Amd opteron 2439: [Dual CPU] AMD Opteron 2439 SE — CPU benchmark

4 декабря, 2022

TSpire.com. AMD 2439 SE OPTERON SIX-CORE 2.8 GHz 9 MB CACHE HT3 D0 105 W SOCKET F CPU PROCESSOR


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  • AMD 2439 SE OPTERON SIX-CORE 2. 8 GHz 9 MB CACHE HT3 D0 105 W SOCKET F CPU PROCESSOR


Manufacturer:

AMD


SKU: 440


Part number: 2439 SE


Availability: In stock



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Product description

Shop 371-4682 -Sun Microsystems 2.10GHz 6MB L3 Cache 6-Core AMD Opteron 2439 Processor – Echno Ltd TA ComputingParts.co.uk

Sun Microsystems

  • Product SKU:
    371-4682
  • Description
  • General Information
  • Shipping & Returns

371-4682 -Sun Microsystems 2. 10GHz 6MB L3 Cache 6-Core AMD Opteron 2439 Processor

371-4682 -Sun Microsystems 2.10GHz 6MB L3 Cache 6-Core AMD Opteron 2439 Processor

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Supermicro Motherboard H8DI3+-F, AMD Opteron 2439 SE

Copyright 2006-2014 Standard Performance Evaluation Corporation

Supermicro

Motherboard H8DI3+-F, AMD Opteron 2439 SE

SPECint®_rate2006 =
213

SPECint_rate_base2006 =
167

CPU2006 license: 001176 Test date: Sep-2009
Hardware Availability: Jun-2009
Tested by: Supermicro Software Availability: Apr-2009
Hardware
CPU Name: AMD Opteron 2439 SE
CPU Characteristics:
CPU MHz: 2800
FPU: Integrated
CPU(s) enabled: 12 cores, 2 chips, 6 cores/chip
CPU(s) orderable: 1,2 chips
Primary Cache: 64 KB I + 64 KB D on chip per core
Secondary Cache: 512 KB I+D on chip per core
L3 Cache: 6 MB I+D on chip per chip
Other Cache: None
Memory: 32 GB (8 x 4 GB, DDR2-800, CL5, Reg, Dual Rank)
Disk Subsystem: 1 x 320 GB SATA, 7200 RPM
Other Hardware: None
Software
Operating System: Red Hat Enterprise Linux Server release 5. 3,
Advanced Platform, Kernel 2.6.18-128.el5
Compiler: PGI Server Complete Version 8.0
x86 Open64 4.2.2 Compiler Suite (from AMD)
Auto Parallel: No
File System: ext3
System State: Run level 3 (Full multiuser with network)
Base Pointers: 32/64-bit
Peak Pointers: 32/64-bit
Other Software: binutils 2.18
SmartHeap 8.1 32-bit Library for Linux
Benchmark Base Peak
Copies Seconds Ratio Seconds Ratio Seconds Ratio Copies Seconds Ratio Seconds Ratio Seconds Ratio
Results appear in the order in which they were run. Bold underlined text indicates a median measurement.
400.perlbench 12 591 198 599 196 600 195 12 471 249 461 254 461 255
401.bzip2 12 823 141 826 140 834 139 12 795 146 788 147 784 148
403.gcc 12 735 132 745 130 743 130 12 592 163 589 164 595 162
429.mcf 12 853 128 859 127 858 128 12 542 202 545 201 542 202
445. gobmk 12 654 193 654 192 655 192 12 566 223 565 223 565 223
456.hmmer 12 460 243 467 240 467 240 12 315 355 318 352 318 352
458.sjeng 12 772 188 772 188 770 188 12 701 207 703 206 702 207
462.libquantum 12 1486 167 1439 173 1451 171 12 533 467 534 466 539 461
464. h364ref 12 892 298 894 297 897 296 12 858 310 861 308 856 310
471.omnetpp 12 727 103 720 104 713 105 12 707 106 712 105 718 104
473.astar 12 745 113 739 114 737 114 12 609 138 610 138 612 138
483.xalancbmk 12 410 202 410 202 409 202 12 399 207 396 209 398 208 
The config file option 'submit' was used. 
'numactl' was used to bind copies to the cores.
See the configuration file for details.

'ulimit -s unlimited' was used to set environment stack size
'ulimit -l 2097152'  was used to set environment locked pages in memory limit
Set vm/nr_hugepages=5400 in /etc/sysctl.conf
mount -t hugetlbfs nodev /mnt/hugepages

Environment variables set by runspec before the start of the run:
HUGETLB_LIMIT = "450"
LD_LIBRARY_PATH = "/usr/cpu2006/amd0905is-libs/64:/usr/cpu2006/amd0905is-libs/32"
PGI_HUGE_PAGES = "450"
The x86 Open64 Compiler Suite is only available from (and supported by) AMD at
http://developer.amd.com/cpu/open64
System was tested in an open environment.
ATX power supply 865W, PWS-865-PQ was used,
[ 2 8-pin (+12V), and 24-pin are provided ]
Product description can be obtained at:
http://www.supermicro.com/Aplus/motherboard/Opteron2000/SR56x0/H8DI3+-F.cfm

C benchmarks:

 opencc 

C++ benchmarks:

 openCC 
400. perlbench:  -DSPEC_CPU_LP64 
 -DSPEC_CPU_LINUX_X64 
401.bzip2:  -DSPEC_CPU_LP64 
403.gcc:  -DSPEC_CPU_LP64 
429.mcf:  -DSPEC_CPU_LP64 
445.gobmk:  -DSPEC_CPU_LP64 
456.hmmer:  -DSPEC_CPU_LP64 
458.sjeng:  -DSPEC_CPU_LP64 
462.libquantum:  -DSPEC_CPU_LP64 
 -DSPEC_CPU_LINUX 
464.h364ref:  -DSPEC_CPU_LP64 
483.xalancbmk:  -DSPEC_CPU_LINUX 

C benchmarks:

 -march=barcelona 
 -Ofast 
 -CG:local_sched_alg=1 
 -HP:bdt=2m:heap=2m 

C++ benchmarks:

 -march=barcelona 
 -Ofast 
 -m32 
 -INLINE:aggressive=on 
 -L/root/work/libraries/SmartHeap-8. 1/lib -lsmartheap 

C benchmarks (except as noted below):

 opencc 
456.hmmer:  pgcc 

C++ benchmarks (except as noted below):

 openCC 
473.astar:  pgcpp 
400.perlbench:  -DSPEC_CPU_LP64 
 -DSPEC_CPU_LINUX_X64 
401.bzip2:  -DSPEC_CPU_LP64 
445.gobmk:  -DSPEC_CPU_LP64 
456.hmmer:  -DSPEC_CPU_LP64 
458.sjeng:  -DSPEC_CPU_LP64 
462.libquantum:  -DSPEC_CPU_LP64 
 -DSPEC_CPU_LINUX 
464.h364ref:  -DSPEC_CPU_LP64 
483.xalancbmk:  -DSPEC_CPU_LINUX 

C benchmarks:

400. perlbench:  -march=barcelona 
 -fb_create fbdata(pass 1) 
 -fb_opt fbdata(pass 2) 
 -Ofast 
 -IPA:plimit=20000 
 -LNO:opt=0 
 -OPT:unroll_times_max=8 
 -OPT:unroll_size=256 
 -OPT:unroll_level=2 
 -OPT:keep_ext=on 
 -WOPT:if_conv=0 
 -CG:local_sched_alg=1 
 -CG:unroll_fb_req=on 
 -HP:bdt=2m:heap=2m 
401.bzip2:  -march=barcelona 
 -fb_create fbdata(pass 1) 
 -fb_opt fbdata(pass 2) 
 -O3 
 -OPT:alias=disjoint 
 -OPT:unroll_size=0 
 -OPT:Ofast 
 -OPT:goto=off 
 -INLINE:aggressive=on 
 -CG:local_sched_alg=1 
 -m3dnow 
 -HP:bdt=2m:heap=2m 
403.gcc:  -march=barcelona 
 -fb_create fbdata(pass 1) 
 -fb_opt fbdata(pass 2) 
 -Ofast 
 -LNO:trip_count=256 
 -LNO:prefetch_ahead=10 
 -CG:cmp_peep=on 
 -m32 
 -HP:bdt=2m:heap=2m 
 -GRA:unspill=on 
429. mcf:  -march=barcelona 
 -O3 
 -ipa 
 -INLINE:aggressive=on 
 -CG:gcm=off 
 -GRA:prioritize_by_density=on 
 -m32 
 -HP:bdt=2m:heap=2m 
445.gobmk:  -march=barcelona 
 -fb_create fbdata(pass 1) 
 -fb_opt fbdata(pass 2) 
 -O3 
 -OPT:alias=restrict 
 -OPT:unroll_times_max=8 
 -OPT:unroll_size=256 
 -OPT:unroll_level=2 
 -OPT:keep_ext=on 
 -ipa 
 -IPA:plimit=750 
 -IPA:min_hotness=300 
 -IPA:pu_reorder=1 
 -LNO:prefetch=1 
 -LNO:ignore_feedback=off 
 -CG:p2align=on 
 -CG:unroll_fb_req=on 
 -HP:bdt=2m:heap=2m 
456.hmmer:  -fastsse 
 -Mvect=partial 
 -Munroll=n:8 
 -Msmartalloc=huge 
 -Msafeptr 
 -Mprefetch=t0 
 -Mfprelaxed 
 -Mipa=const 
 -Mipa=ptr 
 -Mipa=arg 
 -Mipa=inline 
 -tp shanghai-64 
 -Bstatic_pgi 
458.sjeng:  -march=barcelona 
 -fb_create fbdata(pass 1) 
 -fb_opt fbdata(pass 2) 
 -O3 
 -ipa 
 -LNO:ignore_feedback=off 
 -LNO:full_unroll=10 
 -LNO:fusion=0 
 -LNO:fission=2 
 -IPA:pu_reorder=2 
 -CG:ptr_load_use=0 
 -OPT:unroll_times_max=8 
 -INLINE:aggressive=on 
 -HP:bdt=2m:heap=2m 
462. libquantum:  -march=barcelona 
 -Ofast 
 -LNO:pf2=0 
 -CG:gcm=off 
 -CG:use_prefetchnta=on 
 -CG:cmp_peep=on 
 -WOPT:aggstr=0 
 -HP:bdt=2m:heap=2m 
 -OPT:alias=disjoint 
 -INLINE:aggressive=on 
 -IPA:space=1000 
 -IPA:plimit=20000 
464.h364ref:  -march=barcelona 
 -fb_create fbdata(pass 1) 
 -fb_opt fbdata(pass 2) 
 -O3 
 -IPA:plimit=20000 
 -OPT:alias=disjoint 
 -LNO:prefetch=0 
 -CG:ptr_load_use=0 
 -CG:push_pop_int_saved_regs=off 
 -HP:bdt=2m:heap=2m 

C++ benchmarks:

471.omnetpp:  -march=barcelona 
 -Ofast 
 -CG:gcm=off 
 -INLINE:aggressive=on 
 -OPT:alias=disjoint 
 -WOPT:if_conv=0 
 -m32 
 -L/root/work/libraries/SmartHeap-8.1/lib -lsmartheap 
473.astar:  -Mpfi(pass 1) 
 -Mpfo(pass 2) 
 -Mipa=fast(pass 2) 
 -Mipa=inline:6(pass 2) 
 -fastsse 
 -O4 
 -Msmartalloc=huge 
 -Msafeptr=global 
 -Mfprelaxed 
 —zc_eh 
 -tp shanghai-32 
 -Bstatic_pgi 
483. xalancbmk:  -march=barcelona 
 -Ofast 
 -INLINE:aggressive=on 
 -m32 
 -CG:cmp_peep=on 
 -GRA:unspill=on 
 -TENV:frame_pointer=off 
 -L/root/work/libraries/SmartHeap-8.1/lib -lsmartheap 

C benchmarks:

456.hmmer:  -Mipa=jobs:4 

C++ benchmarks:

473.astar:  -Mipa=jobs:4(pass 2) 

AMD Opteron — frwiki.wiki

Opteron is AMD’s trademark for x86 microprocessors designed for workstations and computer servers. It appeared on with the K8 architecture Sledgehammer kernel. In 2013, most of the opterons manufactured by AMD were single-core and then dual-core. They are borrowed from the K10 founder’s architecture. Today, optons can have up to 16 cores.

Like the Athlon 64 and Phenom, the Opteron has an integrated memory controller and HyperTransport bus.

In this area, AMD Opteron is located opposite the Xeon from the founder of Intel .

Summary

  • 1 Numbering

    • 1.1 Single and Dual Opteron — XYY
    • 1.2 Second and third generation Opteron — XYZZ / ZYXX
  • 2 Opterons (130 — 90 nm)

    • 2.1 Sledgehammer
    • 2.2 Venus (1yy)
    • 2.3 Troy (2y), Athens (8y)
  • 3 Dual core opteron (90nm)

    • 3.1 Denmark (1yy)
    • 3.2 Italy (2y), Egypt (8y)
  • 4 Opteron — second generation (90 nm)

    • 4.1 Santa Ana (12yy)
    • 4.2 Santa Rosa (22yy, 82yy)
  • 5 Opteron — Third generation (65-45nm)

    • 5.1 Platform

      • 5.1.1 Fiorano
      • 5.1.2 Maranello
    • 5.2 Range

      • 5.2.1 Barcelona (23y, 83y)
      • 5.2.2 Shanghai — Istanbul
      • 5.2.3 Magny-Cours
  • 6 32 nm

    • 6. 1 Valencia
    • 6.2 Interlagos
  • 7 External links
  • 8 Notes and references

Numbering

Single and Dual Opteron — XYY

The numbering system is very simple. It refers to two positions, and the values ​​​​follow each other in even numbers (10, 12, 14 …) for single-core. The advent of the dual-core Opteron changes the sequence of versions following each other from 5 to 5 (60, 65, 70…).

  • X indicates the number of processors

100: single processor
200: dual processor
800: up to 8 processors

  • YY indicates the performance level of the series
    EE (Energy Efficient): Low Power Version (30 W)

    Opteron second and third generation — XYZZ / ZYXX

    The arrival of the second generation Opteron is accompanied by a nomenclature change that adds a third reference: socket (i.e. processor generation). This new numbering seems to be part of a longer-term perspective. Finally, he notes the return of even sequences (52, 54, 56…). The term HE remains, to which the name SE is added.

    • x / z indicates the number of processors

    1000: one CP
    2000: two CP
    8000: up to 8 CP

    • Y indicates a generation of socket

    -20097 -300: a socket f +

    • ZZ / XX indicates the performance level in the

      • series

    SE: high performance version (120 to 125 W)
    HE (high efficiency): low power version (65/68 W)

    Opteron (130 — 90 nm)

    Single-core socket 939 Opteron, contrary to popular belief, does not have the same die as AMD Athlon 64 3700+, 4000+ and FX-55/57 from San Diego. Indeed, even if the L2 cache size is identical to the San Diego core, the Venus core also has Direct Connect technology and, above all, a 3-way Hyper Transport controller instead of a one-way controller. 3700+ and 4000+ and 2 channels for FX-57. In addition, it should be noted that Direct Connect, in addition to the capabilities in multi-processor solutions (processors communicate directly with each other, bypassing the chipset), allows you to offer better I / O control and more activity. case of dual-core processors in optimized dual-core applications.

    On socket 939 Opteron (and socket 940, of course), Direct Connect takes control from the memory controller in the CPU on a single 128-bit channel instead of 2 64-bit channels for socket 939 Athlon64 in a dual-channel configuration.

    Sledgehammer

    Model Nb. hearts Frequency L1 cache L2 cache Revision Voltage TDP Hypertransport Connector Marketing
    Opteron 100/200/800 series
    x50 1 2.40 GHz 2×64 KB 1 MB CG 1.5V 89W 940
    x48 1 2. 20 GHz 2×64 KB 1 MB C0-CG 1.5V 89 W 940
    x46 1 2.00 GHz 2×64 KB 1 MB C0-CG 1.5V 89W 940
    x44 1 1.80 GHz 2×64 KB 1 MB B3
    C0-CG     		1.55V
    1.5V     		84.7 W
    82.1 W     		940
    x42 1 1.60 GHz 2×64 KB 1 MB B3
    C0-CG     		1. 55V
    1.5V     		84.7 W
    82.1 W     		940
    x40 1 1.40 GHz 2×64 KB 1 MB B3
    C0-CG     		1.55V
    1.5V     		84.7 W
    82.1 W     		940
    Opteron Series 100/200/800 HE
    x46 OH 1 2.00 GHz 2×64 KB 1 MB CG 1.3V 55W 940
    Opteron Series 100/200/800 EE
    x40 EE 1 1. 40 GHz 2×64 KB 1 MB CG 1.15V 30W 940

    Venus (1yy)

    Model Nb. hearts Frequency L1 cache L2 cache Revision Voltage TDP Hypertransport Connector Marketing
    Opteron 100 Series
    156 1 3.0 GHz 2×64 KB 1 MB E4 1.30 — 1.35 V 104W 939
    154 1 2.8 GHz 2×64 KB 1 MB E4 1. 35 — 1.40 V 104W 939
    152 1 2.6 GHz 2×64 KB 1 MB E4 1.35 — 1.40 V 92.6 W
    104 W     		940
    939
    150 1 2.4 GHz 2×64 KB 1 MB E4
    1.35 — 1.40 V     		89W
    85.3W     		940
    939
    148 1 2.2 GHz 2×64 KB 1 MB E4
    1.35 — 1.40 V     		89W
    85.3W     		940
    939
    146 1 2. 0 GHz 2×64 KB 1 MB E4
    1.35 — 1.40 V     		89W
    67W     		940
    939
    144 1 1.8 GHz 2×64 KB 1 MB E4
    1.35 — 1.40 V     		89W
    67W     		940
    939
    142 1 1.6 GHz 2×64 KB 1 MB E4 1.30 — 1.35 V 89W 940
    Opteron 100 Series HE
    148 1 2. 2 GHz 2×64 KB 1MB E4 1.35 — 1.40 V 54.7W 940

    Troy (2y), Athens (8y)

    Model Nb. hearts Frequency L1 cache L2 cache Revision Voltage TDP Hypertransport Connector Marketing
    Opteron Series 200/800
    x56 1 3.0 GHz 2×64 KB 1 MB E4 1.35 — 1.40 V 92.6 W 940
    x54 1 2.8 GHz 2×64 KB 1 MB E4 1. 35 — 1.40 V 92.6 W 940
    x52 1 2.6 GHz 2×64 KB 1 MB E4 1.35 — 1.40 V 92.6 W 940
    x50 1 2.4 GHz 2×64 KB 1 MB E4 1.35 — 1.40 V 85.3W 940
    x48 1 2.2 GHz 2×64 KB 1 MB E4 1.35 — 1.40 V 85.3W 940
    x46 1 2.0 GHz 2×64 KB 1 MB E4 1.35 — 1.40 V 85.3W 940
    x44 1 1. 8 GHz 2×64 KB 1 MB E4 1.35 — 1.40 V 85.3W 940
    x42 1 1.6 GHz 2×64 KB 1 MB E4 1.35 — 1.40 V 85.3W 940
    Opteron 200/800 series HE
    x50 OH 1 2.4 GHz 2×64 KB 1 MB E4 1.35 — 1.40 V 54.7W 940
    x48 OH 1 2.2 GHz 2×64 KB 1 MB E4 1.35 — 1.40 V 54.7W 940
    x46 OH 1 2.0 GHz 2×64 KB 1 MB E4 1. 35 — 1.40 V 54.7W 940

    Dual Core Opteron (90nm)

    Denmark (1yy)

    Model Nb. hearts Frequency L1 cache L2 cache Revision Voltage TDP Hypertransport Connector Marketing
    Opteron 100 Series
    185 2 2.6 GHz 4×64 KB 2 × 1 MB E6 1.35 — 1.40 V 110W 939 / 940
    180 2 2.4 GHz 4×64 KB 2 × 1 MB E6 1.35 — 1.40 V 110W 939 / 940
    175 2 2. 2 GHz 4×64 KB 2 × 1 MB E6 1.35 — 1.40 V 110W 939 / 940
    170 2 2.0 GHz 4×64 KB 2 × 1 MB E6 1.35 — 1.40 V 110W 939 / 940
    165 2 1.8 GHz 4×64 KB 2 × 1 MB E6 1.35 — 1.40 V 110W 939 / 940
    160 2 1.6 GHz 4×64 KB 2 × 1 MB E6 1. 35 — 1.40 V 110W 939 / 940

    Italy (2yy), Egypt (8yy)

    Model Nb. hearts Frequency L1 cache L2 cache Revision Voltage TDP Hypertransport Connector Marketing
    Opteron Series 200/800
    x90 2 2.80 GHz 4×64 KB 2 × 1 MB E6 1.30 — 1.35 V 95W 940
    x85 2 2.60 GHz 4×64 KB 2 × 1 MB E6 1.30 — 1.35 V 95W 940
    x80 2 2. 40 GHz 4×64 KB 2 × 1 MB E6 1.30 — 1.35 V 95W 940
    x75 2 2.20 GHz 4×64 KB 2 × 1 MB E6 1.30 — 1.35 V 95W 940
    x70 2 2.00 GHz 4×64 KB 2 × 1 MB E6 1.30 — 1.35 V 95W 940
    x65 2 1.80 GHz 4×64 KB 2 × 1 MB E6 1.30 — 1.35 V 95W 940
    Opteron 200/800 series HE
    x75 OH 2 2. 20 GHz 4×64 KB 2 × 1 MB E6 1.15 — 1.20 V 55W 940
    x70 OH 2 2.00 GHz 4×64 KB 2 × 1 MB E6 1.15 — 1.20 V 55W 940
    x65 OH 2 1.80 GHz 4×64 KB 2 × 1 MB E6 1.15 — 1.20 V 55 W 940
    x60 OH 2 1.60 GHz 4×64 KB 2 × 1 MB E6 1.15 — 1.20 V 55W 940

    Opteron — second generation (90 nm)

    DDR2 memory management

    Santa Ana (12y)

    Model Nb. hearts Frequency L1 cache L2 cache Revision Voltage TDP Hypertransport Connector Marketing
    Opteron 1000 SE Series
    1222SE 2 3.0 GHz 2 x (64 + 64) KB 2 x 1 MB F2 — F3 1.35 — 1.40 V 125W AM2
    1220SE 2 2.8 GHz 2 x (64 + 64) KB 2 x 1 MB F2 — F3 1.35 — 1.40 V 125W AM2
    Opteron 1000 Series
    1222 2 3. 0 GHz 4×64 KB 2 × 1 MB F2 — F3 1.30 — 1.35 V 103W AM2
    1220 2 2.8 GHz 4×64 KB 2 × 1 MB F2 — F3 1.30 — 1.35 V 103W AM2
    1218 2 2.6 GHz 4×64 KB 2 × 1 MB F2 — F3 1.30 — 1.35 V 103W AM2
    1216 2 2.4 GHz 4×64 KB 2 × 1 MB F2 — F3 1. 30 — 1.35 V 103W AM2
    1214 2 2.2 GHz 4×64 KB 2 × 1 MB F2 — F3 1.30 — 1.35 V 103W AM2
    1212 2 2.0 GHz 4×64 KB 2 × 1 MB F2 — F3 1.30 — 1.35 V 103W AM2
    1210 2 1.8 GHz 4×64 KB 2 × 1 MB F2 — F3 1.30 — 1.35 V 103W AM2
    Opteron 1000 Series HE
    1218ET 2 2. 6 GHz 4×64 KB 2 × 1 MB F3 1.20 — 1.25 V 65 W AM2
    1216ET 2 2.4 GHz 4×64 KB 2 × 1 MB F3 1.20 — 1.25 V 65 W AM2
    1214ET 2 2.2 GHz 4×64 KB 2 × 1 MB F3 1.20 — 1.25 V 65 W AM2
    1212ET 2 2.0 GHz 4×64 KB 2 × 1 MB F3 1.20 — 1. 25 V 65 W AM2
    1210ET 2 1.8 GHz 4×64 KB 2 × 1 MB F3 1.20 — 1.25 V 65 W AM2

    Santa Rosa (22 years old, 82 years old)

    Model Nb. Hearts Frequency L1 cache L2 cache Revision Voltage TDP Hypertransport Connector Marketing
    Opteron 2000/8000 SE Series
    x224 SE 2 3.2 GHz 4×64 KB 2 × 1 MB F3 1. 325 — 1.35 — 1.375 — 1.40 V 120W 2000 MT/s F
    x222 SE 2 3.0 GHz 4×64 KB 2 × 1 MB F3 1.325 — 1.375 V 120W 2000 MT/s F
    x220 SE 2 2.8 GHz 4×64 KB 2 × 1 MB F2 — F3 1.325 — 1.375 V 120W 2000 MT/s F
    Opteron 2000/8000 series
    x222 2 3.0 GHz 4×64 KB 2 × 1 MB F3 1.30 — 1.35 V 95W 2000 MT/s F
    x220 2 2. 8 GHz 4×64 KB 2 × 1 MB F2 — F3 1.30 — 1.35 V 95W 2000 MT/s F
    x218 2 2.6 GHz 4×64 KB 2 × 1 MB F2 — F3 1.30 — 1.35 V 95W 2000 MT/s F
    x216 2 2.4 GHz 4×64 KB 2 × 1 MB F2 — F3 1.30 — 1.35 V 95W 2000 MT/s F
    x214 2 2.2 GHz 4×64 KB 2 × 1 MB F2 — F3 1.30 — 1.35 V 95W 2000 MT/s F
    x212 2 2. 0 GHz 4×64 KB 2 × 1 MB F2 — F3 1.30 — 1.35 V 95W 2000 MT/s F
    2210 2 1.8 GHz 4×64 KB 2 × 1 MB F2 — F3 1.30 — 1.35 V 95W 2000 MT/s F
    Opteron 2000/8000 series HE
    x218 OH 2 2.6 GHz 4×64 KB 2 × 1 MB F3 1.20 — 1.25 V 68W 2000 MT/s F
    x216 OH 2 2.4 GHz 4×64 KB 2 × 1 MB F2 — F3 1.20 — 1.25 V 68W 2000 MT/s F
    x214 OH 2 2. 2 GHz 4×64 KB 2 × 1 MB F2 — F3 1.20 — 1.25 V 68W 2000 MT/s F
    x212 OH 2 2.0 GHz 4×64 KB 2 × 1 MB F2 — F3 1.20 — 1.25 V 68W 2000 MT/s F
    2210ET 2 1.8 GHz 4×64 KB 2 × 1 MB F2 — F3 1.20 — 1.25 V 68W 2000 MT/s F

    Opteron — Third generation (65-45nm)

    Commercialization of the K10 architecture marks the arrival of 3- Generation Opteron. It features a quad-core structure and L3 cache. The first versions, like Phenoms, were prone to TLB bugs. The B3 Opteron Barcelona revision was accompanied by new HE models with a lower TDP.

    Platform

    Fiorano

    AMD has taken advantage of the launch of its new SR56x0 chipsets to introduce a 100% AMD platform. Thus, the Fiorano platform is organized around the SR56x0 northbridge and SB5100 southbridge, and is dedicated only to socket F compatible opterons. Three chip models are planned: AMD SR5650, SR5670, and SR5690. They can support up to 42 PCI Express 2.0 lanes, together with two, their number can be increased to 84 lanes. But above all, they provide PCI-Express 2.0 and HyperTransport 3.0 bus management. They also include Advanced Virtualization Technology (AMD-Vi), which now allows for peripheral device virtualization (IOMMU technology, equivalent to Intel’s VT-d technology). This platform is not new, although it offers many improvements, but, above all, it allows you to fill the gap in anticipation of the next Opterons for the G34 socket.

    Maranello

    Range

    Barcelona (23y, 83y)
    Model Nb. Hearts Frequency L1 cache L2 cache L3 cache Revision Voltage TDP Hypertransport Connector Marketing
    Opteron 2000/8000 SE Series
    x360 SE 4 2.5 GHz 4×128 KB 4×512 KB 2MB Bi 2 F+
    x358 SE 4 2.4 GHz 4×128 KB 4×512 KB 2MB Bi 2 F+
    Opteron 2000/8000 series
    x356 4 2. 3 GHz 4×128 KB 4×512 KB 2MB B3 1.2V 115 W F+
    x350 4 2.0 GHz 4×128 KB 4×512 KB 2MB Bi 2 1.2V 95W F+
    x347 4 1.9 GHz 4×128 KB 4×512 KB 2MB Bi 2 1.2V 95W F+
    Opteron 2000/8000 series HE
    x347 OH 4 1. 9 GHz 4×128 KB 4×512 KB 2MB B3
    B2
    1.15V     		55W
    68W     		F+
    x346 OH 4 1.8 GHz 4×128 KB 4×512 KB 2MB B3
    B2
    1.15V     		55W
    68W     		F+
    x344 OH 4 1.7 GHz 4×128 KB 4×512 KB 2MB B3
    B2
    1.15V     		55W
    68W     		F+
    Shanghai — Istanbul
    Model Hearts Frequency Hidden Revision Voltage TDP Hypertransport Connector Help Marketing
    Heart Memory controller L1 L2 L3
    Opteron 8 / 24xx SE
    8439SE
    2439SE     		6 2. 8 GHz 2.2 GHz 6×128 KB 6×512 KB 6 MB D0 1.3V 137W 4.8 GHz F OS8439YDS6DGN
    OS2439YDS6DGN
    Opteron 8 / 24xx HE
    8425 NOT
    2425 NOT     		6 2.1 GHz 2.2 GHz 6×128 KB 6×512 KB 6 MB D0 1.3V 79W 4.8 GHz F OS8425PDS6DGN
    OS2425PDS6DGN
    2423ET 6 2.0 GHz 2.2 GHz 6×128 KB 6×512 KB 6 MB D0 1. 3V 79W 4.8 GHz F OS2423PDS6DGN
    Opteron 8 / 24xx EE
    2419EE 6 1.8 GHz 2.0 GHz 6×128 KB 6×512 KB 6 MB D0 1.125V 60 W 4.8 GHz F OS2419NBS6DGN
    Opteron 8 / 24xx
    8435
    2435     		6 2.4 GHz 2.2 GHz 6×128 KB 6×512 KB 6 MB D0 1.3V 115 W 4. 8 GHz F OS8435WJS6DGN
    OS2435WJS6DGN
    8431
    2431     		6 2.4 GHz 2.2 GHz 6×128 KB 6×512 KB 6 MB D0 1.3V 115 W 4.8 GHz F OS8431WJS6DGN
    OS2431WJS6DGN
    2427 6 2.2 GHz 2.2 GHz 6 × 128 KB 6×512 KB 6 MB D0 1.3V 115 W 4. 8 GHz F OS2427WJS6DGN

    Test List for Opteron Istanbul

    • 2435
      • (en) X-bit Labs .
    Magny-Cours

    Magny-Cours is the first model with a dodeca core (with 12 cores), however the cores are not their own, but are the result of the assembly of two crystals, which is the first, because Istanbul AMD always preferred to be interested in one. main control. In addition, this new model is designed to consume no more than one Istanbul core thanks to lower frequencies and consumption optimization. Due to its configuration, it will use a new socket called G34 (1974 pins) that will make up the next Maranello platform with the following AMD 800 chipsets. Even though it uses 12 million L3 cache, 2 million is dedicated to HT-assistance .

    Model Hearts Frequency L1 cache L2 cache L3 cache Revision Voltage TDP Hypertransport Connector Marketing
    Opteron 6xxx
    2 × 6 1.7 to 2.3 GHz 12×128 KB 12×512 KB 2 × 6 MB 65 to 115 W 3.2 GHz G34 1- cut. 2010
    2×4 1.8 to 2.4 GHz 8×128 KB 8×512 KB 2×6 MB 65 to 137 W 3.2 GHz G34 1- cut. Opteron 146-846: September 9, 2003, Opteron 246: August 5, 2003
  • ↑ a and b Opteron 252 — 254: 68 W and 92.6 W
  • ↑ Opteron 250: 68W and 85.3W
  • ↑ a b c and d Opteron 265 — 270 — 275 — 280: 68 W or 95 W
  • ↑ (fr) Frederick. AMD: New 55W TDP Opterons at Clubic May 13, 2008
  • ↑ Florian Vieru. AMD Unveils New Server Chipsets at PCWorld.fr September 22, 2009
  • ↑ Florian Vieru. AMD Magny-Cours, 12 cores since early 2010? at PCWorld, August 25, 2009

    • AMD

    Processors

    Current
    x86-64
    • AMD FX
    • Athlon X4
    • Ryzen
    • Epic
    Abandoned
    Up to x86
    • Am9080
    • Am2900 (ru)
    x86-16 (16bit) Am286
    x86-32 (32 bit)
    • Am386
    • Am486
    • Am5x86
    • K5
    • K6
    • K6-2
    • K6-III
    • Duron
    • Athlon
    • Geode
    x86-64 / AMD64 (64bit)
    • Mobile Athlon 64
    • Sempron
    • Athlon 64

      • Athlon Neo
      • Athlon 64FX
    • Athlon X2
    • Name

      • II
    • Athlon II
    • Turion
    • Opteron
    • Merger
    Other
    • Am29000
    • Au1
    Microarchitectures
    Primary
    • K5
    • K6
    • K7
    • K8
    • K10
    • Bulldozer

      • Piledriver (ru)
      • Steamroller
      • Excavator
    • Zen

      • Zen 2 (ru)
    Low consumption
    • Alchemy
    • Lynx
    • Jaguar (en)
    • Puma
    ARM K12 ( inch )
    Sockets
    • 7
    • Super 7
    • B
    • 563
    • S1
    • 754
    • 939
    • 940
    • AM2
    • AM2 +
    • F ​​
    • F+
    • AM3
    • G34
    • C32
    • AM3 +
    • FM1
    • FM2
    • AM4
    • TR4

    wikipedia.org/wiki/Special:CentralAutoLogin/start?type=1×1″ alt=»» title=»»>

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    The main events of the past week.

    Issue 90 / Analytics

    3DNews Analytics Events. Data. Forecasts The main events of the past week. Release…

    The most interesting news


    In this issue: the official presentation of economical and «overclocked» 6-core AMD Opteron processors; preparation for the release of the Ibex-Peak platform; optimistic trends in the information technology industry; successful space flight Falcon 1 with satellite on board

    We will start the next issue of the weekly news digest with the news that opened the last week. Namely, since the release by AMD of several AMD Opteron server processors with six cores at once. For the first time, six-cores were introduced by AMD at the very beginning of June 2009.year, and the presentation took place much earlier than planned. The company’s next step was an attempt to strengthen its position in the server market by releasing products for various categories of computing systems, both for cost-effective servers with an emphasis on energy efficiency, and high-performance machines.

    The main feature of the three processor models should be their reduced power consumption — new products should be the most efficient products in terms of such a parameter as performance per watt of power consumption. In this case, we are talking about the models 8425 HE, 2425 HE and 2423 HE, the reduced power consumption of which is achieved by reducing the operating frequency to 2.1 GHz (for the 2423 HE model, the clock frequency is 2.0 GHz, which, however, does not affect average power consumption). Here it is necessary to note the following fact — AMD operates with such an indicator as the average power consumption of the processor (ACP), instead of the more usual maximum power consumption (TDP). For these CPU models, the ACP value does not exceed 55 watts, but do not forget that the maximum heat dissipation can be much higher than the indicated figures. As a result, it is still impossible to confidently talk about the advantage of AMD or Intel server processors — the end user must choose the most suitable option based on their own preferences and features of specific computing systems.

    According to the developers, the new AMD processors are characterized by an 18% increase in specific performance, that is, computing power in terms of one watt of power consumption.

    This means that AMD customers looking to build a power efficient computing system should look to the AMD Opteron six-core HE series. The developers claim that the novelties will significantly reduce the power consumption of finished computing systems. If platforms based on previously released six-core processors consumed about 270 W, then switching to economical CPU options can reduce consumption to 211 W (data are valid at 100% processor load).

    Where performance comes first, customers are encouraged to purchase two other six-core Opteron processors. We are talking about models 8439 SE and 2439 SE, the main feature of which is the clock frequency increased to 2.8 GHz. A side effect of «overclocking» processors to such a high frequency was a noticeable increase in their power consumption — the average power consumption rose to 105 watts. In terms of performance, compared to quad-core processors, the computing power of the new AMD Opteron SE series has increased immediately by 50%.

    Featured Opteron six-core server processors:

    Model Features Cost
    8439 SE 2.8 GHz, ACP — 105 Watts $2649
    8425 HE 2.1 GHz, ACP — 55 Watts $1514
    2439 SE 2.8 GHz, ACP — 105 Watts $1019
    2425 HE 2.1 GHz, ACP — 55 Watts $523
    2423 HE 2. 0 GHz, ACP — 55 Watts $455

    Now let’s pay attention to AMD’s main rival in the microprocessor market — Intel. Here, first of all, we note the imminent appearance of a new platform for personal computers — Ibex-Peak, which includes quad-core Lynnfield processors and the Intel P55 system logic for them. According to information that appeared this week, the manufacturer expects to officially present both new items in the period from the eighth to the eleventh of September. The first CPUs based on the Lynnfield core will be the mid-price model Core i5 750 with a clock speed of 2.66 GHz, and two productive models Core i7 860 (2.8 GHz) and Core i7 870 (2.93 GHz). All models are designed for installation in the LGA 1156 socket, are equipped with an 8 MB L3 cache, as well as an integrated DDR3 RAM controller. The two older models will boast support for HyperThreading technology, while the Core i5 750 model will not have such functionality.

    Of course, the release of new central processors of the corresponding motherboards that support working with them will turn out to be pointless. But you shouldn’t worry about such a scenario — motherboard manufacturers are increasingly announcing products based on the Intel P55 system logic. This week, Gigabyte was noted, showing the world the GA-P55M-UD4 motherboard of the Micro-ATX form factor (/news/pervaya_plata_formata_micro_atx_na_baze_intel_p55/), as well as Biostar, which talked about a whole line of T-Power motherboards, which included T models -Series T5 XE, T-Series TP55 XE, and T-Power I55. Thus, we can talk about the readiness of motherboard manufacturers to immediately release a whole range of different products based on the Intel P55 chipset — from compact Micro-ATX form factor motherboards for small personal computers to «top» products for high-performance computing systems.

    However, information about the imminent appearance of the Ibex-Peak platform is not the only good news coming from Intel. The second positive moment was the publication of financial results for the second quarter of this year. It would seem that the results for the reporting period should not please — Intel ended the second quarter with a cash loss of $ 398 million, while for the same period last year, the profit of the world’s leading chipmaker amounted to $1.6 billion. But you need to remember the significant fine imposed on Intel by the decision of the European Commission. Recall that earlier the European Commission found Intel guilty of unfair competition and abuse of its dominant position in the market of central processors (/news/intel_priznana_vinovnoi_v_nechestnoi_konkurentsii/). The amount of the fine, which amounted to just under one and a half billion US dollars, is deducted from the company’s income, materially distorting the financial results. If not for the payment of the specified amount, Intel’s profit in the second quarter of this year would have amounted to quite a solid amount of one billion US dollars. And this result would be better than expected and predicted by analysts.

    For the general public, it also means that the industry is gradually emerging from the crisis. As another example pointing to the process of recovery of the IT industry, we can consider the report of analysts on the personal computer market in the second quarter of 2009of the year. It turns out that sales of personal computers, although they fell relative to the same period last year, but only slightly. Sales volumes declined by only 3 percent, while many analysts had predicted a drop of more than 6 percent compared to last year. If we talk about the state of affairs of specific manufacturers, then the second quarter was best completed by HP, which is also the leader in the PC market. She managed not only to maintain her leading position — the company owns about 20% of the entire PC market, but even increased the volume of product deliveries by 3.6%, compared with the results of last year. However, Acer’s business is also going uphill — an increase in sales of personal computers amounted to 23. 7% at once. However, even this was not enough to get ahead of Dell, which occupies second place in the list of leading PC manufacturers today. But the latter was seriously affected by the crisis — in the second quarter of 2009year, the decline in sales of computers amounted to 13.7%. The reason for this result can be considered the company’s emphasis on corporate clients, who, during the unfavorable economic situation in the world, do not dare to expand and update the fleet of personal computers.

    We propose to complete the release of the weekly news digest with the most important event for the space industry — the launch of an artificial satellite into the Earth’s orbit using the world’s first private rocket. We are talking about the Falcon 1 rocket, created by SpaceX specialists. In total, this is the fifth launch of the rocket — the previous ones ended in failure and the loss of Falcon 1 due to various problems. At the same time, during the third launch, research satellites were also lost, which the rocket was supposed to put into Earth orbit. The fourth launch, which turned out to be the first successful launch of the Falcon 1 into space, did not provide for the presence of a payload on board the rocket — there was only a ballast to simulate it. And so, July 13, 2009A Falcon 1 rocket launched the Malaysian satellite RazakSAT into Earth orbit, designed to receive HD photographs of the territory of Malaysia.

    SpaceX’s main goal is to develop a rocket that would allow a payload to be lifted into Earth orbit at a relatively low cost — this is the main advantage of Falcon rockets. And it is precisely due to this that the company expects to compete with state structures of space powers, mainly the United States and Russia. For SpaceX, the successful launch of the Falcon 1 with a satellite on board is also an excellent advertisement for its services and a guarantee that the next launches will be successful.

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