Builder’s Guide for
AMD Opteron™
Processor-Based
Servers and Workstations
Publication # 30925 Revision: 3.04
Issue Date:
February 2004
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30925 Rev. 3.04 February 2004
Builder’s Guide for AMD Opteron™ Processor-
Based Servers and Workstations
Contents
Revision History...............................................................................................................................7
1.1 The AMD64 Architecture..................................................................................................9
Validated Server Program (VSP).........................................................................11
Not Yet a Member of VSP?.............................................................................................15
AMD Opteron™ Processor-In-a-Box ..................................................................17
Heatsink Installation Procedure.......................................................................................19
Power Supply Considerations..................................................................................30
5.3.2
Thermally Tested Populated Chassis Server Solutions for AMD Opteron
Processor..................................................................................................................34
Contents
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Builder’s Guide for AMD Opteron™ Processor-Based
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AMD Opteron Processor Utilities and Updates.............................................................. 39
Appendix B FAQs....................................................................................................................... 51
4
Contents
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30925 Rev. 3.04 February 2004
Builder’s Guide for AMD Opteron™ Processor-
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List of Figures
Figure 5. Retention Frame and Backplate for the AMD Opteron Processor Heatsink....................19
Figure 6. Backplate Release Liner...................................................................................................20
Figure 10. Tightening Down the Retention Frame..........................................................................22
Figure 12. Pushing Gently Down on the Processor.........................................................................23
Figure 16. Pushing Straight Down on the Clip................................................................................25
Figure 20. Installed Heatsink...........................................................................................................27
Figure 21. Desirable Airflow—Power Supply with Bottom Inlet...................................................30
List of Figures
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30925 Rev. 3.04 February 2004
Builder’s Guide for AMD Opteron™ Processor-Based
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List of Tables
Table 4. Microsoft® Drivers for the AMD-8000™ Series of Chipset Components ....................... 39
6
List of Tables
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30925 Rev. 3.04 February 2004
Builder’s Guide for AMD Opteron™ Processor-
Based Servers and Workstations
Revision History
Date
Revision
Description
February 2004
3.04
Revised public release. Added EMEA contact information.
December 2003
3.00
Initial public release.
Revision History
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8
Revision History
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30925 Rev. 3.04 February 2004
Builder’s Guide for AMD Opteron™ Processor-
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Chapter 1
AMD Opteron™ Processor Key
Architectural Features
The key architectural features of an AMD Opteron™ processor-based system include AMD64
architecture, integrated DDR DRAM memory controller, HyperTransport™ technology, and many
other features.
Figure 1 shows a block diagram of the AMD Opteron processor architecture.
Figure 1. AMD Opteron™ Processor Architecture
1.1
The AMD64 Architecture
AMD64 architecture allows end users to run existing, installed 32-bit applications and operating
systems at peak performance, while providing a migration path that is 64-bit capable. It is
designed to enable 64-bit computing while remaining compatible with the vast x86 software
infrastructure. AMD64 architecture represents a new class of computing, enabling a single
architecture across 32- and 64-bit environments.
Chapter 1
AMD Opteron™ Processor Key Architectural Features
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Builder’s Guide for AMD Opteron™ Processor-Based
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Integrated DDR DRAM Memory Controller
The 128-bit wide integrated DDR DRAM memory controller:
• changes the way the processor accesses main memory, resulting in increased bandwidth,
reduced memory latencies, and increased processor performance.
• allows available memory bandwidth to scale with the number of processors.
• can support up to eight registered DDR DIMMs per processor.
• has available memory bandwidth of up to 5.3 Gbytes/s (with PC2700) per processor.
HyperTransport™ Technology
The HyperTransport technology of the AMD64 architecture offers the following features:
• A scalable bandwidth interconnection between processors, I/O subsystems, and other chipsets
• Support for up to three coherent HyperTransport links, providing up to 19.2 Gbytes/s of peak
bandwidth per processor
• Up to 6.4 Gbytes/s bandwidth per link providing sufficient bandwidth for supporting new
interconnects including PCI-X, DDR, InfiniBand, and 10G Ethernet
• Low power consumption (1.2 W) to help reduce the system thermal budget
Other Features of the AMD Opteron™ Processor
Other features of the AMD Opteron processor include:
• 64-bit wide key data and address paths that incorporate a 48-bit virtual address space and a
40-bit physical address space
• ECC (error correcting code) protection for L1 cache data, L2 cache data and tags, and DRAM
with hardware scrubbing of all ECC-protected arrays
• Lower thermal output levels and improved frequency scaling through .13 micron SOI (silicon-
on-insulator) process technology
• Support for all instructions necessary to be fully compatible with SSE2 technology
• Two additional pipeline stages (compared to AMD’s 32-bit architecture) for increased
performance and frequency scalability
• Higher IPC (instructions-per-clock) achieved through additional key features, such as larger
TLBs (translation lookaside buffer), flush filters, and enhanced branch prediction algorithms
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AMD Opteron™ Processor Key Architectural Features
Chapter 1
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30925 Rev. 3.04 February 2004
Builder’s Guide for AMD Opteron™ Processor-
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Chapter 2
Validated Server Program (VSP)
For those System Builders, VARs and Integrators that prefer a pre-built system, the Validated
Server Program (VSP) is designed to enable rapid introduction of AMD Opteron™ processor-
based servers. AMD has joined forces with Celestica, one of the world’s leading electronics
manufacturing services (EMS) providers, to bring you the VSP. Building on tested, stable, and
reliable VSP solutions available from Celestica, your organization can:
• Gain leverage in a highly competitive market
• Streamline the development cycle and simplify your business
• Speed time-to-market
• Build revenue through value-added products and services
• Focus on customer service and other core competencies
• Boost customer satisfaction with Celestica’s end-to-end service and support
2.1
Value Proposition
VSP platforms are designed to take advantage of the performance of AMD Opteron processors,
HyperTransport™ technology links, and the AMD-8000™ series of chipsets. All of Celestica’s
server platforms are defined with reliability, availability, and serviceability as key objectives. This
attention to detail provides servers that can be relied on for mission critical applications.
2.2
Design Methodology for the VSP Platform
The design methodology for the VSP platform includes:
• Hot plug testing with multiple operating systems
• Peripheral compatibility testing with more than 100 cards, drives, and multiple operating
systems
• Worst-case power consumption analysis (including PCI-X® peripherals and drives)
• Thermal analysis of components
• Accelerated life test (used to determine MTBF figures)
• Full Flotherm analysis using the latest software modeling tools to confirm sufficient airflow in
the design
• Signal analysis on all high-speed bus and critical signal traces
• Acoustic testing
• Shock, vibration, and drop testing
Chapter 2
Validated Server Program (VSP)
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In addition to the rigorous design and test methodologies, Celestica provides an Engineering
Change Notice (ECN) procedure to give advanced warning of any modifications in hardware or
firmware along with an explanation of the severity and cause. These ECNs are designed to allow
you to proactively solve potential issues with your customers and provide orderly transitions to
new revisions of the platforms.
Celestica offers comprehensive phone and web-based support for all VSP platforms. A
knowledgebase is available for common issues while a trained staff of technicians and engineers
handles more difficult situations. All issues are tracked with trouble tickets to help ensure a
prompt response.
2.3
Platform Description
VSP includes two product lines—one for 2-way multiprocessing and one for 4-way
multiprocessing. Both product lines are available in bare-bones and fully-configured options. Both
product lines feature AMD Opteron processors with AMD64 architecture, enabling end-users to
leverage their current base of 32-bit applications and migrate to 64-bit applications when ready. In
addition, each platform offers high-bandwidth I/O for increased flexibility and expandability,
along with an integrated QLogic baseboard management controller (BMC) for streamlined
management, IPMI v1.5-compliance, and remote management capabilities.
2.3.1
Model A2210 1U/2P—Based on the AMD Opteron™ 200-Series
Processor
This rack-optimized 1U platform is ideal for print/file server applications, Internet/network-edge
devices, dedicated web servers, and high performance cluster nodes. Figure 2 on page 13 shows a
1U/2P rack-optimized server based on the AMD Opteron 200-series processor.
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Validated Server Program (VSP)
Chapter 2
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30925 Rev. 3.04 February 2004
Builder’s Guide for AMD Opteron™ Processor-
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Figure 2. Model A2210 1U/2P Rack Server
Key features of this platform include:
• Up to two AMD Opteron 200-series processors
• AMD64 architecture
• Up to 16 GBytes of DDR ECC registered memory (4 DIMMs per processor)
• One PCI-X 64-bit/133MHz or two PCI-X 64-bit/100 full length slots
• Up to two fixed IDE or two hot-swappable SCSI Ultra320 hard drives
• Slimline DVD-ROM or optional floppy disk drive
• Dual Broadcom 10/100/1000 Ethernet onboard
• 500-W power supply
• Integrated QLogic baseboard management controller (BMC); IPMI v1.5-compliant
2.3.2
4U/4P Model A8440—Based on the AMD Opteron™ 800-Series
Processor
The VSP 4-way multiprocessor solution is designed to deliver incredible performance for
enterprise-level computing including—database, Internet infrastructure, data center environments,
CAD/CAM, high performance cluster nodes, and scientific applications.
Chapter 2
Validated Server Program (VSP)
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30925 Rev. 3.04 February 2004
Builder’s Guide for AMD Opteron™ Processor-Based
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Figure 3. Model A8440 4U/4P Rack Server
Key features of this platform include:
• Up to four AMD Opteron 800-series processors
• AMD64 architecture
• Up to 32 Gbytes of DDR memory (4 DIMMs per processor)
• Two PCI-X 64-bit/133-MHz hot-swappable slots
• Three 64-bit/66-MHz slots
• Two LSI Logic SCSI Ultra 320 channels—one internal and one external
• Four 1” hot-swap SCSI drive bays with U320 SCSI-capable SAF-TE backplane
• Slimline DVD-ROM and floppy drive
• Dual Broadcom 10/100/1000 Ethernet onboard
• Up to three hot-swap 500-W power supplies with 2+1 redundancy
• Integrated QLogic BMC management controller; IPMI v1.5-compliant
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Validated Server Program (VSP)
Chapter 2
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30925 Rev. 3.04 February 2004
Builder’s Guide for AMD Opteron™ Processor-
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2.4
Not Yet a Member of VSP?
For more information, register as a member, and find out how to order VSP products, please visit
Chapter 2
Validated Server Program (VSP)
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Validated Server Program (VSP)
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30925 Rev. 3.04 February 2004
Builder’s Guide for AMD Opteron™ Processor-
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Chapter 3
AMD Opteron™
Processor-In-a-Box
The best solution for System Builders and Resellers manufacturing pedestal platforms is the
processor-in-a-box (PIB) from AMD. The PIB is available now in a new retail box. The improved
display options allow the product to be either free-standing, stacked, or hung. The boxed processor
package is heat-sealed to alleviate lid tampering and to help ensure the authenticity of the AMD
processor. The AMD PIB is covered by a three-year limited warranty.
Figure 4. AMD64 Processor-in-a-Box
The PIB includes the following items:
• The AMD64 processor of choice
• Heatsink and fan, properly sized for the thermal requirements of the processor
• Assembly and installation instructions
• AMD64 processor case sticker
• Double processor packaging allows higher impact resistance adding more protection
• A three-year limited warranty
• Certificate of Authenticity
Check with your preferred distribution partner for AMD Opteron™ processor in a box or buy
distribution partner for AMD Opteron™ processor-in-a-box.
Chapter 3
AMD Opteron™ Processor-In-a-Box
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AMD Opteron™ Processor-In-a-Box
Chapter 3
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Builder’s Guide for AMD Opteron™ Processor-
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Chapter 4
Heatsink Installation
This chapter contains instructions for the installation of the AMD Opteron™ processor heatsink.
The AMD Opteron processor heatsink requires the retention frame and the backplate to be
attached to the motherboard. If the retention frame and backplate are already attached to the
match the one provided in a PIB.
Figure 5. Retention Frame and Backplate for the AMD Opteron™ Processor Heatsink
4.1
Heatsink Installation Procedure
Follow the instructions to install the AMD Opteron processor heatsink.
CAUTION: As with all computer equipment, the processor and motherboard components may be
damaged by electrostatic discharge (ESD). Please take proper ESD precautions
when handling any board.
Warning: Do not apply voltage until the heatsink is fully installed. If voltage is applied before
the heatsink is fully installed, the processor will overheat and failure will result.
Read through the entire installation instructions completely to make sure you
understand them before you begin.
1. Place the backplate on a flat surface.
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Heatsink Installation
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30925 Rev. 3.04 February 2004
Builder’s Guide for AMD Opteron™ Processor-Based
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Figure 6. Backplate Release Liner
3. Gently lift the motherboard by the edges over the backplate.
4. Align the two threaded standoffs on the backplate with the two mounting holes near the socket
on the motherboard. (See Figure 7.)
Figure 7. Motherboard Placed Over Backplate
5. Gently lower the motherboard until the standoffs fit through the holes near the socket and the
backplate makes complete contact with the motherboard.
6. Press firmly on the socket to ensure proper contact between the backplate and motherboard.
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Heatsink Installation
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30925 Rev. 3.04 February 2004
Builder’s Guide for AMD Opteron™ Processor-
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Figure 8. Ensure Proper Contact Between Backplate and Motherboard
7. Carefully place the retention frame on the motherboard.
Figure 9. Retention Frame Screw Holes Aligned with Backplate Standoffs
− Ensure that the retention frame is flat with the motherboard.
− Do not over-tighten the screws.
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30925 Rev. 3.04 February 2004
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Figure 10. Tightening Down the Retention Frame
10. Lift the socket locking-lever. (Pull it out slightly, and then lift up.)
Warning: Do not apply voltage until the heatsink is fully installed. If voltage is applied before
the heatsink is fully installed, the processor will overheat and failure will result.
11. Gently place the zero insertion force (ZIF) processor into the socket.
The AMD Opteron processor has a small triangle marking on one corner. (See Figure 11.) This
triangle corresponds to the alignment marking on the motherboard. The corner with the
triangle must be located at the corresponding corner marked on the motherboard.
Be careful not to bend the processor pins.
Figure 11. Alignment Markers on Processor and Motherboard
12. Push down gently on the processor while lowering the locking lever and latching it into the
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30925 Rev. 3.04 February 2004
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Figure 12. Pushing Gently Down on the Processor
13. Inspect the thermal interface material for scratches or gaps.
The heatsink has a thermal interface material pre-applied on the bottom. This material is
protected by a plastic cover. (See Figure 13.)
Do not use the thermal interface material if it has scratches or gaps. If replacement thermal
interface material is needed, contact AMD technical support for assistance at
If a heatsink is removed for any reason, clean the processor and heatsink surface and re-apply
an AMD approved thermal interface material before re-installing the processor.
14. Remove and discard the plastic cover.
Be careful not to touch or scratch the thermal interface material.
Figure 13. Plastic Cover Over Thermal Interface Material
15. Center the heatsink over the processor. (See Figure 14 on page 24.)
The mounting lug on the retention frame must match the heatsink clip.
The heatsink must have full contact with the processor.
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Builder’s Guide for AMD Opteron™ Processor-Based
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Figure 14. Heatsink Centered Over Processor
16. Hook the spring clip under the cam lever to the mounting lug on the retention frame.
Some force may need to be applied.
Figure 15. Heatsink Spring Clip
17. Ensure the spring clip is aligned with the plastic lug on the retention frame.
18. Carefully push straight down on the clip. (See Figure 16 on page 25.)
This may take more force than the first side.
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Heatsink Installation
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30925 Rev. 3.04 February 2004
Builder’s Guide for AMD Opteron™ Processor-
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Figure 16. Pushing Straight Down on the Clip
The spring clip must be installed as shown in Figure 17.
Figure 17. Correctly Installed Spring Clip
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30925 Rev. 3.04 February 2004
Builder’s Guide for AMD Opteron™ Processor-Based
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19. Carefully turn the cam lever to lock into place. (See Figure 18.)
Figure 18. Turning the Cam Lever
20. Ensure the cam lever is locked into the retention frame. (See Figure 19.)
Figure 19. Cam Lever Locked into Retention Frame
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30925 Rev. 3.04 February 2004
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21. Connect the fan power lead to the proper connector on the motherboard.
Figure 20. Installed Heatsink
22. Check the installation completely to make sure heatsink is installed correctly before starting
the system.
23. Power-on the system.
24. Verify immediately that the fan on the processor heatsink is turning at a rapid rate.
If the fan is spinning at a slow rate or not spinning at all, power-down the system immediately
to avoid any thermal damage.
Chapter 4
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Heatsink Installation
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Builder’s Guide for AMD Opteron™ Processor-
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Chapter 5
Hardware Considerations
AMD frequently updates its list of motherboard solutions. For the most up-to-date list of providers
please visit our Web site.
In EMEA, for the most up-to-date list of providers please visit our Web site.
5.1
System Enclosures and Chassis Selection
AMD Opteron™ processor-based motherboards can leverage industry-standard tower or pedestal
chassis. The selection of the proper system chassis is a critical element to the success of the
finished system. For best results, a system builder should always contact the motherboard and
chassis suppliers or vendors to verify that each of the chosen components supports the desired
system configuration. The following data is a basic guideline that has been tested by the
engineering staff at AMD.
Note: This data is only a guideline and is not a substitute for a system builder verifying that a
chassis meets industry and customer requirements, nor is it a substitute for the system
builder conducting its own research, testing, and validation.
5.1.1
Basic System Enclosure Selection Guidelines
The choice of the appropriate system enclosure depends on many factors as follows:
• It must be compatible with the chosen motherboard and power supply. Confirm the
motherboard and power supply requirements with those suppliers.
• It must allow enough airflow through the system to adequately cool all the internal
components, especially critical parts like the processor.
• It must have good fit and finish, e.g., no razor-sharp edges.
5.1.2
Basic Chassis Selection Guidelines
The following are some basic guidelines to aid in finding an enclosure with adequate cooling
capability:
• Use 80 mm fans or larger.
• Choose a chassis with a fan in the back that is in addition to the processor fan.
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30925 Rev. 3.04 February 2004
Builder’s Guide for AMD Opteron™ Processor-Based
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• Cables inside the enclosure can cause airflow disruptions. Using cable ties, tie and route the
cables out of the path of the cooling airflow.
• For tower chassis, choose a chassis with power supplies that have both ATX-style bottom air
intake vents and front air intake vents.
• When the system is in a tower chassis, there must be clear space in front of the chassis to allow
cool airflow in and space behind the chassis for the heated air to flow out.
• Rear fans should exhaust air in the same direction—out the back of the chassis.
• Front intake fans may not be of significant benefit to cooling a tower chassis, and should not
be relied upon as the sole fan in a system.
more desirable than the airflow pattern seen in Figure 22 on page 31.
• When the bottom inlet power supply is used, nearly all the air flows near or through the area of
the processor. As a result, the processor remains cooler.
5.1.3
Power Supply Considerations
Because heatsinks are heat radiators, like the radiator in an automobile, they need airflow to
function properly. Figure 21 shows desirable airflow through a chassis. Both desirable
configurations use a bottom-inlet power supply.
Figure 21. Desirable Airflow—Power Supply with Bottom Inlet
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30925 Rev. 3.04 February 2004
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Figure 22 on page 31 shows undesirable airflow through a chassis. Both undesirable
configurations use a front-inlet power supply.
Figure 22. Undesirable Airflow—Power Supply with Front Inlet Only
5.2
Power Supply Guidelines
AMD Opteron processor-based motherboards may be designed to leverage industry standard
power supplies. The selection of the proper system-power supply is a critical element to the
success of the finished system. For best results, a system builder should always contact the
motherboard, power supply, and chassis suppliers or vendors to verify that each of the chosen
components supports the desired system configuration, and a system builder should verify that
support through internal testing and validation.
5.2.1
Server and Workstation Platform Power Supplies
Depending on the motherboard vendors’ design requirements, the server/workstation can use
either an ATX 12-V power supply, or an EPS12V. The motherboard design can use one or two
power connectors. Usually a separate power connector is used to provide power for the I/O
components. It is important that you confirm with the motherboard manufacturer the exact
connector requirements.
Note: It is imperative that system builders ensure that the power supply of choice and the selected
chassis are mechanically compatible.
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In order to have a reliable and cost-effective system, system builders should calculate the power
requirements for the intended configuration.
Note: System builders should refer to the motherboard manual to check the type of power
connector and type of power supply the motherboard uses. The motherboard, power supply,
and case must be mechanically and electrically compatible.
5.2.2
Calculating System Power Consumption
The total combined wattage for the system configuration must be less than the output of the power
supply used. Overall current usage limitation on the power supply should not exceed a combined
system power output for the +5-V and +3.3-V outputs.
system power consumption. For current and voltage requirements of add-in boards and
peripherals, refer to your vendor’s documents. The current draw on each voltage tap should be
included with the documentation from the motherboard vendor.
In Power Worksheet 1—Component Power list the peak current for each board and device
applicable in the appropriate voltage level column. Add the currents in each column, then go to
Table 1. Power Worksheet 1—Component Power
Item
Device
Maximum Current at Each Voltage Level
Qty
+3.3 V
+5 V
+12 V
–12 V
5 VSB
Motherboard w/on-board devices
System fan
Processor fan
Memory module
AGP VGA card
PCI modem card
PCI sound card
PCI NIC card
PCI SCSI card
Other PCI card/Bus card
PCI RAID card
IDE hard drive
SCSI hard drive
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Table 1. Power Worksheet 1—Component Power (Continued)
Item
Component
Maximum Current at Each Voltage Level
Qty
+3.3 V +5 V +12 V –12 V 5 VSB
CD-ROM drive
CD-RW drive
DVD drive
Floppy drive
Tape drive
ZIP drive
USB devices
IEEE 1394 devices
Keyboard
Mouse
Other devices (if any)
Processor
Total current for all devices
Use the following steps to determine the total combined power used by the system.
2. Multiply the voltage by the total current to get the total wattage for each voltage level.
3. Add the total wattage for each voltage level to arrive at a total combined power usage on the
power supply.
Table 2. Power Worksheet 2—Total Watts
Voltage Level and Total Current
Total Watts
(V x A = W)
for Each Voltage Level
+3.3 V x (total amps)
+5 V x (total amps)
+12 V (I/O) x (total amps)
+12 V (processor) x (total amps)
–12 V x (total amps)
+5 VSB x (total amps)
Total=
Total Watts for +3.3 V
Total Watts for +5 V
Total Watts for +12 V (I/O)
Total Watts for +12 V (processor)
Total Watts for –12 V
Total Watts for 5 VSB
Total Combined Wattage=
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Note: To calculate the processor current at 12-V VRM source:
processor core voltage× processor core current
I =
×1.25
12
Where 12 = VRM source voltage and 1.25 is the reciprocal of the 80% voltage regulator
efficiency.
5.3
Thermal Solution
This information is only a guideline for the systems being constructed and is not intended to be a
substitute for system builder verification, validation, and testing on the reliability and
effectiveness of a thermal solution.
5.3.1
AMD Opteron™ Processor Thermal Solution Guidelines
For reliable operation of AMD Opteron processor-based systems, the selection of the correct
thermal solution is critical. For a list of heatsink suppliers that have developed products designed
to support AMD Opteron processors, please visit our Web site.
In EMEA, for a list of heatsink suppliers that have developed products designed to support
AMD Opteron processors, please visit our Web site.
This selection of suppliers found at these Web sites is frequently updated and not intended to be a
comprehensive listing of all heatsinks that support AMD Opteron processors.
5.3.2
Thermally Tested Populated Chassis Server Solutions for
AMD Opteron™ Processor
AMD internal labs have tested the thermal performance of the server solutions outlined on our
Web site at http://www.amd.com/us-en/Processors/ProductInformation/0,,30_118_8796_8819^9398,00.html. In
EMEA, please visit http://www.amd.com/opteronhardware. A thermally tested server solution is defined
as chassis, heatsink(s), motherboard, and power supply. This testing is strictly limited to a thermal
evaluation under AMD’s internal tests for AMD Opteron processors at speeds to be released
through the end of 2004 and does not include electromagnetic interference (EMI), or other
component testing or considerations. Furthermore, AMD has not conducted individual thermal or
functional testing on the power supplies and heatsinks in these systems.
34
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AMD strongly recommends that the operation of the power supply is investigated and fully
understood by the system builder to meet the requirements of each configuration. Verification of
mechanical fit with the selected power supplies and other system components should also be
investigated by the system builder prior to purchase.
Additional information on AMD Opteron™ Processor configuration is available at
documents that are additional resources designed to provide guidance to you with the
configuration of a stable AMD Opteron™ processor-based platform.
5.4
Memory Guidelines for AMD Opteron™ Processor-
Based Systems
AMD Opteron processor-based platforms may be designed to leverage industry standard DDR
registered DIMMs. An independent testing company, Computer Memory Test Labs (CMTL), has
conducted memory compatibility testing. CMTL is an independent test facility and is able to test
RAM modules from different module suppliers. System builders should access the CMTL web
motherboard manufacturer and motherboard model.
Note: The CMTL website is provided for informational purposes only, and AMD recommends that
a system builder conduct its own testing and validation to confirm that the memory modules
are suitable for its systems.
Several AMD Opteron processor-based motherboards currently support some of the following
memory features:
• PC1600, PC2100, PC2700, and PC3200 registered memory modules
• 184-pin 2.5-V and 2.6-V DDR DIMMs
• 28-bit DDR memory bus
• 64-Mbyte, 128-Mbyte, 256-Mbyte, 512-Mbyte, 1-Gbyte, 2-Gbyte and 4-Gbyte memory
technology
• Production DIMMs from industry standard DRAM memory manufacturers.—Only registered-
type memory modules should be used.
5.5
AMD Opteron™ Processor Information
AMD Opteron processors are identified by a three digit model number, xyy, where:
x—Indicates the maximum scalability of the processor. In other words:
100 series = 1-way servers and workstations
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200 series = Up to 2-way servers and workstations
800 series = Up to 8-way servers and workstations
yy—Indicates relative performance within the series. In other words, an AMD Opteron processor
model 244 is higher performing than an AMD Opteron processor model 242, etc.
Table 3 further explains the differences between AMD Opteron processor series and model
numbers.
Table 3. AMD Opteron™ Processor Series and Model Numbers
Series
Scalability
100 Series
1-way
200 Series
800 Series
Up to 8-way
Up to 2-way
Performance
Frequency
A comprehensive list of available processors can be found on our Web
Yes
Yes
Yes
Integrated DDR memory
controller
128-bit
Yes
128-bit
Yes
128-bit
Yes
Memory controller width
ECC DRAM protection
Yes
Yes
Yes
HyperTransport™
technology
3/0
3/1
3/3
HyperTransport links
(total/coherent)
16 bits x 16 bits
800MHz
16 bits x 16 bits
800MHz
16 bits x 16 bits
800MHz
HyperTransport link
width
HyperTransport bus
frequency
Yes
Yes
Yes
Yes
Yes
Yes
AMD64
Simultaneous 32- and
64-bit computing
64 Kbytes/64 Kbytes
64 Kbytes/64 Kbytes
64 Kbytes/64 Kbytes
L1 Cache size
(data/instruction)
1MB
1MB
1MB
L2 Cache size
12/17
12/17
12/17
Pipeline stages
(integer/floating point)
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Table 3. AMD Opteron™ Processor Series and Model Numbers (Continued)
Series
100 Series
200 Series
800 Series
ECC
Parity
16K
ECC
Parity
16K
ECC
Parity
16K
L1/L2 data cache
protection
L1/L2 instruction cache
protection
Global history counter
entries
40/40
40/40
40/40
L1 TLB entries
(data/instruction)
Full/Full
Full/Full
Full/Full
L1 associativity
(data/instruction)
512/512
512/512
512/512
L2 TLB entries
(data/instruction)
4-way/4-way
.13 micron SOI
4-way/4-way
.13 micron SOI
4-way/4-way
.13 micron SOI
L2 associativity
(data/instruction)
Process
Fab 30, Dresden
Germany
Fab 30, Dresden
Germany
Fab 30, Dresden
Germany
Manufactured In
5.6
AMD Chipset Information
AMD offers an array of chipset products designed to unleash the full power of AMD Opteron,
processors. From workstations to multiprocessor servers, AMD provides a world-class high-
performance chipset solution to enable the most demanding designs.
5.6.1
AMD-8000™ Series Chipset
Ushering in the next generation of computing platforms, AMD introduces the AMD-8000™ series
of core-logic components designed to support the AMD Opteron processor. Implementing
HyperTransport technology as the system backbone, these core-logic elements deliver outstanding
performance and design flexibility. This chipset consists of several “building block” components
that can be used together in a variety of system designs.
5.6.1.1
AMD-8151™ HyperTransport™ AGP3.0 Graphics Tunnel
The AMD-8151™ HyperTransport™ AGP3.0 graphics tunnel provides AGP3.0 capability to
workstation platforms requiring high-end graphics performance. Included in the AMD-8151
graphics tunnel are the following high-level features:
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• AGP3.0 interface
• HyperTransport tunnel
Refer to the AMD-8151 graphics tunnel product brief and to the Preliminary AMD-8151™
HyperTransport™ AGP3.0 Graphics Tunnel Data Sheet, order# 24888 for detailed specifications.
5.6.1.2
AMD-8131™ HyperTransport™ PCI-X® Tunnel
Targeting server and workstation applications, the AMD-8131™ HyperTransport™ PCI-X®
tunnel provides high-speed PCI-X capability to platforms requiring high-performance I/O
expansion. The AMD-8131 I/O bus tunnel high-level feature-set includes the following:
• Dual PCI-X interface (supporting 133-MHz, 100-Mhz, 66-MHz, and legacy-PCI speeds).
• HyperTransport tunnel
• APIC
Refer to the AMD-8131 I/O bus tunnel product brief and the Preliminary AMD-8131™
HyperTransport™ PCI-X® Tunnel Data Sheet, order# 24637 for detailed specifications.
5.6.1.3
AMD-8111™ HyperTransport™ I/O Hub
The AMD-8111™ HyperTransport I/O hub integrates the system I/O functions into a single
component. The AMD-8111 I/O hub high-level feature-set includes the following:
• HyperTransport interface
• 10/100 Ethernet
• EIDE Controller, supporting up to ATA-133
• AC‘97 Audio, USB
• I/O buses: PCI, LPC, SMbus, APIC
Refer to the AMD-8111 chipset component product brief and the AMD-8111™ HyperTransport™
I/O Hub Data Sheet, order# 24674 for detailed specifications.
5.6.2
Graphics and Storage
Workstations are typically more graphic-intensive than servers. A workstation is used by a single
user running applications that are more processor-intensive than a desktop. Programs such as CAD
systems, scientific analysis programs such as finite element analysis, etc., are very graphic
intensive. These types of applications require higher graphics capability than desktop systems.
Therefore, if you are building a workstation you would want to use a motherboard that supports an
AGP-8X graphics interface, such as is provided with the AMD-8151 HyperTransport AGP3.0
tunnel.
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Servers are systems that are not typically used by just one operator sitting in front of a display
attached directly to the server. The server is used to support other computers such as desktops or
workstations, connected through a network. A server can be used to supply computational
processing to connected thin clients. A thin client is a keyboard and display terminal that has very
little computing power of its own, but relies on the server to which it is connected to run
applications. A server can also be used to access data stored on very large storage devices.
Therefore, a server may need to have the capability to connect to hundreds of disk drives.
Storage servers need to have an ample supply of PCI-X slots that can accept cards used for storage
access. For example, a PCI-X SCSI can have four SCSI ports on it. Each port can support up to 15
SCSI drives. Therefore, one SCSI PCI-X card can support up to 60 SCSI drives. If a server has
four PCI-X slots, it can support up to 240 SCSI drives.
5.7
AMD Opteron™ Processor Utilities and Updates
AMD CPUID—This application executes and displays the return data from the CPUID
instruction set. No source code is provided.
AMD Processor Information Display Utility—This utility displays the processor signature,
approximate speed, L1/L2 cache sizes, processor revision, and instruction extensions supported.
These utilities can be found and downloaded from http://www.amd.com/us-
5.8
AMD-8000™ Series Chipset Drivers
Table 4. Microsoft® Drivers for the AMD-8000™ Series of Chipset Components
64-Bit
32-Bit Operating Systems
Operating
Systems
Drivers for Microsoft®
Operating Systems
Windows®
98
Windows
2000
Windows
XP Pro
Windows
Server
2003
Windows
64-Bit
Editions
for
AMD64
AMD-8151™
HyperTransport™ AGP3.0
Graphics Tunnel Driver
enabled
natively
√
√
√
√
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(Continued)
64-Bit
Operating
Systems
32-Bit Operating Systems
Drivers for Microsoft®
Operating Systems
Windows®
98
Windows
2000
Windows
XP Pro
Windows
Server
2003
Windows
64-Bit
Editions
for
AMD64
AMD-8131™
HyperTransport™ PCI-X®
Tunnel IOAPIC Controller
Driver
enabled
natively
√
√
√
AMD-8131 HyperTransport
PCI-X Tunnel Driver
√
√
√
√
√
AMD-8111™ I/O Hub EIDE
Driver
√
√
AMD-8111 I/O Hub System
Management Controller
Driver
enabled
natively
enabled
natively
AMD-8111 I/O Hub 10/100
Ethernet Controller Driver
enabled
natively
√
√
√
√
√
√
√
√
√
√
√
√
AMD-8111 I/O Hub AC‘97
Audio Controller Driver
enabled
natively
AMD-8111 I/O Hub
SMBus 2.0 Controller Driver
enabled
natively
enabled
natively
AMD-8111 I/O Hub High-
Precision Event Timer
√
√
AMD Driver Pack
√
√
√
√
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Table 5 shows AMD-8000 series core logic (chipset) drivers for Linux operating systems.
Table 5. Linux Drivers for the AMD-8000™ Series of Chipset Components
Drivers for Linux
Operating Systems
Kernel
2.4.18
Kernel
2.4.20
Kernel
2.4.21
Kernel
2.5, 2.6
AMD-8151™
√
√
√
HyperTransport™ AGP3.0
Graphics Tunnel Driver for
Linux 2P Platforms
AMD-8151 HyperTransport
AGP3.0 Graphics Tunnel
Driver for Linux 1P Platforms
AMD-8131™ PCI-X® Tunnel
Standard Hot-Plug Controller
(SHPC) Driver Version 1.03
for Linux
√
√
√
√
√
AMD-8131 PCI-X Tunnel
Standard Hot-Plug Controller
(SHPC) Driver Version 1.03
for Linux
√
√
AMD-8111™ 10/100 Ethernet
Driver for Linux
√
√
√
√
√
√
AMD-8111 AC'97 Audio
Driver for Linux
AMD-8111 IDE for Linux
For the latest drivers visit www.amd.com/drivers
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Chapter 6
EMI Reduction Techniques
These electromagnetic interference (EMI) reduction techniques can be implemented with
relatively short lead-times at the final system-assembly stage. Proper electromagnetic
compatibility (EMC) and motherboard design techniques are assumed.
The effectiveness of all the EMI-reduction techniques varies from system to system. This chapter
is provided as a guideline only, to help identify and close the common EMI energy paths that
allow radiated emissions to escape from the chassis enclosure.
6.1
EMI Emission Standards
EMI emissions from a computer system must be controlled and kept below regulatory limits.
Radiated EMI emissions are measured with an antenna, typically 10 meters away from the
computer system under test. There are different EMI standards for systems marketed in the United
States and Europe, and all standards are continually updated. Typically, most computers must
meet FCC Class “B” for the US and CE Class “B” EMI requirements to be sold in Europe.
6.2
AMD Opteron™ Processor-Based System Builder
EMI Reduction Techniques
This document describes system-level EMI reduction techniques based on past successful problem
resolution of EMI radiated emissions. All the techniques described may be able to be implemented
at the final system assembly stage with relatively short lead-time. This document does not contain
long lead-time techniques involving motherboard re-layout or chassis sheet metal redesign. Proper
up-front electromagnetic compatibility (EMC) motherboard design techniques are assumed. For
more information on these techniques, please refer to the AMD Athlon™ 64 FX and AMD
Opteron™ Processors Motherboard Design Guide, order# 25180.
The effectiveness of the following EMI reduction techniques varies among different computer
systems. EMC engineering tests must be performed to determine how effective each of the
following EMI reduction techniques is for a particular system.
This list of EMI reduction techniques is numbered in the recommended order of evaluation and
relative simplicity. Each item is described in detail for clarity.
1. Spread Spectrum Clocking
AMD processors are designed to run with spread spectrum clocking enabled. Ensure that the
motherboard BIOS has enabled the spread spectrum feature of the system clock generator.
Enabling the spread spectrum setting often lowers frequency amplitudes by more that 5 dB.
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2. Disable Unused Clocks
Clock signals that have no load can have high levels of ringing that can lead to EMI problems. The
motherboard BIOS firmware should be programmed to detect and disable unused memory DIMM
and PCI clocks.
3. Processor Heatsink Fan Cable Routing
A problem sometimes encountered with the processor heatsink DC fan cable is the large loop
formed in its routing to the motherboard connector. Shorten this cable length to reduce the loop
area as much as possible.
4. Power Supply Cable Routing
Historically, the system power supply cable has been found to be very susceptible to picking up
EMI energy from within the system and coupling into the power supply and then onto the AC
power cord. It is best to keep the power supply cable against the metal chassis and as far away
from the processor, memory DIMMs, and VRM components as possible. This cable routing
should be fixed in place with plastic cable ties.
5. Other Internal Cable Routing
Cable routing inside the system should generally be routed along the metal chassis and away from
EMI sources such as the processor heatsink, clock modules, memory DIMMS, VRM components,
and high speed VLSI modules. Internal cables that connect to front I/O ports such as USB and
Audio are particularly sensitive. The use of a shielded cable or a ferrite core or both over these
internal cables can be effective at reducing EMI.
6. Rear I/O Connector Shield
One common problem in many computer systems is poor electrical contact between the metal I/O
connector plate and the cut out in the system chassis wall. This problem is usually due to soft
metal being used in the I/O connector plate. If the metal does not have good spring characteristics,
the finger contacts can be depressed and not make reliable contact. A solution to this is to use a
hardened stainless spring steel. Additionally, some designs have an insufficient number of contact
points to the I/O connectors and the wall of the system chassis. This is usually most apparent
around the keyboard/mouse and USB housings. Each of these connectors should have at least two
contacts. As a general rule, there should be a contact point at least every 1 cm to 1.5 cm.
7. Chassis Shielding
All chassis designs have gaps and seams to enable assembly and option installation. From an EMI
standpoint, however, some gaps are worse than others. The important dimension of a gap or seam
is the longest dimension. If you can slide a piece of paper for several inches along a seam, that
seam could cause an EMI problem. Spring fingers or foam EMI gasket can be used to seal these
gaps or seams.
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EMI Reduction Techniques
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8. Processor Heatsink Grounding
Although grounding of the processor heatsink has not yet been required on any AMD Opteron
processor-based systems, grounding of the processor heat sink can further lower the harmonic
EMI levels of the processor. Many AMD Opteron processor-based motherboards contain
grounding pads around the footprint area of the processor. These grounding pads can be used to
ground the heatsink to the motherboard.
If excessive system level EMI radiated emissions exist after attempting all the listed EMI
reduction techniques, then more extensive remedies may be necessary. First, determine if the
emissions emanate from the system I/O cables (including the AC power cord) or from aperture
leaks in the system chassis. If EMI emissions emanate from a particular I/O cable, then improved
filtering or cable shielding may be required on that cable. If EMI emissions emanate from slots or
seams in the chassis enclosure, use copper tape across the apertures to improve shielding
effectiveness. If copper tape reduces emission levels to a satisfactory level, then chassis sheet
metal changes or conductive EMI gasketing can be added at that location.
Chapter 6
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Appendix A AMD Opteron™
Processor-Based System Build
Procedure
Always verify that the system you are building only uses components from the list recommended
by AMD, or follow the recommendations outlined in this document to select a suitable
component, and then follow this procedure to build your system
For additional configuration information, go to: www.amd.com/configuration
In EMEA, please go to: www.amd.com/opteronhardware
1. Ensure the selected motherboard is appropriate for the chosen processor model and frequency.
Check the AMD Opteron™ processor recommended motherboard list as to compatibility.
2. Verify that your case follows the system case (chassis) airflow guidelines on the AMD
website.
3. Calculate the power requirements for the intended configuration prior to selecting and
installing a power supply.
Note:Ensure that the power supply wattage selected meets the intended configuration
requirement and the motherboard and chassis are electrically and mechanically
compatible.
4. Ensure that you are properly grounded at all times during the system construction to protect
the delicate electronic components from static electricity damage.
5. Install the selected hard drives, floppy disk drives, DVD or CD-ROM player, and other
devices into the chassis.
Note:Check the hard drive installation guide. For full performance, you must also install the
appropriate data cable (see drive installation instructions).
6. Remove the motherboard from its protective packaging and place it on a firm (but not hard)
surface—ideally the surface will be a grounded anti-static pad.
7. Remove the AMD Opteron processor from its protective packaging (always make sure you are
electrically grounded), install the processor into the motherboard socket, then install only an
AMD recommended heatsink and fan assembly. For more specific information, follow the
Appendix A
AMD Opteron™
47
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8. Install the assembled motherboard and processor with heatsink into the chassis. Always install
any standoffs needed to support the motherboard, especially in the areas where cards will be
placed.
9. Check the motherboard for any jumper settings. (Most motherboards do not require jumpers.)
10. Ensure the selected memory (256 Mbytes or more are recommended for server/workstations)
is shown on the motherboard maker’s recommended memory list. If the motherboard
manufacturer does not have a verified/recommended memory listing, check with the memory
supplier to verify that they have tested your chosen motherboard and deemed it to be
compatible with the DIMM memory modules you plan to use.
11. Install the recommended memory into the motherboard. Be sure to install the RAM in the
sequence required for the chosen motherboard. Verify each memory DIMM is inserted all the
way into the socket and locked in place.
12. Install a high-performance AGP video graphics card. Have the latest drivers available (see the
Web site of the card maker). You will need the drivers shortly.
13. Connect the power cables to the drives and motherboard.
14. Connect the hard drive, floppy-disk drive, and DVD (CD-ROM) data cables in the normal
manner. Verify that the cables are installed securely and with the proper edge near Pin 1.
15. Connect the monitor data cable, keyboard cable, and mouse cable to the rear of the system.
16. Install the AC-line power cord on the power supply and connect to the power outlet.
17. Go to the Web sites of the motherboard vendor or the chipset maker for the latest drivers and
utilities.
18. Check your motherboard vendor’s Web site for the latest version of the BIOS, AGP miniport
driver and bus mastering IDE driver. (AMD has drivers available for its chipsets at
19. Check the peripheral manufacturer’s Web site for the latest drivers for the sound card, network
interface card, the video graphics card, and any other added devices.
20. Power the system on and begin loading software and drivers, following the installation
instructions.
21. Make sure the system starts and runs reliably with just the graphics card installed. Restart and
run the system multiple times.
22. Install additional cards at this time, if additional cards are to be installed.
AMD Opteron™
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a. Turn off the system and unplug it before installing each card.
b. Install additional cards one at a time.
c. Restart the system after every card installation.
Note:If you have difficulties with the installation of any of the cards or drivers, refer to Complex
Configurations and IRQ Info, available on the AMD website.
23. As you install each card, verify the card is properly seated (connector fully inserted into the
slot, front and back) and that the retention screws are in place.
24. Test the complete system for proper operation. If system functions properly, load any other
software.
Appendix A
AMD Opteron™
49
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50
Processor-Based System Build Procedure
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Appendix B FAQs
Appendix B contains frequently asked questions concerning AMD Opteron™ processors and the
validated server program.
B.1
AMD Opteron™ Processor FAQs
Q: What markets are the AMD Opteron series processors targeted for?
A: The AMD Opteron processor 100 series is for use in 1-way servers and workstations. One-
way servers are commonly used by Internet and application service providers (ISPs/ASPs),
eBusiness and data center customers for edge-of-the-network workloads such as DNS
servers, DHCP servers, security encryption as well as in network attached storage (NAS) and
storage area network (SAN) devices. One-way workstations are commonly used by CAD,
architectural, and DCC professionals to create solid models, diagrams, or digital effects.
The AMD Opteron processor 200 series is for use in 2-way servers or workstations.
Enterprise workloads typically benefiting from 2-way server processing power include large
databases, business processing (ERP, CRM, and SCM), business intelligence, as well as
other IT infrastructure applications including heavy-duty Web serving and messaging.
Workstation applications that take advantage of the performance of the AMD Opteron
processor include digital content creation, mechanical and electrical design, financial
analysis, and 3-D modeling.
The AMD Opteron processor 800 series is for use in up to 8-way servers. Enterprise
workloads typically benefiting from 4-way and 8-way server processing power include large,
mission-critical databases, business processing (ERP, CRM, and SCM), business
intelligence, as well as other IT infrastructure applications including heavy-duty Web
serving and messaging.
Q: What motherboard support is available for the 100 series processors?
A: The AMD Opteron processor 100 series is currently supported by the ASUS SK8N
motherboard with NVIDIA Nforce3 Pro150 chipset, available through distribution
worldwide. It is also supported by the MSI MS-9130 motherboard with VIA K8T800
chipset, available through the manufacturer.
Q: What software supports these processors?
A: AMD Opteron processors are based on the industry-standard x86 instruction set and are thus
supported by the thousands of applications based on this instruction set. All 32-bit
Microsoft® Windows® operating systems, including Microsoft Windows Server 2003,
include support for the AMD Opteron processor, as do the major 32-bit Linux distributions
SuSE, Red Hat, TurboLinux, MandrakeSoft, SCO, among others. Commercial 64-bit
versions of SuSE Linux, United Linux, and MandrakeSoft are available today and several
other 64-bit operating systems are in development, including the 64-bit version of Microsoft
Appendix B
FAQs
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Windows Server 2003 and Microsoft Windows XP. Sixty-four-bit applications for the
AMD Opteron processor include Apache Server, Mental Ray, Zeus, Cluster Strike Server,
SendMail, MY SQL, IBM DB2, and CA Ingres. Sixty-four-bit versions of Microsoft IIS,
Red Hat Stronghold, Oracle 9i, MS SQL Server 2000, MS Terminal server, Synopsys VCS,
and CA Unicenter are under development.
Q: What is the value proposition of the AMD Opteron processor?
A: The AMD Opteron processor is the world’s first x86-based processor that can simultaneously
run 32-bit and 64-bit applications, with leading performance for both. This gives businesses
a competitive advantage with world-leading 32-bit performance, while allowing them to
easily take advantage of 64-bit applications when conditions are right for their business to do
so. By choosing open-standard, non-proprietary computer architecture, a business can
maintain its current investment in IT and lower its total cost of ownership—there is no need
to retrain IT professionals in a new proprietary architecture, no forced migration to 64-bit
applications, and no need to overhaul hardware or change existing software. AMD Opteron
processor models are available for 1- to 2-way workstations, and 1- to 8-way servers that
support the full range of company’s computing needs from entry-level to enterprise
workloads.
Q: For what types of servers is the AMD Opteron processor suitable?
A: The AMD Opteron processor is suitable for different workloads across an enterprise. Some
examples are:
• 1P and 2P servers are suitable for front-end “edge-of-the-network” firewall, cache, and
load balancing servers, as well as for Web servers and general purpose IT infrastructure
servers.
• 2P through 4P servers are suitable for mid-tier heavy-duty Web servers and applications
servers and for general purpose IT infrastructure servers.
• 4P through 8P servers are suitable for back-end database, decision support, and storage
servers.
Q: What operating systems does the AMD Opteron processor support?
A: As a fully backward-compatible x86 microprocessor, the AMD Opteron processor is
designed to support all existing 32-bit server and workstation operating systems from
Microsoft (Windows Server 2003, Windows XP, etc.), major Linux distributors (Red Hat,
SuSE, TurboLinux, SCO, MandrakeSoft), and Sun Microsystems Solaris. In addition,
several 64-bit operating systems exist in production versions (SuSE Linux Enterprise
Server 8, UnitedLinux V1, MandrakeLinux Corporate Version 2.1 and NetBSD) and several,
including AMD64 for Windows, Red Hat Advanced Server 3.0, and TurboLinux, are in
development.
Q: What are the benefits of the AMD Opteron processor?
A: The AMD Opteron processor architecture is designed to provide unparalleled performance
and supports the x86 instruction set, delivering outstanding performance for both 32-bit code
and 64-bit code. As the need for memory-intensive 64-bit applications becomes greater, our
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plan is for IT managers to seamlessly move to 64-bit applications that benefit their business
while continuing to leverage their investment in 32-bit software and personnel. Additionally,
the HyperTransport™ technology interface addresses the high memory and I/O bandwidth
needs we believe will be required for future personal computers, workstations, and servers.
Q: What kind of performance does the AMD Opteron processor deliver?
A: Validated by independent industry-standard benchmark organizations, the world’s highest
performing 2P and 4P industry standard servers are powered by AMD Opteron processors.
On many industry-standard server and workstation benchmarks, the AMD Opteron processor
Model 146 powers the world’s highest performing 1P servers and workstations.
Q: What specific applications can benefit from the performance of the AMD Opteron processor?
A: Many applications will run faster on the AMD Opteron processor due to its doubled-data
paths. Current 32-bit processors have a 4-GByte memory addressing cap. The 40-bit physical
and 48-bit virtual addressing of the AMD Opteron processor remove that limitation,
permitting up to 1 Terabyte (Tbyte) of physical memory space and 256 Tbytes of virtual
memory addressing space. E-commerce applications, ERP, CRM, and other highly
transactional database applications can benefit from the AMD Opteron processor’s larger
cache, and big workload features that make manipulating larger data sets faster. Other large
data set applications that can benefit from the AMD Opteron processor include CAD and
DCC type applications, as well as financial and scientific modeling applications.
Q: Where is the AMD Opteron processor manufactured?
A: AMD Opteron processors are manufactured at Fab 30 in Dresden, Germany
Q: Is the AMD Opteron processor manufactured on 0.13 micron technology?
A: Yes, AMD Opteron processors are manufactured on 130 nm (.13 micron) SOI (silicon-on-
insulator) process technology.
Q: Where are EMI guidelines for motherboards located?
A: The EMI guidelines for AMD Opteron processors can be found in the AMD Athlon™ 64 FX
and AMD Opteron™ Processors Motherboard Design Guide, order# 25180.
Q: Does the AMD Opteron processor incorporate a thermal shutdown feature?
A: Yes. Please see the AMD Opteron™ Processor Data Sheet, order# 23932 and the
AMD Athlon™ 64 FX and AMD Opteron™ Processors Motherboard Design Guide, order#
25180 for how to connect the pins.
B.2
Validated Server Program FAQs
Q: What is the Validated Server Program?
A: The Validated Server Program (VSP) is a collaboration between AMD and Celestica that
combines AMD’s world-class silicon technologies with Celestica’s world-class electronic
manufacturing services. The VSP design undergoes a validation that tests compatibility and
Appendix B
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Servers and Workstations
reliability of the configuration. The program was designed to simplify a system builder's
business by making it easy for them to provide AMD Opteron processor-based server
platforms that are backed by world-class manufacturing and support. System builder partners
purchase these systems (either barebones or fixed configuration), add additional hardware,
software, or services, and resell them as system builder branded server—providing system
builders with fast time to market and a competitive advantage and allowing them to provide
their customers with AMD64 technology quickly and simply.
Q: What is meant by barebones vs. fixed-configuration server systems?
A: Barebones systems include these components—chassis, motherboard with chipset, thermal
solution, and power supply, allowing a system builder to add processors, memory, hard disk
drives, and other components to meet the needs of their customers. The fixed-configuration
is a complete server system that includes all of the components of the barebones system plus
the operating system. Fixed-configuration servers further reduce both the amount of system
integration required and the amount of support required from the system builder, because all
of the components are covered by a limited warranty and rapid product replacement plan
through Celestica.
Q: What are the benefits of the Validated Server Program to commercial customers?
A: AMD Opteron processors are designed to simplify a customer’s business by providing
reliability for today’s demanding enterprise applications, with simultaneous high-
performance 32-bit computing and the ability to migrate to 64-bit computing as the customer
requires. Celestica is a world-leading electronics manufacturing services provider in the
execution of integrated and seamless end-to-end support and customer service. Commercial
customers can purchase servers knowing that they have been validated and are backed by
Celestica’s world-class service and support.
Q: What markets are these servers targeted for?
A: Solutions available through the VSP cover a range of end-user needs. The 1U/2P A2210 is
targeted at Internet and network infrastructure workloads for customers who require high
performance, scalability and availability in a dense 1U package. The 4U/4P A8440 is
designed for computation-intensive enterprise workloads, such as databases, business
processing, messaging and business intelligence applications.
Q: Will these servers be branded as AMD servers?
A: No. AMD does not brand servers. VSP solutions will be branded by the system builder
partners involved in this program.
Q: Is AMD manufacturing servers?
A: No. The servers will be manufactured by Celestica, a world leader in electronics
manufacturing services and the delivery of end-to-end service and support.
Q: Will these validated servers be available in all regions?
A: The VSP is currently available in North American and in Europe.
Q: What products will be offered through the Validated Server Program?
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Based Servers and Workstations
A: The first platforms planned for availability from the VSP will be the A8440 and the A2210.
The A8440 is a 4U/4P rack-mountable server based on the AMD Opteron processor
800 series. The A2210 is a 1U/2P rack-mountable server based on the AMD Opteron
processor 200 series.
Q: What system builders are currently ordering systems from Celestica? When will their systems
be available?
A: System builders in North America currently offering VSP servers include APPRO, Aspen
Systems and RackSaver. We expect other system builders to join the VSP over time.
Appendix B
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