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    <title>General | MSI HQ User-to-User FAQ</title>

    <link>https://forum-en.msi.com/faq/</link>
    <description>Here you will find most answers that are asked many times before.</description>
    <dc:language>en-ca</dc:language>
    <dc:creator>svet@forum.msi.com</dc:creator>

    <dc:rights>Copyright 2026</dc:rights>
    <admin:generatorAgent rdf:resource="http://www.codeigniter.com/" />

        
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          <title>IDE, SATA, AHCI, SSDs and TRIM: all you need to know</title>
          <link>https://forum-en.msi.com/faq/article/ide-sata-and-ahci-all-you-need-to-know</link>
          <guid>https://forum-en.msi.com/faq/article/ide-sata-and-ahci-all-you-need-to-know</guid>

          <description><![CDATA[
      <br>This article will attempt to explain IDE, SATA and AHCI, as well as clear up some misunderstandings and mistruths.<br><br><span style="font-weight: bold;">IDE - Integrated Drive Electronics</span><br>This refers to the fact that the device has its own controller on board, as opposed to being directly controlled by the CPU. This standard has existed since the early 80s and is still true in this modern era. All hard disks (HDD), solid-state disks (SSD) and optical CD/DVD drives are IDE devices. <br><br><span style="font-weight: bold;">PATA - Parallel ATA (Advanced Technology Attachment)</span><br>This is the older version of the interface for connecting storage devices. It used a 40pin, and later a 80pin, flat ribbon cable. Each channel allows two devices to be connected, one a 'master' and the other a 'slave' device.<br><br>See: <a href="http://en.wikipedia.org/wiki/Parallel_ATA#IDE_and_ATA-1">http://en.wikipedia.org/wiki/Parallel_ATA#IDE_and_ATA-1</a><br><br><span style="font-weight: bold;"><br>SATA - Serial ATA</span><br>This is the newest version of the interface for connecting storage devices. It uses a flat 7 pin serial cable. Each channel is directly connected to a single device.<br><br>There have been several revisions of the SATA standard:<br>SATA revision 1 (SATA 1.5Gb/s) - previously known as SATA-1, SATA-I and SATA-150<br>SATA revision 2 (SATA 3Gb/s) - previously known as SATA-2 and SATA-II<br>SATA revision 3 (SATA 6Gb/s) - commonly misrefered to as SATA-3<br><br>See: <a href="http://en.wikipedia.org/wiki/Sata">http://en.wikipedia.org/wiki/Sata</a><br><br><br><span style="font-weight: bold;">AHCI - Advanced Host Controller Interface</span><br>This is a new standard defined by Intel for the operation of SATA host controllers. It is separate from the SATA standard, although it exposes SATA's advanced capabilities (such as hot swapping and native command queuing) such that host systems can utilize them.<br><br>See: <a href="http://en.wikipedia.org/wiki/Ahci">http://en.wikipedia.org/wiki/Ahci</a><br><br><br>In your BIOS, your SATA controller has selectable modes of operation. Typically these are:<br>IDE - In this context, it simply means to use 'legacy' ATA operation mode. It can also be referred to as 'IDE emulation', which itself is misleading, as explained earlier, all SATA drives are themselves IDE devices. For using multiple independent drives, this mode of operation can be selected. Note there is no performance 'loss' using this.<br><br>RAID - This sets the SATA controller to operate in RAID mode. This is where you would use multiple drives as one single storage 'array'.<br><br>AHCI (where supported) - This sets the SATA controller to operate in AHCI mode. It provides 'hot-swapping' facilities, as well as Native Command Queuing will improve the performance.<br><br><br><span style="font-weight: bold;">SSDs and the TRIM command</span><br>The TRIM command is dependent on the SSD itself, and the operating system supporting it. It is not dependent on the host controller, and AHCI is not a requirement. TRIM is natively supported in Windows 7, as well as Linux since kernel 2.6.33.<br><br>See: <a href="http://en.wikipedia.org/wiki/TRIM">http://en.wikipedia.org/wiki/TRIM</a>      ]]></description>
      <pubDate>Sun, 22 May 2011 15:10:31 +0200</pubDate>
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          <title>Intel Rapid Start</title>
          <link>https://forum-en.msi.com/faq/article/intel-rapid-start</link>
          <guid>https://forum-en.msi.com/faq/article/intel-rapid-start</guid>

          <description><![CDATA[
      <span style="font-size: 24pt;" class="bbc_size"><strong>Intel® Rapid Start Technology User Guide</strong></span><br><br>Intel® Rapid Start Technology enables your system to get up and running faster from even the deepest sleep, saving time and power consumption. Feel secure knowing that your system will resume to working condition in the event of unexpected power loss while in sleep mode.<br><span style="font-size: 14pt;" class="bbc_size"><strong>System Requirements</strong>:</span><br>For a system to support Intel Smart Response Technology it must have the following:<br>• Intel® Z77/H77/Q77 Express Chipset-based desktop board<br>• Intel® Core™ Processor in the LGA1155 package<br>• Solid State Drive (SSD)<br>• Hard Disk Drive (optional for Intel Smart Response Technology)<br>• Operating system: Microsoft Windows 7* (32- or 64-bit edition)<br>• Intel Rapid Start Technology software<br><br><span style="font-size: 14pt;" class="bbc_size"><strong>Setup Guide</strong></span><br><br><span style="font-size: 14pt;" class="bbc_size"><strong>Operating System Installation</strong></span><br><br>Note: If installing the operating system &#40;OS&#41; on the solid state drive (SSD), ensure that there’s enough partition space left on the SSD to create a Hibernation Partition. Size of the Hibernation Partition must be equal or larger than the amount of system memory.<br>1. Install Windows 7 on the SSD. If you plan to implement Intel Smart Response Technology, then install the operating system on the hard disk drive (HDD) instead.<br>    Note: Instructions for enabling Intel Smart Response Technology will not be covered here. Please complete the setup for Intel Smart Response Technology before proceeding with Intel Rapid Start Technology.<br><br>2. Install all required device drivers. Do not install the Intel Rapid Start Technology software yet.<br><br><span style="font-size: 14pt;" class="bbc_size"><strong>Configure Intel Rapid Start Technology in BIOS Setup (Visual BIOS)</strong></span><br><br>3. Press the F2 key during boot to enter the Visual BIOS.<br><br>4. Click the button for Advanced Setup, and then click Power.<br><br>5. Locate the setting for Intel Rapid Start Technology, and click the check box to enable it.<br><br>6. Set the option for Hibernation Timer to Immediately.<br><br>7. Press the F10 key to save settings, exit BIOS, and restart the computer.<br><br><span style="font-size: 14pt;" class="bbc_size"><strong><span style="color: red;" class="bbc_color">Alternate Steps</span> to Configure Intel Rapid Start Technology in BIOS Setup (non-Visual BIOS or Classic Mode</strong>)</span><br><br>8. Press the F2 key during boot to enter the BIOS setup.<br><br>9. Scroll to the Power menu.<br><br>10. Set the option for Intel Rapid Start Technology to Enabled.<br><br>11. Set the option for Hibernation Timer to Immediately.<br><br>12. Press the F10 key to save settings, exit BIOS, and restart the computer.<br><br><span style="font-size: 14pt;" class="bbc_size"><strong>Create a Hibernation Partition on the SSD</strong></span><br><br>13. In the operating system, click the Windows Start button.<br><br>14. In the Search box, type in cmd.exe.<br><br>15. Right-click on the <strong>cmd</strong> tool and select <strong>Run as administrator</strong>.<br><br>16. A command line utility will open. Type in <strong>diskpart.exe </strong> and press<strong> Enter</strong>.<br><br>17. At the <strong>DISKPART&gt;</strong> prompt, type the following commands, in the order shown:<br><strong>DISKPART&gt;list disk</strong><br><img class="bbc_img" alt="" src="http://imageshack.us/a/img207/4536/rapidstart1.png"><br><br><strong>DISKPART&gt;select disk X</strong><br>     (X is the disk number where you want to create the store partition. Refer to results from “list disk” for exact disk number. Disk must be an SSD)<br><br><strong>DISKPART&gt;create partition primary size=Y000</strong><br>     (Y is the size in GB for the partition. For example, for 8 GB, the value should be 8000. The value of Y should be equal or larger than the amount of memory in the system)<br><br><strong>DISKPART&gt;detail disk</strong><br><br><strong>DISKPART&gt; select Volume Z</strong><br>     (Z is Volume of your store partition. Refer to results from “detail disk” for exact volume number)<br><br><strong>DISKPART&gt;set id=84 override</strong><br>     (The id must be set to 84)<br><br><strong>DISKPART&gt;exit</strong><br><br>18. Go to Control Panel &gt; System and Security &gt; Administrative Tools &gt; Computer Management &gt; Disk Management.<br><br>19. Confirm in Disk Management that there is now a Hibernation Partition on the SSD with the correct size specified earlier.<br><br><img class="bbc_img" alt="" src="http://imageshack.us/a/img69/7044/rapidstart2.png"><br><br>20. Close Disk Management and restart the system for the BIOS to identify the existence of the newly created hibernation partition for Intel Rapid Start Technology.<br><br><strong>Installing the Intel Rapid Start Technology software</strong><br><br>21. Run the setup.exe file from the Intel Rapid Start Technology software package.<br><br>22. Complete the installation process.<br><br>23. Once installation is done, click the Task Bar on the bottom right of the desktop and look for the icon for Intel Rapid Start Technology Manager. Click to launch the tool.<br><br><img class="bbc_img" alt="" src="http://imageshack.us/a/img641/3199/rapidstart3.png"><br><br>24. Check that the status for Intel Rapid Start Technology is On.<br><br>25. Ensure that the Timer is set to On and the slider bar is at position 0. This ensures the system will immediately begin utilizing Intel Rapid Start Technology once the system is put into sleep (S3) mode.<br><br><img class="bbc_img" alt="" src="http://imageshack.us/a/img29/8127/rapidstart4.png"><br><br><span style="font-size: 14pt;" class="bbc_size"><strong>Testing the Intel Rapid Start Technology</strong></span><br><br>26. Click the Windows Start button, and then click Sleep. This will put the system into S3 state.<br><br>27. Observe that the system will go into sleep mode, and then quickly wake up again before going into sleep state again. This is normal behavior as the system first transitions into the S3 state (per the OS), and then Intel Rapid Start will wake the system up and move it into the S4 state.<br><br>28. The system is now in the S4 state as it cannot be woken up using USB devices such as USB keyboard or mouse.<br><br>29. Press the Power Button to resume the system.<br><br>30. Observe that the system resume time is as fast as a wake from S3.<br><br><br><span style="font-size: 8pt;" class="bbc_size">* Other names, brands, and logos may be claimed as the property of others.<br>Intel, the Intel logo, Intel Core, and Core Inside are trademarks of Intel Corporation in the U.S. and/or other countries.<br>Copyright © 2012 Intel Corporation. All rights reserved.</span><br><br><br>Source:<br><a class="bbc_link" href="http://download.intel.com/support/motherboards/desktop/sb/rapid_start_technology_user_guide.pdf" target="_blank"><font color="#0000ff">http://download.intel.com/support/motherboards/desktop/sb/rapid_start_technology_user_guide.pdf</font></a>      ]]></description>
      <pubDate>Sat, 22 Sep 2012 03:11:35 +0200</pubDate>
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          <title>Warning about anti&#45;static bags</title>
          <link>https://forum-en.msi.com/faq/article/warning-about-anti-static-bags</link>
          <guid>https://forum-en.msi.com/faq/article/warning-about-anti-static-bags</guid>

          <description><![CDATA[
      Originally written by Hans:<br><br>Hi guys,<br>Lately, I see many people giving the advice to place a mainboard on the anti-static bag it came in to test the setup.<br><br><span style="color: red;"><b>DON'T EVER DO THAT! STAY AWAY FROM THOSE BAGS, THEY ARE MADE OF CONDUCTING MATERIALS!!</b></span><br><br>Have a look here: <a href="http://en.wikipedia.org/wiki/Antistatic_bag" target="_blank">http://en.wikipedia.org/wiki/Antistatic_bag</a> .<br><br>There are people who's board burnt out completely with the bag melted to it, after testing on an anti-static bag.<br><br>If
 you want to place your board outside a pc-case for testing, lay it on a
 piece of cardboard with no print on it. Or use another surface of which
 you are 100% sure it's non-conducting.      ]]></description>
      <pubDate>Sat, 11 Jun 2011 13:19:12 +0200</pubDate>
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          <title>DDR3 Memory Timings Explained</title>
          <link>https://forum-en.msi.com/faq/article/ddr3-memory-timings-explained</link>
          <guid>https://forum-en.msi.com/faq/article/ddr3-memory-timings-explained</guid>

          <description><![CDATA[
      <p>&nbsp;</p><p><br><strong>DDR3:</strong> <strong>D</strong>ouble <strong>D</strong>ata <strong>R</strong>ate synchronous dynamic random access memory version 3<br>Double Data Rate means that this memory transfers data on both the rising and falling edges of the clock signal. This is why 1600mhz DDR3 memory appears as 800MHz&nbsp;in cpuid. This is the current type of memory used in modern systems. It is not backward compatible with any other type or memory.</p><p><strong>Timings:</strong> When we are talking about timings, we are talking about the speed at which the memory controller access's reads and writes from one 64bit block to another. When you see ram timings, they are generally represented like this: 9-9-9-24 or CL- tRCD-tRP-Tras (See below) there are more advanced ram timings, but these are the most important and we will cover the others later.</p><p><strong>CAS timing or CL: </strong>CAS stands for Column Address Strobe It controls the number of CPU cycles between sending a reading command and the time to act on it. Setting this to a lower number will increase performance.</p><p><strong>RAS to CAS delay or tRCD:</strong> Is the amount of time in cycles for issuing an active command and the read/write commands. </p><p><strong>Row Precharge Time or TRP</strong>: The minimum # of clock cycles between&nbsp; active commands and read/write cycles of the next bank on the memory module.</p><p><strong>Min RAS Active Time or tRAS:</strong> This is the amount of time between a row being activated by precharge and deactivated. A row cannot be deactivated until the tras limit is reached. <strong>When overclocking your timings, you must keep the tRAS = CL + tRCD+tRP (+/-1)</strong></p><p><strong>Command Rate:</strong> This controls the number of cycles that memory commands can be executed. 1T is the highest performance, the higher the command rate, the More stable the system.</p><p><strong>JEDEC memory Standards:</strong><br>"The JEDEC memory standards are the specifications for semiconductor memory circuits and similar storage devices promulgated by the JEDEC Solid State Technology Association, a semiconductor trade and engineering standardization organization."<br>&nbsp;<br>"JEDEC Standard 100B.01 specifies common terms, units, and other definitions in use in the semiconductor industry. JESC21-C specifies semiconductor memories from the 256 bit static RAM to the latest DDR3 SDRAM modules." For our purposes, basically this group sets what is standard in regards to how memory should perform in relation to speed&nbsp; &amp; Timings.</p><p>The table below shows how memory is supposed to be timed in order to be "standard". Any lower timing at a given speed is considered out of spec or overclocking. Most of the time at a given speed, so long as the CPU and board are designed for the data rate/ bandwidth, ANY memory should be able to operate at that standard.</p><p><img border="0" hspace="0" alt="" align="baseline" src="http://img843.imageshack.us/img843/4665/jdec.png"></p><p><strong>The Intel® Extreme Memory Profile</strong><br>&nbsp;<br>Intel® Extreme Memory Profile &#40;Intel® XMP&#41; allows you to overclock compatible DDR3 memory to perform beyond standard specifications. This is an automatic overclocking profile tested by the manufacturer of the memory. This profile is stored on the memory itself and is able to be accessed and applied by the bios of your mother board.<br>Sorry AMD guys, you have to do this manually, although by looking at the spd profile, you can manually match the timings / speed.</p><p><strong>SPD:</strong> Serial presence detect is a standard way that information on how the memory is designed to run that is stored the memory itself. This is usually comprised of several JEDEC standard profiles and an XMP profile. The bios is able to pull this information from the memory in order to properly use the memory. This of course can be overridden which is the whole point of overclocking, but this is always the starting point.</p><p>Below is a screen shot of the spd as displayed by CPUID. <br>As you can see, the ram shown was sold as DDR3 2133, but it can only run at 1333 and still be within JEDEC spec! Also, you can see that it's max rated bandwidth is 1333! So really it is overclocked DDR3 1333 sold as DDR3-2133! Currently, the highest rated memory available is 1866 but is almost impossible to find or afford if you do, almost everything you see available for purchase is 1333 or at most 1600!<br><img border="0" hspace="0" alt="" align="baseline" src="http://img269.imageshack.us/img269/1052/75307755.png"></p><p><strong>Dram Voltage:</strong> The amount of Voltage Applied to the Memory; The JEDEC standard for DDR is 1.5v +- .075 with the exception of DDR3L which is 1.35v<br>"According to JEDEC, 1.575 volts should be considered the absolute maximum when memory stability is the foremost consideration, such as in servers or other mission-critical devices. In addition, JEDEC states that memory modules must withstand up to 1.975 volts before incurring permanent damage, although they are not required to function correctly at that level."</p><p><strong>VTT/ VCCIO/ I/O:</strong> This is the voltage applied to the memory controller and is often overlooked in overclocking. Remember that as you raise your CPU overclock you are also increasing the memory bandwidth. So many people over compensate with CPU Voltage when less of that and more I/O voltage would have done the trick.</p><p><strong>  Advanced Memory Timings</strong></p><p>In this section I will be detailing the advanced ram timings. Unless you are really dedicated to overclocking / tinkering, it is safe to say you can stop here and leave all of these on auto. Other wise, here we go....</p><p><strong>Memory Rank:</strong> A memory rank is a set of DRAMs connected to the same chip select, and which are therefore accessed simultaneously. In practice they also share all of the other command and control signals, and only the data pins for each DRAM are separate (but the data pins are shared across ranks).</p><p><strong>Memory Refresh:</strong> Memory refresh is the process of periodically reading information from an area of computer memory, and immediately rewriting the read information to the same area without modification, for the purpose of preserving the information.</p><p><strong>Memory Bank: </strong>A memory bank is a logical unit of storage in electronics, which is hardware dependent. In computer the memory bank may be determined by the memory access controller and the CPU along with physical organization of the hardware memory slots.</p><p><strong>Row Cycle Time or tRC:</strong>This sets the number of cpu cycles a memory row (Remeber that memory is devided into "cells" much like an excel spredsheet) takes to complete a full cycle. A full cycle is from row activation to precharging of the active row. This setting has major affect on memory speed w/ a lower timing being faster. tRC= tras + tRP</p><p><strong>Refresh to Activate Delay / Refresh Cycle Time or tRFC</strong>: Sets the number of clock cycles from the refresh command until the first activate command to the same rank.</p><p><strong>Refresh Mode Select / Refresh Period or tREF:</strong> Sets the number of clock cycles refreshes will be executed. <strong>HIGHER VALUE FOR HIGHER PERFORMANCE</strong></p><p><strong>Performance Level / Read Delay or tRD:</strong> Sets the number of memory clocks from DRAM chip select# assert to host data ready# assertion on the FSB.<br>Translation:&nbsp; Whenever the FSB and MEMORY speed are increased, the tRD and Northbridge voltage(I/O see above) will have to be increased in order to handle the addtional bandwidth.&nbsp; <strong>This setting has MAJOR effects on both performance and stability.</strong> This should be set to the lowest stable setting at any Speed.</p><p><strong>Write to Precharge Delay / Write Recovery Time or tWR: </strong>This sets the number of clock cycles between the completion of a valid write operation and before an active bank can be precharged. Write to precharge formula is tCL -1 +(Burst Legnth / 2)+tWTR</p><p><strong>Activate to Activate delay or tRRD:</strong> Number of clock cycles between the activation of two rows in different banks of the same rank. (not much of a performance boost)</p><p><strong>Read to Precharge delay or tRTP:</strong> The number of clock cycles between a read command to a row pre-charge command of the same rank.</p><p><strong>Read to Write delay or tRTW:</strong> The number of clock cycles between a read command and a write command of the same rank.</p><p><strong>Four Activate Window or tFAW:</strong> The number of cycles in which four activates are allowed within the same rank.</p><p><strong>Precharge to Precharge delay or tPTP:</strong> The number of cycles between precharge commands of different banks of the same rank.</p><p><strong>Write / Read command spacing or tWR-RD:</strong> The number of clocks between a write command and a read command of a different rank.</p><p><strong>Read / Write Command Spacing or tRD-WR:</strong>The number of clocks between a write command and a write command of different ranks in the same channel.</p><p><strong>Force Auto Precharge:</strong> Forces auto precharing for every reand and write command. Enabled for power savings</p><p><strong>Maximum Asynchronous Latency:</strong> Sets the maximum latency of a round trip from the cpu to dram and back. This is specifed in NB clock and includes asynchronous and synchronous latencies.</p><p><strong>Read/Write Queue Bypass:</strong> The number of times that the oldest operation in the Dram controller read/write queue may be bypassed.</p><p><strong>Queue Bypass Max:</strong> The max number of times that the oldest memory -access request in the Dram controller queue may be bypassed.</p><p><strong>Dram Idle Timer:</strong> The number of clocks the Dram Controller will remain in the idle state before it begins precharging all pages.</p>      ]]></description>
      <pubDate>Wed, 29 Aug 2012 21:42:14 +0200</pubDate>
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