_AWARE_REGISTER_PLACEMENT</li>
<li>HYPER_AWARE_SET_REGISTER_BYPASS</li>
<li>HYPER_AWARE_SET_REGISTER_INITIAL_STATE</li>
<li>HYPER_EARLY_RETIMER</li>
<li>HYPER_REGISTER</li>
<li>HYPER_RETIMER_ADD_PIPELINING</li>
<li>HYPER_RETIMER_FALSE_PATH_RESTRICTION</li>
<li>HYPER_RETIMER_FAST_FORWARD_ADD_PIPELINING</li>
<li>HYPER_RETIMER_FAST_FORWARD_ADD_PIPELINING_MAX</li>
<li>HYPER_RETIMER_FAST_FORWARD_AGGRESSIVE_EXPLORATION</li>
<li>HYPER_RETIMER_FAST_FORWARD_ASYNCH_CLEAR</li>
<li>HYPER_RETIMER_FAST_FORWARD_DSP_BLOCKS</li>
<li>HYPER_RETIMER_FAST_FORWARD_EMULATE_ADD_PIPELINING</li>
<li>HYPER_RETIMER_FAST_FORWARD_EMULATE_AGGRESSIVE_EXPLORATION</li>
<li>HYPER_RETIMER_FAST_FORWARD_EMULATE_ASYNCH_CLEAR</li>
<li>HYPER_RETIMER_FAST_FORWARD_EMULATE_USER_PRESERVE_RESTRICTION</li>
<li>HYPER_RETIMER_FAST_FORWARD</li>
<li>HYPER_RETIMER_FAST_FORWARD_OFF_DESCRIPTION</li>
<li>HYPER_RETIMER_FAST_FORWARD_RAM_BLOCKS</li>
<li>HYPER_RETIMER_FAST_FORWARD_TARGET_MAX_PERFORMANCE</li>
<li>HYPER_RETIMER_FAST_FORWARD_USER_PRESERVE_RESTRICTION</li>
<li>HYPER_RETIMER</li>
<li>HYPER_RETIMER_REGISTERS_REMOVED</li>
<li>IB_22OHM</li>
<li>IB_29OHM</li>
<li>IB_42OHM</li>
<li>IB_49OHM</li>
<li>IEEE_10G_BASE_CR_10312</li>
<li>IEEE_10G_KR_10312</li>
<li>IEEE_40G_BASE_KR_10312</li>
<li>IGNORE_CARRY_BUFFERS</li>
<li>IGNORE_CARRY</li>
<li>IGNORE_CASCADE_BUFFERS</li>
<li>IGNORE_CASCADE</li>
<li>IGNORE_CLOCK_SETTINGS</li>
<li>IGNORE_DUPLICATE_DESIGN_ENTITY</li>
<li>IGNORE_GLOBAL_BUFFERS</li>
<li>IGNORE_GLOBAL</li>
<li>IGNORE_HSSI_COLUMN_POWER_FOR_BTI_MITIGATION</li>
<li>IGNORE_HSSI_COLUMN_POWER_WHEN_PRESERVING_UNUSED_XCVR_CHANNELS</li>
<li>IGNORE_LCELL</li>
<li>IGNORE_LCELL_MAX7000</li>
<li>IGNORE_MAX_FANOUT_ASSIGNMENTS</li>
<li>IGNORE_MODE_FOR_MERGE</li>
<li>IGNORE_PARTITIONS</li>
<li>IGNORE_ROW_GLOBAL_BUFFERS</li>
<li>IGNORE_ROW_GLOBAL</li>
<li>IGNORE_SOFT</li>
<li>IGNORE_SOFT_MAX7000</li>
<li>IGNORE_TRANSLATE_OFF_AND_SYNTHESIS_OFF</li>
<li>IGNORE_TRANSLATE_OFF</li>
<li>IGNORE_VERILOG_INITIAL_CONSTRUCTS</li>
<li>IGNORE_VREF_RESTRICTION</li>
<li>IMMEDIATE_ASSERTION_FAIL_ACTION</li>
<li>IMMEDIATE_ASSERTION_FAIL_MESSAGE</li>
<li>IMMEDIATE_ASSERTION</li>
<li>IMMEDIATE_ASSERTION_PASS_MESSAGE</li>
<li>IMMEDIATE_ASSERTION_STATE</li>
<li>IMMEDIATE_ASSERTION_TEST_CONDITION</li>
<li>IMPLEMENT_AS_CLOCK_ENABLE</li>
<li>IMPLEMENT_AS_LCELL</li>
<li>IMPLEMENT_AS_OUTPUT_OF_LOGIC_CELL</li>
<li>IMPLEMENT_MLAB_IN_16_BIT_DEEP_MODE</li>
<li>IMPORT_BASED_POST_FIT</li>
<li>IMPORT_BLOCK</li>
<li>IMPORTED</li>
<li>IMPORT</li>
<li>INCLUDED_IN_OLD_CHIP_SECTION</li>
<li>INCLUDED_IN_OLD_PROJECT_INFO_SECTION</li>
<li>INCLUDE_EXTERNAL_PIN_DELAYS_IN_FMAX_CALCULATIONS</li>
<li>INCLUDE_IN_ALL_TB2</li>
<li>INCLUDE_IN_COMPILER_REPORT</li>
<li>INCLUDE_IN_FITTER_TB2</li>
<li>INCLUDE_IN_POWER_TB2</li>
<li>INCLUDE_IN_SIMULATOR_REPORT</li>
<li>INCLUDE_IN_SYNTHESIS_REPORT</li>
<li>INCLUDE_IN_SYNTHESIS_TB2</li>
<li>INCLUDE_IN_TIMING_TB2</li>
<li>INCLUDE_PATHS_GREATER_THAN_TCO</li>
<li>INCLUDE_PATHS_GREATER_THAN_TH</li>
<li>INCLUDE_PATHS_GREATER_THAN_TPD</li>
<li>INCLUDE_PATHS_GREATER_THAN_TSU</li>
<li>INCLUDE_PATHS_LESS_THAN_FMAX</li>
<li>INCLUDE_PATHS_LESS_THAN_SLACK</li>
<li>INCLUDE_PIN_DELAYS_IN_CALCULATIONS</li>
<li>INC_PLACE_PREF_LOCATION</li>
<li>INC_PLC_MODE</li>
<li>INCREASE_DELAY_TO_OUTPUT_ENABLE_PIN</li>
<li>INCREASE_DELAY_TO_OUTPUT_PIN</li>
<li>INCREASE_INPUT_CLOCK_ENABLE_DELAY</li>
<li>INCREASE_INPUT_DELAY_TO_CE_IO_REGISTER</li>
<li>INCREASE_OUTPUT_CLOCK_ENABLE_DELAY</li>
<li>INCREASE_OUTPUT_ENABLE_CLOCK_ENABLE_DELAY</li>
<li>INCREASE_OUTPUT_ENABLE_CLOCK_ENABLE_DELAYR</li>
<li>INCREASE_TZX_DELAY_TO_OUTPUT_PIN</li>
<li>INCREMENTAL_COMPILATION_EXPORT_FILE</li>
<li>INCREMENTAL_COMPILATION_EXPORT_FLATTEN</li>
<li>INCREMENTAL_COMPILATION_EXPORT_NETLIST_TYPE</li>
<li>INCREMENTAL_COMPILATION_EXPORT_PARTITION_NAME</li>
<li>INCREMENTAL_COMPILATION_EXPORT_POST_FIT</li>
<li>INCREMENTAL_COMPILATION_EXPORT_POST_SYNTH</li>
<li>INCREMENTAL_COMPILATION_EXPORT_ROUTING</li>
<li>INCREMENTAL_DESIGN_PARTITION</li>
<li>INCREMENTAL_INPUT_VECTOR_FILE</li>
<li>INCREMENTAL_SYNTHESIS_FULL</li>
<li>INCREMENTAL_SYNTHESIS_PARTITION</li>
<li>INCREMENTAL_SYNTHESIS_TOP</li>
<li>INCREMENTAL_TIME_INPUT</li>
<li>INCREMENTAL_VECTOR_INPUT_SOURCE</li>
<li>INCR_SIGNALTAP_PARTITION</li>
<li>INCR_TAP</li>
<li>INDIRECT_PORT_ASSIGNMENT</li>
<li>INERTIAL</li>
<li>INFER_RAMS_FROM_RAW_LOGIC</li>
<li>INIT_CLKUSR</li>
<li>INIT_DCLK</li>
<li>INIT_DONE_OPEN_DRAIN</li>
<li>INITIAL_PLACEMENT_CONFIGURATION</li>
<li>INIT_INTOSC</li>
<li>INNER_NUM</li>
<li>INPUT_DELAY_CHAIN</li>
<li>INPUT_EDGE</li>
<li>INPUT_MAX_DELAY</li>
<li>INPUT_MIN_DELAY</li>
<li>INPUT_OCT_VALUE</li>
<li>INPUT_PERSONA</li>
<li>INPUT_REFERENCE</li>
<li>INPUT_TERMINATION</li>
<li>INPUT_TRANSITION_TIME</li>
<li>INSERT_ADDITIONAL_LOGIC_CELL</li>
<li>INSERT_BOUNDARY_WIRE_LUTS</li>
<li>INSTANT_ON</li>
<li>INTERFACE_ROLE</li>
<li>INTERFACES</li>
<li>INTERFACE_TYPE</li>
<li>INTERLAKEN_11100</li>
<li>INTERLAKEN_12500</li>
<li>INTERLAKEN_3125</li>
<li>INTERLAKEN_6375</li>
<li>INTERLAKEN</li>
<li>INTERNAL_CONFIGURATION</li>
<li>INTERNAL_FLASH_UPDATE_MODE</li>
<li>INTERNAL_OSCILLATOR_DIVIDE_DOWN</li>
<li>INTERNAL_SCRUBBING</li>
<li>INTERNAL_VREF_MODE</li>
<li>INVERT_BASE_CLOCK</li>
<li>INVERTED_CLOCK</li>
<li>IO_12_LANE_INPUT_DATA_DELAY_CHAIN</li>
<li>IO_12_LANE_INPUT_DATA_DELAY</li>
<li>IO_12_LANE_INPUT_STROBE_DELAY_CHAIN</li>
<li>IO_12_LANE_INPUT_STROBE_DELAY</li>
<li>IOBANK</li>
<li>IOBANK_VCCIO</li>
<li>IO_MAXIMUM_TOGGLE_RATE</li>
<li>IO_PATHS_AND_MINIMUM_TPD_PATHS</li>
<li>IO_PLACEMENT_OPTIMIZATION</li>
<li>IOPLL</li>
<li>IO_SSO_CHECKING</li>
<li>IP_ADVISOR_FILE</li>
<li>IPA_FILE</li>
<li>IP_COMPONENT_AUTHOR</li>
<li>IP_COMPONENT_DESCRIPTION</li>
<li>IP_COMPONENT_DISPLAY_NAME</li>
<li>IP_COMPONENT_DOCUMENTATION_LINK</li>
<li>IP_COMPONENT_GROUP</li>
<li>IP_COMPONENT_INTERNAL</li>
<li>IP_COMPONENT_NAME</li>
<li>IP_COMPONENT_PARAMETER</li>
<li>IP_COMPONENT_REPORT_HIERARCHY</li>
<li>IP_COMPONENT_SETTING</li>
<li>IP_COMPONENT_VERSION</li>
<li>IP_DEBUG_VISIBLE</li>
<li>IP_GENERATED_DEVICE_FAMILY</li>
<li>IP_QSYS_MODE</li>
<li>IP_SHOW_ANALYSIS_MESSAGES</li>
<li>IP_SHOW_ELABORATION_MESSAGES</li>
<li>IP_TARGETED_DEVICE_FAMILY</li>
<li>IP_TARGETED_PART_TRAIT</li>
<li>IP_TOOL_ENV</li>
<li>IP_TOOL_HIERARCHY_LEVELS</li>
<li>IP_TOOL_NAME</li>
<li>IP_TOOL_VERSION</li>
<li>IPX_FILE</li>
<li>IS_DEBUG</li>
<li>IS_FREEFORM</li>
<li>ISP_CLAMP_STATE_DEFAULT</li>
<li>ISP_CLAMP_STATE</li>
<li>JESD204_A_B_12500</li>
<li>JESD204_A_B_6375</li>
<li>JOHNSON</li>
<li>JTAG_BST_SUPPORT_MAX7000</li>
<li>JTAG_USER_CODE_DALI</li>
<li>JTAG_USER_CODE_FLEX6K</li>
<li>KEEP_LCELL_FOLLOWING_PLL</li>
<li>L3HH</li>
<li>LARGE_PERIPHERY_CLOCK</li>
<li>LAST_QUARTUS_VERSION</li>
<li>LATE_CLOCK_LATENCY</li>
<li>LEVEL1</li>
<li>LEVEL2</li>
<li>LEVEL3</li>
<li>LIBRARY_SEARCH_ORDER</li>
<li>LICENSE_FILE</li>
<li>LIMIT_AHDL_INTEGERS_TO_32_BITS</li>
<li>LINEAR_FORMAT</li>
<li>LL_AUTO_SIZE</li>
<li>LL_COLOR</li>
<li>LL_CORE_ONLY</li>
<li>LL_ENABLED</li>
<li>LL_EXCLUDE</li>
<li>LL_FSDA_LEVEL</li>
<li>LL_FSDA_ROUTING_INTERFACE</li>
<li>LL_HEIGHT</li>
<li>LL_HORIZONTAL_FLIP</li>
<li>LL_IGNORE_IO_BANK_FSDA_CONSTRAINT</li>
<li>LL_IGNORE_IO_BANK_SECURITY_CONSTRAINT</li>
<li>LL_IGNORE_IO_PIN_FSDA_CONSTRAINT</li>
<li>LL_IGNORE_IO_PIN_SECURITY_CONSTRAINT</li>
<li>LL_IMPORT_FILE</li>
<li>LL_MEMBER_EXCEPTIONS</li>
<li>LL_MEMBER_OF_FSDA_ROUTING_INTERFACE</li>
<li>LL_MEMBER_OF</li>
<li>LL_MEMBER_OF_SECURITY_ROUTING_INTERFACE</li>
<li>LL_MEMBER_OPTION</li>
<li>LL_MEMBER_RESOURCE_EXCLUDE</li>
<li>LL_MEMBER_STATE</li>
<li>LL_NODE_LOCATION</li>
<li>LL_OLD_BEHAVIOR</li>
<li>LL_ORIGIN</li>
<li>LL_OUTPUT_SIGNAL_FSDA_LEVEL</li>
<li>LL_PARENT</li>
<li>LL_PATH_EXCLUDE</li>
<li>LL_PATH_INCLUDE</li>
<li>LL_PRIORITY</li>
<li>LL_PR_REGION</li>
<li>LL_RCF_IMPORT_FILE</li>
<li>LL_RECT</li>
<li>LL_REGION_SECURITY_LEVEL</li>
<li>LL_RESERVED_IS_LIMITED</li>
<li>LL_RESERVED</li>
<li>LL_RESERVED_MEMBERS_OF_IMMEDIATE_PARENT_REGION_HIERARCHY_ONLY</li>
<li>LL_RESERVE</li>
<li>LL_ROOT_REGION</li>
<li>LL_ROUGH</li>
<li>LL_ROUTING_REGION_EXPANSION_SIZE</li>
<li>LL_ROUTING_REGION</li>
<li>LL_SECURITY_ROUTING_INTERFACE</li>
<li>LL_SIGNAL_SECURITY_LEVEL</li>
<li>LL_SOFT</li>
<li>LL_SOURCE_PARTITION_HIERARCHY</li>
<li>LL_SOURCE_PARTITION</li>
<li>LL_SOURCE_REGION</li>
<li>LL_STATE</li>
<li>LL_WIDTH</li>
<li>LOCAL_LINE_DELAY_CHAIN</li>
<li>LOCATION_PIN_ASSIGNMENT</li>
<li>LOCKED</li>
<li>LOGIC_ANALYZER_INTERFACE_FILE</li>
<li>LOGIC_ELEMENTS</li>
<li>LOGICLOCK_ASSIGNMENT</li>
<li>LOGICLOCK_INCREMENTAL_COMPILE_ASSIGNMENT</li>
<li>LOGICLOCK_INCREMENTAL_COMPILE_FILE</li>
<li>LOGICLOCK_REGION</li>
<li>LOGIC_MINIMIZATION_SCRIPT</li>
<li>LOW_CAP_ADJUST_FLEX10KE</li>
<li>LOW_POWER</li>
<li>LOW_VCM</li>
<li>LVDS_CLOCK_DATA_DESKEW_ADJUST</li>
<li>LVDS_DESKEW</li>
<li>LVDS_DIRECT_LOOPBACK_MODE</li>
<li>LVDS_FIXED_CLOCK_DATA_PHASE</li>
<li>LVDS</li>
<li>LVDS_RX_REGISTER</li>
<li>M10K</li>
<li>M144K_BLOCK_READ_CLOCK_DUTY_CYCLE_DEPENDENCY</li>
<li>M144K</li>
<li>M144K_USE_DCD</li>
<li>M20K</li>
<li>MACRO_HEAD</li>
<li>MACRO_MEMBER</li>
<li>MACRO_TIMING</li>
<li>MAP_FILE</li>
<li>MAPPER_SYNTHESIS_ASSIGNMENT</li>
<li>MASK_REVISION</li>
<li>MATCH_PLL_COMPENSATION_CLOCK</li>
<li>MAX10FPGA_CONFIGURATION_SCHEME</li>
<li>MAX15301</li>
<li>MAX7000B_VCCIO_IOBANK1</li>
<li>MAX7000B_VCCIO_IOBANK2</li>
<li>MAX7000_DEVICE_IO_STANDARD</li>
<li>MAX7000_ENABLE_JTAG_BST_SUPPORT</li>
<li>MAX7000_FANIN_PER_CELL</li>
<li>MAX7000_IGNORE_LCELL_BUFFERS</li>
<li>MAX7000_IGNORE_SOFT_BUFFERS</li>
<li>MAX7000_INDIVIDUAL_TURBO_BIT</li>
<li>MAX7000_JTAG_USER_CODE</li>
<li>MAX7000_OPTIMIZATION_TECHNIQUE</li>
<li>MAX7000_PARALLEL_EXPANDER_CHAIN_LENGTH</li>
<li>MAX7000S_JTAG_USER_CODE</li>
<li>MAX7000_TECHNOLOGY_MAPPER</li>
<li>MAX7000_USE_CHECKSUM_AS_USERCODE</li>
<li>MAX7K_CLIQUE_TYPE</li>
<li>MAX_AUTO_GLOBAL_REGISTER_CONTROLS</li>
<li>MAX_BALANCING_DSP_BLOCKS</li>
<li>MAX_CLOCK_ARRIVAL_SKEW</li>
<li>MAX_CLOCKS_ALLOWED</li>
<li>MAX_CONSECUTIVE_OUTPUTS_FOR_ELECTROMIGRATION</li>
<li>MAX_CONSECUTIVE_VIO_OUTPUTS_FOR_ELECTROMIGRATION</li>
<li>MAX_CORE_JUNCTION_TEMP</li>
<li>MAX_CORE_SUPPLY_VOLTAGE</li>
<li>MAX_CURRENT_FOR_ELECTROMIGRATION</li>
<li>MAX_CURRENT_FOR_VIO_ELECTROMIGRATION</li>
<li>MAX_DATA_ARRIVAL_SKEW</li>
<li>MAX_DELAY_FOR_CORE_PERIPHERY_TRANSFER</li>
<li>MAX_DELAY_FOR_PERIPHERY_CORE_TRANSFER</li>
<li>MAX_FANOUT</li>
<li>MAX_GLOBAL_CLOCKS_ALLOWED</li>
<li>MAXII_CARRY_CHAIN_LENGTH</li>
<li>MAXII_DECREASE_INPUT_DELAY_TO_INTERNAL_CELLS</li>
<li>MAXII_OPTIMIZATION_TECHNIQUE</li>
<li>MAXIMUM</li>
<li>MAX_LABS</li>
<li>MAX_LARGE_PERIPHERY_CLOCKS_ALLOWED</li>
<li>MAX_NUMBER_OF_REGISTERS_FROM_UNINFERRED_RAMS</li>
<li>MAX_PERIPHERY_CLOCKS_ALLOWED</li>
<li>MAXPLUSII</li>
<li>MAX_PROCESSORS_USED_FOR_MULTITHREADING</li>
<li>MAX_RAM_BLOCKS_M4K</li>
<li>MAX_RAM_BLOCKS_M512</li>
<li>MAX_RAM_BLOCKS_MRAM</li>
<li>MAX_REGIONAL_CLOCKS_ALLOWED</li>
<li>MAX_SCC_SIZE</li>
<li>MAX_WIRES_FOR_CORE_PERIPHERY_TRANSFER</li>
<li>MAX_WIRES_FOR_PERIPHERY_CORE_TRANSFER</li>
<li>MEDIUM</li>
<li>MEGAFUNCTION_GENERATED_TRI</li>
<li>MEGALAB</li>
<li>MEGARAM</li>
<li>MEM_INTERFACE_DELAY_CHAIN_CONFIG</li>
<li>MEMORY_INTERFACE_DATA_PIN_GROUP</li>
<li>MERCURY_CARRY_CHAIN_LENGTH</li>
<li>MERCURY_CLIQUE_TYPE</li>
<li>MERCURY_CONFIG_DEVICE_JTAG_USER_CODE</li>
<li>MERCURY_CONFIGURATION_DEVICE</li>
<li>MERCURY_CONFIGURATION_SCHEME</li>
<li>MERCURY_DECREASE_INPUT_DELAY_TO_INTERNAL_CELLS</li>
<li>MERCURY_DEVICE_IO_STANDARD</li>
<li>MERCURY_FITTER_TYPE</li>
<li>MERCURY_JTAG_USER_CODE</li>
<li>MERCURY_OPTIMIZATION_TECHNIQUE</li>
<li>MERCURY_TECHNOLOGY_MAPPER</li>
<li>MERGE_EQUIVALENT_BIDIRS</li>
<li>MERGE_EQUIVALENT_INPUTS</li>
<li>MERGE_HEX_FILE</li>
<li>MERGE_TX_PLL_DRIVEN_BY_REGISTERS_WITH_SAME_CLEAR</li>
<li>MESSAGE_DISABLE</li>
<li>MESSAGE_ENABLE</li>
<li>MESSAGE_SUPPRESSION_RULE_FILE</li>
<li>MFCU</li>
<li>MID_POWER</li>
<li>MIF_FILE</li>
<li>MIGRATION_ASSIGNMENT</li>
<li>MIGRATION_AUTO_PACKED_REGISTERS</li>
<li>MIGRATION_AUTO_PORT_SWAP</li>
<li>MIGRATION_CONSTRAIN_CORE_RESOURCES</li>
<li>MIGRATION_DIFFERENT_SOURCE_FILE</li>
<li>MIGRATION_ONLY</li>
<li>MIGRATION_PORT_SWAPPING</li>
<li>MIGRATION_RAM_INFORMATION</li>
<li>MIGRATION_RAM_PACKING_INFORMATION</li>
<li>MIGRATION_REGISTER_PACKING</li>
<li>MIN_CORE_JUNCTION_TEMP</li>
<li>MIN_CORE_SUPPLY_VOLTAGE</li>
<li>MIN_DELAY_FOR_CORE_PERIPHERY_TRANSFER</li>
<li>MIN_DELAY_FOR_PERIPHERY_CORE_TRANSFER</li>
<li>MINIMAL_BITS</li>
<li>MINIMIZE_AREA</li>
<li>MINIMIZE_AREA_WITH_CHAINS</li>
<li>MINIMIZE_POWER_ONLY</li>
<li>MINIMUM_DELAY_REQUIREMENT</li>
<li>MINIMUM</li>
<li>MINIMUM_TPD_REQUIREMENT</li>
<li>MINIMUM_WIDTH_CLOCK_ENABLE</li>
<li>MINIMUM_WIDTH_SLOAD_SCLEAR</li>
<li>MIN_TCO_REQUIREMENT</li>
<li>MIN_TPD_REQUIREMENT</li>
<li>MINUS_DELTA10</li>
<li>MINUS_DELTA11</li>
<li>MINUS_DELTA12</li>
<li>MINUS_DELTA13</li>
<li>MINUS_DELTA14</li>
<li>MINUS_DELTA15</li>
<li>MINUS_DELTA1</li>
<li>MINUS_DELTA2</li>
<li>MINUS_DELTA3</li>
<li>MINUS_DELTA4</li>
<li>MINUS_DELTA5</li>
<li>MINUS_DELTA6</li>
<li>MINUS_DELTA7</li>
<li>MINUS_DELTA8</li>
<li>MINUS_DELTA9</li>
<li>MIN_WIRES_FOR_CORE_PERIPHERY_TRANSFER</li>
<li>MIN_WIRES_FOR_PERIPHERY_CORE_TRANSFER</li>
<li>MISC_FILE</li>
<li>MLAB_ADD_TIMING_CONSTRAINTS_FOR_MIXED_PORT_FEED_THROUGH_MODE_SETTING_DONT_CARE</li>
<li>MLAB</li>
<li>MLAB_TIMING_CONSTRAINTS_IN_FEED_THROUGH_DONT_CARE_MODE</li>
<li>MODE_0</li>
<li>MODE_10</li>
<li>MODE_11</li>
<li>MODE_12</li>
<li>MODE_13</li>
<li>MODE_14</li>
<li>MODE_15</li>
<li>MODE_1</li>
<li>MODE_2</li>
<li>MODE_3</li>
<li>MODE_4</li>
<li>MODE_5</li>
<li>MODE_6</li>
<li>MODE_7</li>
<li>MODE_8</li>
<li>MODE_9</li>
<li>MODE_DEFAULT</li>
<li>MODEL_1</li>
<li>MODEL_2</li>
<li>MODEL_3</li>
<li>MOVE_TO_TOP_IO</li>
<li>MP2_EXPORT_FILE</li>
<li>MULTIPLY_BASE_CLOCK_BY</li>
<li>MULTIPLY_BASE_CLOCK_PERIOD_BY</li>
<li>MUX_RESTRUCTURE</li>
<li>MUX_USE_ROUTING_ASSIGNMENT</li>
<li>NAVAUATI</li>
<li>NCEO_OPEN_DRAIN</li>
<li>NCEO_RESERVED_CYCLONEII</li>
<li>NCEO_RESERVED</li>
<li>NDQS_LOCAL_CLOCK_DELAY_CHAIN</li>
<li>NEAR_END</li>
<li>NEAR_GLOBAL_CLOCK</li>
<li>NEAR_REGIONAL_CLOCK</li>
<li>NEGATIVE_180</li>
<li>NEGATIVE_90</li>
<li>NEGATIVE_EDGE</li>
<li>NETLIST_ONLY</li>
<li>NETLIST_VIEWER_ASSIGNMENT</li>
<li>NETO_ASSIGNMENT</li>
<li>NEVER_ALLOW</li>
<li>NEVER</li>
<li>NEVER_REGENERATE_IP</li>
<li>NO_AUTO_INST_DISCOVERY</li>
<li>NO_BACK_ANNOTATION</li>
<li>NO_BYTE_ENABLE</li>
<li>NO_COMBINATIONAL_OUTPUT</li>
<li>NO_DC_GAIN</li>
<li>NO_FILE</li>
<li>NO_GLOBAL_ROUTE</li>
<li>NOMINAL_CORE_SUPPLY_VOLTAGE</li>
<li>NONDEFAULT_LIBS</li>
<li>NON_LOCAL</li>
<li>NON_QPI_MODE</li>
<li>NON_S1_MODE</li>
<li>NONSYNCHSTRUCT_CAT</li>
<li>NONSYNCHSTRUCT_RULE_ASYN_RAM</li>
<li>NONSYNCHSTRUCT_RULE_COMB_DRIVES_RAM_WE</li>
<li>NONSYNCHSTRUCT_RULE_COMBLOOP</li>
<li>NONSYNCHSTRUCT_RULE_DELAY_CHAIN</li>
<li>NONSYNCHSTRUCT_RULE_DLATCH</li>
<li>NONSYNCHSTRUCT_RULE_ILLEGAL_PULSE_GEN</li>
<li>NONSYNCHSTRUCT_RULE_LATCH_UNIDENTIFIED</li>
<li>NONSYNCHSTRUCT_RULE_MULTI_VIBRATOR</li>
<li>NONSYNCHSTRUCT_RULE_REG_LOOP</li>
<li>NONSYNCHSTRUCT_RULE_RIPPLE_CLK</li>
<li>NONSYNCHSTRUCT_RULE_SRLATCH</li>
<li>NORMAL_COMPILATION</li>
<li>NORMAL_LCELL_INSERT</li>
<li>NORMAL</li>
<li>NO_SDC_PROMOTION</li>
<li>NOT_A_CLOCK</li>
<li>NOT_BOOST</li>
<li>NOT_CLOCK</li>
<li>NOT_GATE_PUSH_BACK</li>
<li>NOT_USED</li>
<li>NTFQ_MSG_ACF_ASSIGNMENTS_CHANGED</li>
<li>NUMBER_OF_DESTINATION_TO_REPORT</li>
<li>NUMBER_OF_INVERTED_REGISTERS_REPORTED</li>
<li>NUMBER_OF_PATHS_TO_REPORT</li>
<li>NUMBER_OF_PROTECTED_REGISTERS_REPORTED</li>
<li>NUMBER_OF_REMOVED_REGISTERS_REPORTED</li>
<li>NUMBER_OF_SOURCES_PER_DESTINATION_TO_REPORT</li>
<li>NUMBER_OF_SWEPT_NODES_REPORTED</li>
<li>NUMBER_OF_SYNTHESIS_MIGRATION_ROWS</li>
<li>NUM_PARALLEL_PROCESSORS</li>
<li>NWS_NRS_NCS_CS_RESERVED</li>
<li>OBSAI_1536</li>
<li>OBSAI_3072</li>
<li>OBSAI_6144</li>
<li>OBSAI_768</li>
<li>OBSERVABLE</li>
<li>OCP_AUTO_PARTITION</li>
<li>OCP_FILE</li>
<li>OCP_PARTITION</li>
<li>OCP_TIMEOUT_PARTITION</li>
<li>OCT_100_OHMS</li>
<li>OCT_120_OHMS</li>
<li>OCT_150_OHMS</li>
<li>OCT_AND_IMPEDANCE_MATCHING_CYCLONEII</li>
<li>OCT_AND_IMPEDANCE_MATCHING</li>
<li>OCT_AND_IMPEDANCE_MATCHING_STRATIXII</li>
<li>OCT_CONTROL_BLOCK</li>
<li>OE_DELAY_CHAIN</li>
<li>OE_OPTION</li>
<li>OFFSET_FROM_BASE_CLOCK</li>
<li>OFFSET_MAIN</li>
<li>OFFSET_PO1</li>
<li>OFFSET_PRE</li>
<li>ON_CHIP_BITSTREAM_DECOMPRESSION</li>
<li>ONE_HOT</li>
<li>OPTIMISTIC</li>
<li>OPTIMIZATION_MODE</li>
<li>OPTIMIZATION_TECHNIQUE_APEX20K</li>
<li>OPTIMIZATION_TECHNIQUE_ARMSTRONG</li>
<li>OPTIMIZATION_TECHNIQUE_CYCLONEII</li>
<li>OPTIMIZATION_TECHNIQUE_CYCLONE</li>
<li>OPTIMIZATION_TECHNIQUE_DALI</li>
<li>OPTIMIZATION_TECHNIQUE_FLEX10K</li>
<li>OPTIMIZATION_TECHNIQUE_FLEX6K</li>
<li>OPTIMIZATION_TECHNIQUE_MAX7000</li>
<li>OPTIMIZATION_TECHNIQUE_TSUNAMI</li>
<li>OPTIMIZATION_TECHNIQUE_YEAGER</li>
<li>OPTIMIZE_FAST_CORNER_TIMING</li>
<li>OPTIMIZE_FOR_METASTABILITY</li>
<li>OPTIMIZE_HOLD_TIMING</li>
<li>OPTIMIZE_INTERNAL_TIMING</li>
<li>OPTIMIZE_IOC_REGISTER_PLACEMENT_FOR_TIMING</li>
<li>OPTIMIZE_IO_TIMING</li>
<li>OPTIMIZE_MULTI_CORNER_TIMING</li>
<li>OPTIMIZE_POWER_DURING_FITTING</li>
<li>OPTIMIZE_POWER_DURING_SYNTHESIS</li>
<li>OPTIMIZE_SIGNAL_INTEGRITY</li>
<li>OPTIMIZE_SSN</li>
<li>OPTIONS_FOR_ENTITIES_ONLY</li>
<li>OPTIONS_FOR_INDIVIDUAL_NODES_ONLY</li>
<li>OPTIONS_FOR_NODES_AND_ENTITIES</li>
<li>ORIGINAL_INTERFACE_PORT_NAME</li>
<li>ORIGINAL_QUARTUS_VERSION</li>
<li>ORIGINATING_COMPANION_REVISION</li>
<li>OSC_CLK_1_100MHZ</li>
<li>OSC_CLK_1_125MHZ</li>
<li>OSC_CLK_1_25MHZ</li>
<li>OTHER_APF_RESERVED</li>
<li>OTHER</li>
<li>OTP_AUTO_PARTITION</li>
<li>OTP_PARTITION</li>
<li>OUTPUT_BUFFER_DELAY_CONTROL</li>
<li>OUTPUT_BUFFER_DELAY</li>
<li>OUTPUT_DELAY_CHAIN</li>
<li>OUTPUT_ENABLE_DELAY</li>
<li>OUTPUT_ENABLE_GROUP</li>
<li>OUTPUT_ENABLE_REGISTER_DUPLICATION</li>
<li>OUTPUT_ENABLE_ROUTING</li>
<li>OUTPUT_FILE_NAME</li>
<li>OUTPUT_IO_TIMING_ENDPOINT</li>
<li>OUTPUT_IO_TIMING_FAR_END_VMEAS</li>
<li>OUTPUT_IO_TIMING_NEAR_END_VMEAS</li>
<li>OUTPUT_MAX_DELAY</li>
<li>OUTPUT_MIN_DELAY</li>
<li>OUTPUT_OCT_VALUE</li>
<li>OUTPUT_PIN_C_FAR</li>
<li>OUTPUT_PIN_C_NEAR</li>
<li>OUTPUT_PIN_C_PER_LENGTH</li>
<li>OUTPUT_PIN_LENGTH</li>
<li>OUTPUT_PIN_LOAD</li>
<li>OUTPUT_PIN_L_PER_LENGTH</li>
<li>OUTPUT_PIN_R_FAR_HIGH</li>
<li>OUTPUT_PIN_R_FAR_LOW</li>
<li>OUTPUT_PIN_R_FAR_SERIES</li>
<li>OUTPUT_PIN_R_NEAR_HIGH</li>
<li>OUTPUT_PIN_R_NEAR_LOW</li>
<li>OUTPUT_PIN_R_NEAR_SERIES</li>
<li>OUTPUT_PIN_V_TERMINATION</li>
<li>OUTPUT_TERMINATION</li>
<li>OUTPUT_TYPE</li>
<li>OVERRIDE_DEFAULT_ELECTROMIGRATION_PARAMETERS</li>
<li>OXUSA</li>
<li>PACKAGE_SKEW_COMPENSATION</li>
<li>PACK_ALL_IO_REGISTERS</li>
<li>PAD_TO_CORE_DELAY</li>
<li>PAD_TO_DDIO_REGISTER_DELAY</li>
<li>PAD_TO_INPUT_REGISTER_DELAY</li>
<li>PARALLEL_50_OHMS_WITH_CALIBRATION</li>
<li>PARAMETER_ARRAY</li>
<li>PARAMETER_BOOL</li>
<li>PARAMETER_CHAR</li>
<li>PARAMETER_ENUM</li>
<li>PARAMETER_PHYSICAL</li>
<li>PARAMETER_SIGNED_BIN</li>
<li>PARAMETER_SIGNED_DEC</li>
<li>PARAMETER_SIGNED_FLOAT</li>
<li>PARAMETER_SIGNED_HEX</li>
<li>PARAMETER_SIGNED_OCT</li>
<li>PARAMETER_STRING</li>
<li>PARAMETER_UNKNOWN</li>
<li>PARAMETER_UNSIGNED_BIN</li>
<li>PARAMETER_UNSIGNED_DEC</li>
<li>PARAMETER_UNSIGNED_FLOAT</li>
<li>PARAMETER_UNSIGNED_HEX</li>
<li>PARAMETER_UNSIGNED_OCT</li>
<li>PARAMETER_UNSIZED_BIT_LITERAL</li>
<li>PARTIAL_RECONFIGURATION_PARTITION</li>
<li>PARTIAL_SRAM_OBJECT_FILE</li>
<li>PARTITION_ALWAYS_USE_QXP_NETLIST</li>
<li>PARTITION_ASD_REGION_ID</li>
<li>PARTITION_ASD_REGION</li>
<li>PARTITION_BACK_ANNOTATION</li>
<li>PARTITION_COLOR</li>
<li>PARTITION_COLOUR</li>
<li>PARTITION_ENABLE_STRICT_PRESERVATION</li>
<li>PARTITION_EXTRACT_HARD_BLOCK_NODES</li>
<li>PARTITION_FITTER_PRESERVATION_LEVEL</li>
<li>PARTITION_IGNORE_SOURCE_FILE_CHANGES</li>
<li>PARTITION_IMPORT_ASSIGNMENTS</li>
<li>PARTITION_IMPORT_EXISTING_ASSIGNMENTS</li>
<li>PARTITION_IMPORT_EXISTING_LOGICLOCK_REGIONS</li>
<li>PARTITION_IMPORT_FILE</li>
<li>PARTITION_IMPORT_NEW_ASSIGNMENTS</li>
<li>PARTITION_IMPORT_PIN_ASSIGNMENTS</li>
<li>PARTITION_IMPORT_PROMOTE_ASSIGNMENTS</li>
<li>PARTITION_LAST_IMPORTED_FILE</li>
<li>PARTITION_NETLIST_TYPE</li>
<li>PARTITION_ONLY</li>
<li>PARTITION_PRESERVE_HIGH_SPEED_TILES</li>
<li>PARTITION_SOURCE</li>
<li>PARTITION_TYPE</li>
<li>PASSIVE_PARALLEL_ASYNCHRONOUS</li>
<li>PASSIVE_PARALLEL_SYNCHRONOUS</li>
<li>PASSIVE_PARALLEL_X16</li>
<li>PASSIVE_PARALLEL_X32</li>
<li>PASSIVE_PARALLEL_X8</li>
<li>PASSIVE_PROGRAMMING_FILE_NAME</li>
<li>PASSIVE_RESISTOR</li>
<li>PASSIVE_SERIAL_ASYNCHRONOUS</li>
<li>PASSIVE_SERIAL</li>
<li>PBIP_FILE</li>
<li>PCB_LAYER</li>
<li>PCB_LAYERS</li>
<li>PCB_LAYER_THICKNESS</li>
<li>PCIE_CABLE</li>
<li>PCIE_GEN1_3P5DB</li>
<li>PCIE_GEN1</li>
<li>PCIE_GEN2_3P5DB</li>
<li>PCIE_GEN2_6DB</li>
<li>PCIE_GEN2</li>
<li>PCIE_GEN3</li>
<li>PCIE_PRE_EMPH_GEN1</li>
<li>PCIE_PRE_EMPH_GEN2_3_5DB_DEEMPH</li>
<li>PCIE_PRE_EMPH_GEN2_6DB_DEEMPH</li>
<li>PCIE_PRE_EMPH_GEN2_LOW_MARGIN</li>
<li>PCIE_PRE_EMPH_GEN2_LOW_SWING</li>
<li>PCIE_VOD_GEN1</li>
<li>PCIE_VOD_GEN2_3_5DB_DEEMPH</li>
<li>PCIE_VOD_GEN2_6DB_DEEMPH</li>
<li>PCIE_VOD_GEN2_LOW_MARGIN</li>
<li>PCIE_VOD_GEN2_LOW_SWING</li>
<li>PCI_IO</li>
<li>PDC_FILE</li>
<li>PERIPHERAL</li>
<li>PERIPHERY_SEED</li>
<li>PERIPHERY_TO_CORE_HIPI_LOCKDOWN</li>
<li>PERIPHERY_TO_CORE_PLACEMENT_AND_ROUTING_OPTIMIZATION</li>
<li>PERIPH_FITTER_SCRIPT</li>
<li>PERIPH_REPORT_SCRIPT</li>
<li>PERSONA_FILE</li>
<li>PESSIMISTIC</li>
<li>PEXP_LENGTH</li>
<li>PEXP_LENGTH_MAX7000</li>
<li>PHASE_FROM_BASE_CLOCK</li>
<li>PHASE_OF_0_DEGREES</li>
<li>PHASE_OF_72_DEGREES</li>
<li>PHASE_OF_90_DEGREES</li>
<li>PHYSICAL_SYNTHESIS_ASYNCHRONOUS_SIGNAL_PIPELINING_DISABLE_DESTINATION_CHECK</li>
<li>PHYSICAL_SYNTHESIS_ASYNCHRONOUS_SIGNAL_PIPELINING</li>
<li>PHYSICAL_SYNTHESIS_ASYNCHRONOUS_SIGNAL_PIPELINING_REG_REACH</li>
<li>PHYSICAL_SYNTHESIS_COMBO_LOGIC_FOR_AREA</li>
<li>PHYSICAL_SYNTHESIS_COMBO_LOGIC</li>
<li>PHYSICAL_SYNTHESIS_EFFORT</li>
<li>PHYSICAL_SYNTHESIS_EXTRA_EFFORT</li>
<li>PHYSICAL_SYNTHESIS_LOG_FILE</li>
<li>PHYSICAL_SYNTHESIS_MAP_LOGIC_TO_MEMORY_FOR_AREA</li>
<li>PHYSICAL_SYNTHESIS_PIPELINE</li>
<li>PHYSICAL_SYNTHESIS_REGISTER_DUPLICATION</li>
<li>PHYSICAL_SYNTHESIS_REGISTER_RETIMING</li>
<li>PIN_CONNECT_FROM_NODE</li>
<li>PIN_FILE</li>
<li>PIN_PLANNER_DISPLAY_ASSIGNMENT_VALUE_FROM_POSITIVE_PIN_TO_NEGATIVE_PIN</li>
<li>PIN_PLANNER_FILE</li>
<li>PLACEMENT_AND_ROUTING_AND_HIGH_SPEED_TILE</li>
<li>PLACEMENT_AND_ROUTING_AND_HIGH_SPEED_TILES</li>
<li>PLACEMENT_AND_ROUTING_AND_TILE</li>
<li>PLACEMENT_AND_ROUTING</li>
<li>PLACEMENT_EFFORT_MULTIPLIER</li>
<li>PLD_TO_STRIPE_INTERRUPTS_EPXA4_10</li>
<li>PLL_APLLY_PFD_ISSUE_WORKAROUND</li>
<li>PLL_AUTO_RESET</li>
<li>PLL_BANDWIDTH_PRESET</li>
<li>PLL_C_COUNTER_DELAY_CHAIN</li>
<li>PLL_CHANNEL_SPACING</li>
<li>PLL_COMPENSATE</li>
<li>PLL_COMPENSATION_MODE</li>
<li>PLL_DISABLE_COUNTER_SETTINGS_OPTIMIZATION</li>
<li>PLL_ENFORCE_USER_PHASE_SHIFT</li>
<li>PLL_EXTERNAL_FEEDBACK_BOARD_DELAY</li>
<li>PLL_FEEDBACK_CLOCK_SIGNAL</li>
<li>PLL_FORCE_OUTPUT_COUNTER_HARDCOPY_REPLAY</li>
<li>PLL_FORCE_OUTPUT_COUNTER</li>
<li>PLL_IGNORE_MIGRATION_DEVICES</li>
<li>PLL_LOCK_10K</li>
<li>PLL_LOCK</li>
<li>PLL_LVDS_DELAY_CHAIN</li>
<li>PLL_OPTIMIZE_PHASE_SHIFT_FOR_TIMING</li>
<li>PLL_OUTPUT_CLOCK_FREQUENCY</li>
<li>PLL_PFD_CLOCK_FREQUENCY</li>
<li>PLL_PHASE_RECONFIG_COUNTER_REMAP_LCELL</li>
<li>PLL_PRE_C_COUNTER_DELAY_CHAIN</li>
<li>PLL_SCAN_RECONFIG_COUNTER_REMAP_LCELL</li>
<li>PLL_TYPE</li>
<li>PLL_VCO_CLOCK_FREQUENCY</li>
<li>PLUS_DELTA10</li>
<li>PLUS_DELTA11</li>
<li>PLUS_DELTA12</li>
<li>PLUS_DELTA13</li>
<li>PLUS_DELTA14</li>
<li>PLUS_DELTA15</li>
<li>PLUS_DELTA1</li>
<li>PLUS_DELTA2</li>
<li>PLUS_DELTA3</li>
<li>PLUS_DELTA4</li>
<li>PLUS_DELTA5</li>
<li>PLUS_DELTA6</li>
<li>PLUS_DELTA7</li>
<li>PLUS_DELTA8</li>
<li>PLUS_DELTA9</li>
<li>PMBUS_MASTER</li>
<li>PMBUS_SLAVE</li>
<li>POF_VERIFY_PROTECT</li>
<li>POR_SCHEME</li>
<li>POSITIVE_180</li>
<li>POSITIVE_90</li>
<li>POSITIVE_EDGE</li>
<li>POST_CONFIG</li>
<li>POST_FIT_CONNECT_FROM_SLD_NODE_ENTITY_PORT</li>
<li>POST_FIT_CONNECT_TO_SLD_NODE_ENTITY_PORT</li>
<li>POST_FIT_WITH_ROUTING</li>
<li>POST_FLOW_SCRIPT_FILE</li>
<li>POST_MAPPING_RESYNTHESIS</li>
<li>POST_MODULE_SCRIPT_FILE</li>
<li>POST_SYNTH</li>
<li>POWER_AUTO_COMPUTE_TJ</li>
<li>POWER_BOARD_TEMPERATURE</li>
<li>POWER_BOARD_THERMAL_MODEL</li>
<li>POWER_DEFAULT_INPUT_IO_TOGGLE_RATE</li>
<li>POWER_DEFAULT_TOGGLE_RATE</li>
<li>POWER_ESTIMATION_ASSIGNMENT</li>
<li>POWER_ESTIMATION_END_TIME</li>
<li>POWER_ESTIMATION_START_TIME</li>
<li>POWER_EXT_SUPPLY_VOLTAGE_TO_REGULATOR</li>
<li>POWER_GLITCH_FACTOR</li>
<li>POWER_HPS_DYNAMIC_POWER_DUAL</li>
<li>POWER_HPS_DYNAMIC_POWER_SINGLE</li>
<li>POWER_HPS_ENABLE</li>
<li>POWER_HPS_JUNCTION_TEMPERATURE</li>
<li>POWER_HPS_PROC_FREQ</li>
<li>POWER_HPS_STATIC_POWER</li>
<li>POWER_HPS_TOTAL_POWER</li>
<li>POWER_HSSI_LEFT</li>
<li>POWER_HSSI</li>
<li>POWER_HSSI_RIGHT</li>
<li>POWER_HSSI_VCCHIP_LEFT</li>
<li>POWER_HSSI_VCCHIP_RIGHT</li>
<li>POWER_INPUT_FILE_NAME</li>
<li>POWER_INPUT_FILE_SETTINGS</li>
<li>POWER_INPUT_FILE_TYPE</li>
<li>POWER_INPUT_SAF_NAME</li>
<li>POWER_INPUT_VCD_FILE_NAME</li>
<li>POWER_OCS_VALUE</li>
<li>POWER_OJB_VALUE</li>
<li>POWER_OJC_VALUE</li>
<li>POWER_OSA_VALUE</li>
<li>POWER_OUTPUT_SAF_NAME</li>
<li>POWER_PRESET_COOLING_SOLUTION</li>
<li>POWER_READ_INPUT_FILE</li>
<li>POWER_REPORT_POWER_DISSIPATION</li>
<li>POWER_REPORT_SIGNAL_ACTIVITY</li>
<li>POWER_SIGNAL_ACTIVITY_END_TIME</li>
<li>POWER_SIGNAL_ACTIVITY_START_TIME</li>
<li>POWER_STATIC_PROBABILITY</li>
<li>POWER_STATIC_TOGGLE_RATE</li>
<li>POWER_TJ_VALUE</li>
<li>POWER_TOGGLE_RATE</li>
<li>POWER_TOGGLE_RATE_PERCENTAGE</li>
<li>POWER_UP_HIGH</li>
<li>POWER_UP_LEVEL</li>
<li>POWER_USE_CUSTOM_COOLING_SOLUTION</li>
<li>POWER_USE_DEVICE_CHARACTERISTICS</li>
<li>POWER_USE_INPUT_FILE</li>
<li>POWER_USE_INPUT_FILES</li>
<li>POWER_USE_PVA</li>
<li>POWER_USE_TA_VALUE</li>
<li>POWER_USE_VOLTAGE</li>
<li>POWER_VCCA_FPLL_USER_VOLTAGE</li>
<li>POWER_VCCA_GTBR_USER_VOLTAGE</li>
<li>POWER_VCCA_GTB_USER_VOLTAGE</li>
<li>POWER_VCCA_GXBL_USER_OPTION</li>
<li>POWER_VCCA_GXBL_USER_VOLTAGE</li>
<li>POWER_VCCA_GXBR_USER_OPTION</li>
<li>POWER_VCCA_GXBR_USER_VOLTAGE</li>
<li>POWER_VCCA_GXB_USER_OPTION</li>
<li>POWER_VCCA_GXB_USER_VOLTAGE</li>
<li>POWER_VCCA_L_USER_OPTION</li>
<li>POWER_VCCA_L_USER_VOLTAGE</li>
<li>POWER_VCCA_PLL_USER_VOLTAGE</li>
<li>POWER_VCCA_R_USER_OPTION</li>
<li>POWER_VCCA_R_USER_VOLTAGE</li>
<li>POWER_VCCA_USER_VOLTAGE</li>
<li>POWER_VCCAUX_SHARED_USER_VOLTAGE</li>
<li>POWER_VCCAUX_USER_OPTION</li>
<li>POWER_VCCAUX_USER_VOLTAGE</li>
<li>POWER_VCCBAT_USER_VOLTAGE</li>
<li>POWER_VCCCB_USER_OPTION</li>
<li>POWER_VCCCB_USER_VOLTAGE</li>
<li>POWER_VCCD_FPLL_USER_VOLTAGE</li>
<li>POWER_VCCD_PLL_USER_VOLTAGE</li>
<li>POWER_VCCD_USER_VOLTAGE</li>
<li>POWER_VCCE_GXBL_USER_VOLTAGE</li>
<li>POWER_VCCE_GXBR_USER_VOLTAGE</li>
<li>POWER_VCCE_GXB_USER_VOLTAGE</li>
<li>POWER_VCCEH_GXBL_USER_VOLTAGE</li>
<li>POWER_VCCEH_GXBR_USER_VOLTAGE</li>
<li>POWER_VCCEH_GXB_USER_VOLTAGE</li>
<li>POWER_VCCERAM_USER_VOLTAGE</li>
<li>POWER_VCCE_USER_VOLTAGE</li>
<li>POWER_VCCH_GTBR_USER_VOLTAGE</li>
<li>POWER_VCCH_GTB_USER_VOLTAGE</li>
<li>POWER_VCCH_GXBL_USER_OPTION</li>
<li>POWER_VCCH_GXBL_USER_VOLTAGE</li>
<li>POWER_VCCH_GXBR_USER_OPTION</li>
<li>POWER_VCCH_GXBR_USER_VOLTAGE</li>
<li>POWER_VCCH_GXB_USER_OPTION</li>
<li>POWER_VCCH_GXB_USER_VOLTAGE</li>
<li>POWER_VCCHIP_L_USER_VOLTAGE</li>
<li>POWER_VCCHIP_R_USER_VOLTAGE</li>
<li>POWER_VCCHIP_USER_VOLTAGE</li>
<li>POWER_VCCH_L_USER_VOLTAGE</li>
<li>POWER_VCC_HPS_USER_VOLTAGE</li>
<li>POWER_VCCH_R_USER_VOLTAGE</li>
<li>POWER_VCCHSSI_L_USER_VOLTAGE</li>
<li>POWER_VCCHSSI_R_USER_VOLTAGE</li>
<li>POWER_VCCINT_USER_VOLTAGE</li>
<li>POWER_VCCIO_HPS_USER_VOLTAGE</li>
<li>POWER_VCCIOREF_HPS_USER_VOLTAGE</li>
<li>POWER_VCCIO_USER_OPTION</li>
<li>POWER_VCCIO_USER_VOLTAGE</li>
<li>POWER_VCCL_GTBL_USER_VOLTAGE</li>
<li>POWER_VCCL_GTBR_USER_VOLTAGE</li>
<li>POWER_VCCL_GTB_USER_VOLTAGE</li>
<li>POWER_VCCL_GXBL_USER_VOLTAGE</li>
<li>POWER_VCCL_GXBR_USER_VOLTAGE</li>
<li>POWER_VCCL_GXB_USER_OPTION</li>
<li>POWER_VCCL_GXB_USER_VOLTAGE</li>
<li>POWER_VCCL_HPS_USER_VOLTAGE</li>
<li>POWER_VCCL_USER_VOLTAGE</li>
<li>POWER_VCCPD_USER_OPTION</li>
<li>POWER_VCCPD_USER_VOLTAGE</li>
<li>POWER_VCCPGM_USER_VOLTAGE</li>
<li>POWER_VCCPLL_HPS_USER_VOLTAGE</li>
<li>POWER_VCCPT_USER_VOLTAGE</li>
<li>POWER_VCCP_USER_VOLTAGE</li>
<li>POWER_VCCR_GTBL_USER_VOLTAGE</li>
<li>POWER_VCCR_GTBR_USER_VOLTAGE</li>
<li>POWER_VCCR_GTB_USER_VOLTAGE</li>
<li>POWER_VCCR_GXBL_USER_OPTION</li>
<li>POWER_VCCR_GXBL_USER_VOLTAGE</li>
<li>POWER_VCCR_GXBR_USER_OPTION</li>
<li>POWER_VCCR_GXBR_USER_VOLTAGE</li>
<li>POWER_VCCR_GXB_USER_OPTION</li>
<li>POWER_VCCR_GXB_USER_VOLTAGE</li>
<li>POWER_VCCR_L_USER_VOLTAGE</li>
<li>POWER_VCCR_R_USER_VOLTAGE</li>
<li>POWER_VCCRSTCLK_HPS_USER_VOLTAGE</li>
<li>POWER_VCCR_USER_VOLTAGE</li>
<li>POWER_VCCT_GTBL_USER_VOLTAGE</li>
<li>POWER_VCCT_GTBR_USER_VOLTAGE</li>
<li>POWER_VCCT_GTB_USER_VOLTAGE</li>
<li>POWER_VCCT_GXBL_USER_OPTION</li>
<li>POWER_VCCT_GXBL_USER_VOLTAGE</li>
<li>POWER_VCCT_GXBR_USER_OPTION</li>
<li>POWER_VCCT_GXBR_USER_VOLTAGE</li>
<li>POWER_VCCT_GXB_USER_OPTION</li>
<li>POWER_VCCT_GXB_USER_VOLTAGE</li>
<li>POWER_VCCT_L_USER_VOLTAGE</li>
<li>POWER_VCCT_R_USER_VOLTAGE</li>
<li>POWER_VCCT_USER_VOLTAGE</li>
<li>POWER_VCC_USER_VOLTAGE</li>
<li>POWER_VCD_FILE_END_TIME</li>
<li>POWER_VCD_FILE_START_TIME</li>
<li>POWER_VCD_FILTER_GLITCHES</li>
<li>POWER_WILDCARDS</li>
<li>PPF_FILE</li>
<li>PR_ALLOW_GLOBAL_LIMS</li>
<li>PR_BASE</li>
<li>PR_BASE_MSF</li>
<li>PR_BASE_SOF</li>
<li>PR_DONE_OPEN_DRAIN</li>
<li>PRE_CONFIG</li>
<li>PRE_FLOW_SCRIPT_FILE</li>
<li>PRE_MAPPING_RESYNTHESIS</li>
<li>PR_ERROR_OPEN_DRAIN</li>
<li>PRESERVE_FANOUT_FREE_NODE</li>
<li>PRESERVE_HIERARCHICAL_BOUNDARY</li>
<li>PRESERVE</li>
<li>PRESERVE_PLL_COUNTER_ORDER</li>
<li>PRESERVE_PORT_NAME</li>
<li>PRESERVE_REGISTER</li>
<li>PRESERVE_SYNONYMS</li>
<li>PRESERVE_UNUSED_XCVR_CHANNEL</li>
<li>PR_IMPL</li>
<li>PRINT_DEBUG_MSG_AND_EXIT</li>
<li>PROCESSOR_DEBUG_EXTENSIONS_EPXA4_10</li>
<li>PRODUCT_TERM</li>
<li>PROGRAMMABLE_POWER_MAXIMUM_HIGH_SPEED_FRACTION_OF_USED_LAB_TILES</li>
<li>PROGRAMMABLE_POWER_TECHNOLOGY_SETTING</li>
<li>PROGRAMMABLE_PREEMPHASIS</li>
<li>PROGRAMMABLE_VOD</li>
<li>PROGRAMMER_ASSIGNMENT</li>
<li>PROGRAMMER_OBJECT_FILE</li>
<li>PROGRAMMING_FILE_TYPE</li>
<li>PROGRAMMING_MODE_APEX20KF</li>
<li>PROGRAMMING_MODE_APEX20K</li>
<li>PROGRAMMING_MODE_ARMSTRONG</li>
<li>PROGRAMMING_MODE_CUDA</li>
<li>PROGRAMMING_MODE_CYCLONEII</li>
<li>PROGRAMMING_MODE_DALI</li>
<li>PROGRAMMING_MODE_EXCALIBUR</li>
<li>PROGRAMMING_MODE_FLEX10K</li>
<li>PROGRAMMING_MODE_FLEX6K</li>
<li>PROGRAMMING_MODE</li>
<li>PROGRAMMING_MODE_TITAN</li>
<li>PROGRAMMING_MODE_TORNADO</li>
<li>PROGRAMMING_MODE_YEAGER</li>
<li>PROGRAMMING_MODE_ZIPPLEBACK</li>
<li>PROJECT_ASSIGNMENT</li>
<li>PROJECT_CREATION_TIME_DATE</li>
<li>PROJECT_INFO</li>
<li>PROJECT_IP_REGENERATION_POLICY</li>
<li>PROJECT_IP_SEARCH_PATHS</li>
<li>PROJECT_MIGRATION_TIMESTAMP</li>
<li>PROJECT_OUTPUT_DIRECTORY</li>
<li>PROJECT_SHOW_ENTITY_NAME</li>
<li>PROJECT_SOURCE_FILE</li>
<li>PROJECT_THUNDER_BAY</li>
<li>PROJECT_USE_SIMPLIFIED_NAMES</li>
<li>PRO_ONLY</li>
<li>PROPAGATE_CONSTANTS_ON_INPUTS</li>
<li>PROPAGATE_INVERSIONS_ON_INPUTS</li>
<li>PR_PARTITION</li>
<li>PR_PINS_OPEN_DRAIN</li>
<li>PRPOF_ID</li>
<li>PR_READY_OPEN_DRAIN</li>
<li>PR_SKIP_BASE_CHECK</li>
<li>PR_SYN</li>
<li>PULL_DN</li>
<li>PULLDOWN_DRIVE_STRENGTH_BITS</li>
<li>PULL_DOWN</li>
<li>PULL_RESISTOR</li>
<li>PULLUP_DRIVE_STRENGTH_BITS</li>
<li>PULL_UP_TO_VCCELA</li>
<li>PULSE_WIDTH_0</li>
<li>PULSE_WIDTH_1</li>
<li>PULSE_WIDTH_2_LARGE</li>
<li>PULSE_WIDTH_2</li>
<li>PULSE_WIDTH_NONE</li>
<li>PV3102_OR_EM1130</li>
<li>PWRMGT_DIRECT_FORMAT_COEFFICIENT_B</li>
<li>PWRMGT_DIRECT_FORMAT_COEFFICIENT_M</li>
<li>PWRMGT_DIRECT_FORMAT_COEFFICIENT_R</li>
<li>PWRMGT_SLAVE_DEVICE0_ADDRESS</li>
<li>PWRMGT_SLAVE_DEVICE1_ADDRESS</li>
<li>PWRMGT_SLAVE_DEVICE2_ADDRESS</li>
<li>PWRMGT_SLAVE_DEVICE3_ADDRESS</li>
<li>PWRMGT_SLAVE_DEVICE4_ADDRESS</li>
<li>PWRMGT_SLAVE_DEVICE5_ADDRESS</li>
<li>PWRMGT_SLAVE_DEVICE6_ADDRESS</li>
<li>PWRMGT_SLAVE_DEVICE7_ADDRESS</li>
<li>PWRMGT_SLAVE_DEVICE_TYPE</li>
<li>PWRMGT_VOLTAGE_OUTPUT_FORMAT</li>
<li>QAR_FILE</li>
<li>QARLOG_FILE</li>
<li>QDB_FILE</li>
<li>QDB_PATH</li>
<li>QDFS_USE_CHERRY</li>
<li>QDR_D_PIN_GROUP</li>
<li>QHD_MODE</li>
<li>QIC_EXPORT_FILE</li>
<li>QIC_EXPORT_FLATTEN</li>
<li>QIC_EXPORT_NETLIST_TYPE</li>
<li>QIC_EXPORT_PARTITION_NAME</li>
<li>QIC_EXPORT_ROUTING</li>
<li>QIC_USE_BINARY_DATABASES</li>
<li>QID_ASSIGNMENT</li>
<li>QII_AUTO_PACKED_REGISTERS</li>
<li>QIP_FILE</li>
<li>QPRD</li>
<li>QSGMII_5000</li>
<li>QSYS_FILE</li>
<li>QUARTUS_ACF_FILE</li>
<li>QUARTUS_COMPILER_SETTINGS_FILE</li>
<li>QUARTUS_ENTITY_SETTINGS_FILE</li>
<li>QUARTUS_GUI_SIGNATURE_ID</li>
<li>QUARTUSII</li>
<li>QUARTUS_PROJECT_FILE</li>
<li>QUARTUS_PROJECT_SETTINGS_FILE</li>
<li>QUARTUS_PTF_FILE</li>
<li>QUARTUS_SBD_FILE</li>
<li>QUARTUS_SIMULATOR_SETTINGS_FILE</li>
<li>QUARTUS_SOFTWARE_SETTINGS_FILE</li>
<li>QUARTUS_STANDARD_DELAY_FILE</li>
<li>QUARTUS_WORKSPACE_FILE</li>
<li>QVAR_FILE</li>
<li>QXP_FILE</li>
<li>R08S</li>
<li>R_ADAPT_DFE_CONTROL_SEL_0</li>
<li>R_ADAPT_DFE_CONTROL_SEL_1</li>
<li>R_ADAPT_DFE_CONTROL_SEL_2</li>
<li>R_ADAPT_DFE_CONTROL_SEL_3</li>
<li>R_ADAPT_DFE_SEL_0</li>
<li>R_ADAPT_DFE_SEL_1</li>
<li>R_ADAPT_VGA_SEL_0</li>
<li>R_ADAPT_VGA_SEL_1</li>
<li>R_ADAPT_VREF_SEL_0</li>
<li>R_ADAPT_VREF_SEL_1</li>
<li>R_ADAPT_VREF_SEL_2</li>
<li>R_ADAPT_VREF_SEL_3</li>
<li>RADP_CTLE_ACGAIN_4S_0</li>
<li>RADP_CTLE_ACGAIN_4S_10</li>
<li>RADP_CTLE_ACGAIN_4S_11</li>
<li>RADP_CTLE_ACGAIN_4S_12</li>
<li>RADP_CTLE_ACGAIN_4S_13</li>
<li>RADP_CTLE_ACGAIN_4S_14</li>
<li>RADP_CTLE_ACGAIN_4S_15</li>
<li>RADP_CTLE_ACGAIN_4S_16</li>
<li>RADP_CTLE_ACGAIN_4S_17</li>
<li>RADP_CTLE_ACGAIN_4S_18</li>
<li>RADP_CTLE_ACGAIN_4S_19</li>
<li>RADP_CTLE_ACGAIN_4S_1</li>
<li>RADP_CTLE_ACGAIN_4S_20</li>
<li>RADP_CTLE_ACGAIN_4S_21</li>
<li>RADP_CTLE_ACGAIN_4S_22</li>
<li>RADP_CTLE_ACGAIN_4S_23</li>
<li>RADP_CTLE_ACGAIN_4S_24</li>
<li>RADP_CTLE_ACGAIN_4S_25</li>
<li>RADP_CTLE_ACGAIN_4S_26</li>
<li>RADP_CTLE_ACGAIN_4S_27</li>
<li>RADP_CTLE_ACGAIN_4S_28</li>
<li>RADP_CTLE_ACGAIN_4S_2</li>
<li>RADP_CTLE_ACGAIN_4S_3</li>
<li>RADP_CTLE_ACGAIN_4S_4</li>
<li>RADP_CTLE_ACGAIN_4S_5</li>
<li>RADP_CTLE_ACGAIN_4S_6</li>
<li>RADP_CTLE_ACGAIN_4S_7</li>
<li>RADP_CTLE_ACGAIN_4S_8</li>
<li>RADP_CTLE_ACGAIN_4S_9</li>
<li>RADP_CTLE_EQZ_1S_SEL_0</li>
<li>RADP_CTLE_EQZ_1S_SEL_10</li>
<li>RADP_CTLE_EQZ_1S_SEL_11</li>
<li>RADP_CTLE_EQZ_1S_SEL_12</li>
<li>RADP_CTLE_EQZ_1S_SEL_13</li>
<li>RADP_CTLE_EQZ_1S_SEL_14</li>
<li>RADP_CTLE_EQZ_1S_SEL_15</li>
<li>RADP_CTLE_EQZ_1S_SEL_1</li>
<li>RADP_CTLE_EQZ_1S_SEL_2</li>
<li>RADP_CTLE_EQZ_1S_SEL_3</li>
<li>RADP_CTLE_EQZ_1S_SEL_4</li>
<li>RADP_CTLE_EQZ_1S_SEL_5</li>
<li>RADP_CTLE_EQZ_1S_SEL_6</li>
<li>RADP_CTLE_EQZ_1S_SEL_7</li>
<li>RADP_CTLE_EQZ_1S_SEL_8</li>
<li>RADP_CTLE_EQZ_1S_SEL_9</li>
<li>RADP_DFE_FLTAP_POSITION_0</li>
<li>RADP_DFE_FLTAP_POSITION_10</li>
<li>RADP_DFE_FLTAP_POSITION_11</li>
<li>RADP_DFE_FLTAP_POSITION_12</li>
<li>RADP_DFE_FLTAP_POSITION_13</li>
<li>RADP_DFE_FLTAP_POSITION_14</li>
<li>RADP_DFE_FLTAP_POSITION_15</li>
<li>RADP_DFE_FLTAP_POSITION_16</li>
<li>RADP_DFE_FLTAP_POSITION_17</li>
<li>RADP_DFE_FLTAP_POSITION_18</li>
<li>RADP_DFE_FLTAP_POSITION_19</li>
<li>RADP_DFE_FLTAP_POSITION_1</li>
<li>RADP_DFE_FLTAP_POSITION_20</li>
<li>RADP_DFE_FLTAP_POSITION_21</li>
<li>RADP_DFE_FLTAP_POSITION_22</li>
<li>RADP_DFE_FLTAP_POSITION_23</li>
<li>RADP_DFE_FLTAP_POSITION_24</li>
<li>RADP_DFE_FLTAP_POSITION_25</li>
<li>RADP_DFE_FLTAP_POSITION_26</li>
<li>RADP_DFE_FLTAP_POSITION_27</li>
<li>RADP_DFE_FLTAP_POSITION_28</li>
<li>RADP_DFE_FLTAP_POSITION_29</li>
<li>RADP_DFE_FLTAP_POSITION_2</li>
<li>RADP_DFE_FLTAP_POSITION_30</li>
<li>RADP_DFE_FLTAP_POSITION_31</li>
<li>RADP_DFE_FLTAP_POSITION_32</li>
<li>RADP_DFE_FLTAP_POSITION_33</li>
<li>RADP_DFE_FLTAP_POSITION_34</li>
<li>RADP_DFE_FLTAP_POSITION_35</li>
<li>RADP_DFE_FLTAP_POSITION_36</li>
<li>RADP_DFE_FLTAP_POSITION_37</li>
<li>RADP_DFE_FLTAP_POSITION_38</li>
<li>RADP_DFE_FLTAP_POSITION_39</li>
<li>RADP_DFE_FLTAP_POSITION_3</li>
<li>RADP_DFE_FLTAP_POSITION_40</li>
<li>RADP_DFE_FLTAP_POSITION_41</li>
<li>RADP_DFE_FLTAP_POSITION_42</li>
<li>RADP_DFE_FLTAP_POSITION_43</li>
<li>RADP_DFE_FLTAP_POSITION_44</li>
<li>RADP_DFE_FLTAP_POSITION_45</li>
<li>RADP_DFE_FLTAP_POSITION_46</li>
<li>RADP_DFE_FLTAP_POSITION_47</li>
<li>RADP_DFE_FLTAP_POSITION_48</li>
<li>RADP_DFE_FLTAP_POSITION_49</li>
<li>RADP_DFE_FLTAP_POSITION_4</li>
<li>RADP_DFE_FLTAP_POSITION_50</li>
<li>RADP_DFE_FLTAP_POSITION_51</li>
<li>RADP_DFE_FLTAP_POSITION_52</li>
<li>RADP_DFE_FLTAP_POSITION_53</li>
<li>RADP_DFE_FLTAP_POSITION_54</li>
<li>RADP_DFE_FLTAP_POSITION_55</li>
<li>RADP_DFE_FLTAP_POSITION_5</li>
<li>RADP_DFE_FLTAP_POSITION_6</li>
<li>RADP_DFE_FLTAP_POSITION_7</li>
<li>RADP_DFE_FLTAP_POSITION_8</li>
<li>RADP_DFE_FLTAP_POSITION_9</li>
<li>RADP_DFE_FXTAP10_0</li>
<li>RADP_DFE_FXTAP10_10</li>
<li>RADP_DFE_FXTAP10_11</li>
<li>RADP_DFE_FXTAP10_12</li>
<li>RADP_DFE_FXTAP10_13</li>
<li>RADP_DFE_FXTAP10_14</li>
<li>RADP_DFE_FXTAP10_15</li>
<li>RADP_DFE_FXTAP10_16</li>
<li>RADP_DFE_FXTAP10_17</li>
<li>RADP_DFE_FXTAP10_18</li>
<li>RADP_DFE_FXTAP10_19</li>
<li>RADP_DFE_FXTAP10_1</li>
<li>RADP_DFE_FXTAP10_20</li>
<li>RADP_DFE_FXTAP10_21</li>
<li>RADP_DFE_FXTAP10_22</li>
<li>RADP_DFE_FXTAP10_23</li>
<li>RADP_DFE_FXTAP10_24</li>
<li>RADP_DFE_FXTAP10_25</li>
<li>RADP_DFE_FXTAP10_26</li>
<li>RADP_DFE_FXTAP10_27</li>
<li>RADP_DFE_FXTAP10_28</li>
<li>RADP_DFE_FXTAP10_29</li>
<li>RADP_DFE_FXTAP10_2</li>
<li>RADP_DFE_FXTAP10_30</li>
<li>RADP_DFE_FXTAP10_31</li>
<li>RADP_DFE_FXTAP10_32</li>
<li>RADP_DFE_FXTAP10_33</li>
<li>RADP_DFE_FXTAP10_34</li>
<li>RADP_DFE_FXTAP10_35</li>
<li>RADP_DFE_FXTAP10_36</li>
<li>RADP_DFE_FXTAP10_37</li>
<li>RADP_DFE_FXTAP10_38</li>
<li>RADP_DFE_FXTAP10_39</li>
<li>RADP_DFE_FXTAP10_3</li>
<li>RADP_DFE_FXTAP10_40</li>
<li>RADP_DFE_FXTAP10_41</li>
<li>RADP_DFE_FXTAP10_42</li>
<li>RADP_DFE_FXTAP10_43</li>
<li>RADP_DFE_FXTAP10_44</li>
<li>RADP_DFE_FXTAP10_45</li>
<li>RADP_DFE_FXTAP10_46</li>
<li>RADP_DFE_FXTAP10_47</li>
<li>RADP_DFE_FXTAP10_48</li>
<li>RADP_DFE_FXTAP10_49</li>
<li>RADP_DFE_FXTAP10_4</li>
<li>RADP_DFE_FXTAP10_50</li>
<li>RADP_DFE_FXTAP10_51</li>
<li>RADP_DFE_FXTAP10_52</li>
<li>RADP_DFE_FXTAP10_53</li>
<li>RADP_DFE_FXTAP10_54</li>
<li>RADP_DFE_FXTAP10_55</li>
<li>RADP_DFE_FXTAP10_56</li>
<li>RADP_DFE_FXTAP10_57</li>
<li>RADP_DFE_FXTAP10_58</li>
<li>RADP_DFE_FXTAP10_59</li>
<li>RADP_DFE_FXTAP10_5</li>
<li>RADP_DFE_FXTAP10_60</li>
<li>RADP_DFE_FXTAP10_61</li>
<li>RADP_DFE_FXTAP10_62</li>
<li>RADP_DFE_FXTAP10_63</li>
<li>RADP_DFE_FXTAP10_6</li>
<li>RADP_DFE_FXTAP10_7</li>
<li>RADP_DFE_FXTAP10_8</li>
<li>RADP_DFE_FXTAP10_9</li>
<li>RADP_DFE_FXTAP1_0</li>
<li>RADP_DFE_FXTAP10_SGN_0</li>
<li>RADP_DFE_FXTAP10_SGN_1</li>
<li>RADP_DFE_FXTAP1_100</li>
<li>RADP_DFE_FXTAP1_101</li>
<li>RADP_DFE_FXTAP1_102</li>
<li>RADP_DFE_FXTAP1_103</li>
<li>RADP_DFE_FXTAP1_104</li>
<li>RADP_DFE_FXTAP1_105</li>
<li>RADP_DFE_FXTAP1_106</li>
<li>RADP_DFE_FXTAP1_107</li>
<li>RADP_DFE_FXTAP1_108</li>
<li>RADP_DFE_FXTAP1_109</li>
<li>RADP_DFE_FXTAP1_10</li>
<li>RADP_DFE_FXTAP11_0</li>
<li>RADP_DFE_FXTAP1_110</li>
<li>RADP_DFE_FXTAP11_10</li>
<li>RADP_DFE_FXTAP1_111</li>
<li>RADP_DFE_FXTAP11_11</li>
<li>RADP_DFE_FXTAP1_112</li>
<li>RADP_DFE_FXTAP11_12</li>
<li>RADP_DFE_FXTAP1_113</li>
<li>RADP_DFE_FXTAP11_13</li>
<li>RADP_DFE_FXTAP1_114</li>
<li>RADP_DFE_FXTAP11_14</li>
<li>RADP_DFE_FXTAP1_115</li>
<li>RADP_DFE_FXTAP11_15</li>
<li>RADP_DFE_FXTAP1_116</li>
<li>RADP_DFE_FXTAP11_16</li>
<li>RADP_DFE_FXTAP1_117</li>
<li>RADP_DFE_FXTAP11_17</li>
<li>RADP_DFE_FXTAP1_118</li>
<li>RADP_DFE_FXTAP11_18</li>
<li>RADP_DFE_FXTAP1_119</li>
<li>RADP_DFE_FXTAP11_19</li>
<li>RADP_DFE_FXTAP1_11</li>
<li>RADP_DFE_FXTAP11_1</li>
<li>RADP_DFE_FXTAP1_120</li>
<li>RADP_DFE_FXTAP11_20</li>
<li>RADP_DFE_FXTAP1_121</li>
<li>RADP_DFE_FXTAP11_21</li>
<li>RADP_DFE_FXTAP1_122</li>
<li>RADP_DFE_FXTAP11_22</li>
<li>RADP_DFE_FXTAP1_123</li>
<li>RADP_DFE_FXTAP11_23</li>
<li>RADP_DFE_FXTAP1_124</li>
<li>RADP_DFE_FXTAP11_24</li>
<li>RADP_DFE_FXTAP1_125</li>
<li>RADP_DFE_FXTAP11_25</li>
<li>RADP_DFE_FXTAP1_126</li>
<li>RADP_DFE_FXTAP11_26</li>
<li>RADP_DFE_FXTAP1_127</li>
<li>RADP_DFE_FXTAP11_27</li>
<li>RADP_DFE_FXTAP11_28</li>
<li>RADP_DFE_FXTAP11_29</li>
<li>RADP_DFE_FXTAP1_12</li>
<li>RADP_DFE_FXTAP11_2</li>
<li>RADP_DFE_FXTAP11_30</li>
<li>RADP_DFE_FXTAP11_31</li>
<li>RADP_DFE_FXTAP11_32</li>
<li>RADP_DFE_FXTAP11_33</li>
<li>RADP_DFE_FXTAP11_34</li>
<li>RADP_DFE_FXTAP11_35</li>
<li>RADP_DFE_FXTAP11_36</li>
<li>RADP_DFE_FXTAP11_37</li>
<li>RADP_DFE_FXTAP11_38</li>
<li>RADP_DFE_FXTAP11_39</li>
<li>RADP_DFE_FXTAP1_13</li>
<li>RADP_DFE_FXTAP11_3</li>
<li>RADP_DFE_FXTAP11_40</li>
<li>RADP_DFE_FXTAP11_41</li>
<li>RADP_DFE_FXTAP11_42</li>
<li>RADP_DFE_FXTAP11_43</li>
<li>RADP_DFE_FXTAP11_44</li>
<li>RADP_DFE_FXTAP11_45</li>
<li>RADP_DFE_FXTAP11_46</li>
<li>RADP_DFE_FXTAP11_47</li>
<li>RADP_DFE_FXTAP11_48</li>
<li>RADP_DFE_FXTAP11_49</li>
<li>RADP_DFE_FXTAP1_14</li>
<li>RADP_DFE_FXTAP11_4</li>
<li>RADP_DFE_FXTAP11_50</li>
<li>RADP_DFE_FXTAP11_51</li>
<li>RADP_DFE_FXTAP11_52</li>
<li>RADP_DFE_FXTAP11_53</li>
<li>RADP_DFE_FXTAP11_54</li>
<li>RADP_DFE_FXTAP11_55</li>
<li>RADP_DFE_FXTAP11_56</li>
<li>RADP_DFE_FXTAP11_57</li>
<li>RADP_DFE_FXTAP11_58</li>
<li>RADP_DFE_FXTAP11_59</li>
<li>RADP_DFE_FXTAP1_15</li>
<li>RADP_DFE_FXTAP11_5</li>
<li>RADP_DFE_FXTAP11_60</li>
<li>RADP_DFE_FXTAP11_61</li>
<li>RADP_DFE_FXTAP11_62</li>
<li>RADP_DFE_FXTAP11_63</li>
<li>RADP_DFE_FXTAP1_16</li>
<li>RADP_DFE_FXTAP11_6</li>
<li>RADP_DFE_FXTAP1_17</li>
<li>RADP_DFE_FXTAP11_7</li>
<li>RADP_DFE_FXTAP1_18</li>
<li>RADP_DFE_FXTAP11_8</li>
<li>RADP_DFE_FXTAP1_19</li>
<li>RADP_DFE_FXTAP11_9</li>
<li>RADP_DFE_FXTAP1_1</li>
<li>RADP_DFE_FXTAP11_SGN_0</li>
<li>RADP_DFE_FXTAP11_SGN_1</li>
<li>RADP_DFE_FXTAP1_20</li>
<li>RADP_DFE_FXTAP1_21</li>
<li>RADP_DFE_FXTAP1_22</li>
<li>RADP_DFE_FXTAP1_23</li>
<li>RADP_DFE_FXTAP1_24</li>
<li>RADP_DFE_FXTAP1_25</li>
<li>RADP_DFE_FXTAP1_26</li>
<li>RADP_DFE_FXTAP1_27</li>
<li>RADP_DFE_FXTAP1_28</li>
<li>RADP_DFE_FXTAP1_29</li>
<li>RADP_DFE_FXTAP1_2</li>
<li>RADP_DFE_FXTAP1_30</li>
<li>RADP_DFE_FXTAP1_31</li>
<li>RADP_DFE_FXTAP1_32</li>
<li>RADP_DFE_FXTAP1_33</li>
<li>RADP_DFE_FXTAP1_34</li>
<li>RADP_DFE_FXTAP1_35</li>
<li>RADP_DFE_FXTAP1_36</li>
<li>RADP_DFE_FXTAP1_37</li>
<li>RADP_DFE_FXTAP1_38</li>
<li>RADP_DFE_FXTAP1_39</li>
<li>RADP_DFE_FXTAP1_3</li>
<li>RADP_DFE_FXTAP1_40</li>
<li>RADP_DFE_FXTAP1_41</li>
<li>RADP_DFE_FXTAP1_42</li>
<li>RADP_DFE_FXTAP1_43</li>
<li>RADP_DFE_FXTAP1_44</li>
<li>RADP_DFE_FXTAP1_45</li>
<li>RADP_DFE_FXTAP1_46</li>
<li>RADP_DFE_FXTAP1_47</li>
<li>RADP_DFE_FXTAP1_48</li>
<li>RADP_DFE_FXTAP1_49</li>
<li>RADP_DFE_FXTAP1_4</li>
<li>RADP_DFE_FXTAP1_50</li>
<li>RADP_DFE_FXTAP1_51</li>
<li>RADP_DFE_FXTAP1_52</li>
<li>RADP_DFE_FXTAP1_53</li>
<li>RADP_DFE_FXTAP1_54</li>
<li>RADP_DFE_FXTAP1_55</li>
<li>RADP_DFE_FXTAP1_56</li>
<li>RADP_DFE_FXTAP1_57</li>
<li>RADP_DFE_FXTAP1_58</li>
<li>RADP_DFE_FXTAP1_59</li>
<li>RADP_DFE_FXTAP1_5</li>
<li>RADP_DFE_FXTAP1_60</li>
<li>RADP_DFE_FXTAP1_61</li>
<li>RADP_DFE_FXTAP1_62</li>
<li>RADP_DFE_FXTAP1_63</li>
<li>RADP_DFE_FXTAP1_64</li>
<li>RADP_DFE_FXTAP1_65</li>
<li>RADP_DFE_FXTAP1_66</li>
<li>RADP_DFE_FXTAP1_67</li>
<li>RADP_DFE_FXTAP1_68</li>
<li>RADP_DFE_FXTAP1_69</li>
<li>RADP_DFE_FXTAP1_6</li>
<li>RADP_DFE_FXTAP1_70</li>
<li>RADP_DFE_FXTAP1_71</li>
<li>RADP_DFE_FXTAP1_72</li>
<li>RADP_DFE_FXTAP1_73</li>
<li>RADP_DFE_FXTAP1_74</li>
<li>RADP_DFE_FXTAP1_75</li>
<li>RADP_DFE_FXTAP1_76</li>
<li>RADP_DFE_FXTAP1_77</li>
<li>RADP_DFE_FXTAP1_78</li>
<li>RADP_DFE_FXTAP1_79</li>
<li>RADP_DFE_FXTAP1_7</li>
<li>RADP_DFE_FXTAP1_80</li>
<li>RADP_DFE_FXTAP1_81</li>
<li>RADP_DFE_FXTAP1_82</li>
<li>RADP_DFE_FXTAP1_83</li>
<li>RADP_DFE_FXTAP1_84</li>
<li>RADP_DFE_FXTAP1_85</li>
<li>RADP_DFE_FXTAP1_86</li>
<li>RADP_DFE_FXTAP1_87</li>
<li>RADP_DFE_FXTAP1_88</li>
<li>RADP_DFE_FXTAP1_89</li>
<li>RADP_DFE_FXTAP1_8</li>
<li>RADP_DFE_FXTAP1_90</li>
<li>RADP_DFE_FXTAP1_91</li>
<li>RADP_DFE_FXTAP1_92</li>
<li>RADP_DFE_FXTAP1_93</li>
<li>RADP_DFE_FXTAP1_94</li>
<li>RADP_DFE_FXTAP1_95</li>
<li>RADP_DFE_FXTAP1_96</li>
<li>RADP_DFE_FXTAP1_97</li>
<li>RADP_DFE_FXTAP1_98</li>
<li>RADP_DFE_FXTAP1_99</li>
<li>RADP_DFE_FXTAP1_9</li>
<li>RADP_DFE_FXTAP2_0</li>
<li>RADP_DFE_FXTAP2_100</li>
<li>RADP_DFE_FXTAP2_101</li>
<li>RADP_DFE_FXTAP2_102</li>
<li>RADP_DFE_FXTAP2_103</li>
<li>RADP_DFE_FXTAP2_104</li>
<li>RADP_DFE_FXTAP2_105</li>
<li>RADP_DFE_FXTAP2_106</li>
<li>RADP_DFE_FXTAP2_107</li>
<li>RADP_DFE_FXTAP2_108</li>
<li>RADP_DFE_FXTAP2_109</li>
<li>RADP_DFE_FXTAP2_10</li>
<li>RADP_DFE_FXTAP2_110</li>
<li>RADP_DFE_FXTAP2_111</li>
<li>RADP_DFE_FXTAP2_112</li>
<li>RADP_DFE_FXTAP2_113</li>
<li>RADP_DFE_FXTAP2_114</li>
<li>RADP_DFE_FXTAP2_115</li>
<li>RADP_DFE_FXTAP2_116</li>
<li>RADP_DFE_FXTAP2_117</li>
<li>RADP_DFE_FXTAP2_118</li>
<li>RADP_DFE_FXTAP2_119</li>
<li>RADP_DFE_FXTAP2_11</li>
<li>RADP_DFE_FXTAP2_120</li>
<li>RADP_DFE_FXTAP2_121</li>
<li>RADP_DFE_FXTAP2_122</li>
<li>RADP_DFE_FXTAP2_123</li>
<li>RADP_DFE_FXTAP2_124</li>
<li>RADP_DFE_FXTAP2_125</li>
<li>RADP_DFE_FXTAP2_126</li>
<li>RADP_DFE_FXTAP2_127</li>
<li>RADP_DFE_FXTAP2_12</li>
<li>RADP_DFE_FXTAP2_13</li>
<li>RADP_DFE_FXTAP2_14</li>
<li>RADP_DFE_FXTAP2_15</li>
<li>RADP_DFE_FXTAP2_16</li>
<li>RADP_DFE_FXTAP2_17</li>
<li>RADP_DFE_FXTAP2_18</li>
<li>RADP_DFE_FXTAP2_19</li>
<li>RADP_DFE_FXTAP2_1</li>
<li>RADP_DFE_FXTAP2_20</li>
<li>RADP_DFE_FXTAP2_21</li>
<li>RADP_DFE_FXTAP2_22</li>
<li>RADP_DFE_FXTAP2_23</li>
<li>RADP_DFE_FXTAP2_24</li>
<li>RADP_DFE_FXTAP2_25</li>
<li>RADP_DFE_FXTAP2_26</li>
<li>RADP_DFE_FXTAP2_27</li>
<li>RADP_DFE_FXTAP2_28</li>
<li>RADP_DFE_FXTAP2_29</li>
<li>RADP_DFE_FXTAP2_2</li>
<li>RADP_DFE_FXTAP2_30</li>
<li>RADP_DFE_FXTAP2_31</li>
<li>RADP_DFE_FXTAP2_32</li>
<li>RADP_DFE_FXTAP2_33</li>
<li>RADP_DFE_FXTAP2_34</li>
<li>RADP_DFE_FXTAP2_35</li>
<li>RADP_DFE_FXTAP2_36</li>
<li>RADP_DFE_FXTAP2_37</li>
<li>RADP_DFE_FXTAP2_38</li>
<li>RADP_DFE_FXTAP2_39</li>
<li>RADP_DFE_FXTAP2_3</li>
<li>RADP_DFE_FXTAP2_40</li>
<li>RADP_DFE_FXTAP2_41</li>
<li>RADP_DFE_FXTAP2_42</li>
<li>RADP_DFE_FXTAP2_43</li>
<li>RADP_DFE_FXTAP2_44</li>
<li>RADP_DFE_FXTAP2_45</li>
<li>RADP_DFE_FXTAP2_46</li>
<li>RADP_DFE_FXTAP2_47</li>
<li>RADP_DFE_FXTAP2_48</li>
<li>RADP_DFE_FXTAP2_49</li>
<li>RADP_DFE_FXTAP2_4</li>
<li>RADP_DFE_FXTAP2_50</li>
<li>RADP_DFE_FXTAP2_51</li>
<li>RADP_DFE_FXTAP2_52</li>
<li>RADP_DFE_FXTAP2_53</li>
<li>RADP_DFE_FXTAP2_54</li>
<li>RADP_DFE_FXTAP2_55</li>
<li>RADP_DFE_FXTAP2_56</li>
<li>RADP_DFE_FXTAP2_57</li>
<li>RADP_DFE_FXTAP2_58</li>
<li>RADP_DFE_FXTAP2_59</li>
<li>RADP_DFE_FXTAP2_5</li>
<li>RADP_DFE_FXTAP2_60</li>
<li>RADP_DFE_FXTAP2_61</li>
<li>RADP_DFE_FXTAP2_62</li>
<li>RADP_DFE_FXTAP2_63</li>
<li>RADP_DFE_FXTAP2_64</li>
<li>RADP_DFE_FXTAP2_65</li>
<li>RADP_DFE_FXTAP2_66</li>
<li>RADP_DFE_FXTAP2_67</li>
<li>RADP_DFE_FXTAP2_68</li>
<li>RADP_DFE_FXTAP2_69</li>
<li>RADP_DFE_FXTAP2_6</li>
<li>RADP_DFE_FXTAP2_70</li>
<li>RADP_DFE_FXTAP2_71</li>
<li>RADP_DFE_FXTAP2_72</li>
<li>RADP_DFE_FXTAP2_73</li>
<li>RADP_DFE_FXTAP2_74</li>
<li>RADP_DFE_FXTAP2_75</li>
<li>RADP_DFE_FXTAP2_76</li>
<li>RADP_DFE_FXTAP2_77</li>
<li>RADP_DFE_FXTAP2_78</li>
<li>RADP_DFE_FXTAP2_79</li>
<li>RADP_DFE_FXTAP2_7</li>
<li>RADP_DFE_FXTAP2_80</li>
<li>RADP_DFE_FXTAP2_81</li>
<li>RADP_DFE_FXTAP2_82</li>
<li>RADP_DFE_FXTAP2_83</li>
<li>RADP_DFE_FXTAP2_84</li>
<li>RADP_DFE_FXTAP2_85</li>
<li>RADP_DFE_FXTAP2_86</li>
<li>RADP_DFE_FXTAP2_87</li>
<li>RADP_DFE_FXTAP2_88</li>
<li>RADP_DFE_FXTAP2_89</li>
<li>RADP_DFE_FXTAP2_8</li>
<li>RADP_DFE_FXTAP2_90</li>
<li>RADP_DFE_FXTAP2_91</li>
<li>RADP_DFE_FXTAP2_92</li>
<li>RADP_DFE_FXTAP2_93</li>
<li>RADP_DFE_FXTAP2_94</li>
<li>RADP_DFE_FXTAP2_95</li>
<li>RADP_DFE_FXTAP2_96</li>
<li>RADP_DFE_FXTAP2_97</li>
<li>RADP_DFE_FXTAP2_98</li>
<li>RADP_DFE_FXTAP2_99</li>
<li>RADP_DFE_FXTAP2_9</li>
<li>RADP_DFE_FXTAP2_SGN_0</li>
<li>RADP_DFE_FXTAP2_SGN_1</li>
<li>RADP_DFE_FXTAP3_0</li>
<li>RADP_DFE_FXTAP3_100</li>
<li>RADP_DFE_FXTAP3_101</li>
<li>RADP_DFE_FXTAP3_102</li>
<li>RADP_DFE_FXTAP3_103</li>
<li>RADP_DFE_FXTAP3_104</li>
<li>RADP_DFE_FXTAP3_105</li>
<li>RADP_DFE_FXTAP3_106</li>
<li>RADP_DFE_FXTAP3_107</li>
<li>RADP_DFE_FXTAP3_108</li>
<li>RADP_DFE_FXTAP3_109</li>
<li>RADP_DFE_FXTAP3_10</li>
<li>RADP_DFE_FXTAP3_110</li>
<li>RADP_DFE_FXTAP3_111</li>
<li>RADP_DFE_FXTAP3_112</li>
<li>RADP_DFE_FXTAP3_113</li>
<li>RADP_DFE_FXTAP3_114</li>
<li>RADP_DFE_FXTAP3_115</li>
<li>RADP_DFE_FXTAP3_116</li>
<li>RADP_DFE_FXTAP3_117</li>
<li>RADP_DFE_FXTAP3_118</li>
<li>RADP_DFE_FXTAP3_119</li>
<li>RADP_DFE_FXTAP3_11</li>
<li>RADP_DFE_FXTAP3_120</li>
<li>RADP_DFE_FXTAP3_121</li>
<li>RADP_DFE_FXTAP3_122</li>
<li>RADP_DFE_FXTAP3_123</li>
<li>RADP_DFE_FXTAP3_124</li>
<li>RADP_DFE_FXTAP3_125</li>
<li>RADP_DFE_FXTAP3_126</li>
<li>RADP_DFE_FXTAP3_127</li>
<li>RADP_DFE_FXTAP3_12</li>
<li>RADP_DFE_FXTAP3_13</li>
<li>RADP_DFE_FXTAP3_14</li>
<li>RADP_DFE_FXTAP3_15</li>
<li>RADP_DFE_FXTAP3_16</li>
<li>RADP_DFE_FXTAP3_17</li>
<li>RADP_DFE_FXTAP3_18</li>
<li>RADP_DFE_FXTAP3_19</li>
<li>RADP_DFE_FXTAP3_1</li>
<li>RADP_DFE_FXTAP3_20</li>
<li>RADP_DFE_FXTAP3_21</li>
<li>RADP_DFE_FXTAP3_22</li>
<li>RADP_DFE_FXTAP3_23</li>
<li>RADP_DFE_FXTAP3_24</li>
<li>RADP_DFE_FXTAP3_25</li>
<li>RADP_DFE_FXTAP3_26</li>
<li>RADP_DFE_FXTAP3_27</li>
<li>RADP_DFE_FXTAP3_28</li>
<li>RADP_DFE_FXTAP3_29</li>
<li>RADP_DFE_FXTAP3_2</li>
<li>RADP_DFE_FXTAP3_30</li>
<li>RADP_DFE_FXTAP3_31</li>
<li>RADP_DFE_FXTAP3_32</li>
<li>RADP_DFE_FXTAP3_33</li>
<li>RADP_DFE_FXTAP3_34</li>
<li>RADP_DFE_FXTAP3_35</li>
<li>RADP_DFE_FXTAP3_36</li>
<li>RADP_DFE_FXTAP3_37</li>
<li>RADP_DFE_FXTAP3_38</li>
<li>RADP_DFE_FXTAP3_39</li>
<li>RADP_DFE_FXTAP3_3</li>
<li>RADP_DFE_FXTAP3_40</li>
<li>RADP_DFE_FXTAP3_41</li>
<li>RADP_DFE_FXTAP3_42</li>
<li>RADP_DFE_FXTAP3_43</li>
<li>RADP_DFE_FXTAP3_44</li>
<li>RADP_DFE_FXTAP3_45</li>
<li>RADP_DFE_FXTAP3_46</li>
<li>RADP_DFE_FXTAP3_47</li>
<li>RADP_DFE_FXTAP3_48</li>
<li>RADP_DFE_FXTAP3_49</li>
<li>RADP_DFE_FXTAP3_4</li>
<li>RADP_DFE_FXTAP3_50</li>
<li>RADP_DFE_FXTAP3_51</li>
<li>RADP_DFE_FXTAP3_52</li>
<li>RADP_DFE_FXTAP3_53</li>
<li>RADP_DFE_FXTAP3_54</li>
<li>RADP_DFE_FXTAP3_55</li>
<li>RADP_DFE_FXTAP3_56</li>
<li>RADP_DFE_FXTAP3_57</li>
<li>RADP_DFE_FXTAP3_58</li>
<li>RADP_DFE_FXTAP3_59</li>
<li>RADP_DFE_FXTAP3_5</li>
<li>RADP_DFE_FXTAP3_60</li>
<li>RADP_DFE_FXTAP3_61</li>
<li>RADP_DFE_FXTAP3_62</li>
<li>RADP_DFE_FXTAP3_63</li>
<li>RADP_DFE_FXTAP3_64</li>
<li>RADP_DFE_FXTAP3_65</li>
<li>RADP_DFE_FXTAP3_66</li>
<li>RADP_DFE_FXTAP3_67</li>
<li>RADP_DFE_FXTAP3_68</li>
<li>RADP_DFE_FXTAP3_69</li>
<li>RADP_DFE_FXTAP3_6</li>
<li>RADP_DFE_FXTAP3_70</li>
<li>RADP_DFE_FXTAP3_71</li>
<li>RADP_DFE_FXTAP3_72</li>
<li>RADP_DFE_FXTAP3_73</li>
<li>RADP_DFE_FXTAP3_74</li>
<li>RADP_DFE_FXTAP3_75</li>
<li>RADP_DFE_FXTAP3_76</li>
<li>RADP_DFE_FXTAP3_77</li>
<li>RADP_DFE_FXTAP3_78</li>
<li>RADP_DFE_FXTAP3_79</li>
<li>RADP_DFE_FXTAP3_7</li>
<li>RADP_DFE_FXTAP3_80</li>
<li>RADP_DFE_FXTAP3_81</li>
<li>RADP_DFE_FXTAP3_82</li>
<li>RADP_DFE_FXTAP3_83</li>
<li>RADP_DFE_FXTAP3_84</li>
<li>RADP_DFE_FXTAP3_85</li>
<li>RADP_DFE_FXTAP3_86</li>
<li>RADP_DFE_FXTAP3_87</li>
<li>RADP_DFE_FXTAP3_88</li>
<li>RADP_DFE_FXTAP3_89</li>
<li>RADP_DFE_FXTAP3_8</li>
<li>RADP_DFE_FXTAP3_90</li>
<li>RADP_DFE_FXTAP3_91</li>
<li>RADP_DFE_FXTAP3_92</li>
<li>RADP_DFE_FXTAP3_93</li>
<li>RADP_DFE_FXTAP3_94</li>
<li>RADP_DFE_FXTAP3_95</li>
<li>RADP_DFE_FXTAP3_96</li>
<li>RADP_DFE_FXTAP3_97</li>
<li>RADP_DFE_FXTAP3_98</li>
<li>RADP_DFE_FXTAP3_99</li>
<li>RADP_DFE_FXTAP3_9</li>
<li>RADP_DFE_FXTAP3_SGN_0</li>
<li>RADP_DFE_FXTAP3_SGN_1</li>
<li>RADP_DFE_FXTAP4_0</li>
<li>RADP_DFE_FXTAP4_10</li>
<li>RADP_DFE_FXTAP4_11</li>
<li>RADP_DFE_FXTAP4_12</li>
<li>RADP_DFE_FXTAP4_13</li>
<li>RADP_DFE_FXTAP4_14</li>
<li>RADP_DFE_FXTAP4_15</li>
<li>RADP_DFE_FXTAP4_16</li>
<li>RADP_DFE_FXTAP4_17</li>
<li>RADP_DFE_FXTAP4_18</li>
<li>RADP_DFE_FXTAP4_19</li>
<li>RADP_DFE_FXTAP4_1</li>
<li>RADP_DFE_FXTAP4_20</li>
<li>RADP_DFE_FXTAP4_21</li>
<li>RADP_DFE_FXTAP4_22</li>
<li>RADP_DFE_FXTAP4_23</li>
<li>RADP_DFE_FXTAP4_24</li>
<li>RADP_DFE_FXTAP4_25</li>
<li>RADP_DFE_FXTAP4_26</li>
<li>RADP_DFE_FXTAP4_27</li>
<li>RADP_DFE_FXTAP4_28</li>
<li>RADP_DFE_FXTAP4_29</li>
<li>RADP_DFE_FXTAP4_2</li>
<li>RADP_DFE_FXTAP4_30</li>
<li>RADP_DFE_FXTAP4_31</li>
<li>RADP_DFE_FXTAP4_32</li>
<li>RADP_DFE_FXTAP4_33</li>
<li>RADP_DFE_FXTAP4_34</li>
<li>RADP_DFE_FXTAP4_35</li>
<li>RADP_DFE_FXTAP4_36</li>
<li>RADP_DFE_FXTAP4_37</li>
<li>RADP_DFE_FXTAP4_38</li>
<li>RADP_DFE_FXTAP4_39</li>
<li>RADP_DFE_FXTAP4_3</li>
<li>RADP_DFE_FXTAP4_40</li>
<li>RADP_DFE_FXTAP4_41</li>
<li>RADP_DFE_FXTAP4_42</li>
<li>RADP_DFE_FXTAP4_43</li>
<li>RADP_DFE_FXTAP4_44</li>
<li>RADP_DFE_FXTAP4_45</li>
<li>RADP_DFE_FXTAP4_46</li>
<li>RADP_DFE_FXTAP4_47</li>
<li>RADP_DFE_FXTAP4_48</li>
<li>RADP_DFE_FXTAP4_49</li>
<li>RADP_DFE_FXTAP4_4</li>
<li>RADP_DFE_FXTAP4_50</li>
<li>RADP_DFE_FXTAP4_51</li>
<li>RADP_DFE_FXTAP4_52</li>
<li>RADP_DFE_FXTAP4_53</li>
<li>RADP_DFE_FXTAP4_54</li>
<li>RADP_DFE_FXTAP4_55</li>
<li>RADP_DFE_FXTAP4_56</li>
<li>RADP_DFE_FXTAP4_57</li>
<li>RADP_DFE_FXTAP4_58</li>
<li>RADP_DFE_FXTAP4_59</li>
<li>RADP_DFE_FXTAP4_5</li>
<li>RADP_DFE_FXTAP4_60</li>
<li>RADP_DFE_FXTAP4_61</li>
<li>RADP_DFE_FXTAP4_62</li>
<li>RADP_DFE_FXTAP4_63</li>
<li>RADP_DFE_FXTAP4_6</li>
<li>RADP_DFE_FXTAP4_7</li>
<li>RADP_DFE_FXTAP4_8</li>
<li>RADP_DFE_FXTAP4_9</li>
<li>RADP_DFE_FXTAP4_SGN_0</li>
<li>RADP_DFE_FXTAP4_SGN_1</li>
<li>RADP_DFE_FXTAP5_0</li>
<li>RADP_DFE_FXTAP5_10</li>
<li>RADP_DFE_FXTAP5_11</li>
<li>RADP_DFE_FXTAP5_12</li>
<li>RADP_DFE_FXTAP5_13</li>
<li>RADP_DFE_FXTAP5_14</li>
<li>RADP_DFE_FXTAP5_15</li>
<li>RADP_DFE_FXTAP5_16</li>
<li>RADP_DFE_FXTAP5_17</li>
<li>RADP_DFE_FXTAP5_18</li>
<li>RADP_DFE_FXTAP5_19</li>
<li>RADP_DFE_FXTAP5_1</li>
<li>RADP_DFE_FXTAP5_20</li>
<li>RADP_DFE_FXTAP5_21</li>
<li>RADP_DFE_FXTAP5_22</li>
<li>RADP_DFE_FXTAP5_23</li>
<li>RADP_DFE_FXTAP5_24</li>
<li>RADP_DFE_FXTAP5_25</li>
<li>RADP_DFE_FXTAP5_26</li>
<li>RADP_DFE_FXTAP5_27</li>
<li>RADP_DFE_FXTAP5_28</li>
<li>RADP_DFE_FXTAP5_29</li>
<li>RADP_DFE_FXTAP5_2</li>
<li>RADP_DFE_FXTAP5_30</li>
<li>RADP_DFE_FXTAP5_31</li>
<li>RADP_DFE_FXTAP5_32</li>
<li>RADP_DFE_FXTAP5_33</li>
<li>RADP_DFE_FXTAP5_34</li>
<li>RADP_DFE_FXTAP5_35</li>
<li>RADP_DFE_FXTAP5_36</li>
<li>RADP_DFE_FXTAP5_37</li>
<li>RADP_DFE_FXTAP5_38</li>
<li>RADP_DFE_FXTAP5_39</li>
<li>RADP_DFE_FXTAP5_3</li>
<li>RADP_DFE_FXTAP5_40</li>
<li>RADP_DFE_FXTAP5_41</li>
<li>RADP_DFE_FXTAP5_42</li>
<li>RADP_DFE_FXTAP5_43</li>
<li>RADP_DFE_FXTAP5_44</li>
<li>RADP_DFE_FXTAP5_45</li>
<li>RADP_DFE_FXTAP5_46</li>
<li>RADP_DFE_FXTAP5_47</li>
<li>RADP_DFE_FXTAP5_48</li>
<li>RADP_DFE_FXTAP5_49</li>
<li>RADP_DFE_FXTAP5_4</li>
<li>RADP_DFE_FXTAP5_50</li>
<li>RADP_DFE_FXTAP5_51</li>
<li>RADP_DFE_FXTAP5_52</li>
<li>RADP_DFE_FXTAP5_53</li>
<li>RADP_DFE_FXTAP5_54</li>
<li>RADP_DFE_FXTAP5_55</li>
<li>RADP_DFE_FXTAP5_56</li>
<li>RADP_DFE_FXTAP5_57</li>
<li>RADP_DFE_FXTAP5_58</li>
<li>RADP_DFE_FXTAP5_59</li>
<li>RADP_DFE_FXTAP5_5</li>
<li>RADP_DFE_FXTAP5_60</li>
<li>RADP_DFE_FXTAP5_61</li>
<li>RADP_DFE_FXTAP5_62</li>
<li>RADP_DFE_FXTAP5_63</li>
<li>RADP_DFE_FXTAP5_6</li>
<li>RADP_DFE_FXTAP5_7</li>
<li>RADP_DFE_FXTAP5_8</li>
<li>RADP_DFE_FXTAP5_9</li>
<li>RADP_DFE_FXTAP5_SGN_0</li>
<li>RADP_DFE_FXTAP5_SGN_1</li>
<li>RADP_DFE_FXTAP6_0</li>
<li>RADP_DFE_FXTAP6_10</li>
<li>RADP_DFE_FXTAP6_11</li>
<li>RADP_DFE_FXTAP6_12</li>
<li>RADP_DFE_FXTAP6_13</li>
<li>RADP_DFE_FXTAP6_14</li>
<li>RADP_DFE_FXTAP6_15</li>
<li>RADP_DFE_FXTAP6_16</li>
<li>RADP_DFE_FXTAP6_17</li>
<li>RADP_DFE_FXTAP6_18</li>
<li>RADP_DFE_FXTAP6_19</li>
<li>RADP_DFE_FXTAP6_1</li>
<li>RADP_DFE_FXTAP6_20</li>
<li>RADP_DFE_FXTAP6_21</li>
<li>RADP_DFE_FXTAP6_22</li>
<li>RADP_DFE_FXTAP6_23</li>
<li>RADP_DFE_FXTAP6_24</li>
<li>RADP_DFE_FXTAP6_25</li>
<li>RADP_DFE_FXTAP6_26</li>
<li>RADP_DFE_FXTAP6_27</li>
<li>RADP_DFE_FXTAP6_28</li>
<li>RADP_DFE_FXTAP6_29</li>
<li>RADP_DFE_FXTAP6_2</li>
<li>RADP_DFE_FXTAP6_30</li>
<li>RADP_DFE_FXTAP6_31</li>
<li>RADP_DFE_FXTAP6_3</li>
<li>RADP_DFE_FXTAP6_4</li>
<li>RADP_DFE_FXTAP6_5</li>
<li>RADP_DFE_FXTAP6_6</li>
<li>RADP_DFE_FXTAP6_7</li>
<li>RADP_DFE_FXTAP6_8</li>
<li>RADP_DFE_FXTAP6_9</li>
<li>RADP_DFE_FXTAP6_SGN_0</li>
<li>RADP_DFE_FXTAP6_SGN_1</li>
<li>RADP_DFE_FXTAP7_0</li>
<li>RADP_DFE_FXTAP7_10</li>
<li>RADP_DFE_FXTAP7_11</li>
<li>RADP_DFE_FXTAP7_12</li>
<li>RADP_DFE_FXTAP7_13</li>
<li>RADP_DFE_FXTAP7_14</li>
<li>RADP_DFE_FXTAP7_15</li>
<li>RADP_DFE_FXTAP7_16</li>
<li>RADP_DFE_FXTAP7_17</li>
<li>RADP_DFE_FXTAP7_18</li>
<li>RADP_DFE_FXTAP7_19</li>
<li>RADP_DFE_FXTAP7_1</li>
<li>RADP_DFE_FXTAP7_20</li>
<li>RADP_DFE_FXTAP7_21</li>
<li>RADP_DFE_FXTAP7_22</li>
<li>RADP_DFE_FXTAP7_23</li>
<li>RADP_DFE_FXTAP7_24</li>
<li>RADP_DFE_FXTAP7_25</li>
<li>RADP_DFE_FXTAP7_26</li>
<li>RADP_DFE_FXTAP7_27</li>
<li>RADP_DFE_FXTAP7_28</li>
<li>RADP_DFE_FXTAP7_29</li>
<li>RADP_DFE_FXTAP7_2</li>
<li>RADP_DFE_FXTAP7_30</li>
<li>RADP_DFE_FXTAP7_31</li>
<li>RADP_DFE_FXTAP7_3</li>
<li>RADP_DFE_FXTAP7_4</li>
<li>RADP_DFE_FXTAP7_5</li>
<li>RADP_DFE_FXTAP7_6</li>
<li>RADP_DFE_FXTAP7_7</li>
<li>RADP_DFE_FXTAP7_8</li>
<li>RADP_DFE_FXTAP7_9</li>
<li>RADP_DFE_FXTAP7_SGN_0</li>
<li>RADP_DFE_FXTAP7_SGN_1</li>
<li>RADP_DFE_FXTAP8_0</li>
<li>RADP_DFE_FXTAP8_10</li>
<li>RADP_DFE_FXTAP8_11</li>
<li>RADP_DFE_FXTAP8_12</li>
<li>RADP_DFE_FXTAP8_13</li>
<li>RADP_DFE_FXTAP8_14</li>
<li>RADP_DFE_FXTAP8_15</li>
<li>RADP_DFE_FXTAP8_16</li>
<li>RADP_DFE_FXTAP8_17</li>
<li>RADP_DFE_FXTAP8_18</li>
<li>RADP_DFE_FXTAP8_19</li>
<li>RADP_DFE_FXTAP8_1</li>
<li>RADP_DFE_FXTAP8_20</li>
<li>RADP_DFE_FXTAP8_21</li>
<li>RADP_DFE_FXTAP8_22</li>
<li>RADP_DFE_FXTAP8_23</li>
<li>RADP_DFE_FXTAP8_24</li>
<li>RADP_DFE_FXTAP8_25</li>
<li>RADP_DFE_FXTAP8_26</li>
<li>RADP_DFE_FXTAP8_27</li>
<li>RADP_DFE_FXTAP8_28</li>
<li>RADP_DFE_FXTAP8_29</li>
<li>RADP_DFE_FXTAP8_2</li>
<li>RADP_DFE_FXTAP8_30</li>
<li>RADP_DFE_FXTAP8_31</li>
<li>RADP_DFE_FXTAP8_32</li>
<li>RADP_DFE_FXTAP8_33</li>
<li>RADP_DFE_FXTAP8_34</li>
<li>RADP_DFE_FXTAP8_35</li>
<li>RADP_DFE_FXTAP8_36</li>
<li>RADP_DFE_FXTAP8_37</li>
<li>RADP_DFE_FXTAP8_38</li>
<li>RADP_DFE_FXTAP8_39</li>
<li>RADP_DFE_FXTAP8_3</li>
<li>RADP_DFE_FXTAP8_40</li>
<li>RADP_DFE_FXTAP8_41</li>
<li>RADP_DFE_FXTAP8_42</li>
<li>RADP_DFE_FXTAP8_43</li>
<li>RADP_DFE_FXTAP8_44</li>
<li>RADP_DFE_FXTAP8_45</li>
<li>RADP_DFE_FXTAP8_46</li>
<li>RADP_DFE_FXTAP8_47</li>
<li>RADP_DFE_FXTAP8_48</li>
<li>RADP_DFE_FXTAP8_49</li>
<li>RADP_DFE_FXTAP8_4</li>
<li>RADP_DFE_FXTAP8_50</li>
<li>RADP_DFE_FXTAP8_51</li>
<li>RADP_DFE_FXTAP8_52</li>
<li>RADP_DFE_FXTAP8_53</li>
<li>RADP_DFE_FXTAP8_54</li>
<li>RADP_DFE_FXTAP8_55</li>
<li>RADP_DFE_FXTAP8_56</li>
<li>RADP_DFE_FXTAP8_57</li>
<li>RADP_DFE_FXTAP8_58</li>
<li>RADP_DFE_FXTAP8_59</li>
<li>RADP_DFE_FXTAP8_5</li>
<li>RADP_DFE_FXTAP8_60</li>
<li>RADP_DFE_FXTAP8_61</li>
<li>RADP_DFE_FXTAP8_62</li>
<li>RADP_DFE_FXTAP8_63</li>
<li>RADP_DFE_FXTAP8_6</li>
<li>RADP_DFE_FXTAP8_7</li>
<li>RADP_DFE_FXTAP8_8</li>
<li>RADP_DFE_FXTAP8_9</li>
<li>RADP_DFE_FXTAP8_SGN_0</li>
<li>RADP_DFE_FXTAP8_SGN_1</li>
<li>RADP_DFE_FXTAP9_0</li>
<li>RADP_DFE_FXTAP9_10</li>
<li>RADP_DFE_FXTAP9_11</li>
<li>RADP_DFE_FXTAP9_12</li>
<li>RADP_DFE_FXTAP9_13</li>
<li>RADP_DFE_FXTAP9_14</li>
<li>RADP_DFE_FXTAP9_15</li>
<li>RADP_DFE_FXTAP9_16</li>
<li>RADP_DFE_FXTAP9_17</li>
<li>RADP_DFE_FXTAP9_18</li>
<li>RADP_DFE_FXTAP9_19</li>
<li>RADP_DFE_FXTAP9_1</li>
<li>RADP_DFE_FXTAP9_20</li>
<li>RADP_DFE_FXTAP9_21</li>
<li>RADP_DFE_FXTAP9_22</li>
<li>RADP_DFE_FXTAP9_23</li>
<li>RADP_DFE_FXTAP9_24</li>
<li>RADP_DFE_FXTAP9_25</li>
<li>RADP_DFE_FXTAP9_26</li>
<li>RADP_DFE_FXTAP9_27</li>
<li>RADP_DFE_FXTAP9_28</li>
<li>RADP_DFE_FXTAP9_29</li>
<li>RADP_DFE_FXTAP9_2</li>
<li>RADP_DFE_FXTAP9_30</li>
<li>RADP_DFE_FXTAP9_31</li>
<li>RADP_DFE_FXTAP9_32</li>
<li>RADP_DFE_FXTAP9_33</li>
<li>RADP_DFE_FXTAP9_34</li>
<li>RADP_DFE_FXTAP9_35</li>
<li>RADP_DFE_FXTAP9_36</li>
<li>RADP_DFE_FXTAP9_37</li>
<li>RADP_DFE_FXTAP9_38</li>
<li>RADP_DFE_FXTAP9_39</li>
<li>RADP_DFE_FXTAP9_3</li>
<li>RADP_DFE_FXTAP9_40</li>
<li>RADP_DFE_FXTAP9_41</li>
<li>RADP_DFE_FXTAP9_42</li>
<li>RADP_DFE_FXTAP9_43</li>
<li>RADP_DFE_FXTAP9_44</li>
<li>RADP_DFE_FXTAP9_45</li>
<li>RADP_DFE_FXTAP9_46</li>
<li>RADP_DFE_FXTAP9_47</li>
<li>RADP_DFE_FXTAP9_48</li>
<li>RADP_DFE_FXTAP9_49</li>
<li>RADP_DFE_FXTAP9_4</li>
<li>RADP_DFE_FXTAP9_50</li>
<li>RADP_DFE_FXTAP9_51</li>
<li>RADP_DFE_FXTAP9_52</li>
<li>RADP_DFE_FXTAP9_53</li>
<li>RADP_DFE_FXTAP9_54</li>
<li>RADP_DFE_FXTAP9_55</li>
<li>RADP_DFE_FXTAP9_56</li>
<li>RADP_DFE_FXTAP9_57</li>
<li>RADP_DFE_FXTAP9_58</li>
<li>RADP_DFE_FXTAP9_59</li>
<li>RADP_DFE_FXTAP9_5</li>
<li>RADP_DFE_FXTAP9_60</li>
<li>RADP_DFE_FXTAP9_61</li>
<li>RADP_DFE_FXTAP9_62</li>
<li>RADP_DFE_FXTAP9_63</li>
<li>RADP_DFE_FXTAP9_6</li>
<li>RADP_DFE_FXTAP9_7</li>
<li>RADP_DFE_FXTAP9_8</li>
<li>RADP_DFE_FXTAP9_9</li>
<li>RADP_DFE_FXTAP9_SGN_0</li>
<li>RADP_DFE_FXTAP9_SGN_1</li>
<li>RADP_LFEQ_FB_SEL_0</li>
<li>RADP_LFEQ_FB_SEL_1</li>
<li>RADP_LFEQ_FB_SEL_2</li>
<li>RADP_LFEQ_FB_SEL_3</li>
<li>RADP_LFEQ_FB_SEL_4</li>
<li>RADP_LFEQ_FB_SEL_5</li>
<li>RADP_LFEQ_FB_SEL_6</li>
<li>RADP_LFEQ_FB_SEL_7</li>
<li>RADP_ONETIME_DFE_0</li>
<li>RADP_ONETIME_DFE_1</li>
<li>RADP_VGA_SEL_0</li>
<li>RADP_VGA_SEL_1</li>
<li>RADP_VGA_SEL_2</li>
<li>RADP_VGA_SEL_3</li>
<li>RADP_VGA_SEL_4</li>
<li>RADP_VGA_SEL_5</li>
<li>RADP_VGA_SEL_6</li>
<li>RADP_VGA_SEL_7</li>
<li>RADP_VREF_SEL_0</li>
<li>RADP_VREF_SEL_10</li>
<li>RADP_VREF_SEL_11</li>
<li>RADP_VREF_SEL_12</li>
<li>RADP_VREF_SEL_13</li>
<li>RADP_VREF_SEL_14</li>
<li>RADP_VREF_SEL_15</li>
<li>RADP_VREF_SEL_16</li>
<li>RADP_VREF_SEL_17</li>
<li>RADP_VREF_SEL_18</li>
<li>RADP_VREF_SEL_19</li>
<li>RADP_VREF_SEL_1</li>
<li>RADP_VREF_SEL_20</li>
<li>RADP_VREF_SEL_21</li>
<li>RADP_VREF_SEL_22</li>
<li>RADP_VREF_SEL_23</li>
<li>RADP_VREF_SEL_24</li>
<li>RADP_VREF_SEL_25</li>
<li>RADP_VREF_SEL_26</li>
<li>RADP_VREF_SEL_27</li>
<li>RADP_VREF_SEL_28</li>
<li>RADP_VREF_SEL_29</li>
<li>RADP_VREF_SEL_2</li>
<li>RADP_VREF_SEL_30</li>
<li>RADP_VREF_SEL_31</li>
<li>RADP_VREF_SEL_3</li>
<li>RADP_VREF_SEL_4</li>
<li>RADP_VREF_SEL_5</li>
<li>RADP_VREF_SEL_6</li>
<li>RADP_VREF_SEL_7</li>
<li>RADP_VREF_SEL_8</li>
<li>RADP_VREF_SEL_9</li>
<li>RAM_BLOCK_READ_CLOCK_DUTY_CYCLE_DEPENDENCY</li>
<li>RAM_CTL</li>
<li>RAM_REGISTER_DUPLICATION</li>
<li>RAMSTYLE_ATTRIBUTE</li>
<li>RAM_USE_DCD</li>
<li>RANDOM</li>
<li>RANDOM_PIN</li>
<li>RANDOM_PIN_SEED</li>
<li>RAPID_RECOMPILE_ASSIGNMENT_CHECKING</li>
<li>RAPID_RECOMPILE_MODE</li>
<li>RAPID_RECOMPILE_SYNTHESIS_MODE</li>
<li>RAW_BINARY_FILE</li>
<li>RBCGEN_CRITICAL_WARNING_TO_ERROR</li>
<li>RDYNBUSY_RESERVED</li>
<li>READ</li>
<li>READ_OR_WRITE_IN_BYTE_ADDRESS</li>
<li>REALISTIC</li>
<li>RECOMPILE_QUESTION</li>
<li>RECONFIGURABLE</li>
<li>RECONFIGURABLE_REVISION</li>
<li>REFCLK_COUNTER_OUT</li>
<li>REFCLK_COUPLING_OCT</li>
<li>REGENERATE_IP_IF_HDL_QSYS_MISMATCH</li>
<li>REGISTER_LOCATION_TYPE</li>
<li>REGISTER_PACKING_ARMSTRONG</li>
<li>REGISTER_PACKING_TSUNAMI</li>
<li>REGISTERS_ONLY</li>
<li>RELATIVE_NEUTRON_FLUX</li>
<li>RELEASE_CLEARS_BEFORE_TRI</li>
<li>RELEASE_CLEARS_BEFORE_TRI_STATES</li>
<li>REMOTE</li>
<li>REMOVE_DUPLICATE_LOGIC</li>
<li>REMOVE_DUPLICATE_REGISTERS</li>
<li>REMOVE_FANOUT_FREE_REGISTERS</li>
<li>REMOVE</li>
<li>REMOVE_LOGIC_ON_UNCONNECTED_OUTPUTS</li>
<li>REMOVE_REDUNDANT_LOGIC_CELLS</li>
<li>REMOVE_REDUNDANT_USER_CELLS</li>
<li>REPLACE_CONFLICTING</li>
<li>REPORT_AS_DQS</li>
<li>REPORT_CONNECTIVITY_CHECKS</li>
<li>REPORT_DELAY</li>
<li>REPORT_IO_PATHS_SEPARATELY</li>
<li>REPORT_PARAMETER_SETTINGS</li>
<li>REPORT_PARAMETER_SETTINGS_PRO</li>
<li>REPORT_SOURCE_ASSIGNMENTS</li>
<li>REPORT_SOURCE_ASSIGNMENTS_PRO</li>
<li>REQUIRED_DUTY_CYCLE</li>
<li>REQUIRED_FMAX</li>
<li>RESERVE_ALL_UNUSED_PINS</li>
<li>RESERVE_ALL_UNUSED_PINS_NO_OUTPUT_GND</li>
<li>RESERVE_ALL_UNUSED_PINS_WEAK_PULLUP</li>
<li>RESERVE_ASDO_AFTER_CONFIGURATION</li>
<li>RESERVE_AVST_CLK_AFTER_CONFIGURATION</li>
<li>RESERVE_AVST_DATA15_THROUGH_DATA0_AFTER_CONFIGURATION</li>
<li>RESERVE_AVST_DATA31_THROUGH_DATA16_AFTER_CONFIGURATION</li>
<li>RESERVE_AVST_VALID_AFTER_CONFIGURATION</li>
<li>RESERVED1</li>
<li>RESERVED2</li>
<li>RESERVED3</li>
<li>RESERVED_ALL_UNUSED_PINS</li>
<li>RESERVED_ALL_UNUSED_PINS_NO_OUTPUT_GND</li>
<li>RESERVE_DATA0_AFTER_CONFIGURATION</li>
<li>RESERVE_DATA15_THROUGH_DATA8_AFTER_CONFIGURATION</li>
<li>RESERVE_DATA1_AFTER_CONFIGURATION</li>
<li>RESERVE_DATA31_THROUGH_DATA16_AFTER_CONFIGURATION</li>
<li>RESERVE_DATA7_THROUGH_DATA1_AFTER_CONFIGURATION</li>
<li>RESERVE_DATA7_THROUGH_DATA2_AFTER_CONFIGURATION</li>
<li>RESERVE_DATA7_THROUGH_DATA5_AFTER_CONFIGURATION</li>
<li>RESERVE_DCLK_AFTER_CONFIGURATION</li>
<li>RESERVED_PIN</li>
<li>RESERVE_FLASH_NCE_AFTER_CONFIGURATION</li>
<li>RESERVE_FLEXIBLE_CLOCK_NETWORK</li>
<li>RESERVE_NCEO_AFTER_CONFIGURATION</li>
<li>RESERVE_NWS_NRS_NCS_CS_AFTER_CONFIGURATION</li>
<li>RESERVE_OTHER_APF_PINS_AFTER_CONFIGURATION</li>
<li>RESERVE_OTHER_AP_PINS_AFTER_CONFIGURATION</li>
<li>RESERVE_PIN</li>
<li>RESERVE_PLACE_REGION</li>
<li>RESERVE_PR_PINS</li>
<li>RESERVE_RDYNBUSY_AFTER_CONFIGURATION</li>
<li>RESERVE_ROUTING_OUTPUT_FLEXIBILITY</li>
<li>RESERVE_SDO_AFTER_CONFIGURATION</li>
<li>RESET_CAT</li>
<li>RESET_RULE_ALL</li>
<li>RESET_RULE_COMB_ASYNCH_RESET</li>
<li>RESET_RULE_IMSYNCH_ASYNCH_DOMAIN</li>
<li>RESET_RULE_IMSYNCH_EXRESET</li>
<li>RESET_RULE_INPINS_RESETNET</li>
<li>RESET_RULE_REG_ASNYCH</li>
<li>RESET_RULE_UNSYNCH_ASYNCH_DOMAIN</li>
<li>RESET_RULE_UNSYNCH_EXRESET</li>
<li>RESOLVE_FILENAME</li>
<li>RESOURCE_ALLOCATION</li>
<li>RESYNTHESIS_EXTRA_DEBUGGING_INFORMATION</li>
<li>RESYNTHESIS_OPTIMIZATION_EFFORT</li>
<li>RESYNTHESIS_PHYSICAL_SYNTHESIS</li>
<li>RESYNTHESIS_RETIMING</li>
<li>RETAIN_COMB_LOGIC_OUTSIDE_CLOUD</li>
<li>RETIMER_ASSIGNMENT</li>
<li>RETIMER_FAST_FORWARD_ASSIGNMENT</li>
<li>REVISION_BASED_FILE_NAME</li>
<li>REVISION_CONTROL_DIR</li>
<li>REVISION_CONTROL_SYSTEM</li>
<li>REVISION_CONTROL_TCL</li>
<li>REVISION_CONTROL_TCL_SCRIPT</li>
<li>REVISION_TYPE</li>
<li>R_EXT0</li>
<li>RISE</li>
<li>ROOT</li>
<li>ROUTER_CLOCKING_TOPOLOGY_ANALYSIS</li>
<li>ROUTER_EFFORT_MULTIPLIER</li>
<li>ROUTE_REGION</li>
<li>ROUTER_LCELL_INSERTION_AND_LOGIC_DUPLICATION</li>
<li>ROUTER_REGISTER_DUPLICATION</li>
<li>ROUTER_TIMING_OPTIMIZATION_LEVEL</li>
<li>ROUTING_BACK_ANNOTATE</li>
<li>ROUTING_BACK_ANNOTATION_FILE</li>
<li>ROUTING_BACK_ANNOTATION_MODE</li>
<li>ROW_GLOBAL_SIGNAL</li>
<li>R_R1</li>
<li>R_R2</li>
<li>RR_HYBRID</li>
<li>RTERM_CODE0</li>
<li>RTERM_CODE10</li>
<li>RTERM_CODE11</li>
<li>RTERM_CODE12</li>
<li>RTERM_CODE13</li>
<li>RTERM_CODE14</li>
<li>RTERM_CODE15</li>
<li>RTERM_CODE1</li>
<li>RTERM_CODE2</li>
<li>RTERM_CODE3</li>
<li>RTERM_CODE4</li>
<li>RTERM_CODE5</li>
<li>RTERM_CODE6</li>
<li>RTERM_CODE7</li>
<li>RTERM_CODE8</li>
<li>RTERM_CODE9</li>
<li>RTLV_GROUP_COMB_LOGIC_IN_CLOUD</li>
<li>RTLV_GROUP_COMB_LOGIC_IN_CLOUD_TMV</li>
<li>RTLV_GROUP_RELATED_NODES</li>
<li>RTLV_GROUP_RELATED_NODES_TMV</li>
<li>RTLV_PRESERVED_HANGING_NODES</li>
<li>RTLV_REMOVE_FANOUT_FREE_REGISTERS</li>
<li>RTLV_RETAIN_COMB_LOGIC_OUTSIDE_CLOUD</li>
<li>RTLV_SIMPLIFIED_LOGIC</li>
<li>RUN_ALL_TIMING_ANALYSES</li>
<li>RUN_CLOCK_TAN</li>
<li>RUN_COMPARISON_ON_EVERY_COMPILE</li>
<li>RUN_DRC_DURING_COMPILATION</li>
<li>RUN_FITTER_IN_SIGNALPROBE_MODE</li>
<li>RUN_FULL_COMPILE_ON_DEVICE_CHANGE</li>
<li>RUN_P2P_TAN</li>
<li>RUN_TAN</li>
<li>RUN_TIMING_ANALYSES</li>
<li>RUN_TIMING_ANALYSES_ONLY_FOR_TIMING_ASSIGNMENTS</li>
<li>RX_DET_OFF</li>
<li>RX_DET_ON</li>
<li>RX_DET_PCIE_OUT</li>
<li>RX_DET_QPI_OUT</li>
<li>RZQ_GROUP</li>
<li>S0L9</li>
<li>SAFE_STATE_MACHINE</li>
<li>SAME_AS_MULTICYCLE</li>
<li>SAMPLE_AND_SUSTAIN</li>
<li>SAP_NAME</li>
<li>SATA1_I</li>
<li>SATA1_M</li>
<li>SATA1_X</li>
<li>SATA2_I</li>
<li>SATA2_M</li>
<li>SATA2_X</li>
<li>SAVE_DISK_SPACE</li>
<li>SAVE_INTERMEDIATE_FITTING_RESULTS</li>
<li>SAVE_MIGRATION_INFO_DURING_COMPILATION</li>
<li>SBI_FILE</li>
<li>SCE_PIN</li>
<li>SDC_ENTITY_FILE</li>
<li>SDC_ENTITY_HELPER_FILE</li>
<li>SDC_STATEMENT</li>
<li>SDC_UNIQUIFIED_STATEMENT</li>
<li>SDI_1485_HD</li>
<li>SDI_270_SD</li>
<li>SDI_2970_3G</li>
<li>SDLV_0</li>
<li>SDLV_10</li>
<li>SDLV_11</li>
<li>SDLV_12</li>
<li>SDLV_13</li>
<li>SDLV_14</li>
<li>SDLV_15</li>
<li>SDLV_1</li>
<li>SDLV_2</li>
<li>SDLV_3</li>
<li>SDLV_4</li>
<li>SDLV_5</li>
<li>SDLV_6</li>
<li>SDLV_7</li>
<li>SDLV_8</li>
<li>SDLV_9</li>
<li>SDO_PIN</li>
<li>SDO_RESERVED</li>
<li>SEARCH_PATH</li>
<li>SECTION_COLUMN</li>
<li>SECURITY_BIT</li>
<li>SELECTED_EDGE</li>
<li>SEQUENTIAL</li>
<li>SERIAL_BITSTREAM_FILE</li>
<li>SERIAL_LITE_III_16400</li>
<li>SERIAL_LITE_III_17400</li>
<li>SERIAL_VECTOR_FILE</li>
<li>SERIES_25_OHMS</li>
<li>SERIES_25_OHMS_WITH_CALIBRATION</li>
<li>SERIES_25_OHMS_WITHOUT_CALIBRATION</li>
<li>SERIES_50_OHMS</li>
<li>SERIES_50_OHMS_WITH_CALIBRATION</li>
<li>SERIES_50_OHMS_WITHOUT_CALIBRATION</li>
<li>SET_PULSE_WIDTH</li>
<li>SETUP_HOLD_DETECTION_INPUT_REGISTERS_BIDIR_PINS_DISABLED</li>
<li>SETUP_HOLD_DETECTION</li>
<li>SETUP_HOLD_TIME_VIOLATION_DETECTION</li>
<li>SETUP_RELATIONSHIP</li>
<li>SEU_FIT_REPORT</li>
<li>SFCU</li>
<li>SFI_S_6250</li>
<li>SFIS</li>
<li>SHIFT_REGISTER_RECOGNITION_ACLR_SIGNAL</li>
<li>SHOW_ALL_TAN_PANELS</li>
<li>SHOW_PARAMETER_SETTINGS_TABLES_IN_SYNTHESIS_REPORT</li>
<li>SHOW_REGISTRATION_MESSAGE</li>
<li>SHOW_TIMING_MODEL_CHANGE_MESSAGE</li>
<li>SIGNAL_ACTIVITY_FILE</li>
<li>SIGNAL_INTEGRITY_ASSIGNMENT</li>
<li>SIGNAL_INTEGRITY_WILDCARDS</li>
<li>SIGNALPROBE_ALLOW_OVERUSE</li>
<li>SIGNALPROBE_ASSIGNMENT</li>
<li>SIGNALPROBE_CLOCK</li>
<li>SIGNALPROBE_DURING_NORMAL_COMPILATION</li>
<li>SIGNAL_PROBE_ENABLE</li>
<li>SIGNALPROBE_ENABLE</li>
<li>SIGNALPROBE_NUM_REGISTERS</li>
<li>SIGNALRACE_CAT</li>
<li>SIGNALRACE_RULE_ASYNCHPIN_SYNCH_CLKPIN</li>
<li>SIGNALRACE_RULE_CLK_PORT_RACE</li>
<li>SIGNALRACE_RULE_RESET_RACE</li>
<li>SIGNALRACE_RULE_SECOND_SIGNAL_RACE</li>
<li>SIGNALRACE_RULE_TRISTATE</li>
<li>SIGNALTAP_ASSIGNMENTS</li>
<li>SIGNALTAP_LOGIC_ANALYZER_PROJECT_FILES</li>
<li>SIGNALTAP_LOGIC_ANALYZER_SETTINGS</li>
<li>SIGNOFF_ONLY</li>
<li>SIM_AUTO_USE_GLITCH_FILTERING</li>
<li>SIM_BEHAVIOR_SIMULATION</li>
<li>SIM_BUS_CHANNEL_GROUPING</li>
<li>SIM_CELL_DELAY_MODEL_TYPE</li>
<li>SIM_COMPARE_SIGNAL</li>
<li>SIM_COMPILE_HDL_FILES</li>
<li>SIM_DEFAULT_VECTOR_COMPARE_TOLERANCE</li>
<li>SIM_DELAY_MODEL_TYPE</li>
<li>SIM_ENABLE_SIMULATION_NETLIST_VIEWER</li>
<li>SIMGEN_ARBITRARY_BLACKBOX</li>
<li>SIMGEN_BLACKBOX_FILE</li>
<li>SIMGEN_PARAMETER</li>
<li>SIM_HDL_TOP_MODULE_NAME</li>
<li>SIM_INTERCONNECT_DELAY_MODEL_TYPE</li>
<li>SIM_NO_DELAYS</li>
<li>SIM_OUTPUT_POWERPLAY_VCD</li>
<li>SIM_OUTPUT_POWERPLAY_VCD_NAME</li>
<li>SIM_OUTPUT_SAF</li>
<li>SIM_OUTPUT_SAF_NAME</li>
<li>SIM_OVERWRITE_WAVEFORM_INPUTS</li>
<li>SIMPLE_18_BIT_MULTIPLIERS</li>
<li>SIMPLE_MULTIPLIERS</li>
<li>SIMPLE_MULT</li>
<li>SIMPLE_MULT_UPGRADE_WIDTH</li>
<li>SIM_POWERPLAY_VCD_END_TIME</li>
<li>SIM_POWERPLAY_VCD_START_TIME</li>
<li>SIM_PVT_TIMING_MODEL_TYPE</li>
<li>SIM_SET_NO_DELAYS_VIRTUAL_IO</li>
<li>SIM_SIGNAL_ACTIVITY_END_TIME</li>
<li>SIM_SIGNAL_ACTIVITY_START_TIME</li>
<li>SIM_SIGNAL_COMPARE_TOLERANCE</li>
<li>SIM_SIGNAL_TRIGGER_VECTOR_COMPARE</li>
<li>SIM_SIMULATION_DEBUGGER</li>
<li>SIM_TAP_REGISTER_D_Q_PORTS</li>
<li>SIMULATION_ASSIGNMENT</li>
<li>SIMULATION_BUS_CHANNEL_GROUPING</li>
<li>SIMULATION_CELL_DELAY_MODEL_TYPE</li>
<li>SIMULATION_COMPARE_SIGNAL</li>
<li>SIMULATION_COMPLETE_COVERAGE_REPORT_PANEL</li>
<li>SIMULATION_COVERAGE</li>
<li>SIMULATION_DEFAULT_VECTOR_COMPARE_TOLERANCE</li>
<li>SIMULATION_DELAY_MODEL_TYPE</li>
<li>SIMULATION_INCREMENTAL_TIME_INPUT</li>
<li>SIMULATION_INTERCONNECT_DELAY_MODEL_TYPE</li>
<li>SIMULATION_MISSING_0_VALUE_COVERAGE_REPORT_PANEL</li>
<li>SIMULATION_MISSING_1_VALUE_COVERAGE_REPORT_PANEL</li>
<li>SIMULATION_MODE</li>
<li>SIMULATION_NETLIST_VIEWER</li>
<li>SIMULATION_SIGNAL_COMPARE_TOLERANCE</li>
<li>SIMULATION_TYPE</li>
<li>SIMULATION_VDB_RESULT_FLUSH</li>
<li>SIMULATION_VECTOR_COMPARE_BEGIN_TIME</li>
<li>SIMULATION_VECTOR_COMPARE_END_TIME</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_0</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_1</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_DC</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_H</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_L</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_U</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_W</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_X</li>
<li>SIMULATION_VECTOR_COMPARE_RULE_FOR_Z</li>
<li>SIMULATION_WITH_AUTO_GLITCH_FILTERING</li>
<li>SIMULATION_WITH_GLITCH_FILTERING_IN_NORMAL_FLOW</li>
<li>SIMULATION_WITH_GLITCH_FILTERING</li>
<li>SIMULATION_WITH_GLITCH_FILTERING_WHEN_GENERATING_SAF</li>
<li>SIMULATOR_ACTION_POINTS</li>
<li>SIMULATOR_GENERATE_POWERPLAY_VCD_FILE</li>
<li>SIMULATOR_GENERATE_SIGNAL_ACTIVITY_FILE</li>
<li>SIMULATOR_POWERPLAY_VCD_FILE_END_TIME</li>
<li>SIMULATOR_POWERPLAY_VCD_FILE_OUTPUT_DESTINATION</li>
<li>SIMULATOR_POWERPLAY_VCD_FILE_START_TIME</li>
<li>SIMULATOR_PVT_TIMING_MODEL_TYPE</li>
<li>SIMULATOR_SETTINGS</li>
<li>SIMULATOR_SETTINGS_LIST</li>
<li>SIMULATOR_SIGNAL_ACTIVITY_FILE_END_TIME</li>
<li>SIMULATOR_SIGNAL_ACTIVITY_FILE_OUTPUT_DESTINATION</li>
<li>SIMULATOR_SIGNAL_ACTIVITY_FILE_START_TIME</li>
<li>SIMULATOR_TCL_SCRIPT_FILE</li>
<li>SIM_USE_FAST_TIMING_MODEL</li>
<li>SIM_USE_GLITCH_FILTERING</li>
<li>SIM_USE_GLITCH_FILTERING_WHEN_GENERATING_SAF</li>
<li>SIM_USE_PDB_NETLIST</li>
<li>SIM_VDB_RESULT_FLUSH</li>
<li>SIM_VECTOR_COMPARE_BEGIN_TIME</li>
<li>SIM_VECTOR_COMPARED_CLOCK_DUTY_CYCLE</li>
<li>SIM_VECTOR_COMPARED_CLOCK_OFFSET</li>
<li>SIM_VECTOR_COMPARED_CLOCK_PERIOD</li>
<li>SIM_VECTOR_COMPARE_END_TIME</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_0</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_1</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_DC</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_H</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_L</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_U</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_W</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_X</li>
<li>SIM_VECTOR_COMPARE_RULE_FOR_Z</li>
<li>SIM_VECTOR_COMPARE_TRIGGER_CLOCK</li>
<li>SIM_VECTOR_COMPARE_TRIGGER_MODE</li>
<li>SIM_VECTOR_COMPARE_TRIGGER_SIGNAL</li>
<li>SIM_VECTOR_OUTPUT_FILE</li>
<li>SIM_VECTOR_OUTPUT_FORMAT</li>
<li>SINGLE_COMP_IMAGE</li>
<li>SINGLE_COMP_IMAGE_WITH_ERAM</li>
<li>SINGLE_IMAGE</li>
<li>SINGLE_IMAGE_WITH_ERAM</li>
<li>SINGLE_PIN</li>
<li>SIP_FILE</li>
<li>SKIP_ATOM_SWEEPER</li>
<li>SKIP_CONFLICTING</li>
<li>SKIP_CRC_CHECK_IN_HC</li>
<li>SKIP_REGENERATING_IP_IF_HDL_MODIFIED</li>
<li>SLD_BIDIR_PIN_CONNECT_FROM_PORT</li>
<li>SLD_FABRIC_PARTITION</li>
<li>SLD_FILE</li>
<li>SLD_INCR_NODE_CREATOR_ID</li>
<li>SLD_INCR_NODE_ENTITY_NAME</li>
<li>SLD_INCR_NODE_PARAMETER_ASSIGNMENT</li>
<li>SLD_INCR_NODE_SOURCE_FILE</li>
<li>SLD_INFO</li>
<li>SLD_NODE_CONNECT_FROM_PORT</li>
<li>SLD_NODE_CONNECT_TO_PORT</li>
<li>SLD_NODE_CREATOR_ID</li>
<li>SLD_NODE_ENTITY_NAME</li>
<li>SLD_NODE_PARAMETER_ASSIGNMENT</li>
<li>SLD_NODE_SOURCE_FILE</li>
<li>SLD_PARAMETER_ASSIGNMENT</li>
<li>SLD_PARAMETER_COMPATIBILITY_STRING</li>
<li>SLD_PIN_CONNECT_FROM_PORT</li>
<li>SLD_PIN_CONNECT_TO_PORT</li>
<li>SLD_PRE_SYN_COMPATIBILITY_STRING</li>
<li>SLEW_R0</li>
<li>SLEW_R1</li>
<li>SLEW_R2</li>
<li>SLEW_R3</li>
<li>SLEW_R4</li>
<li>SLEW_R5</li>
<li>SLEW_R6</li>
<li>SLEW_R7</li>
<li>SLOW_POR_DELAY</li>
<li>SLOW_SLEW_RATE</li>
<li>SMALL</li>
<li>SMART_COMPILE_IGNORES_TDC_FOR_STRATIX_PLL_CHANGES</li>
<li>SMART_RECOMPILE</li>
<li>SMF_FILE</li>
<li>SMP_PROCESS_TYPE</li>
<li>SOFTWARE_ACTION_POINTS</li>
<li>SOFTWARE_LIBRARY_FILE</li>
<li>SOFTWARE_SETTINGS</li>
<li>SOFTWARE_SETTINGS_LIST</li>
<li>SONET</li>
<li>SONET_OC12_622</li>
<li>SONET_OC192_9953</li>
<li>SONET_OC3_155</li>
<li>SONET_OC48_2488</li>
<li>SOPC_BUILDER_SIGNATURE_ID</li>
<li>SOPC_FILE</li>
<li>SOPCINFO_FILE</li>
<li>SOURCES_PER_DESTINATION_INCLUDE_COUNT</li>
<li>SOURCE_SYNCHRONOUS</li>
<li>SOURCE_TCL_SCRIPT_FILE</li>
<li>SOURCE_TCL_SCRIPT</li>
<li>SPARSE_AUTO</li>
<li>SPARSE</li>
<li>SPAUI_6250</li>
<li>SPD_FILE</li>
<li>SPECTRAQ_PHYSICAL_SYNTHESIS</li>
<li>SPEED_DISK_USAGE_TRADEOFF</li>
<li>SPEED</li>
<li>SRECORDS_FILE</li>
<li>SRIO_1250_LR</li>
<li>SRIO_1250_SR</li>
<li>SRIO_2500_LR</li>
<li>SRIO_2500_SR</li>
<li>SRIO_3125_LR</li>
<li>SRIO_3125_SR</li>
<li>SRIO_5000_LR</li>
<li>SRIO_5000_MR</li>
<li>SRIO_5000_SR</li>
<li>SRIO_6250_LR</li>
<li>SRIO_6250_MR</li>
<li>SRIO_6250_SR</li>
<li>SRIO</li>
<li>STA_IGNORED_EMBEDDED_SDC_STATEMENT</li>
<li>STA_MODE</li>
<li>STANDARD_DELAY_FORMAT_OUTPUT_FILE</li>
<li>STANDARD_FIT</li>
<li>STANDARD_PARTITION</li>
<li>STATE_MACHINE_PROCESSING</li>
<li>STD_ONLY</li>
<li>STG1_GAIN7</li>
<li>STG2_GAIN7</li>
<li>STG3_GAIN7</li>
<li>STG4_GAIN7</li>
<li>STOP</li>
<li>STP_FILE</li>
<li>STP_INCREMENTAL_SOURCE</li>
<li>STP_SIGNAL_PROBE_SOURCE</li>
<li>STP_SIGNALPROBE_SOURCE</li>
<li>STP_VIRTUAL_PIN_CLK_SOURCE</li>
<li>STP_VIRTUAL_PIN</li>
<li>STRATIX_CARRY_CHAIN_LENGTH</li>
<li>STRATIX_CONFIG_DEVICE_JTAG_USER_CODE</li>
<li>STRATIX_CONFIGURATION_DEVICE</li>
<li>STRATIX_CONFIGURATION_SCHEME</li>
<li>STRATIX_CRC_ERROR_CHECKING</li>
<li>STRATIX_DECREASE_INPUT_DELAY_TO_INTERNAL_CELLS</li>
<li>STRATIX_DEVICE_IO_STANDARD</li>
<li>STRATIX_FAST_PLL_INCREASE_LOCK_WINDOW</li>
<li>STRATIXGX_ALLOW_CLOCK_FANOUT_WITH_ANALOG_RESET</li>
<li>STRATIXGX_ALLOW_DEDICATED_CLOCK_FANOUT_WITH_ANALOG_RESET</li>
<li>STRATIXGX_ALLOW_GIGE_IN_DOUBLE_DATA_WIDTH_MODE</li>
<li>STRATIXGX_ALLOW_GIGE_UNDER_FULL_DATARATE_RANGE</li>
<li>STRATIXGX_ALLOW_GIGE_WITH_CORECLK_SELECTED_AT_RATE_MATCHER</li>
<li>STRATIXGX_ALLOW_GIGE_WITHOUT_8B10B</li>
<li>STRATIXGX_ALLOW_GIGE_WITH_RX_CORECLK_FROM_NON_TXPLL_SOURCE</li>
<li>STRATIXGX_ALLOW_PARALLEL_LOOPBACK_IN_DOUBLE_DATA_WIDTH_MODE</li>
<li>STRATIXGX_ALLOW_POST8B10B_LOOPBACK</li>
<li>STRATIXGX_ALLOW_REVERSE_PARALLEL_LOOPBACK</li>
<li>STRATIXGX_ALLOW_RX_CORECLK_FROM_NON_RX_CLKOUT_SOURCE_IN_DOUBLE_DATA_WIDTH_MODE</li>
<li>STRATIXGX_ALLOW_USE_OF_GXB_COUPLED_IOS</li>
<li>STRATIXGX_ALLOW_XAUI_IN_SINGLE_DATA_WIDTH_MODE</li>
<li>STRATIXGX_ALLOW_XAUI_WITH_CORECLK_SELECTED_AT_RATE_MATCHER</li>
<li>STRATIXGX_ALLOW_XAUI_WITH_RX_CORECLK_FROM_NON_TXPLL_SOURCE</li>
<li>STRATIXGX_BYPASS_REMAPPING_OF_FORCE_SIGNAL_DETECT_SIGNAL_THRESHOLD_SELECT</li>
<li>STRATIXGX_OCT_VALUE</li>
<li>STRATIXGX_TERMINATION_VALUE</li>
<li>STRATIXII_ALLOW_DUAL_PORT_DUAL_CLOCK_MRAM_USAGE</li>
<li>STRATIXII_CARRY_CHAIN_LENGTH</li>
<li>STRATIX_II_CONFIGURATION_DEVICE</li>
<li>STRATIXII_CONFIGURATION_DEVICE</li>
<li>STRATIX_II_CONFIGURATION_SCHEME</li>
<li>STRATIXII_CONFIGURATION_SCHEME</li>
<li>STRATIXII_EP2S60ES_ALLOW_MRAM_USAGE</li>
<li>STRATIXIIGX_OCT_VALUE</li>
<li>STRATIXIIGX_TERMINATION_VALUE</li>
<li>STRATIXIII_CONFIGURATION_SCHEME</li>
<li>STRATIXIII_LUTAB_SLOWDOWN</li>
<li>STRATIXIII_MRAM_COMPATIBILITY</li>
<li>STRATIXIII_OUTPUT_DUTY_CYCLE_DELAY</li>
<li>STRATIXIII_UPDATE_MODE</li>
<li>STRATIXII_MRAM_COMPATIBILITY</li>
<li>STRATIXII_OPTIMIZATION_TECHNIQUE</li>
<li>STRATIXII_OUTPUT_DUTY_CYCLE_CONTROL</li>
<li>STRATIXII_SILICON_VERSION</li>
<li>STRATIXII_TERMINATION</li>
<li>STRATIXIV_CONFIGURATION_SCHEME</li>
<li>STRATIX_JTAG_USER_CODE</li>
<li>STRATIX_OPTIMIZATION_TECHNIQUE</li>
<li>STRATIX_TECHNOLOGY_MAPPER</li>
<li>STRATIX_UPDATE_MODE</li>
<li>STRATIXV_CONFIGURATION_SCHEME</li>
<li>STRICT_POST_FIT</li>
<li>STRICT_RAM_RECOGNITION</li>
<li>STRIPE_TO_PLD_BRIDGE_EPXA4_10</li>
<li>STRIPE_TO_PLD_INTERRUPTS_EPXA4_10</li>
<li>SUBCLIQUE_OF</li>
<li>SUPPRESS_DA_RULE_INTERNAL</li>
<li>SUPPRESS_REG_MINIMIZATION_MSG</li>
<li>SYMBOL_FILE</li>
<li>SYM_FILE</li>
<li>SYNCHRONIZATION_REGISTER_CHAIN_LENGTH</li>
<li>SYNCHRONIZER_IDENTIFICATION</li>
<li>SYNCHRONIZER_TOGGLE_RATE</li>
<li>SYNCHRONOUS_GROUP</li>
<li>SYNTH_CHECK_PORT_CONNECTIONS</li>
<li>SYNTH_CLOCK_MUX_PROTECTION</li>
<li>SYNTH_CRITICAL_CLOCK</li>
<li>SYNTH_CRITICAL_CLOCK_TO_OUTPUT</li>
<li>SYNTH_CRITICAL_ENABLE</li>
<li>SYNTH_CRITICAL_INPUT_TO_CLOCK</li>
<li>SYNTH_CRITICAL_PIN</li>
<li>SYNTHESIS_FITTING_SETTINGS</li>
<li>SYNTHESIS_KEEP_SYNCH_CLEAR_PRESET_BEHAVIOR_IN_UNMAPPER</li>
<li>SYNTHESIS_ON_ATOMS</li>
<li>SYNTHESIS_ONLY</li>
<li>SYNTHESIS_ONLY_QIP</li>
<li>SYNTHESIS_S10_MIGRATION_CHECKS</li>
<li>SYNTHESIS_SEED</li>
<li>SYNTHESIS_WILDCARDS</li>
<li>SYNTH_GATED_CLOCK_CONVERSION</li>
<li>SYNTH_MESSAGE_LEVEL</li>
<li>SYNTH_PROTECT_SDC_CONSTRAINT</li>
<li>SYNTH_REPORT_SOURCE_ASSIGNMENTS</li>
<li>SYNTH_RESOURCE_AWARE_INFERENCE_FOR_BLOCK_RAM</li>
<li>SYNTH_RPT_SHOW_PARAMS_PER_ENTITY_INSTANCE</li>
<li>SYNTH_TIMING_DRIVEN_BALANCED_MAPPING</li>
<li>SYNTH_TIMING_DRIVEN_REGISTER_DUPLICATION</li>
<li>SYNTH_TIMING_DRIVEN_SYNTHESIS</li>
<li>SYSTEMVERILOG_2005</li>
<li>SYSTEMVERILOG_FILE</li>
<li>T10_DELAY</li>
<li>T10_FINE_DELAY</li>
<li>T10_OCT_DELAY</li>
<li>T10_OE_DELAY</li>
<li>T10_OE_FINE_DELAY</li>
<li>T11_0_DELAY</li>
<li>T11_1_DELAY</li>
<li>T11_DELAY</li>
<li>T11_FINE_DELAY</li>
<li>T1_DELAY</li>
<li>T1_FINE_DELAY</li>
<li>T2_DELAY</li>
<li>T3_DELAY</li>
<li>T4_DELAY</li>
<li>T7_DELAY</li>
<li>T7_FINE_DELAY</li>
<li>T8_DELAY0</li>
<li>T8_DELAY1</li>
<li>T9_DELAY</li>
<li>T9_FINE_DELAY</li>
<li>T9_OCT_DELAY</li>
<li>T9_OE_DELAY</li>
<li>TAN_SCRIPT_FILE</li>
<li>TAO_FILE</li>
<li>TAO_FILE_NAME</li>
<li>TBFF_PULSE_WIDTH</li>
<li>TCL_ENTITY_FILE</li>
<li>TCL_FILE</li>
<li>TDC_AGGRESSIVE_HOLD_CLOSURE_EFFORT</li>
<li>TDC_CCPP_TRADEOFF_TOLERANCE</li>
<li>TDO_DUMP_FILE</li>
<li>TECH_MAPPER_APEX20K</li>
<li>TECH_MAPPER_DALI</li>
<li>TECH_MAPPER_FLEX10K</li>
<li>TECH_MAPPER_FLEX6K</li>
<li>TECH_MAPPER</li>
<li>TECH_MAPPER_MAX7000</li>
<li>TECH_MAPPER_YEAGER</li>
<li>TECHNOLOGY_MAPPER_DALI</li>
<li>TECHNOLOGY_MAPPER_FLEX6K</li>
<li>TEMPLATE_FILE</li>
<li>TENG_1588</li>
<li>TENG_BASER</li>
<li>TENG_KR_10312</li>
<li>TENG_SDI</li>
<li>TERMINATION_CONTROL_BLOCK</li>
<li>TEST_BENCH_MODE</li>
<li>TESTING_BOOL</li>
<li>TESTING_ENUM</li>
<li>TESTING_FILE</li>
<li>TESTING_INT_GLOBAL_DISALLOWED_IN_QIP</li>
<li>TESTING_INT</li>
<li>TESTING_SINGLE_ABSOLUTE_NODE_ENTITY_INT</li>
<li>TESTING_SINGLE_BOOL</li>
<li>TESTING_SINGLE_ENUM</li>
<li>TESTING_SINGLE_INT</li>
<li>TESTING_SINGLE_RELATIVE_BOOL</li>
<li>TESTING_SINGLE_RELATIVE_ENTITY_INT</li>
<li>TESTING_SINGLE_RELATIVE_NODE_ENTITY_BOOL</li>
<li>TESTING_SINGLE_RELATIVE_NODE_ENTITY_INT</li>
<li>TESTING_SINGLE_RELATIVE_NODE_INT</li>
<li>TESTING_SINGLE_STRING</li>
<li>TESTING_STRING</li>
<li>TEXT_FORMAT_REPORT_FILE</li>
<li>THIRD_PARTY_EDA_TOOLS</li>
<li>THREE</li>
<li>TH_REQUIREMENT</li>
<li>THR_THREAD_MAIN_ID</li>
<li>TIMEGROUP_EXCEPTION</li>
<li>TIMEGROUP_MEMBER</li>
<li>TIMEQUEST2</li>
<li>TIMEQUEST_CCPP_TRADEOFF_TOLERANCE</li>
<li>TIMEQUEST_DO_CCPP_REMOVAL</li>
<li>TIMEQUEST_DO_REPORT_TIMING</li>
<li>TIMEQUEST_MULTICORNER_ANALYSIS</li>
<li>TIMEQUEST_REPORT_NUM_WORST_CASE_TIMING_PATHS</li>
<li>TIMEQUEST_REPORT_SCRIPT_INCLUDE_DEFAULT_ANALYSIS</li>
<li>TIMEQUEST_REPORT_SCRIPT</li>
<li>TIMEQUEST_REPORT_WORST_CASE_TIMING_PATHS</li>
<li>TIMEQUEST_SPECTRA_Q</li>
<li>TIMING_ANALYSIS_OUTPUT_FILE</li>
<li>TIMING_ASSIGNMENT</li>
<li>TIMING_CAT</li>
<li>TIMING_DERATING_FILE</li>
<li>TIMING_RULE_COIN_CLKEDGE</li>
<li>TIMING_RULE_HIGH_FANOUTS</li>
<li>TIMING_RULE_SHIFT_REG</li>
<li>TIMING_USING_FAST_TIMING_MODEL</li>
<li>TOOLSET</li>
<li>TOP_LEVEL_ENTITY</li>
<li>TOP_PARTITION_PIN</li>
<li>TRANSPORT</li>
<li>TREAT_BIDIR_AS_OUTPUT</li>
<li>TRI_CONVERTED_FROM_DIRECTIONAL_BUFFER</li>
<li>TRIGGER_EQUATION</li>
<li>TRIGGER_VECTOR_COMPARE_ON_SIGNAL</li>
<li>TRISTATE1</li>
<li>TRISTATED1</li>
<li>TRI_STATE</li>
<li>TRISTATE_OFF</li>
<li>TRISTATE_ON</li>
<li>TRI_STATE_SPI_PINS</li>
<li>TRUE</li>
<li>TRUE_WYSIWYG_FLOW</li>
<li>TSUNAMI_OPTIMIZATION_TECHNIQUE</li>
<li>TSU_REQUIREMENT</li>
<li>TXPMA_SLEW_RATE</li>
<li>TYPICAL</li>
<li>UC_DCD_CAL_OFF</li>
<li>UC_DCD_CAL_ON</li>
<li>UC_RO_CAL_OFF</li>
<li>UC_RO_CAL_ON</li>
<li>UC_RX_DFE_CAL_OFF</li>
<li>UC_RX_DFE_CAL_ON</li>
<li>UC_SKEW_CAL_OFF</li>
<li>UC_SKEW_CAL_ON</li>
<li>UC_TX_VOD_CAL_CONT_OFF</li>
<li>UC_TX_VOD_CAL_CONT_ON</li>
<li>UC_TX_VOD_CAL_OFF</li>
<li>UC_TX_VOD_CAL_ON</li>
<li>UI_DEFAULT_ASSEMBLER_SETTING</li>
<li>UI_DEFAULT_COMP_PROCESS_SETTING</li>
<li>UI_DEFAULT_EDA_NATIVELINK_SETTING</li>
<li>UI_DEFAULT_EDA_SIMULATION_SETTING</li>
<li>UI_DEFAULT_FITTER_SETTING</li>
<li>UI_DEFAULT_HYPERFLEX_SETTING</li>
<li>UI_DEFAULT_OPTIMIZATION_SETTING</li>
<li>UI_DEFAULT_SIMULATOR_SETTING</li>
<li>UI_DEFAULT_SYNTHESIS_SETTING</li>
<li>UI_DEFAULT_TIMING_SETTING</li>
<li>UNFORCE_MERGE_PLL</li>
<li>UNFORCE_MERGE_PLL_OUTPUT_COUNTER</li>
<li>UNIPHY_SEQUENCER_DQS_CONFIG_ENABLE</li>
<li>UNIPHY_TEMP_VER_CODE</li>
<li>UNNAMED_POOL</li>
<li>UNSECURED</li>
<li>UNUSED_RXCLK_BTI_MITIGATION</li>
<li>UNUSED_RXTXCLK_BTI_MITIGATION</li>
<li>UNUSED_TSD_PINS_GND</li>
<li>UPCORE_TRANSACTION_MODEL_FILE</li>
<li>UPDATE_ASE_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_ASSIGNMENT_GROUP_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_CHIP_EDITOR_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_CONFLICTING</li>
<li>UPDATE_ECMC_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_FLOORPLAN_EDITOR_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_MODE_INTERNAL_FLASH</li>
<li>UPDATE_MODE_TITAN</li>
<li>UPDATE_MODE_YEAGER</li>
<li>UPDATE_PAT_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_PIN_PLANNER_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_SIM_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_SSN_FEATURE_TIME_WHEN_CHANGED</li>
<li>UPDATE_TAN_FEATURE_TIME_WHEN_CHANGED</li>
<li>USE_ADVANCED_DETAILED_LAB_LEGALITY</li>
<li>USE_AS_PROGRAMMING_PIN</li>
<li>USE_AS_REGULAR_IO</li>
<li>USE_CAP</li>
<li>USE_CHECKERED_PATTERN_AS_UNINITIALIZED_RAM_CONTENT</li>
<li>USE_CHECKSUM_AS_USERCODE</li>
<li>USE_CHECKSUM_AS_USERCODE_MAX7000</li>
<li>USE_CLK_FOR_VIRTUAL_PIN</li>
<li>USE_CLOCK</li>
<li>USE_CLOCK_SETTINGS</li>
<li>USE_COMPILER_SETTINGS</li>
<li>USE_CONF_DONE</li>
<li>USE_CONFIGURATION_DEVICE</li>
<li>USE_CONFIGURATION_DEVICE_NAME_APEX20K</li>
<li>USE_CONFIGURATION_DEVICE_NAME_ARMSTRONG</li>
<li>USE_CONFIGURATION_DEVICE_NAME_CUDA</li>
<li>USE_CONFIGURATION_DEVICE_NAME_CYCLONE</li>
<li>USE_CONFIGURATION_DEVICE_NAME_DALI</li>
<li>USE_CONFIGURATION_DEVICE_NAME_EXCALIBUR</li>
<li>USE_CONFIGURATION_DEVICE_NAME_FLEX10K</li>
<li>USE_CONFIGURATION_DEVICE_NAME_FLEX6K</li>
<li>USE_CONFIGURATION_DEVICE_NAME</li>
<li>USE_CONFIGURATION_DEVICE_NAME_YEAGER</li>
<li>USE_CONFIGURATION_DEVICE_OPTIONS</li>
<li>USE_C_PREPROCESSOR_FOR_GNU_ASM_FILES</li>
<li>USE_CVP_CONFDONE</li>
<li>USE_DLL_FREQUENCY_FOR_DQS_DELAY_CHAIN</li>
<li>USE_DMF</li>
<li>USE_GENERATED_PHYSICAL_CONSTRAINTS</li>
<li>USE_GLOBAL_SETTINGS</li>
<li>USE_HIGH_SPEED_ADDER</li>
<li>USE_INIT_DONE</li>
<li>USE_LOCAL_APEX20K</li>
<li>USE_LOCAL_FLEX6K</li>
<li>USE_LOCAL</li>
<li>USE_LOGIC_ANALYZER_INTERFACE_FILE</li>
<li>USE_LOGICLOCK_CONSTRAINTS_IN_BALANCING</li>
<li>USE_LPM_FOR_AHDL_OPERATORS</li>
<li>USE_MULTITAP_FILE</li>
<li>USE_NEW_TEXT_REPORT_TABLE_FORMAT</li>
<li>USE_PWRMGT_ALERT</li>
<li>USE_PWRMGT_SCL</li>
<li>USE_PWRMGT_SDA</li>
<li>USER_CUSTOM</li>
<li>USER_ENABLED</li>
<li>USER_ENCODED</li>
<li>USER_FILES_NEW_EXTRACTOR</li>
<li>USER_JTAG_CODE_APEX20K</li>
<li>USER_JTAG_CODE_DALI</li>
<li>USER_JTAG_CODE_FLEX10K</li>
<li>USER_JTAG_CODE_FLEX6K</li>
<li>USER_JTAG_CODE_MAX7000</li>
<li>USER_JTAG_CODE_MAX7000S</li>
<li>USER_JTAG_CODE_YEAGER</li>
<li>USER_LIBRARIES</li>
<li>USER_MESSAGE</li>
<li>USER_START_UP_CLOCK</li>
<li>USER_VALUE</li>
<li>USE_SEU_ERROR</li>
<li>USE_SIGNALTAP_FILE</li>
<li>USE_TCL_PROC</li>
<li>USE_TIMEQUEST_TIMING_ANALYZER</li>
<li>USE_TIMING_DRIVEN_COMPILATION</li>
<li>USE_VPACK</li>
<li>USE_VPR</li>
<li>USE_VQM_INSTEAD_OF_SOURCE</li>
<li>V0P00</li>
<li>V0P58</li>
<li>V0P64</li>
<li>V0P67</li>
<li>V0P70</li>
<li>V0P75</li>
<li>V0P81</li>
<li>V0P86</li>
<li>V0P87</li>
<li>V0P93</li>
<li>V0P96</li>
<li>V1P00</li>
<li>V1P04</li>
<li>V1P13</li>
<li>V1P22</li>
<li>V1P30</li>
<li>V1P39</li>
<li>VALUE_IS_NODE</li>
<li>VARIABLE_VALUE_CANNOT_BE_CHANGED</li>
<li>VCCAUX_SHARED_USER_VOLTAGE</li>
<li>VCCELA_0P85V</li>
<li>VCCELA_0P9V</li>
<li>VCCELA_1P0V</li>
<li>VCCELA_1P1V</li>
<li>VCCER</li>
<li>VCCIO_45</li>
<li>VCCIO_50</li>
<li>VCCIO_55</li>
<li>VCCIO_65</li>
<li>VCCIO_70</li>
<li>VCCIO_75</li>
<li>VCCIO_CURRENT_1PT8V</li>
<li>VCCIO_CURRENT_2PT5V</li>
<li>VCCIO_CURRENT_GTL</li>
<li>VCCIO_CURRENT_GTL_PLUS</li>
<li>VCCIO_CURRENT_LVCMOS</li>
<li>VCCIO_CURRENT_LVTTL</li>
<li>VCCIO_CURRENT_PCI</li>
<li>VCCIO_CURRENT_SSTL2_CLASS1</li>
<li>VCCIO_CURRENT_SSTL2_CLASS2</li>
<li>VCCIO_CURRENT_SSTL3_CLASS1</li>
<li>VCCIO_CURRENT_SSTL3_CLASS2</li>
<li>VCCIO_IOBANK1_MAX7000B</li>
<li>VCCIO_IOBANK2_MAX7000B</li>
<li>VCCIOREF_HPS_USER_VOLTAGE</li>
<li>VCCPD_VOLTAGE</li>
<li>VCCRSTCLK_HPS_USER_VOLTAGE</li>
<li>VCC_SETTING0</li>
<li>VCC_SETTING1</li>
<li>VCC_SETTING2</li>
<li>VCC_SETTING3</li>
<li>VCD_FILE</li>
<li>VCM_CURRENT_1</li>
<li>VCM_CURRENT_2</li>
<li>VCM_CURRENT_3</li>
<li>VCM_CURRENT_DEFAULT</li>
<li>VCM_SETTING_00</li>
<li>VCM_SETTING_01</li>
<li>VCM_SETTING_02</li>
<li>VCM_SETTING_03</li>
<li>VCM_SETTING_04</li>
<li>VCM_SETTING_05</li>
<li>VCM_SETTING_06</li>
<li>VCM_SETTING_07</li>
<li>VCM_SETTING_08</li>
<li>VCM_SETTING_09</li>
<li>VCM_SETTING_10</li>
<li>VCM_SETTING_11</li>
<li>VCM_SETTING_12</li>
<li>VCM_SETTING_13</li>
<li>VCM_SETTING_14</li>
<li>VCM_SETTING_15</li>
<li>VECTOR_COMPARE_TRIGGER_MODE</li>
<li>VECTOR_INPUT_SOURCE</li>
<li>VECTOR_OUTPUT_DESTINATION</li>
<li>VECTOR_SOURCE_FILE</li>
<li>VECTOR_TABLE_OUTPUT_FILE</li>
<li>VECTOR_TEXT_FILE</li>
<li>VER_COMPATIBLE_DB_DIR</li>
<li>VERILOG_1995</li>
<li>VERILOG_2001</li>
<li>VERILOG_CONSTANT_LOOP_LIMIT</li>
<li>VERILOG_CU_MODE</li>
<li>VERILOG_INCLUDE_FILE</li>
<li>VERILOG_INPUT_VERSION</li>
<li>VERILOG_LMF_FILE</li>
<li>VERILOG_MACRO</li>
<li>VERILOG_NON_CONSTANT_LOOP_LIMIT</li>
<li>VERILOG_OUTPUT_FILE</li>
<li>VERILOG_SHOW_LMF_MAPPING_MESSAGES</li>
<li>VERILOG_SHOW_LMF_MAPPING_MSGS</li>
<li>VERILOG_TEST_BENCH_FILE</li>
<li>VERILOG_VH_FILE</li>
<li>VHDL_1987</li>
<li>VHDL_1993</li>
<li>VHDL_2008</li>
<li>VHDL87</li>
<li>VHDL93</li>
<li>VHDL_FILE</li>
<li>VHDL_INPUT_LIBRARY</li>
<li>VHDL_INPUT_VERSION</li>
<li>VHDL_LMF_FILE</li>
<li>VHDL_OUTPUT_FILE</li>
<li>VHDL_SHOW_LMF_MAPPING_MESSAGES</li>
<li>VHDL_SHOW_LMF_MAPPING_MSGS</li>
<li>VHDL_TEST_BENCH_FILE</li>
<li>VID_OPERATION_MODE</li>
<li>VIRTUAL_CLOCK_REFERENCE</li>
<li>VIRTUAL_IO_DRIVES_CLOCK_PORT</li>
<li>VOLT_0MV</li>
<li>VOLT_0P35V</li>
<li>VOLT_0P50V</li>
<li>VOLT_0P55V</li>
<li>VOLT_0P60V</li>
<li>VOLT_0P65V</li>
<li>VOLT_0P70V</li>
<li>VOLT_0P75V</li>
<li>VOLT_0P80V</li>
<li>VPACK_ONLY</li>
<li>VQM_FILE</li>
<li>VREF_VOLT_0</li>
<li>VREF_VOLT_0P5</li>
<li>VREF_VOLT_0P75</li>
<li>VREF_VOLT_1P0</li>
<li>VTT_0P35V</li>
<li>VTT_0P50V</li>
<li>VTT_0P55V</li>
<li>VTT_0P60V</li>
<li>VTT_0P65V</li>
<li>VTT_0P70V</li>
<li>VTT_0P75V</li>
<li>VTT_0P80V</li>
<li>VTT_PDN_STRONG</li>
<li>VTT_PDN_WEAK</li>
<li>VTT_PUP_STRONG</li>
<li>VTT_PUP_WEAK</li>
<li>VTT_VCMOFF0</li>
<li>VTT_VCMOFF1</li>
<li>VTT_VCMOFF2</li>
<li>VTT_VCMOFF3</li>
<li>VTT_VCMOFF4</li>
<li>VTT_VCMOFF5</li>
<li>VTT_VCMOFF6</li>
<li>VTT_VCMOFF7</li>
<li>WAIT_1_MS</li>
<li>WAIT_2_MS</li>
<li>WAIT_4_MS</li>
<li>WAIT_50_MS</li>
<li>WAIT_8_MS</li>
<li>WEAK_PULL_UP</li>
<li>WEAK_PULL_UP_RESISTOR</li>
<li>WHEN_TSU_AND_TPD_CONSTRAINTS_PERMIT</li>
<li>WIDTH_18_BIT_MULTIPLIERS</li>
<li>WIDTH_3</li>
<li>WRITE</li>
<li>X1_PLL_FREQUENCY</li>
<li>XACTO_INCREMENTAL_COMPILE_ASSIGNMENT</li>
<li>XACTO_INCREMENTAL_COMPILE_FILE</li>
<li>XACTO_REGION</li>
<li>XACTO_VQM_FILES</li>
<li>XAUI_3125</li>
<li>XAUI</li>
<li>XCVR_A10_CDR_PLL_ANALOG_MODE</li>
<li>XCVR_A10_CDR_PLL_POWER_MODE</li>
<li>XCVR_A10_CDR_PLL_REQUIRES_GT_CAPABLE_CHANNEL</li>
<li>XCVR_A10_CDR_PLL_UC_RO_CAL</li>
<li>XCVR_A10_CMU_FPLL_ANALOG_MODE</li>
<li>XCVR_A10_CMU_FPLL_PLL_DPRIO_CLK_VREG_BOOST</li>
<li>XCVR_A10_CMU_FPLL_PLL_DPRIO_FPLL_VREG1_BOOST</li>
<li>XCVR_A10_CMU_FPLL_PLL_DPRIO_FPLL_VREG_BOOST</li>
<li>XCVR_A10_CMU_FPLL_PLL_DPRIO_STATUS_SELECT</li>
<li>XCVR_A10_CMU_FPLL_POWER_MODE</li>
<li>XCVR_A10_LC_PLL_ANALOG_MODE</li>
<li>XCVR_A10_LC_PLL_POWER_MODE</li>
<li>XCVR_A10_PM_UC_CLKDIV_SEL</li>
<li>XCVR_A10_PM_UC_CLKSEL_CORE</li>
<li>XCVR_A10_PM_UC_CLKSEL_OSC</li>
<li>XCVR_A10_REFCLK_TERM_TRISTATE</li>
<li>XCVR_A10_RX_ADAPT_DFE_CONTROL_SEL</li>
<li>XCVR_A10_RX_ADAPT_DFE_SEL</li>
<li>XCVR_A10_RX_ADAPT_VGA_SEL</li>
<li>XCVR_A10_RX_ADAPT_VREF_SEL</li>
<li>XCVR_A10_RX_ADP_CTLE_ACGAIN_4S</li>
<li>XCVR_A10_RX_ADP_CTLE_EQZ_1S_SEL</li>
<li>XCVR_A10_RX_ADP_DFE_FLTAP_POSITION</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP10</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP10_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP11</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP11_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP1</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP2</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP2_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP3</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP3_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP4</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP4_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP5</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP5_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP6</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP6_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP7</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP7_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP8</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP8_SGN</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP9</li>
<li>XCVR_A10_RX_ADP_DFE_FXTAP9_SGN</li>
<li>XCVR_A10_RX_ADP_LFEQ_FB_SEL</li>
<li>XCVR_A10_RX_ADP_ONETIME_DFE</li>
<li>XCVR_A10_RX_ADP_VGA_SEL</li>
<li>XCVR_A10_RX_ADP_VREF_SEL</li>
<li>XCVR_A10_RX_BYPASS_EQZ_STAGES_234</li>
<li>XCVR_A10_RX_EQ_BW_SEL</li>
<li>XCVR_A10_RX_EQ_DC_GAIN_TRIM</li>
<li>XCVR_A10_RX_INPUT_VCM_SEL</li>
<li>XCVR_A10_RX_LINK</li>
<li>XCVR_A10_RX_OFFSET_CANCELLATION_CTRL</li>
<li>XCVR_A10_RX_ONE_STAGE_ENABLE</li>
<li>XCVR_A10_RX_POWER_MODE</li>
<li>XCVR_A10_RX_QPI_ENABLE</li>
<li>XCVR_A10_RX_RX_SEL_BIAS_SOURCE</li>
<li>XCVR_A10_RX_SD_OUTPUT_OFF</li>
<li>XCVR_A10_RX_SD_OUTPUT_ON</li>
<li>XCVR_A10_RX_SD_THRESHOLD</li>
<li>XCVR_A10_RX_TERM_SEL</li>
<li>XCVR_A10_RX_TERM_TRI_ENABLE</li>
<li>XCVR_A10_RX_UC_RX_DFE_CAL</li>
<li>XCVR_A10_RX_VCCELA_SUPPLY_VOLTAGE</li>
<li>XCVR_A10_RX_VCM_CURRENT_ADD</li>
<li>XCVR_A10_RX_VCM_SEL</li>
<li>XCVR_A10_RX_XRX_PATH_ANALOG_MODE</li>
<li>XCVR_A10_TX_COMPENSATION_EN</li>
<li>XCVR_A10_TX_DCD_DETECTION_EN</li>
<li>XCVR_A10_TX_DPRIO_CGB_VREG_BOOST</li>
<li>XCVR_A10_TX_LINK</li>
<li>XCVR_A10_TX_LOW_POWER_EN</li>
<li>XCVR_A10_TX_POWER_MODE</li>
<li>XCVR_A10_TX_PRE_EMP_SIGN_1ST_POST_TAP</li>
<li>XCVR_A10_TX_PRE_EMP_SIGN_2ND_POST_TAP</li>
<li>XCVR_A10_TX_PRE_EMP_SIGN_PRE_TAP_1T</li>
<li>XCVR_A10_TX_PRE_EMP_SIGN_PRE_TAP_2T</li>
<li>XCVR_A10_TX_PRE_EMP_SWITCHING_CTRL_1ST_POST_TAP</li>
<li>XCVR_A10_TX_PRE_EMP_SWITCHING_CTRL_2ND_POST_TAP</li>
<li>XCVR_A10_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP_1T</li>
<li>XCVR_A10_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP_2T</li>
<li>XCVR_A10_TX_RES_CAL_LOCAL</li>
<li>XCVR_A10_TX_RX_DET</li>
<li>XCVR_A10_TX_RX_DET_OUTPUT_SEL</li>
<li>XCVR_A10_TX_RX_DET_PDB</li>
<li>XCVR_A10_TX_SLEW_RATE_CTRL</li>
<li>XCVR_A10_TX_TERM_CODE</li>
<li>XCVR_A10_TX_TERM_SEL</li>
<li>XCVR_A10_TX_UC_DCD_CAL</li>
<li>XCVR_A10_TX_UC_GEN3</li>
<li>XCVR_A10_TX_UC_GEN4</li>
<li>XCVR_A10_TX_UC_SKEW_CAL</li>
<li>XCVR_A10_TX_UC_TXVOD_CAL_CONT</li>
<li>XCVR_A10_TX_UC_TXVOD_CAL</li>
<li>XCVR_A10_TX_UC_VCC_SETTING</li>
<li>XCVR_A10_TX_USER_FIR_COEFF_CTRL_SEL</li>
<li>XCVR_A10_TX_VOD_OUTPUT_SWING_CTRL</li>
<li>XCVR_A10_TX_XTX_PATH_ANALOG_MODE</li>
<li>XCVR_ANALOG_SETTINGS_PROTOCOL</li>
<li>XCVR_FAST_LOCK_MODE</li>
<li>XCVR_GT_IO_PIN_TERMINATION</li>
<li>XCVR_GT_RX_COMMON_MODE_VOLTAGE</li>
<li>XCVR_GT_RX_CTLE</li>
<li>XCVR_GT_RX_DC_GAIN</li>
<li>XCVR_GT_RX_FORCE_VCO_CONST</li>
<li>XCVR_GT_TX_COMMON_MODE_VOLTAGE</li>
<li>XCVR_GT_TX_PRE_EMP_1ST_POST_TAP</li>
<li>XCVR_GT_TX_PRE_EMP_INV_PRE_TAP</li>
<li>XCVR_GT_TX_PRE_EMP_PRE_TAP</li>
<li>XCVR_GT_TX_VOD_MAIN_TAP</li>
<li>XCVR_IO_PIN_TERMINATION</li>
<li>XCVR_RECONFIG_AVMM_GROUP</li>
<li>XCVR_RECONFIG_GROUP</li>
<li>XCVR_REFCLK_PIN_TERMINATION</li>
<li>XCVR_RX_ACGAIN_A</li>
<li>XCVR_RX_ACGAIN_V</li>
<li>XCVR_RX_ADCE_HSF_HFBW</li>
<li>XCVR_RX_ADCE_RGEN_BW</li>
<li>XCVR_RX_ADCE_RGEN_MODE</li>
<li>XCVR_RX_BYPASS_EQ_STAGES_234</li>
<li>XCVR_RX_COMMON_MODE_VOLTAGE</li>
<li>XCVR_RX_DC_GAIN</li>
<li>XCVR_RX_DFE_PI_BW</li>
<li>XCVR_RX_ENABLE_LINEAR_EQUALIZER_PCIEMODE</li>
<li>XCVR_RX_EQ_BW_SEL</li>
<li>XCVR_RX_EYEQ_BANDWIDTH</li>
<li>XCVR_RX_INPUT_VCM_SEL</li>
<li>XCVR_RX_LINEAR_EQUALIZER_CONTROL</li>
<li>XCVR_RX_PMOS_GAIN_PEAK</li>
<li>XCVR_RX_QPI_ENABLE</li>
<li>XCVR_RX_SD_ENABLE</li>
<li>XCVR_RX_SD_OFF</li>
<li>XCVR_RX_SD_ON</li>
<li>XCVR_RX_SD_THRESHOLD</li>
<li>XCVR_RX_SEL_BIAS_SOURCE</li>
<li>XCVR_RX_SEL_HALF_BW</li>
<li>XCVR_RX_VCM_DRIVE_STRENGTH</li>
<li>XCVR_TX_COMMON_MODE_VOLTAGE</li>
<li>XCVR_TX_DRIVER_RESOLUTION_CTRL</li>
<li>XCVR_TX_LOCAL_IB_CTL</li>
<li>XCVR_TX_PLL_RECONFIG_GROUP</li>
<li>XCVR_TX_PRE_EMP_1ST_POST_TAP</li>
<li>XCVR_TX_PRE_EMP_2ND_POST_TAP</li>
<li>XCVR_TX_PRE_EMP_2ND_POST_TAP_USER</li>
<li>XCVR_TX_PRE_EMP_INV_2ND_TAP</li>
<li>XCVR_TX_PRE_EMP_INV_PRE_TAP</li>
<li>XCVR_TX_PRE_EMP_PRE_TAP</li>
<li>XCVR_TX_PRE_EMP_PRE_TAP_USER</li>
<li>XCVR_TX_QPI_EN</li>
<li>XCVR_TX_RX_DET_ENABLE</li>
<li>XCVR_TX_RX_DET_MODE</li>
<li>XCVR_TX_RX_DET_OUTPUT_SEL</li>
<li>XCVR_TX_SLEW_RATE_CTRL</li>
<li>XCVR_TX_SWING_BOOST</li>
<li>XCVR_TX_VCM_CTRL_SRC</li>
<li>XCVR_TX_VCM_DRIVE_STRENGTH</li>
<li>XCVR_TX_VOD_BOOST</li>
<li>XCVR_TX_VOD</li>
<li>XCVR_TX_VOD_PRE_EMP_CTRL_SRC</li>
<li>XCVR_VCCA_VOLTAGE</li>
<li>XCVR_VCCR_VCCT_VOLTAGE</li>
<li>X_ON_VIOLATION_OPTION</li>
<li>XOR_SYNTHESIS</li>
<li>XR_AUTO_SIZE</li>
<li>XR_CORE_ONLY</li>
<li>XR_EXCLUDE</li>
<li>XR_HEIGHT</li>
<li>XR_MEMBER_OF</li>
<li>XR_MEMBER_OPTION</li>
<li>XR_MEMBER_RESOURCE_EXCLUDE</li>
<li>XR_MEMBER_STATE</li>
<li>XR_NODE_LOCATION</li>
<li>XR_ORIGIN</li>
<li>XR_PARENT</li>
<li>XR_PATH_EXCLUDE</li>
<li>XR_PATH_INCLUDE</li>
<li>XR_PRIORITY</li>
<li>XR_RESERVE</li>
<li>XR_ROOT_REGION</li>
<li>XR_ROUGH</li>
<li>XR_SOFT</li>
<li>XR_STATE</li>
<li>XR_WIDTH</li>
<li>XSTL_INPUT_ALLOW_SE_BUFFER</li>
<li>YEAGER_CONFIGURATION_DEVICE</li>
<li>YEAGER_CRC_ERROR_CHECKING</li>
<li>YEAGER_DECREASE_INPUT_DELAY_TO_INTERNAL_CELLS</li>
<li>YEAGER_DEVICE_IO_STANDARD</li>
<li>YEAGER_OCT_AND_IMPEDANCE_MATCHING</li>
<li>YEAGER_OPTIMIZATION_TECHNIQUE</li>
<li>YEAGER_TECHNOLOGY_MAPPER</li>
<li>YEAGER_UPDATE_MODE</li>
<li>ZBT_OE_FALLING_EDGE_DELAY</li>
<li>ZERO_DELAY_BUFFER</li>
<li>ZIP_VECTOR_CHANNEL_FILE</li>
<li>ZIP_VECTOR_WAVEFORM_FILE</li>
<li>ZL8800</li>
<li>ZL9117M</li>
</ul>
]]></content:encoded>
			<wfw:commentRss>https://billauer.se/blog/2021/10/quartus-qsf-list/feed/</wfw:commentRss>
		<slash:comments>0</slash:comments>
		</item>
		<item>
		<title>Reverse engineering Cyclone 10 transceiver&#8217;s attributes</title>
		<link>https://billauer.se/blog/2021/10/arria-cyclone-10-signal-detect-oob/</link>
		<comments>https://billauer.se/blog/2021/10/arria-cyclone-10-signal-detect-oob/#comments</comments>
		<pubDate>Thu, 14 Oct 2021 15:01:55 +0000</pubDate>
		<dc:creator>eli</dc:creator>
				<category><![CDATA[FPGA]]></category>
		<category><![CDATA[GTX]]></category>
		<category><![CDATA[Intel FPGA (Altera)]]></category>

		<guid isPermaLink="false">https://billauer.se/blog/?p=6415</guid>
		<description><![CDATA[Introduction This post summarizes some scattered findings I made while trying to make a Cyclone 10&#8242;s signal detect feature work properly for detecting a SuperSpeed USB LFPS signal. As it turned out, Cyclone 10&#8242;s transceiver isn&#8217;t capable of this, as explained below. But since the documentation on this issue was lacking, I resorted to reverse [...]]]></description>
			<content:encoded><![CDATA[<h3>Introduction</h3>
<p>This post summarizes some scattered findings I made while trying to make a Cyclone 10&#8242;s signal detect feature work properly for detecting a SuperSpeed USB LFPS signal. As it turned out, Cyclone 10&#8242;s transceiver isn&#8217;t capable of this, as explained below.</p>
<p>But since the documentation on this issue was lacking, I resorted to reverse engineering Quartus in the attempt to find a solution. So this post is a bit about the transceiver and more about the reverse engineering efforts, which might be relevant in completely different contexts.</p>
<p>I should mention that everything on this page relates to Cyclone 10, even though the output from the tools keep naming different logic elements with &#8220;a10&#8243;, as if it was Arria 10. Clearly, the transceivers for the two FPGA families are the same.</p>
<p>Software: Quartus Pro 17.1 running on a 64-bit Linux machine (Mint 19).</p>
<h3>Cyclone 10&#8242;s signal detect is rubbish</h3>
<p>The purpose of the signal detector is to tell whether the differential wires are in an electrical idle state, or if there&#8217;s some activity on these. This is used by several protocols to wake up the link partners from a low power state: A PCIe link can be awaken by an upstream facing link partner (typically the device waking up the host) from a L2 state by virtue of a beacon, which consists of toggling the polarity at a rate of 30 kHz &#8212; 500 MHz. A SATA link can be awaken by one of the link partners transmitting a special data pattern. The USB 3.x protocol also uses out-of-band (OOB) signals if this sort, for various purposes, and calls them LFPS (Low Frequency Pulse Signaling). The toggling rate is defined between 10 &#8212; 50 MHz.</p>
<p>The first, relatively simple obstacle, was to turn on the signal detector. The <a href="https://www.intel.com/content/dam/www/programmable/us/en/pdfs/literature/hb/cyclone-10/ug_cyclone10_xcvr_phy.pdf" target="_blank">Cyclone 10 GX Transceiver PHY User Guide</a> says in Table 67, regarding rx_std_signaldetect:</p>
<blockquote><p>When enabled, the signal threshold detection circuitry senses whether the signal level present at the RX input buffer is above the signal detect threshold voltage. You can specify the signal detect threshold using a Quartus Prime Settings File (.qsf) assignment. This signal is required for the PCI Express, SATA and SAS protocols.</p></blockquote>
<p>Similar notes are made in other places in that guide. However it doesn&#8217;t mention that if the transceiver is configured in &#8220;basic&#8221; mode (as opposed to SATA mode, as well as PCIe mode, I suppose), rx_std_signaldetect is stuck on logic &#8217;1&#8242;, so enabling this signal alone isn&#8217;t enough.</p>
<p>But the real problem is that the signal detector is probably not good for anything but detecting SATA&#8217;s OOB: When I selected SATA mode, I did get some response on rx_std_signaldetect, but it was clearly not detecting the LFPS activity in a useful way. Unlike Cyclone V&#8217;s signal detector, Cyclone 10&#8242;s detector barely responded at all to a 31.25 MHz LFPS, and the detections occurred with pretty arbitrary timing, often with a pulse when the LFPS signal stopped, and some other random pulses as the wires went into electrical idle. In short, far from the desired assertion when the LFPS signals starts and deassertion when it stops.</p>
<p>Things got better as the toggling frequency increased, and around 125 MHz the assertion of the signal detect was steadily aligned with the onset of the LFPS toggling, however the deassertion was often delayed after the LFPS stopped. So even if the LFPS signal could be guaranteed to be at this frequency (it can&#8217;t, as it&#8217;s produced by the USB 3.x link partner, and 125 MHz is above maximum) the issue with the deassertion makes it impossible to use it with LFPS, which is extremely sensitive to the timing of onset and release of the toggling.</p>
<p>In fact, it&#8217;s probably useless for PCIe as well, as a PCIe beacon is allowed between 30 kHz &#8211; 500 MHz. This might explain why recent version of user guides for PCIe  block for Cyclone V, Arria V, Cyclone 10 and Arria 10,  had this sentence added:</p>
<blockquote><p>These IP cores also do not support the in-band beacon or   sideband WAKE# signal, which are mechanisms to signal a wake-up event  to  the upstream device.</p></blockquote>
<p>The problem was probably not spotted for a while because the beacon is  rarely used: The PCIe spec  utilizes beacon transmission only from a device towards the host  (upstream) for the sake of bringing up the link from a low power state.  So signal detection by an FPGA for the sake of PCIe is only required  when the FPGA acts as a host, and low-power modes are supported. In  short, practically never.</p>
<p>What&#8217;s left? SATA. That will probably work, because the differential wires toggle rapidly, and it doesn&#8217;t matter so much if the detection is a bit off-beat.</p>
<p>So I resorted to detecting the LFPS bursts directly from uncoded received data, rather than using the signal detect feature. The rest of this post relates to my attempts before I gave up.</p>
<h3>The options are limited</h3>
<p>Quartus is going a long way to be &#8220;helpful&#8221; by verifying that the parameter assignments make sense with regards to the intended protocol (e.g. SATA, PCIe etc), as reflected by the &#8220;prot_mode&#8221; parameter. This often means that the fitter throws an error when one tries to alter a parameter from its default. It&#8217;s like someone said nope, if you&#8217;re using the transceiver for SATA, these and these are the correct analog parameters for the PMA, and if you try otherwise, the fitter will kick your bottom for your own protection.</p>
<p>Or maybe it&#8217;s a gentle way of telling us users not to try anything but  the protocols for which the transceiver is directly intended for.</p>
<p>The fitter may also ignore assignments because they were assinged an unrelated entity (e.g. to gtx_tx instead of the positive-signal&#8217;s name, gtx_tx<span style="color: #ff0000;"><strong>p</strong></span>). <strong>So be always sure to look in the fitter report&#8217;s &#8220;Ignored Assignments&#8221; section</strong>.</p>
<p>One could speculate that this nanny-like behavior can be disabled by setting one of the pma_*_sup_mode parameters to &#8220;engineering_mode&#8221; rather than the default &#8220;user_mode&#8221;, but see below on this.</p>
<h3>QSF</h3>
<p>I expected to solve this by turning the parameters of the signal  detector like I&#8217;ve previously done with Cyclone V: By virtue of  assignments of QSF file.</p>
<p>So here&#8217;s the catch: The <a href="https://www.intel.com/content/dam/www/programmable/us/en/pdfs/literature/hb/cyclone-10/ug_cyclone10_xcvr_phy.pdf" target="_blank">User Guide</a> also says that the signal detect  threshold can be set by virtue of .qsf assignments, but none such are  documented in the it (as of the version for Quartus 20.1), and the  Assignment Editor offers no parameter of this sort.</p>
<p>For Cyclone V, it&#8217;s documented in the <a href="https://www.intel.com/content/dam/www/programmable/us/en/pdfs/literature/ug/xcvr_user_guide.pdf" target="_blank">V-Series Transceiver PHY IP Core User Guide</a> around page 20-31, and there are recommended values on <a href="https://www.intel.com/content/www/us/en/programmable/support/support-resources/knowledge-base/solutions/rd05082013_57.html" target="_blank">this page</a>.  My anecdotal experiments seem to indicate that assigning XCVR_*   attributes (without the C10 part) to a Cyclone 10 transceiver is   accepted however ignored by Quartus. In other words, trying to use  Cyclone-V QSF assignments won&#8217;t cut.</p>
<p>So let&#8217;s start the guesswork on the names of the QSF parameters.</p>
<h3>Hint source I: The fitter report</h3>
<p>The fitter report has a section called &#8220;Receiver Channel&#8221;, which shows the attributes of the transceiver&#8217;s  components as applied de-facto. Among others, there&#8217;s a part saying</p>
<pre>;             -- Name                                           ; frontend_ins|xcvr_inst|xcvr_native_a10_0|xcvr_native_a10_0|g_xcvr_native_insts[0].twentynm_xcvr_native_inst|twentynm_xcvr_native_inst|inst_twentynm_pma|gen_twentynm_hssi_pma_rx_sd.inst_twentynm_hssi_pma_rx_sd                               ;
;             -- Location                                       ; HSSIPMARXSD_1D4                                                                                                                                                                                                                                                       ;
;         -- Advanced Parameters                                ;                                                                                                                                                                                                                                                                       ;
;             -- link                                           ; mr                                                                                                                                                                                                                                                                    ;
;             -- power_mode                                     ; mid_power                                                                                                                                                                                                                                                             ;
;             -- prot_mode                                      ; sata_rx                                                                                                                                                                                                                                                               ;
;             -- sd_output_off                                  ; 1                                                                                                                                                                                                                                                                     ;
;             -- sd_output_on                                   ; 1                                                                                                                                                                                                                                                                     ;
;             -- sd_pdb                                         ; sd_on                                                                                                                                                                                                                                                                 ;
;             -- sd_threshold                                   ; sdlv_3</pre>
<p>It&#8217;s actually recommended to go through this part in the fitter report in any case, to make sure it was set up as desired.</p>
<p>But this part allows guessing the names of the parameters for the QSF file. For example, the following assignments are perfectly legal (and match the setting shown above):</p>
<pre>set_instance_assignment -name XCVR_C10_RX_SD_OUTPUT_OFF 1 -to gtx_rxp
set_instance_assignment -name XCVR_C10_RX_SD_OUTPUT_ON 1 -to gtx_rxp
set_instance_assignment -name XCVR_C10_RX_SD_THRESHOLD SDLV_3 -to gtx_rxp</pre>
<p>It doesn&#8217;t take a cyber hacker to see the connection between the QSF parameter names and those appearing in the report. This works for some parameters, and not for other. But this is the easiest way to guess parameter names.</p>
<h3>Hint source II: Read the sources</h3>
<p>But what&#8217;s the allowed values that can be assigned to these parameters? Hints on that can be obtained from the System Verilog files generated for the IP, in particular the one named xcvr_xcvr_native_a10_0_altera_xcvr_native_a10_171_ev4uzpa.sv (the &#8220;ev4uzpa&#8221; suffix varies), which has a section going:</p>
<pre>parameter pma_rx_sd_prot_mode = "basic_rx",//basic_kr_rx basic_rx cpri_rx gpon_rx pcie_gen1_rx pcie_gen2_rx pcie_gen3_rx pcie_gen4_rx qpi_rx sata_rx unused
parameter pma_rx_sd_sd_output_off = 1,//0:28
parameter pma_rx_sd_sd_output_on = 1,//0:15
parameter pma_rx_sd_sd_pdb = "sd_off",//sd_off sd_on
parameter pma_rx_sd_sd_threshold = 3,//0:15
parameter pma_rx_sd_sup_mode = "user_mode",//engineering_mode user_mode</pre>
<p>Note the comments, saying which values are allowed for each parameter. On a good day, staying within these value ranges makes the tools accept the assignments, and on an even better day, the fitter won&#8217;t throw an error because it considers the values unsuitable.</p>
<p>It&#8217;s worth taking a look on the other modules as well, even though they&#8217;re likely to have the same comments.</p>
<p>As far as I&#8217;ve seen, these parameters are set by the toplevel module for the transceiver IP. QSF assignments, if present, override the former.</p>
<h3>Hint source III: What do these assignments mean?</h3>
<p>For this I suggest looking at ip/altera/alt_xcvr/alt_xcvr_core/nd/doc/PMA_RegMap.csv (or similar  file name) under the root directory of the Quartus installation. Yes, we&#8217;re digging in Quartus&#8217; backyard now. I found these files by searching for strings in all files of the Quartus  installation. Reverse engineering, after all.</p>
<p>In fact, I&#8217;m not sure if this is the correct file to look at, or maybe CR2_PMA_RegMap.csv or whatever. Neither do I know what they mean exactly. It&#8217;s however quite evident that these CSV files (opens with your favorite spreadsheet application) were intended to document the register space of the PMA. But the table that shows has a &#8220;Attribute Description&#8221; column with a few meaningful words on each attribute as well as a column named &#8220;Attribute Encoding&#8221;, which may happen to be the value to use in a QSF assignment (may and may not work).</p>
<p>There&#8217;s also an official register map from Intel available for download, named <a href="https://www.intel.com/content/dam/www/programmable/us/en/others/literature/hb/cyclone-10/c10-registermap-official.xlsx" target="_blank">c10-registermap-official.xlsx</a>, which apparently contains complimentary information. But it&#8217;s not possible to deduce QSF names from this file.</p>
<h3>Hint source IV: What assignments are legal, then?</h3>
<p>I mentioned earlier that the fitter rejects certain value assignment because they apparently don&#8217;t make sense. The rules seem to be written as a Tcl script in ip/altera/alt_xcvr/alt_xcvr_core/nd/tcl/ct2_pma_rx_sd_simple.tcl (and similar). Once again, under the Quartus installation root. And yet once again, sometimes this helps, and sometimes it doesn&#8217;t.</p>
<h3>Hint source V: The names of the QSF paramaters</h3>
<p>Up to this point, the names of the parameters to assign in the QSF file were a matter of speculation, based upon similar names in other contexts.</p>
<p>It&#8217;s possible to harvest all possible names by searching for strings in one of Quartus&#8217; installed binaries, as shown on <a title="Quartus 17.1 (non-pro): List of QSF parameter names" href="https://billauer.se/blog/2021/10/quartus-qsf-list/" target="_blank">this post</a> for non-Pro Quartus 17.1, and <a title="Quartus Pro 19.2: List of QSF parameter names" href="https://billauer.se/blog/2021/10/quartus-pro-qsf-list/" target="_blank">this post</a> for Quartus Pro 19.2.</p>
<p>For a complete list of allowed QSF assignment that relate to Cyclone 10 transceivers (or so I groundlessly believe), search for strings in libdb_acf.so, e.g.</p>
<pre>$ <strong>strings ./quartus/linux64/libdb_acf.so | grep XCVR_C10 | sort</strong>
XCVR_C10_CDR_PLL_ANALOG_MODE
XCVR_C10_CDR_PLL_POWER_MODE
XCVR_C10_CDR_PLL_REQUIRES_GT_CAPABLE_CHANNEL
XCVR_C10_CDR_PLL_UC_RO_CAL
XCVR_C10_CMU_FPLL_ANALOG_MODE
XCVR_C10_CMU_FPLL_PLL_DPRIO_CLK_VREG_BOOST
XCVR_C10_CMU_FPLL_PLL_DPRIO_FPLL_VREG1_BOOST
XCVR_C10_CMU_FPLL_PLL_DPRIO_FPLL_VREG_BOOST
XCVR_C10_CMU_FPLL_PLL_DPRIO_STATUS_SELECT
XCVR_C10_CMU_FPLL_POWER_MODE
XCVR_C10_LC_PLL_ANALOG_MODE
XCVR_C10_LC_PLL_POWER_MODE
XCVR_C10_PM_UC_CLKDIV_SEL
XCVR_C10_PM_UC_CLKSEL_CORE
XCVR_C10_PM_UC_CLKSEL_OSC
XCVR_C10_REFCLK_TERM_TRISTATE
XCVR_C10_RX_ADAPT_DFE_CONTROL_SEL
XCVR_C10_RX_ADAPT_DFE_SEL
XCVR_C10_RX_ADAPT_VGA_SEL
XCVR_C10_RX_ADAPT_VREF_SEL
XCVR_C10_RX_ADP_CTLE_ACGAIN_4S
XCVR_C10_RX_ADP_CTLE_EQZ_1S_SEL
XCVR_C10_RX_ADP_DFE_FLTAP_POSITION
XCVR_C10_RX_ADP_DFE_FXTAP1
XCVR_C10_RX_ADP_DFE_FXTAP10
XCVR_C10_RX_ADP_DFE_FXTAP10_SGN
XCVR_C10_RX_ADP_DFE_FXTAP11
XCVR_C10_RX_ADP_DFE_FXTAP11_SGN
XCVR_C10_RX_ADP_DFE_FXTAP2
XCVR_C10_RX_ADP_DFE_FXTAP2_SGN
XCVR_C10_RX_ADP_DFE_FXTAP3
XCVR_C10_RX_ADP_DFE_FXTAP3_SGN
XCVR_C10_RX_ADP_DFE_FXTAP4
XCVR_C10_RX_ADP_DFE_FXTAP4_SGN
XCVR_C10_RX_ADP_DFE_FXTAP5
XCVR_C10_RX_ADP_DFE_FXTAP5_SGN
XCVR_C10_RX_ADP_DFE_FXTAP6
XCVR_C10_RX_ADP_DFE_FXTAP6_SGN
XCVR_C10_RX_ADP_DFE_FXTAP7
XCVR_C10_RX_ADP_DFE_FXTAP7_SGN
XCVR_C10_RX_ADP_DFE_FXTAP8
XCVR_C10_RX_ADP_DFE_FXTAP8_SGN
XCVR_C10_RX_ADP_DFE_FXTAP9
XCVR_C10_RX_ADP_DFE_FXTAP9_SGN
XCVR_C10_RX_ADP_LFEQ_FB_SEL
XCVR_C10_RX_ADP_ONETIME_DFE
XCVR_C10_RX_ADP_VGA_SEL
XCVR_C10_RX_ADP_VREF_SEL
XCVR_C10_RX_BYPASS_EQZ_STAGES_234
XCVR_C10_RX_EQ_BW_SEL
XCVR_C10_RX_EQ_DC_GAIN_TRIM
XCVR_C10_RX_INPUT_VCM_SEL
XCVR_C10_RX_LINK
XCVR_C10_RX_OFFSET_CANCELLATION_CTRL
XCVR_C10_RX_ONE_STAGE_ENABLE
XCVR_C10_RX_POWER_MODE
XCVR_C10_RX_QPI_ENABLE
XCVR_C10_RX_RX_SEL_BIAS_SOURCE
XCVR_C10_RX_SD_OUTPUT_OFF
XCVR_C10_RX_SD_OUTPUT_ON
XCVR_C10_RX_SD_THRESHOLD
XCVR_C10_RX_TERM_SEL
XCVR_C10_RX_TERM_TRI_ENABLE
XCVR_C10_RX_UC_RX_DFE_CAL
XCVR_C10_RX_VCCELA_SUPPLY_VOLTAGE
XCVR_C10_RX_VCM_CURRENT_ADD
XCVR_C10_RX_VCM_SEL
XCVR_C10_RX_XRX_PATH_ANALOG_MODE
XCVR_C10_TX_COMPENSATION_EN
XCVR_C10_TX_DCD_DETECTION_EN
XCVR_C10_TX_DPRIO_CGB_VREG_BOOST
XCVR_C10_TX_LINK
XCVR_C10_TX_LOW_POWER_EN
XCVR_C10_TX_POWER_MODE
XCVR_C10_TX_PRE_EMP_SIGN_1ST_POST_TAP
XCVR_C10_TX_PRE_EMP_SIGN_2ND_POST_TAP
XCVR_C10_TX_PRE_EMP_SIGN_PRE_TAP_1T
XCVR_C10_TX_PRE_EMP_SIGN_PRE_TAP_2T
XCVR_C10_TX_PRE_EMP_SWITCHING_CTRL_1ST_POST_TAP
XCVR_C10_TX_PRE_EMP_SWITCHING_CTRL_2ND_POST_TAP
XCVR_C10_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP_1T
XCVR_C10_TX_PRE_EMP_SWITCHING_CTRL_PRE_TAP_2T
XCVR_C10_TX_RES_CAL_LOCAL
XCVR_C10_TX_RX_DET
XCVR_C10_TX_RX_DET_OUTPUT_SEL
XCVR_C10_TX_RX_DET_PDB
XCVR_C10_TX_SLEW_RATE_CTRL
XCVR_C10_TX_TERM_CODE
XCVR_C10_TX_TERM_SEL
XCVR_C10_TX_UC_DCD_CAL
XCVR_C10_TX_UC_GEN3
XCVR_C10_TX_UC_GEN4
XCVR_C10_TX_UC_SKEW_CAL
XCVR_C10_TX_UC_TXVOD_CAL
XCVR_C10_TX_UC_TXVOD_CAL_CONT
XCVR_C10_TX_UC_VCC_SETTING
XCVR_C10_TX_USER_FIR_COEFF_CTRL_SEL
XCVR_C10_TX_VOD_OUTPUT_SWING_CTRL
XCVR_C10_TX_XTX_PATH_ANALOG_MODE</pre>
<p>So yes, now we&#8217;re looking for strings in a binary file.</p>
<h3>And yet, all this doesn&#8217;t necessarily help</h3>
<p>With all these hints, there&#8217;s still some pure guesswork. For example, I tried</p>
<pre>set_instance_assignment -name XCVR_C10_RX_SD_OUTPUT_ON 3 -to gtx_rxp</pre>
<p>and the fitter gave me</p>
<pre>    Error (15744): The settings must match one or more of these conditions:
    Error (15744): ( sup_mode == ENGINEERING_MODE ) OR ( prot_mode != SATA_RX ) OR ( sd_output_on == DATA_PULSE_6 )
    Error (15744): But the following assignments violate the above conditions:
    Error (15744): sup_mode = USER_MODE
    Error (15744): prot_mode = SATA_RX
    Error (15744): sd_output_on = DATA_PULSE_10 -- Set by Pin Assignment "XCVR_<span style="color: #ff0000;"><strong>A10</strong></span>_RX_SD_OUTPUT_ON" (QSF Name "XCVR_<span style="color: #ff0000;"><strong>A10</strong></span>_RX_SD_OUTPUT_ON")</pre>
<p>So first, let&#8217;s notice that it blames a XCVR_A10_* assignment, even though  I used a XCVR_C10_* assignment in the QSF file. Really.</p>
<p>Also note the hint that setting sup_mode to ENGINEERING_MODE would have let us off the hook. More on that below (however don&#8217;t expect much).</p>
<p>But how did the assigning XCVR_C10_RX_SD_OUTPUT_ON with the integer 3 turn into DATA_PULSE_10? Maybe look in PMA_RegMap.csv, mentioned above? But no, DATA_PULSE_10 is assigned 5&#8242;b01110 as a value to write to a register, and it&#8217;s the 5th value listed, so no matter if you count from zero or one, 3 is not the answer.</p>
<p>Maybe ct2_pma_rx_sd_simple.tcl, also mentioned above? That helps even less, as there&#8217;s no sign there that DATA_PULSE_10 would be special. In short, just play with the integer value until hitting gold. Or even better, don&#8217;t assign anything, and use the default.</p>
<p>Likewise, setting</p>
<pre>set_instance_assignment -name XCVR_C10_RX_SD_OUTPUT_OFF 6 -to gtx_rxp</pre>
<p>yields</p>
<pre>    Error (15744): In atom 'frontend_ins|xcvr_inst|xcvr_native_a10_0|xcvr_native_a10_0|g_xcvr_native_insts[0].twentynm_xcvr_native_inst|twentynm_xcvr_native_inst|inst_twentynm_pma|gen_twentynm_hssi_pma_rx_sd.inst_twentynm_hssi_pma_rx_sd'
    Error (15744): The settings must match one or more of these conditions:
    Error (15744): ( sup_mode == ENGINEERING_MODE ) OR ( prot_mode != SATA_RX ) OR ( sd_output_off == CLK_DIVRX_2 )
    Error (15744): But the following assignments violate the above conditions:
    Error (15744): sup_mode = USER_MODE
    Error (15744): prot_mode = SATA_RX
    Error (15744): sd_output_off = CLK_DIVRX_7 -- Set by Pin Assignment "XCVR_A10_RX_SD_OUTPUT_OFF" (QSF Name "XCVR_A10_RX_SD_OUTPUT_OFF")</pre>
<h3>Attempting to enable Engineering Mode</h3>
<p>Since ENGINEERING_MODE is often mentioned in the fitter&#8217;s error  messages, I thought maybe enabling it could silence these errors and  allow wider options. For example, I attempted to enable the Electrical  Idle state on the transmission wires on a non-PCIe transciever by  editing one of the files generated by the transceiver IP tools (xcvr_xcvr_native_a10_0.v), changing the line saying</p>
<pre>.hssi_tx_pcs_pma_interface_bypass_pma_txelecidle("true"),</pre>
<p>to</p>
<pre>.hssi_tx_pcs_pma_interface_bypass_pma_txelecidle("false"),</pre>
<p>but the fitter threw the following error:</p>
<pre>    Error (15744): In atom 'xcvr_inst|xcvr_native_a10_0|xcvr_native_a10_0|g_xcvr_native_insts[0].twentynm_xcvr_native_inst|twentynm_xcvr_native_inst|inst_twentynm_pcs|gen_twentynm_hssi_tx_pcs_pma_interface.inst_twentynm_hssi_tx_pcs_pma_interface'
    Error (15744): The settings must match one or more of these conditions:
    Error (15744): ( sup_mode == ENGINEERING_MODE ) OR ( bypass_pma_txelecidle == TRUE ) OR ( pcie_sub_prot_mode_tx != OTHER_PROT_MODE )
    Error (15744): But the following assignments violate the above conditions:
    Error (15744): sup_mode = USER_MODE
    Error (15744): bypass_pma_txelecidle = FALSE
    Error (15744): pcie_sub_prot_mode_tx = OTHER_PROT_MODE</pre>
<p>So it tells me that if I want bypass_pma_txelecidle as &#8220;false&#8221; I have  to either set pcie_sub_prot_mode_tx to one of the PCIe modes, or set  sup_mode to ENGINEERING_MODE. Changing pcie_sub_prot_mode_tx is out of  the question, because the only way to settle the conflicts reported by  the fitter is to turn the entire transceiver to follow the predefined  PCIe settings. Had I been able to go that path, I would have done that  long ago.</p>
<p>So switch to Engineering Mode, whatever that means, by editing the same file, changing</p>
<pre>.hssi_tx_pcs_pma_interface_sup_mode("user_mode"),</pre>
<p>to</p>
<pre>.hssi_tx_pcs_pma_interface_sup_mode("engineering_mode"),</pre>
<p>but the fitter really didn&#8217;t like that:</p>
<pre>    Error (15744): In atom 'xcvr_inst|xcvr_native_a10_0|xcvr_native_a10_0|g_xcvr_native_insts[0].twentynm_xcvr_native_inst|twentynm_xcvr_native_inst|inst_twentynm_pcs|gen_twentynm_hssi_tx_pcs_pma_interface.inst_twentynm_hssi_tx_pcs_pma_interface'
    Error (15744): The settings must match one or more of these conditions:
    Error (15744): ( sup_mode OR ( sup_mode == USER_MODE )
    Error (15744): But the following assignments violate the above conditions:
    Error (15744): sup_mode = ENGINEERING_MODE</pre>
<p>This is somewhat cryptic, because it implies that sup_mode could just evaluate &#8220;true&#8221; in some way. Anyhow, selecting  ENGINEERING_MODE was rejected flat, so that&#8217;s not an option for us  regular people. There&#8217;s probably some secret sauce method to allow this,  but that goes beyond what is sensible to work around the tools&#8217;  restrictions.</p>
<h3>Conclusion</h3>
<p>Setting up a Cyclone 10 transceiver for a use other than specifically intended by the FPGA&#8217;s vendor is a visit to nomansland. Reverse engineering Quartus does help to some extent, but some issues are left to guessing.</p>
<p>And the transceiver itself appears to be a step backwards compared with the series-V FPGAs. It may reach higher rates, but that came at a cost. Or maybe it&#8217;s related to the different silicon process. This way or another, it&#8217;s not all that impressive.</p>
]]></content:encoded>
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		</item>
		<item>
		<title>Critical Warnings after upgrading a PCIe block for Ultrascale+ on Vivado 2020.1</title>
		<link>https://billauer.se/blog/2021/06/pci-express-ultrascale-plus-vivado-upgrade/</link>
		<comments>https://billauer.se/blog/2021/06/pci-express-ultrascale-plus-vivado-upgrade/#comments</comments>
		<pubDate>Tue, 01 Jun 2021 11:06:00 +0000</pubDate>
		<dc:creator>eli</dc:creator>
				<category><![CDATA[FPGA]]></category>
		<category><![CDATA[PCI express]]></category>
		<category><![CDATA[Tcl]]></category>
		<category><![CDATA[Vivado]]></category>

		<guid isPermaLink="false">https://billauer.se/blog/?p=6355</guid>
		<description><![CDATA[Introduction Checking Xillybus&#8217; bundle for Kintex Ultrascale+ on Vivado 2020.1, I got several critical warnings related to the PCIe block. As the bundle is intended to show how Xillybus&#8217; IP core is used for simplifying communication with the host, these warnings aren&#8217;t directly related, and yet they&#8217;re unacceptable. This bundle is designed to work with [...]]]></description>
			<content:encoded><![CDATA[<h3>Introduction</h3>
<p>Checking <a href="http://xillybus.com/pcie-download" target="_blank">Xillybus&#8217; bundle for Kintex Ultrascale+</a> on Vivado 2020.1, I got several critical warnings related to the PCIe block. As the bundle is intended to show how Xillybus&#8217; IP core is used for simplifying communication with the host, these warnings aren&#8217;t directly related, and yet they&#8217;re unacceptable.</p>
<p>This bundle is designed to work with Vivado 2017.3 and later: It sets up the project by virtue of a Tcl script, which among others calls the upgrade_ip function for updating all IPs. Unfortunately, a bug in Vivado 2020.1 (and possibly other versions) causes the upgraded PCIe block to end up misconfigured.</p>
<p>This bug applies to Zynq Ultrascale+ as well, but curiously enough not with Virtex Ultrascale+. At least with my setting there was no problem.</p>
<h3>The problem</h3>
<p>Having upgraded an UltraScale+ Integrated Block (PCIE4) for PCI Express IP block from Vivado 2017.3 (or 2018.3) to Vivado 2020.1, I got several Critical Warnings. Three during synthesis:</p>
<pre>[Vivado 12-4739] create_clock:No valid object(s) found for '-objects [get_pins -filter REF_PIN_NAME=~TXOUTCLK -of_objects [get_cells -hierarchical -filter {NAME =~ *gen_channel_container[1200].*gen_gtye4_channel_inst[3].GT*E4_CHANNEL_PRIM_INST}]]'. ["project/pcie_ip_block/source/ip_pcie4_uscale_plus_x0y0.xdc":127]
[Vivado 12-4739] get_clocks:No valid object(s) found for '--of_objects [get_pins -hierarchical -filter {NAME =~ *gen_channel_container[1200].*gen_gtye4_channel_inst[3].GTYE4_CHANNEL_PRIM_INST/TXOUTCLK}]'. ["project/pcie_ip_block/synth/pcie_ip_block_late.xdc":63]
[Vivado 12-4739] get_clocks:No valid object(s) found for '--of_objects [get_pins -hierarchical -filter {NAME =~ *gen_channel_container[1200].*gen_gtye4_channel_inst[3].GTYE4_CHANNEL_PRIM_INST/TXOUTCLK}]'. ["project/pcie_ip_block/synth/pcie_ip_block_late.xdc":64]</pre>
<p>and another seven during implementation:</p>
<pre>[Vivado 12-4739] create_clock:No valid object(s) found for '-objects [get_pins -filter REF_PIN_NAME=~TXOUTCLK -of_objects [get_cells -hierarchical -filter {NAME =~ *gen_channel_container[1200].*gen_gtye4_channel_inst[3].GT*E4_CHANNEL_PRIM_INST}]]'. ["project/pcie_ip_block/source/ip_pcie4_uscale_plus_x0y0.xdc":127]
[Vivado 12-4739] set_clock_groups:No valid object(s) found for '-group [get_clocks -of_objects [get_pins -hierarchical -filter {NAME =~ *gen_channel_container[1200].*gen_gtye4_channel_inst[3].GTYE4_CHANNEL_PRIM_INST/TXOUTCLK}]]'. ["project/pcie_ip_block/synth/pcie_ip_block_late.xdc":63]
[Vivado 12-4739] set_clock_groups:No valid object(s) found for '-group '. ["project/pcie_ip_block/synth/pcie_ip_block_late.xdc":63]
[Vivado 12-4739] set_clock_groups:No valid object(s) found for '-group [get_clocks -of_objects [get_pins -hierarchical -filter {NAME =~ *gen_channel_container[1200].*gen_gtye4_channel_inst[3].GTYE4_CHANNEL_PRIM_INST/TXOUTCLK}]]'. ["project/pcie_ip_block/synth/pcie_ip_block_late.xdc":64]
[Vivado 12-4739] set_clock_groups:No valid object(s) found for '-group '. ["project/pcie_ip_block/synth/pcie_ip_block_late.xdc":64]
[Vivado 12-5201] set_clock_groups: cannot set the clock group when only one non-empty group remains. ["project/pcie_ip_block/synth/pcie_ip_block_late.xdc":63]
[Vivado 12-5201] set_clock_groups: cannot set the clock group when only one non-empty group remains. ["project/pcie_ip_block/synth/pcie_ip_block_late.xdc":64]</pre>
<p>The first warning in each group points at this line in ip_pcie4_uscale_plus_x0y0.xdc, which was automatically generated by the tools:</p>
<pre>create_clock -period 4.0 [get_pins -filter {REF_PIN_NAME=~TXOUTCLK} -of_objects [get_cells -hierarchical -filter {NAME =~ *<span style="color: #ff0000;"><strong>gen_channel_container[1200]</strong></span>.*gen_gtye4_channel_inst[3].GT*E4_CHANNEL_PRIM_INST}]]</pre>
<p>And the other at these two lines in pcie_ip_block_late.xdc, also generated by the tools:</p>
<pre>set_clock_groups -asynchronous -group [get_clocks -of_objects [get_ports sys_clk]] -group [get_clocks -of_objects [get_pins -hierarchical -filter {NAME =~ *<strong><span style="color: #ff0000;">gen_channel_container[1200]</span></strong>.*gen_gtye4_channel_inst[3].GTYE4_CHANNEL_PRIM_INST/TXOUTCLK}]]
set_clock_groups -asynchronous -group [get_clocks -of_objects [get_pins -hierarchical -filter {NAME =~ *<span style="color: #ff0000;"><strong>gen_channel_container[1200]</strong></span>.*gen_gtye4_channel_inst[3].GTYE4_CHANNEL_PRIM_INST/TXOUTCLK}]] -group [get_clocks -of_objects [get_ports sys_clk]]</pre>
<p>So this is clearly about a reference to a non-existent logic cell supposedly named gen_channel_container[1200], and in particular that index, 1200, looks suspicious.</p>
<p>I would have been <em>relatively</em> fine with ignoring these warnings had it been just the set_clock_groups that failed, as these create false paths. If the design implements properly without these, it&#8217;s fine. But failing a create_clock command is serious, as this can leave paths unconstrained. I&#8217;m not sure if this is indeed the case, and it doesn&#8217;t matter all that much. One shouldn&#8217;t get used to ignoring critical warnings.</p>
<p>Looking at the .xci file for this PCIe block, it&#8217;s apparent that several changes were made to it while upgrading to 2020.1. Among those changes, these three lines were added:</p>
<pre>&lt;spirit:configurableElementValue spirit:referenceId="MODELPARAM_VALUE.MASTER_GT"&gt;GTHE4_CHANNEL_<span style="color: #ff0000;"><strong>X49Y99</strong></span>&lt;/spirit:configurableElementValue&gt;
&lt;spirit:configurableElementValue spirit:referenceId="MODELPARAM_VALUE.MASTER_GT_CONTAINER"&gt;<span style="color: #ff0000;"><strong>1200</strong></span>&lt;/spirit:configurableElementValue&gt;
&lt;spirit:configurableElementValue spirit:referenceId="MODELPARAM_VALUE.MASTER_GT_QUAD_INX"&gt;3&lt;/spirit:configurableElementValue&gt;</pre>
<p>Also, somewhere else in the XCI file, this line was added:</p>
<pre>&lt;spirit:configurableElementValue spirit:referenceId="PARAM_VALUE.MASTER_GT"&gt;GTHE4_CHANNEL_<span style="color: #ff0000;"><strong>X49Y99</strong></span>&lt;/spirit:configurableElementValue&gt;</pre>
<p>So there&#8217;s a bug in the upgrading mechanism, which sets some internal parameter to select the a nonexistent GT site.</p>
<h3>The manual fix (GUI)</h3>
<p>To rectify the wrong settings manually, enter the settings of the PCIe block, and click the checkbox for &#8220;Enable GT Quad Selection&#8221; twice: Once for unchecking, and once for checking it. Make sure that the selected GT hasn&#8217;t changed.</p>
<p>Then it might be required to return some unrelated settings to their desired values. In particular, the PCI Device ID and similar attributes change to Xilinx&#8217; default as a result of this. It&#8217;s therefore recommended to make a copy of the XCI file before making this change, and then use a diff tool to compare the before and after files, looking for irrelevant changes. Given that this revert to default has been going on for so many years, it seems like Xilinx considers this a feature.</p>
<p>But this didn&#8217;t solve my problem, as the bundle needs to set itself correctly out of the box.</p>
<h3>Modifying the XCI file? (Not)</h3>
<p>The immediate thing to check was whether this problem applies to PCIe  blocks that are created in Vivado 2020.1 from scratch inside a project which is set to target KCU116 (which is what the said Xillybus bundle targets). As expected, it  doesn&#8217;t &#8212; this occurs just on upgraded IP blocks: With the project that was set up from scratch, the related lines in the XCI file read:</p>
<pre>&lt;spirit:configurableElementValue spirit:referenceId="MODELPARAM_VALUE.MASTER_GT"&gt;<strong>GTYE4_CHANNEL_X0Y7</strong>&lt;/spirit:configurableElementValue&gt;
&lt;spirit:configurableElementValue spirit:referenceId="MODELPARAM_VALUE.MASTER_GT_CONTAINER"&gt;<strong>1</strong>&lt;/spirit:configurableElementValue&gt;
&lt;spirit:configurableElementValue spirit:referenceId="MODELPARAM_VALUE.MASTER_GT_QUAD_INX"&gt;3&lt;/spirit:configurableElementValue&gt;</pre>
<p>and</p>
<pre>&lt;spirit:configurableElementValue spirit:referenceId="PARAM_VALUE.MASTER_GT"&gt;<strong>GTYE4_CHANNEL_X0Y7</strong>&lt;/spirit:configurableElementValue&gt;</pre>
<p>respectively. These are values that make sense.</p>
<p>With this information at hand, my first  attempt to solve this was to add the four new lines to  the old XCI file. This allowed using the XCI file with Vivado 2020.1 properly,  however synthesizing the PCIe  block on older Vivado versions failed: As  it turns out, all MODELPARAM_VALUE attributes become instantiation    parameters for pcie_uplus_pcie4_uscale_core_top inside the PCIe block.   However looking at the source file (on 2020.1), these parameters are  indeed defined  (only in those generated in 2020.1), and yet they are  unused, like many  other instantiation parameters in this module. So  apparently, Vivado&#8217;s  machinery generates an instantiation parameter for  each of these, even  if they&#8217;re not used. Those unused parameters are  most likely intended  for scripting.</p>
<p>So this trick made Vivado instantiate the  pcie_uplus_pcie4_uscale_core_top with instantiation parameters that it  doesn&#8217;t have, and hence its synthesis failed. Dead end.</p>
<p>I didn&#8217;t examine the  possibility to deselect &#8220;Enable GT Quad Selection&#8221; in the original  block, because Vivado 2017.3 chooses the wrong GT for the board without  this option.</p>
<h3>Workaround with Tcl</h3>
<p>Eventually, I solved the problem by adding a few lines to the Tcl script.</p>
<p>Assuming that $ip_name has been set to the name of the PCIe block IP, this Tcl snippet rectifies the bug:</p>
<pre>if {![string equal "" [get_property <strong>-quiet</strong> CONFIG.MASTER_GT [get_ips $ip_name]]]} {
  set_property -dict [list CONFIG.en_gt_selection {true} CONFIG.MASTER_GT {<span style="color: #ff0000;"><strong>GTYE4_CHANNEL_X0Y7</strong></span>}] [get_ips $ip_name]
}</pre>
<p>This snippet should of course be inserted <strong>after</strong> updating the IP core (with e.g. upgrade_ip [get_ips]). The code first checks if the MASTER_GT is defined, and only if so, it sets it to the desired value. This ensures that nothing happens with the older Vivado versions. Note the &#8220;quiet&#8221; flag of get_properly, which prevents it from generating an error if the property isn&#8217;t defined. Rather, it returns an empty string if that&#8217;s the case, which is what the result is compared against.</p>
<p>Setting MASTER_GT this way also rectifies GT_CONTAINER correctly, and surprisingly enough, this <strong>doesn&#8217;t</strong> change anything it shouldn&#8217;t, and in particular, the Device IDs remain intact.</p>
<p>However the disadvantage with this solution is that the GT to select is hardcoded in the Tcl code. But that&#8217;s fine in my case, for which a specific board (KCU116) is targeted by the bundle.</p>
<p>Another way to go, which is less recommended, is to emulate the check and uncheck of &#8220;Enable GT Quad Selection&#8221;:</p>
<pre>if {![string equal "" [get_property -quiet CONFIG.MASTER_GT [get_ips $ip_name]]]} {
  set_property CONFIG.en_gt_selection {false} [get_ips $ip_name]
  set_property CONFIG.en_gt_selection {true} [get_ips $ip_name]
}</pre>
<p>However turning the en_gt_selection flag off and on again also resets the Device ID to default as with manual toggling of the checkbox. And even though it sets the MASTER_GT correctly in my specific case, I&#8217;m not sure whether this can be relied upon.</p>
<h3>Vivado 2025.2 update</h3>
<p>Fast forward to late 2025, it turns out that Vivado 2025.2 suddenly reacts to the workaround by selecting the GTY quad to GTY_Quad_227, and resetting the Device ID to its default value. This doesn&#8217;t happen with Vivado 2025.1 and back.</p>
<p>Removing the workaround code still resulted in MASTER_GT being set to GTHE4_CHANNEL_X49Y99. However, as of 2025.1, this makes no difference anymore (actually, also as soon as 2023.1). This property doesn&#8217;t influence anything of the PCIe block IP&#8217;s files, except for the XCI and XML files, where this property has a different value. As it has no influence on the source files used for implementation, the workaround can be removed safely for all versions starting with 2025.1 (and probably earlier too).</p>
<p>So the update workaround looks like this:</p>
<pre>if {<span class="punch">[version -short] &lt; 2025.1 &amp;&amp;</span> \
    ![string equal "" [get_property -quiet CONFIG.MASTER_GT [get_ips $ip_name]]]} {
  set_property -dict [list CONFIG.en_gt_selection {true} CONFIG.MASTER_GT {GTYE4_CHANNEL_X0Y7}] [get_ips $ip_name]
}</pre>
<p>The obvious change is that the workaround isn&#8217;t applied from Vivado 2025.1 and later.</p>
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		<title>Running Xilinx Impact on Linux Mint 19</title>
		<link>https://billauer.se/blog/2021/02/xilinx-impact-linux/</link>
		<comments>https://billauer.se/blog/2021/02/xilinx-impact-linux/#comments</comments>
		<pubDate>Sat, 13 Feb 2021 11:46:51 +0000</pubDate>
		<dc:creator>eli</dc:creator>
				<category><![CDATA[FPGA]]></category>
		<category><![CDATA[Linux]]></category>
		<category><![CDATA[udev]]></category>

		<guid isPermaLink="false">https://billauer.se/blog/?p=6239</guid>
		<description><![CDATA[Introduction This is my short war story as I made Xilinx&#8217; Impact, part of ISE 14.7, work on a Linux Mint 19 machine with a v4.15 Linux kernel. I should mention that I already use Vivado on the same machine, so the whole JTAG programming thing was already sorted out, including loading firmware into the [...]]]></description>
			<content:encoded><![CDATA[<h3>Introduction</h3>
<p>This is my short war story as I made Xilinx&#8217; Impact, part of ISE 14.7, work on a Linux Mint 19 machine with a v4.15 Linux kernel. I should mention that I already use Vivado on the same machine, so the whole JTAG programming thing was already sorted out, including loading firmware into the USB JTAG adapters, whether it&#8217;s a platform cable or an on-board interface. All that was already history. It was Impact that refused to play ball.</p>
<p>In short, what needed to be done:</p>
<ul>
<li>Make a symbolic link to activate libusb.</li>
<li>Make sure that the firmware files are installed, even if they&#8217;re not necessary to load the USB devices.</li>
<li>Make sure Vivado&#8217;s hardware manager isn&#8217;t running.</li>
<li>Don&#8217;t expect it to always work. It&#8217;s JTAG through USB, which is well-known for being cursed since ancient times. Sometimes &#8220;Initialize Chain&#8221; works right away, sometimes &#8220;Cable Auto Connect&#8221; is needed to warm it up, and sometimes just restart Impact, unplug and replug everything + recycle power on relevant card. Also apply spider leg powder as necessary with grounded elephant eyeball extract.</li>
</ul>
<p>And now in painstaking detail.</p>
<h3>The USB interface</h3>
<p>The initial attempt to talk with the USB JTAG interface failed with a lot of dialog boxes saying something about windrvr6 and this:</p>
<pre>PROGRESS_START - Starting Operation.
If you are using the Platform Cable USB, please refer to the USB Cable Installation Guide (UG344) to install the libusb package.
Connecting to cable (Usb Port - USB21).
Checking cable driver.
 Linux release = 4.15.0-20-generic.
WARNING:iMPACT -  Module windrvr6 is not loaded. Please reinstall the cable drivers. See Answer Record 22648.
Cable connection failed.</pre>
<p>This is horribly misleading. windrvr6 is a Jungo driver which isn&#8217;t supported for anything by ancient kernels. Also, the said Answer Record seems to have been deleted.</p>
<p>Luckily, there&#8217;s a libusb interface as well, but it needs to be enabled. More precisely, Impact needs to find a libusb.so file somewhere. Even more precisely, this is some strace output related to its attempts:</p>
<pre>openat(AT_FDCWD, "/opt/xilinx/14.7/ISE_DS/ISE//lib/lin64/libusb.so", O_RDONLY|O_CLOEXEC) = -1 ENOENT (No such file or directory)
openat(AT_FDCWD, "/opt/xilinx/14.7/ISE_DS/ISE/lib/lin64/libusb.so", O_RDONLY|O_CLOEXEC) = -1 ENOENT (No such file or directory)
openat(AT_FDCWD, "/opt/xilinx/14.7/ISE_DS/ISE/sysgen/lib/libusb.so", O_RDONLY|O_CLOEXEC) = -1 ENOENT (No such file or directory)
openat(AT_FDCWD, "/opt/xilinx/14.7/ISE_DS/EDK/lib/lin64/libusb.so", O_RDONLY|O_CLOEXEC) = -1 ENOENT (No such file or directory)
openat(AT_FDCWD, "/opt/xilinx/14.7/ISE_DS/common/lib/lin64/libusb.so", O_RDONLY|O_CLOEXEC) = -1 ENOENT (No such file or directory)
<em><span style="color: #888888;">[ ... ]</span></em>
openat(AT_FDCWD, "/usr/lib/x86_64-linux-gnu/tls/libusb.so", O_RDONLY|O_CLOEXEC) = -1 ENOENT (No such file or directory)
openat(AT_FDCWD, "/usr/lib/x86_64-linux-gnu/libusb.so", O_RDONLY|O_CLOEXEC) = -1 ENOENT (No such file or directory)
openat(AT_FDCWD, "/lib/libusb.so", O_RDONLY|O_CLOEXEC) = -1 ENOENT (No such file or directory)
openat(AT_FDCWD, "/usr/lib/libusb.so", O_RDONLY|O_CLOEXEC) = -1 ENOENT (No such file or directory)</pre>
<p>It so happens that a libusb module is present among the files installed along with ISE (several times, actually), so it&#8217;s enough to just</p>
<pre>$ cd /opt/xilinx/14.7/ISE_DS/ISE/lib/lin64/
$ ln -s libusb-1.0.so.0 libusb.so</pre>
<p>or alternatively, a symlink to /usr/lib/x86_64-linux-gnu/libusb-1.0.so worked equivalently well on my system.</p>
<h3>But then</h3>
<p>Trying to initialize the chain I got:</p>
<pre>PROGRESS_START - Starting Operation.
Connecting to cable (Usb Port - USB21).
Checking cable driver.
File version of /opt/xilinx/14.7/ISE_DS/ISE/bin/lin64/xusbdfwu.hex = 1030.
 <strong>Using libusb</strong>.
<strong>Please run `source ./setup_pcusb` from the /opt/xilinx/14.7/ISE_DS/ISE//bin/lin64 directory with root privilege to update the firmware. Disconnect and then reconnect the cable from the USB port to complete the driver update.
</strong>Cable connection failed.</pre>
<p>So yey, it was not going for libusb. But then it refused to go on.</p>
<p>Frankly speaking, I&#8217;m not so much into running any script with root privileges, knowing it can mess up things with the working Vivado installation. On my system, there was actually no need, because I had already installed and then removed the cable drivers (as required by ISE).</p>
<p>What happened here was that Impact looked for firmware files somewhere in /etc/hotplug/usb/, assuming that if they didn&#8217;t exist, then the USB device must not be loaded with firmware. But it was in my case. And yet, Impact refused on the grounds that the files couldn&#8217;t be found.</p>
<p>So I put those files back in place, and Impact was happy again. If you don&#8217;t have these files, an ISE Lab Tools installation should do the trick. Note that it also installs udev rules, which is what I wanted to avoid. And also that the installation will fail, because it includes compiling the Jungo driver against the kernel, and there&#8217;s some issue with that. But as far as I recall, the kernel thing is attempted last, so the firmware files will be in place. I think.</p>
<p>Or installing them on behalf of Vivado is also fine? Note sure.</p>
<h3>Identify failed</h3>
<p>Attempting to Cable Auto Connect, I got Identify Failed and a whole range of weird errors. Since I ran Impact from a console, I got stuff like this on the terminal:</p>
<pre>ERROR set configuration. strerr=Device or resource busy.
ERROR claiming interface.
ERROR setting interface.
ERROR claiming interface in bulk transfer.
bulk tranfer failed, endpoint=02.
ERROR releasing interface in bulk transfer.
ERROR set configuration. strerr=<strong>Device or resource busy</strong>.
ERROR claiming interface.
ERROR setting interface.
control tranfer failed.
control tranfer failed.</pre>
<p>This time it was a stupid mistake: Vivado&#8217;s hardware manager ran at the same time, so the two competed. Device or resource busy or not?</p>
<p>So I just turned off Vivado. And voila. All ran just nicely.</p>
<h3>Bonus: Firmware loading confusion</h3>
<p>I mentioned that I already had the firmware loading properly set up. So it looked like this in the logs:</p>
<pre>Feb 13 11:58:18 kernel: usb 1-5.1.1: new high-speed USB device number 78 using xhci_hcd
Feb 13 11:58:18 kernel: usb 1-5.1.1: New USB device found, idVendor=03fd, idProduct=000d
Feb 13 11:58:18 kernel: usb 1-5.1.1: New USB device strings: Mfr=0, Product=0, SerialNumber=0
<span style="color: #ff0000;"><strong>Feb 13 11:58:18 systemd-udevd[59619]: Process '/alt-root/sbin/fxload -t fx2 -I /alt-root/etc/hotplug/usb/xusbdfwu.fw/xusb_emb.hex -D ' failed with exit code 255.
</strong></span></pre>
<p>immediately followed by:</p>
<pre>Feb 13 11:58:25 kernel: usb 1-5.1.1: new high-speed USB device number 80 using xhci_hcd
Feb 13 11:58:25 kernel: usb 1-5.1.1: New USB device found, idVendor=03fd, idProduct=0008
Feb 13 11:58:25 kernel: usb 1-5.1.1: New USB device strings: Mfr=1, Product=2, SerialNumber=0
Feb 13 11:58:25 kernel: usb 1-5.1.1: Product: XILINX
Feb 13 11:58:25 kernel: usb 1-5.1.1: Manufacturer: XILINX</pre>
<p>This log contains contradicting messages. On one hand, the device is clearly re-enumerated with a new product ID, indicating that the firmware load went fine. On the other hand, there&#8217;s an error message saying fxload failed.</p>
<p>I messed around quite a bit with udev because of this. The problem is that the argument to the -D flag should be the path to the device files of the USB device, and there&#8217;s nothing there. In the related udev rule, it says $devnode, which should substitute to exactly that. Why doesn&#8217;t it work?</p>
<p>The answer is that it actually does work. For some unclear reason, the relevant udev rule is called a second time, and on that second time $devnode is substituted with nothing. Which is harmless because it fails royally with no device file to poke. Except for that confusing error message.</p>
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