世界初のCPU コ
アクロック 1GHz
を突破

2000



世界初のx86デュ
アル コアCPU
2004

2003
世界初の64-bit x86 プロセッサー| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

世界初のクアッド
コアCPU

世界初のクアッドコア
搭載APU

2007

2013

2006
世界初の1GHz GPU

2011
世界初のCPU & GPU 1
チップ化
(APU)

2019
世界初の7nm ベース
x86 CPU + PCIe®4

PRODUCTS| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

*EPYC 7762  See endnote ROM-114, ROM-06, ROM-07| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

Performance / Watt

7nm
14+Fin

14Fin

12nm

14nm

2015
7

10Fin

Competitor
Foundry

2016| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

2017

2018

2019

∞
∞

| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

Multi-die MCM

m

DD
R

DD
R

∞
∞

Monolithic die

∞
∞

7nm
CPU
die

DD
R

I/O

7nm
CPU
die

DD
R

14nm
I/O DIE

I/O

7nm
CPU
die

DD
R

∞
∞

7nm
CPU
die

DD
R

DD
R

Chiplet

DD
R

7nm
CPU
die

7nm
CPU
die
7nm
CPU
die
7nm
CPU
die

| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

“ZEN 2”によりコア性能をより強化*

32K L1I Cache (8 way)

Branch Prediction

DecodeOp Cache(～ 15% IPC 向上)TAGE 分岐予測の採用

オペレーションキャッシュ容量 x2倍L1 キャッシュの強化 帯域 x2倍

アドレスジェネレーションユニットを3基に強化



浮動小数点演算機 データ幅 x2倍 (256bit幅)

L3 キャッシュ容量 x2倍 (1CCD当たり32MB)



プリフェッチスロットリング強化

Micro-Op Queue

4 instructions

8 fused instructions
6 dispatch ops

FLOATING POINT

INTEGER

Floating Point Rename

Integer Rename

Sched

Sched

Sched

Sched

Scheduler

Scheduler

Integer Physical Register FileFP Register File

そして、低消費電力化も

7nm プロセステクノロジー採用

オペレーションキャッシュヒット率の向上
 クロック、データのゲーティング機能強化

ALU

ALU

ALU

ALU

AGU
Ld/St

AGU
Ld/St

AGU
St

FMA
FMUL

FADD

FMA
FMUL

FADD



2 loads + 1 store per cycle

Load/Store
Queues32K L1D Cache
8 Way*vs original “Zen” core
| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

512K
L2 Cache
8 Way▪
コンピュート

パフォーマンス

最大 2倍 AMD “Zen” x86 コア(最大 64 コア/128 スレッド)~4x ピーク TFLOPS/ソケット2~2X パフォーマンス/ソケット3

最大 4X 共有L3キャッシュ (256MB)
最大 2X コア当たりL3キャッシュ(4コア当たり16MB)削減された システム半径(NUMA ドメイン)

8 コア
+ L3

8 コア
+ L3

8 コア
+ L3

8 コア
+ L3

内蔵 I/O – チップセット不要

DDR4 メモリ

コントローラサーバー コント
ローラ ハブ (SCH)

PCIe3/4
SATA3

AMD セキュア

2 DIMM/チャネル 4TB/ソケットの容量1| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

− 最大 32 SATA 又は NVMe デバイス

プロセッサ

ECC対応 8 チャネル DDR4
最大 3200 MHz
RDIMM, LRDIMM, 3DS, NVDIMM− PCIe, SATA, コヒーレント・イン
ターコネクトに使用

TDP レンジ: 120W-225W
メモリ

128 レーン PCIe® 3 & 44

セキュリティ

8 コア
+ L3

8 コア
+ L3

8 コア
+ L3

8 コア
+ L3

専用のセキュリティ サブシステム
ハードウェア ルート・オブ・トラスト

追加の セキュリティ機能

EPYC™ 7001 シリーズ プロセッサ

Die 2

Die 1

Die 2

EPYC™ 7002 シリーズ プロセッサ

Die 1

IO Die

Die 3

Die 0

Die 3

IO Die

Die 0
Die 0

NUMA 2
Domain
NUMA1
NUMA2
NUMA3
Avg. Local2

NUMA 1
Latency4 (ns)
90
141
234
128

NUMA 33 NUMA Distances
8 NUMA Domains

NUMA 1
DomainLatency4 (ns)

NUMA13

104

NUMA2

201

Latency Reduction1

NUMA ドメイン数を減らして距離も縮めました:| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

NUMA 22 NUMA Distances
2 NUMA Domains

19%/14%

一般的なワークロードで扱い易い

1: EPYC 7002 Series NUMA 1 vs EPYC 7001 Series Avg. Local; EPYC 7002 Series NUMA2 vs EPYC 7001 Series NUMA 3
2: 75% NUMA 2 + 25% NUMA 1 traffic mix; 3: NPS=1 Default Setting; 4: DRAM Page Miss

チャネル数最大DDR
周波数 (1DPC)

ソケット当たり理論
メモリバンド幅 (GB/s)

PCIe Gen 4
レーン数

256

8

3200

204.8

128

200

256

8

3200

204.8

128

3.3

225

256

8

3200

204.8

128

2.3

3.3

225

256

8

3200

204.8

128

96

2.2

3.3

200

192

8

3200

204.8

128

32

64

2.9

3.4

225

128

8

3200

204.8

128

32

64

2.4

3.3

200

256

8

3200

204.8

128

32

64

2.5

3.35

180

128

8

3200

204.8

128

32

64

2.35

3.35

155

128

8

3200

204.8

128

24

48

2.8

3.35

180

128

8

3200

204.8

128

24

48

2.3

3.2

155

128

8

3200

204.8

128

16

32

3.0

3.3

155

128

8

3200

204.8

128

16

32

2.8

3.2

120

64

8

3200

85.3b

128

b

(GHz)

最大ブースト
周波数(GHz) a

TDP (W)

L3 キャッシュ
(MB)

128

2.25

3.4

225

64

128

2.0

3.35

64

128

2.0

7642

48

96

7552

48

7542
7532
7502
7502P
7452
7402
7402P
7352
7302
7302P
7282

モデル番号

コア数

スレッド数

7742
7702
7702P
7662

64

ベース周波数

DDR

7272

12

24

2.9

3.2

120

64

8

3200

85.3

128

7262

8

16

3.2

3.4

155

128

8

3200

204.8

128

7252

8

16

3.1

3.2

120

64

8

3200

85.3b

128

3.2

120

32

8

3200

85.3b

128

7232P a. プロセッサが動作可能な最大シングルコア周波数
8163.1
b. DDR4-2667 DIMM 4チャネルでの動作に最適化| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

New

New

| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

AMD EPYC 7002 シリーズ™

DDR4 1DIMM per Channel Server*
DR RDIMM: 3200 MHz

LRDIMM: 3200 MHz

A

E

B

F

C

G

D

H
DIMM

Intel® Xeon® 2nd Gen Scalable(“Cascade Lake SP”)

Max Theoretical Memory BW
per 2P server (1 DR DPC)

12 x DDR4-2933 = 282GB/s

AMD EPYC™ Advantage

DIMM

AMD EPYC™ 7001 Series

AMD EPYC™ 7002 Series

16 x DDR4-2666 = 340GB/s

16 x DDR4-3200* = 410GB/s

+21%

+45%

広帯域メモリーがパフォーマンスのスケーリングに貢献します
Not supported on all motherboards – see endnotes ROM-06 for details.
| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

*AMD POR memory speeds in a one DIMM per channel system implementation



8 x16 レーン 全てにおいて、 PCIe® Gen4 対応− 1レーン当たり 64GB/s 双方向バンド幅, ソケット当たり512GB/s



8 x16 レーン全てにおいて、IOMMU サポート

レーン分割のサポート、 x16あたり最大8個の PCIeデバイス

フル PCIe P2P サポート、ソケット内, ソケット間ともに

x16
x16

x8
x4

x8
x4

x4

x4

x2
x2
x2
x2
x2
x2
x2
x2
x1 x1 x1 x1 x1 x1 x1 x1 x1 x1 x1 x1 x1 x1 x1 x1− 最大P2P ペイロードサイズ: 256B
− 最大 DMA ペイロードサイズ: 512B


I/O ダイ上の AMD Infinity Fabric ™ は DMA and P2P に対して最適化さ
れています



1 ソケットプラットフォームにおいては、全てのレーンをI/Oとして利用可能



2 ソケットプラットフォームにおいては、最大162レーンをI/Oとして利用可能

EPYCがサポートする 広帯域 PCIE GEN4 はパフォーマンスの

x16

x8
x4

x8
x4

x4

スケーリングに貢献します| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

x4

x2
x2
x2
x2
x2
x2
x2
x2
x1 x1 x1 x1 x1 x1 x1 x1 x1 x1 x1 x1 x1 x1 x1 x1
x1 x1 x1 x1 x1 x1 x1 x1

Not supported on all motherboards – see endnotes ROM-06

| AMD
EPYC ROM-174,| DECEMBER
2019| PC ROM-177
CLUSTERand
CONSORTIUM
2019
See Endnotes
ROM-173,
ROM-175,
ROM-176,
ROM-178

MI50

20 | AMD
AMDEPYCRADEONINSTINCT
UPDATE| ISC 2019
| CONFIDENTIAL– NDA ONLY
| DECEMBER
2019| PC CLUSTERCONSORTIUM
2019

Compute Units (Stream Processors)

60 (3840)

Peak FP64 (TFLOPS)

Up to 6.6

Peak FP32 (TFLOPS)

Up to 13.3

Peak FP16 (TFLOPS)

Up to 26.5

Peak INT8 (TOPS)

Up to 53.0

Peak INT4 (TOPS)

Up to 106

Memory Size

32/16GB HBM2

Memory Bandwidth

1 TB/sECC (Full-chip)Yes

RAS Support

Yes

PCIe® Gen 4 Capable**

Yes

Infinity Fabric™ Link

Yes – 2 links

Max Power<300W TDP

PublicPCIe 4.0∞∞
INFINITY FABRIC∞| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019∞

簡素化された製品スタックにわたって先進的な機能を一律に提供

以下の全ての機能が含まれます:8 チャンネル DDR4-32001
4TB メモリ容量
128 レーン PCIe4® 1
SMT & ターボブースト
18G インフィニティ・ファブリック
セキュア・メモリ・エンクリプション
セキュア・エンクリプテット・バーチャライゼーション| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019✓
SEE ENDNOTES

| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

Intel® Xeon®

Silver Processors| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

世界最高性のを提供する x86 サーバ CPU

最上位製品での比較: AMD EPYC 7742 x2 プロセッサー vs. Intel Platinum 8280L x2 プロセッサー

AMD EPYC 7742(64core) x2

130%

より多く
のコア数1

| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019Intel Platinum 8280L(28core) x2

45 %

UP TO

広いメモリ
帯域2

Results as of 8/7/2019 using SPECrate(R)2017_int_base

84 %

UP TO

より高性能3

SEE ENDNOTESAltair® Radioss™

ANSYS® Fluent®

GROMACS

Blender®

SPECvirt®

BEAMR

1.6X

Docker® Containers

Apache Spark®

| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

Microsoft SQL
Server®

VMmark® 3.0

PCIe® 4.0

Azure® Cloud

1.4X
See Endnotes ROM-36, ROM-42, ROM-56, ROM-99, ROM-112, ROM-113, ROM-131, ROM-136, ROM-173, ROM-175, ROM-266, ROM-

| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

See AMD.com/worldrecords for details

| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

N-1

Launch (N)Server 2016

Server 2019vSphere6.5x

vSphere6.7x

RHEL 7.6

RHEL 8.0

SLES 12 SP4SLES 15.x

Ubuntu 16.04.x

Ubuntu 18.04.x

XenServer
7.1 LTS

XenServer
2019

Note: Essential Rome Support (including X2APIC/IOMMU patches to utilize 256T) available with Linux Kernel 4.19

| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

オープンソース戦略

パフォーマンス
コンパイラー

AOCC

AMD 最適化 C/C++ コンパイラー – LLVMに統合、
EPYC プロセッサー最適化済
Java コンパイラー、ランタイム – オラクルから提供されます。
AMDはOpenJDKの最適化やリリースに協力しています。
AMD はLLVMコミュニティに対して活発に貢献しています。
EPYC プロセッサに最適化を行ったAOCCを公開します。
広く使われているオープンソース・コンパイラーです。
AMDは EPYCプロセッサ向けの最適化を行い公開します。

プラットフォーム
コンパイラー

広く使われているWindowsコンパイラーです。
AMDは EPYCチューニングやプロセッサの対応を行います。
エコシステムコンパイラー

PGI 、その他| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

EPYC対応サポート, ソフトウェア最適化ガイドや推奨フラグなどの提供を行います。

Current Release

4Q18

1Q19

2Q19

AOCC v1.3.0

AOCC v2.0• AMD “Rome”
Enhancements• FLANG becomesnative Fortrancompiler• LLVM v8
Enhancements

LLVM v7.0

LLVM v81• AMD “Rome”
Enhancements

GCC v8.2

GCC v9 (Stage)• Initial AMD“Rome”
Enablement| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

GCC v9• Further AMD“Rome” tuning

3Q19

4Q19

オープンソース、ポータビリティ戦略
Library

AMD インプリメンテーション

Core MathlibM - EPYC プロセッサ最適化済

Linear Algebra

LibFLAME - EPYC プロセッサ最適化済

Basic Linear Algebra

BLIS - EPYC プロセッサ最適化済

Fast Fourier Transforms

FFTW – GPU/APU によるヘテロジニアス・コンピュートとOpenCL™ のサポート

Random Number Generator

RNG – 単精度と倍精度| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

オープンソース、ポータビリティ戦略
https://developer.amd.com/amd-cpu-libraries/
Current Release

4Q18

AMD CPU Libraries v1.5
v1.0
• Library
Enhancements

•

•

•

BLIS MT
optimizations andbug fixes for
scaling
Libm scalar:
Optimized pow,
powf
Libm vector:
optimized
functions (pow)| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

1Q19

2Q19

v2.0
• AMD “Rome”
Enablement”•••

Rome enablement
BLIS MT upgrades
Libm scalar: fasterversions (less accurate)
for log, pow, exp

3Q19

4Q19

https://developer.amd.com/amd-uprof/
Current Release

AMD µProf
v1.2

4Q18

V2.0
• Initial Top
down profiling,
Remoteprofiling,
improved
performance| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

1Q19

2Q19

v3.0
• AMD “Rome”
Enhancements

3Q19

4Q19

AMD DEVELOPER CENTRAL| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

(HTTPS://DEVELOPER.AMD.COM/)

| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

AMDプロセッサーのセキュリティーに関する最新情報 https://www.amd.com/ja/corporate/security-updates| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

第2世代 AMD EPYC™ プロセッサは509個のSEVメモリーキーに対応 エコシステムでのサポートが拡大

AMD セキュア・ルート・オブ・トラスト テクノロジー
Root of Trust
AMD Secure
Processor

LOAD

On-chip Boot ROM

AMD セキュア・メモリ・エンクリプション (SME)

AMD セキュア・エンクリプテット・バーチャライゼー
ション (SEV)

Applications

Load / Authenticate

Applications
Applications
Applications
VM

Off-chip Boot Loader

Operating System

Load / Authenticate

BIOS
Load / Authenticate

OS Secure Boot (UEFI)
悪意のあるファームウェアやBIOSの改ざんに対するプラットフォームセキュリティの基盤を提供

Key

…

VM

Hypervisor
Key

Key

…

Key

AES-128 Engine

AES-128 Engine

DRAM

DRAM

侵入者が物理的にサーバーにアクセスした場合のコールドブートアタックや直接メモリアタックに対する防御をサポート

VM毎に暗号化し隔離することで管理者権限での改ざんや信頼できないハイパーバイザーから保護

アプリケーションの変更は必要ありません| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

SEE ENDNOTESEPYC™ 7001

EPYC™ 7002

SEV Guest

SEV Host

SEV Host+(VM)(Hypervisor, 15 Guests)(Hypervisor, 509 Guest)

Y

YLinux® 4.15

YLinux® 4.16

Y

RHEL 7.6

11/2018

Y

Ubuntu 18.04

4/2018Y

Fedora 28

5/2018YYY

Oracle Linux UEK 5

6/2018YYY

SLES 15

7/2018YYY

Ubuntu 18.10, 19.04

10/2018YYY

RHEL 85/2019

Y

Y

Y

Y

Y

Y

(more planned)

Proprietary OS (Windows®, Vmware®, XenServer®)| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

Contact Vendor For Schedule※ サーバ紹介、企業名 アルファベット順| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

ASUS AMD Rack Server Products
With AMD EPYC 7002 Processors

RS720A-E9 V2 Series• RS720A-E9-RS24V2

Performance, Balance

NEW ROME base GPU Server
ESC4000A-E10 is under development• One socket , 2U, 4GPU
• Coming in July 2020

TWO SOCKET

Leading performance andversatility for multi-workloadin 2U/1U chassis

Value, Essential
One SOCKET

Entry-level 1U server ideal for
growing business withaffordable price

RS700A-E9 V2 Series• RS700A-E9-RS12V2• RS700A-E9-RS4V2

RS500A-E10 Series

12 NVMe
Drives in 1U Rack Server• RS500A-E10-RS12U• RS500A-E10-RS4• RS500A-E10-PS4

3200 MHz
8 channel DDR4

Virtualization

Software-definedstorage

AMD EPYC Customer Summit, Taipei

x16 OCP Link readyfor the future
Gen4 PCIe faster I/O*(RS500A-E10 and ESC4000A-E10)

Data Center

December 11, 2019

SMB print/file/
mail/exchange

CONFIDENTIAL

ClusterStor E1000（ストレージコントローラCPUは、AMD/ROME）| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

第2世代AMD EPYC搭載PowerEdge サーバー 新製品
PowerEdge R6415

PowerEdge R7415

New

New

R6515

R7515
1ソケット

PowerEdge R7425

New

New

New

R6525

C6525

R7525

2ソケット

2S×4ノード

2ソケット• EPYC 7002 (~ TDP225W)• EPYC 7002 (~ TDP225W)• EPYC 7002 (~ TDP225W)• EPYC 7002 (~ TDP225W)• EPYC 7002 (~ TDP225W)• 16×DDR4 (3200 MT/s)• 16×DDR4 (3200 MT/s)• 32×DDR4 (3200 MT/s)• 16×DDR4 (3200 MT/s)• 32×DDR4 (3200 MT/s)• 10×NVMe / SSD / HDD• 24×NVMe / SSD / HDD• 12×NVMe / SSD / HDD• 6×NVMe / SSD / HDD• 24×NVMe / SSD / HDD• 2×PCIe x16 スロット
(1× PCIe Gen4)• 4×PCIe x16 スロット
(2× PCIe Gen4)• 3×PCIe x16 スロット
(すべてPCIe Gen4)• 2×PCIe x16 スロット
(すべてPCIe Gen4)• 8×PCIe x16 スロット
(すべてPCIe Gen4)• OCP 2.0 Mezz (PCIe x8)• OCP 2.0 Mezz (PCIe x8)• OCP 3.0 Mezz (PCIe x16)

• OCP 3.0 Mezz (PCIe x16)

• OCP 3.0 Mezz (PCIe x16)

• PERC 9/10

• PERC 9/10

• PERC 10.5

• PERC 10.5

• PERC 10.5

出荷中

出荷中
© Copyright 2019 Dell Inc.

2020年上旬
販売開始予定FUJITSU Server PRIMERGY LX1430 M1◼ 7nmプロセスのAMD EPYC™ 7002シリーズ・プロセッサーを搭載し、高性能・コストパフォーマンスを追求した1Uラック型サーバ

FUJITSU CONFIDENTIAL

形状

1U ラックマウント

CPUソケット数・種類

1, AMD EPYC™ 7002シリーズ・プロセッサー

メモリスロット数・種類

16, DDR4 3200MHz

内蔵ストレージ数・種類

2.5” SATA HDD/SSD x 8 + 2.5” NVMe SSD x2

拡張バススロット

x16 PCIe Gen4 x1, OCP slot x1

ネットワークインターフェース

標準搭載［2ポート（1000BASE-T）］

電源

冗長電源 AC100-200V x2台

外形寸法(W x H x D (mm))

438 x 44 x 660
45

Copyright 2019 FUJITSU LIMITEDカタログ◼ LX1430 M1 カタログ◼ https://jp.fujitsu.com/platform/server/primergy/lx/lx1430m1_catalog.pdf

FUJITSU CONFIDENTIAL

46

Copyright 2019 FUJITSU LIMITED1986年に設立し今年で33周年を迎えます。台北市内から交通至便な新北市に本社構え、エンタープライズとコンシューマー、双方の市場向けに多種多様なコンピューター関連
製品を、世界各国ワールドワイドにて大展開しています。

AMD EPYC対応サーバー ~ GIGABYTEの強み x 三本柱

30機種
AMD on AMD

50cm

01/20

世界一のラインナップ！
2020年春迄に30製品をラインナップ予定です！
既に、2019年12月時点で28機種の製品ラインナップしており、AMD EPYCプロセッサの拡販に全世界で注力してまいります！

GPUサーバーもAMDプラットフォームで！
AMD EPYCプロセッサー対応のGPUサーバーを多くラインナップ！

2U8GPUをシングルソケットで対応する製品や
4U8GPUで全てのGPUをCPU直結で対応する製品など！

GIGABYTE、新規独自設計！
50センチ奥行きの、超ショートタイプ2U4ノードサーバー！

サーバー

各ノード最大64コア、システム全体で256コアをサポート！
省スペースにハイパフォーマンスコンピューティングを実現します。

2019年9月リリース！ HPE DL325/385 Gen10サーバー 新製品
ラックマウントタイプの売れ筋モデルに、最新AMD EPYCプロセッサを搭載

HPE ProLiant DL325 Gen10

HPE ProLiant DL385 Gen10

ソケットライセンスもお得に！
8コア～最大64コア x 1CPU

HPC用途にも最適！
8コア～最大64コア x 2CPU

＜DL325/385 Gen10共通の特長＞••••

優れたエネルギー効率/省電力
コア課金に強い高クロックプロセッサ
16コア/2.8GHz, 8コア/3.2GHz
大容量L3キャッシュ128MB
高メモリバンド幅 メモリチャネルx8、
高I/O性能49

Lenovo

SR635 / SR655

Lenovo初のAMDプロセッサー搭載サーバー（1ソケット １U/2Uラック型）
・高性能： 1ソケットで2ソケットサーバー相当の処理能力（最大64コア）
・高速・広帯域： PCIe Gen4、3200MHz対応メモリー・高拡張性： 大容量HDD、SSD、NVMeを提供
・TCO削減： OSやソフトウェアのソケット課金ライセンス低減に貢献

SR655
1S/2U メインストリーム・ラック型

SR635
1S/1U メインストリーム・ラック型

仕様概要

サポートOS
Windows Server 2016 / 2019
Red Hat RHEL 7.6 / 8.0 / 8.1
VMware ESXi 6.5 U3 / 6.7 U3
SUSE Linux ES 12 SP4 / 15 SP1

仕様概要• 1x AMD EPYC 7002シリーズ• 3x 75W GPU（1枚厚）• 16x DDR4 RDIMM –最大1TB• 3x PCIe Gen4スロット（1DPC 3200MHz/• 内部M.2モジュール（オプション）
2DPC 2933MHz）• 冗長電源（Platinum/Titanium）• 最大4x 3.5型 HDD/SSD• BMC（AST2500ベース）• 最大16x 2.5型 HDD/SSD• Lenovo XClarityを一部サポート• 最大16x 2.5型 NVMe SSD
想定ワークロード仮想化 （VDI） / ソフトウェア定義型インフラストラクチャー （SDI）/ クラウド / アナリティクス / データベース / HPC

2019 Lenovo Enterprise Solutions Ltd. Japan. All rights reserved.

• 1x AMD EPYC 7002シリーズ• 6x 75W GPU（1枚厚）• 16x DDR4 RDIMM –最大1TB• 9x PCIe Gen4スロット（1DPC 3200MHz/• 内部M.2モジュール（オプション）
2DPC 2933MHz）• 冗長電源（Platinum/Titanium）• 最大20x 3.5型 HDD/SSD• BMC（AST2500ベース）• 最大32x 2.5型 HDD/SSD• Lenovo XClarityを一部サポート• 最大32x 2.5型 NVMe SSD
想定ワークロード
IT基盤 / Web / エントリー・クラウド/ 仮想化 /データベース / データ・アナリティクス / AI

EPYC:エピック AMD社のマイクロアークテクチャー

50

2U HPC/GPGPU ServerTransport HX TN83-B8251

4 DW GPU + 2 PCIe HH x16

2U2S EPYC / 16 DIMMs / 8-LFF / 6 PCIe Gen.4 x16
Standard SKUs

Networking

StorageMax. PCIe slot

B8251T83E8HR-2T-N(2) 10GBase-T +(1) IPMI(8) NVMe U.2 /SATA 6G(4) DW PCIe Gen. 4 x16 /(8) SW PCIe Gen. 4 x8 +(2) HH PCIe Gen. 4 x16◼
◼
◼

2U2S Rome platform supports for up to 16 DIMMs, 2 10GbE onboard
LAN, 4 double-width GPU cards and 2 half-height PCIe Gen.4 x16 slots
Dimension: H87.6mm x W438mm x D830mm (32.68”)
AMD EPYC™ 7002 Processor w/ TDP up to 180W➢◼

M8251T83-R32-4F

x0/x8
x16/x8x16

x16

M8251T83-L32-4F

x0/x8
x16/x8

Memory➢➢M8251T83-LR32-2L◼

x16/x8x0/x8◼

MiTAC Computing Technology Corp. (MiTAC Group)
TYAN Business Unit

MiTAC Confidential

51(2) 10GBase-T LAN ports (Intel® x550-AT2)(1) 1000Base-T dedicated IPMI port (Realtek RTL8211E-VB-CG)

Storage➢➢◼

(4) FH/10.5”L PCIe Gen.4 x16/x8 slots via 2 risers (MUX pairs with the adjacent x8 slots)(4) FH/10.5”L PCIe Gen.4 x0/x8 slots via 2 risers (MUX pairs with the adjacent x16 slots)(2) HH/HL PCIe Gen.4 x16 slots

Network➢➢◼

(8+8) DDR4 DIMM slots (8x memory channels)
Support up to 4,096GB RDIMM/LRDIMM DDR4 3200/2933 memory

PCI Expansion Slots◼
◼
➢

x16/x8x0/x8

No support for AMD EPYC™ 7001 processor(8) tool-less, hot-swap 3.5” SATA 6G / NVMe U.2 devices (from CPU)
(1) MicroSD/T-Flash reader (OEM reserved feature)(1+1) 2,200W hot-swap RPSU @ 220Vac, 80+ Platinum

Rev.201911

All third party brands and names are property of their respective owners

Penguin Computing Inc.

AMD EPYCサーバー製品 Altus（アルタス）ファミリー

EPYCプロセッサーの利点をAltus® familyで最大限に活用。Altus XE1111/1112/1212では、EPYCのコア数×クロックスピードを活かした効
率的なシングルソケット構成を提供。 Altus XE2112/2142/2242/4218では、HPCワークロードに適応する最高性能と高密度を実現するデュア
ルソケット構成を提供。
さらに、高効率でスケーラブルなTundra Extreme Scale Compute （OCPベース）に高性能EPYCプロセッサー搭載ノードとしてインテグ
レート。PCI-eベースのGPUと組み合わせることにより、AIワークロードに対する強力なプラットフォームとしても提供（GTシリーズ）。

Model

#U

AMD EPYC

PCIe

Mem

XE1111

1U

7000

2xGen3x16 (FHHL)

2TB

XE1112

1U

7000

3xGen3(LP)

4TB

XE12121U

7002

2xGen4(LP)

4TB

XE21122U

7000

7xGen3(LP)

4TB

XE21422U

7000

2xGen3x16(LP)

2TB

XE22422U

7002

2xGen4x16(LP)

4TB

XE4218GT

4U

7002

12xGen4x16(LP)

4TB

XO1114GT

1OU

7000

1xGen3x16(FHHL)
2xGen3x16 (LP)4TB

XO1132g

1OU

7000

1xGen3x16(LP)1xGen3x8 (LP)

2TB

<Altus XE2242>

AMD EPYC™ 7002 シリーズ・プロセッサーをフルサポートし、最適化
新世代 H12 A+ サーバーファミリー
Supermicro A+ H12 サーバーファミリー◼ 1U WIO: シングル EPYC プロセッサー NEW!
◼ 2U BigTwin™ (2U 4ノード Twinアーキテクチャ, デュアル EPYC プロセッサー) NEW!
◼ 2U TwinPro™ (2U 4ノード Twinアーキテクチャ, シングル EPYC プロセッサー） NEW!
◼ 4U GPU Optimized Coming soon!

H12 Generation WIO
AS -1114S-WTRT

High Performance Computing に最適な機能と最適化◼ PCI Express Gen 4.0◼ InfiniBand HDR ConnectX-6 200Gb/s◼ 最大 8 Direct Attached PCIe 4.0 GPU/Accelerators◼ 水冷オプション

H12 Generation BigTwin™
AS -2124BT-HNTR

Coming soon!

H12 Generation TwinPro™
AS -2014TP-HTR

H12 Generation GPU optimized

H12 Generation BigTwin™

www.supermicro.com 製品ページへ“Zen” ベースの第一世代 AMD EPYC プロセッサーに対して大幅な性能強化− “Zen2” ~15% instructions-per-clock 向上− 2x AVX2 浮動小数点演算性能 2倍,− L3 キャッシュ コア当たり2倍、ソケット当たり最大4倍










最先端のハイブリッド・マルチダイ・デザイン− Breaking the silicon reticle limit− Leading-edge 7nm + 14nm technologies

NUMA アーキテクチャの強化
パフォーマンスのスケーラビリティを考慮した最先端のIO性能− x86 CPUでは世界初の PCIe® Gen4 サポート, プロセッサ当たり128 レーンサポート− 最大18Gbps socket-to-socket AMD Infinity Fabric™
− DDR4-3200 サポート
第一世代 EPYC™ 7001 シリーズとピンコンパチ
データセンター向けに強固なセキュリティ機能− Enhanced Secure Encrypted Virtualization (SEV)—アプリケーション側の対応は必要なし− サイドチャネルアタックを制限するセキュリティ重視のマイクロアーキテクチャ設計

最新機能盛りだくさんの第二世代のAMD EPYC プロセッサをご検討下さい！
| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

See endnotes EPYC-07, ROM-06 for details.

| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

TCO-01 Compares delivering 11,550,120 jOPS as measured by SPECjbb2015-MultiJVM Max-jOPS benchmark utilizing 2 socket Intel 8280 servers versus 2 socket AMD EPYC™
7742 servers. Intel-based server tested to achieve 192,502 jOPS. AMD EPYC server tested to achieve 355,121jOPS. As a result, an estimated 60 Intel based servers versus 33
AMD EPYC™ based servers are needed to meet a jOPS performance of 11,550,120. System Configurations: Intel Xeon based servers include 2U Rack Mount chassis, with (2)Intel® Xeon® Platinum 8280 2.7GHz base frequency, 28 cores/56 threads, (24) 16GB RDIMM DDR4 2933MT/s, Dual Rank DIMMs, (1) 960GB SATA SSD, (1) dual port 10GbE
ethernet adapter dual hot swap power supplies w/cables, and OEM standard warranty with a price of $57,156 each for a total hardware acquisition price of $3,429,360. AMD
EPYC™ servers include Dual Socket 2U Rack Mount chassis, with (2) AMD EPYC™ 7742, 2.25GHz base frequency, 64 cores/128 threads, (32) 32GB RDIMM DDR4 2933MT/s, Dual
Rank DIMMs, (1) 1.92TB SSD SAS Mix Use drive, (1) dual port 1GbE ethernet adapter, dual hot swap power supplies w/cables, and OEM standard warranty with estimated priceof $58,553 each for a total hardware acquisition price of $1,931,589. Estimated System Pricing: Estimated Pricing for Intel Xeon Based Systems based on select OEM systempricing as of 8/5/2019. Estimated Pricing for AMD EPYC™ Based Systems based on projected OEM list price for the most comparable system. Pricing is an AMD estimate only –actual pricing will vary by system and seller. Power cost is an internal AMD estimate based each server consuming 762 watts each input power - electricity cost estimate of$1,610/server calculated at $0.12/kw/hr with an assumed PUE of 2.0, resulting in an estimated 3 yr power cost of $289,800 for Intel-based systems and $159,390 for AMD
EPYC™ systems. Datacenter space costs are based on AMD internal estimate of Data Center space cost of $19,053 per cabinet per year results in $171,477 (3 Rack Cabinets)
and $94,312 (1.6 Rack Cabinets) over three years for Intel-based and AMD EPYC-based systems respectively. Server Administration cost is calculated with an estimate of $85,795
per server administrator with a ratio of one server administrator per 30 servers resulting in $514,770 (for 60 servers) and $283,124 (for 33 servers) 3 yr server administration
costs for Intel-based and AMD EPYC- based systems respectively. Total estimated 3 Year TCO as a result is $4,405,407 for Intel-based Systems and $2,468,415 for AMD EPYCbased systems. As a result, AMD EPYC based systems are estimated to deliver a lower TCO (excluding software costs) of up to 44%. This scenario contains many assumptions
and estimates and, while based on AMD internal research and best approximations, should be considered an example for information purposes only, and not used as a basis for
decision making over actual testing. See https://www.spec.org/jbb2015/results/res2019q2/jbb2015-20190314-00414.html for Intel Xeon Platinum 8280 score, and see
http://spec.org/jbb2015/results/res2019q3/jbb2015-20190717-00463.html for the AMD EPYC 7772 score. SPEC® and SPECjbb® are registered trademarks of the Standard
Performance Evaluation Corporation. See www.spec.org for more information. TCO-1| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

▪

TCO-02 - Comparison results calculated by AMD based on a hypothetical scenario hosting 2,560 virtual machines on 2-socket Intel Xeon 6242 (32 total cores) based systems
versus AMD EPYC™ 7702P (64 total cores) based No Compromise Single Socket Systems, excluding software application costs. Each virtual machine is allocated one core and
8GB of DRAM, resulting in 80 Intel based systems (2,560/32) and 40 AMD EPYC based systems (2,560/64). System Configurations: Intel Xeon based servers in 2U Rack Mountchassis, with (2) Intel® Xeon® Gold 6242 2.8GHz base frequency, 16 cores/32 threads, (16) 16GB RDIMM DDR4 2933MT/s, Dual Rank DIMMs, (1) 480GB SSD SAS Mix Use drive,
one dual port 10GbE ethernet adapter, dual hot swap power supplies w/cables, and OEM standard warranty with estimated price of $21,196 each for a total hardware
acquisition price of $1,695,680. AMD EPYC based servers include - (40) 1U Rack Mount chassis with (1) AMD EPYC 7702P 2.0GHz base frequency, 64 cores/128 threads, (16)32GB RDIMM DDR4 2933MT/s, Dual Rank DIMMs, (1) 480GB SSD SAS Mix Use drive, one dual port 10GbE ethernet adapter, dual hot swap power supplies w/cables, and OEM
standard warranty with estimated price of $23,696 each for a total hardware acquisition price of $947,840. Estimated System Pricing: AMD Estimated Pricing based on select
OEM list pricing as of 7/30/2019 for Intel based systems and AMD projected OEM list pricing as of 8/7/2019 for AMD EPYC based systems. Pricing is an AMD estimate only –actual system pricing will varyby system and by seller. Power cost estimate is an internal AMD estimate based on Intel Xeon based system input power - 498 watts, AMD EPYCbased system input power - 389 watts electricity cost calculated at $0.12/kw/hr with an assumed PUE of 2.0. Intel Xeon power cost/server/year is estimated at $1,047, AMD
EPYC power cost/server/year is estimated at $818 for a three year total power cost of $251,280 and $98,040 for an estimated total power savings of 61%. Datacenter spacecosts include 160 U’s for Intel Xeon-based Systems or 4 Rack Cabinets and 40 U’s for AMD EPYC-based Systems or 1 Rack Cabinet – AMD internal estimate of Data Center spacecost of $19,053 per cabinet per year results in 3 year space costs of $228,636 and $57,159 respectively – a 75% savings. Server Administration cost is calculated with anestimate of $85,795 per server administrator with a ratio of one server administrator per 30 servers resulting in 3 year estimated administration costs of $686,360 for 80 Intel
Xeon-based Systems and $343,180 for 40 AMD EPYC-based systems – 50% savings. Licensing costs are calculated using VMware vSphere Enterprise Plus licensed per socket
and priced as of 7/28/2019 on www.cdw.com at $3,612 each for a total 3-year cost of $577,920 for (80) Intel Xeon-based 2 socket systems and $144,480 for (40) AMD EPYC
No Compromise Single Socket-based Systems. Total estimated 3 Year TCO as a result is $3,439,876 for Intel-based Systems and $1,590,699 for AMD EPYC-based systems
resulting in an estimated TCO/VM/YR of $448 and $207 respectively – a 54% savings including virtualization management software licenses but excluding other software
costs. This scenario contains many assumptions and estimates and, while based on AMD internal research and best approximations, should be considered an example for
information purposes only, and not used as a basis for decision making over actual testing. TCO-2| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

▪

ROM-06 - Some supported features and functionality of 2nd Gen AMD EPYC™ processors require a BIOS update from your server manufacturer when used with a motherboard
designed for the 1st Gen AMD EPYC series processor. A motherboard designed for 2nd Gen EPYC processors is required to enable all available functionality.

▪

ROM-09 - AMD EPYC 7742 has 64 cores vs. Intel Platinum 8280 with 28 cores. 64 / 28 = 2.287 - 1.0 = 1.3 times (or 130% more). EPYC 7742 has 1.3x more cores.

▪

ROM-11 - EPYC™ 7002 series has 8 memory channels, supporting 3200 MHz DIMMs yielding 204.8 GB/s of bandwidth vs. the same class of Intel Scalable Gen 2 processors
with only 6 memory channels and supporting 2933 MHz DIMMs yielding 140.8 GB/s of bandwidth. 204.8 / 140.8 = 1.454545 - 1.0 = .45 or 45% more. AMD EPYC has 45%
more bandwidth. Class based on industry-standard pin-based (LGA) X86 processors.

▪

ROM-38Results as of 8/7/2019 using SPECrate(R)2017_int_base. EPYC 7742 score of 682, https://spec.org/cpu2017/results/res2019q3/cpu2017-20190722-16242.html. Intel
Platinum 8280L score 364, http://spec.org/cpu2017/results/res2019q2/cpu2017-20190429-12779.pdf, July 28, 2019. SPEC®, SPECrate® and SPEC CPU® are registeredtrademarks of the Standard Performance Evaluation Corporation. See www.spec.org for more information.

▪

ROM-42 - Based on AMD internal testing of ANSYS FLUENT 19.1, lm6000_16m benchmark, as of July 17, 2019 of a 2P EPYC 7742 powered reference server versus a 2P Intel
Xeon Platinum 8280 powered server. Results may vary.

▪

ROM-49 - Based on AMD internal testing of LSTC LS-DYNA R9.3.0, neon benchmark, as of July 17, 2019 of a 2P EPYC 7742 powered reference server versus a 2P Xeon Platinum
8280 powered server. Results may vary.

▪

ROM-56 - Based on AMD internal testing of Altair RADIOSS 2018, T10M benchmark, as of July 17, 2019 using a 2P EPYC 7742 powered reference server versus a 2P Xeon
Platinum 8280 powered server. Results may vary.

▪

ROM-63 - Based on AMD internal testing of ESI VPS 2018.0, NEON4m benchmark, as of July 17, 2019 using a 2P EPYC 7742 powered reference server versus a 2P Xeon
Platinum 8280 powered server. Results may vary.

▪

ROM-70 - Based on AMD internal testing of Siemens PLM STAR-CCM+ 14.02.009, kcs_with_physics benchmark, as of July 17, 2019 using a 2P EPYC 7742 poweredreference server versus a 2P Xeon Platinum 8280 powered server. Results may vary.

▪

ROM-113 - AMD Internal testing as of 30July2019 of a 2P AMD EPYC 7742 powered reference platform versus a 2P Intel Platinum 8280 powered production server, on
GROMACS version 2019.3 benchmark. Results may vary.

▪

Based on June 8, 2018 AMD internal testing of same-architecture product ported from 14 to 7 nm technology with similar implementation flow/methodology, using
performance from SGEMM. EPYC-07▪

A 2P EPYC 7742 powered server has SPECrate®2017_fp_base score of 524, http:/spec.org/cpu2017/results/res2019q3/cpu2017-20190722-16241.html as of August 7, 2019. A
2P Intel Platinum 8280 server has a score of 293, http://spec.org/cpu2017/results/res2019q2/cpu2017-20190318-11211.pdf as of July 28, 2019. The 7742 has 79% higher
performance. SPEC®, SPECrate® and SPEC CPU® are registered trademarks of the Standard Performance Evaluation Corporation. See www.spec.org for more information.
ROM-124.

| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

▪

EPYC-Each AMD EPYC processor has 8 memory channels. Each Intel Xeon Scalable processor has 6 memory channels. 8 – 6 = 2 ÷ 6 = 0.33 AMD EPYC has 33% more memory
channels. Class based on industry-standard pin-based (LGA) X86 processors (NAP-166). EPYC-05▪

Some supported features and functionality of 2nd Gen AMD EPYC™ processors require a BIOS update from your server manufacturer when used with a motherboard designed
for the 1st Gen AMD EPYC series processor. A motherboard designed for 2nd Gen EPYC processors is required to enable all available functionality. ROM-06.

▪

AMD EPYC 7742 has 64 cores vs. Intel Platinum 8280 with 28 cores. 64 / 28 = 2.287 - 1.0 = 1.3 times (or 130% more). EPYC 7742 has 1.3x more cores. ROM-09▪

ROM-11 - EPYC™ 7002 series has 8 memory channels, supporting 3200 MHz DIMMs yielding 204.8 GB/s of bandwidth vs. the same class of Intel Scalable Gen 2 processors
with only 6 memory channels and supporting 2933 MHz DIMMs yielding 140.8 GB/s of bandwidth. 204.8 / 140.8 = 1.454545 - 1.0 = .45 or 45% more. AMD EPYC has 45%
more bandwidth. Class based on industry-standard pin-based (LGA) X86 processors.

▪

Based on processor lanes multiplied by PCIe® bandwidth. PCIe 4 = 16 GB/s link bandwidth vs. PCIe = 8 GB/s. ROM-21▪

ROM-149 - A 2P 2U AMD EPYC™ 7702 server scored 18,294 overall ssj_ops/watt on SPEC Power® 2008 with the SUSE® Linux Enterprise Server 12 SP4 OS, as published athttps://www.spec.org/power_ssj2008/results/res2019q3/power_ssj2008-20190716-00980.html, which is higher than all other 2-socket publications on the SPEC® website asof 7/27/2019. SPEC® and SPEC Power® are registered trademarks of the Standard Performance Evaluation Corporation. See www.spec.org for more information. ROM-149▪

ROM-259 - Slide represents both published and estimated 1P SPECrate®2017_int_peak performance. Estimates as of July 3, 2019 for AMD EPYC 48C, 32C and 8C processors
using computer modeling of preproduction parts and 1P SPECrate®2017_int_peak internal testing results. Results may vary with production silicon testing. Published resultsfor 1P EPYC 64C processor as of August 7, 2019: http://spec.org/cpu2017/results/res2019q2/cpu2017-20190318-11230.pdf. Intel results as of June 2019: Xeon Platinum:
http://spec.org/cpu2017/results/res2019q2/cpu2017-20190318-11230.pdf Xeon Gold: http://spec.org/cpu2017/results/res2019q2/cpu2017-20190611-15301.pdf andhttp://spec.org/cpu2017/results/res2019q2/cpu2017-20190611-15308.pdf. SPEC®, SPECrate® and SPEC CPU® are registered trademarks of the Standard Performance
Evaluation Corporation. See www.spec.org for more information. ROM-259▪

ROM-260 - Slide represents both published and estimated 1P and 2P SPECrate®2017_d: int_peak performance. Estimates as of July 3, 2019 for AMD EPYC 48C, 32C and 8C
processors using computer modeling of preproduction parts and 1P SPECrate®2017_int_peak internal testing results. Results may vary with production silicon testing.
Published results for 1P EPYC 64C processor as of August 7, 2019: https://spec.org/cpu2017/results/res2019q3/cpu2017-20190722-16242.html. Intel 1P results as of June
2019: Xeon Platinum: http://spec.org/cpu2017/results/res2019q2/cpu2017-20190429-12779.pdf Xeon Gold: http://spec.org/cpu2017/results/res2019q2/cpu201720190404-11744.pdf Xeon Silver: http://spec.org/cpu2017/results/res2019q2/cpu2017-20190430-13444.pdf; Xeon Bronze:
http://spec.org/cpu2017/results/res2019q3/cpu2017-20190624-15468.pdf. 2P SPECrate®2017_int_peak scores for Intel published June 2019: Xeon Platinum:
http://spec.org/cpu2017/results/res2019q2/cpu2017-20190318-11230.pdf Xeon Gold: http://spec.org/cpu2017/results/res2019q2/cpu2017-20190611-15301.pdf andhttp://spec.org/cpu2017/results/res2019q2/cpu2017-20190611-15308.pdf. SPEC®, SPECrate® and SPEC CPU® are registered trademarks of the Standard Performance
Evaluation Corporation. See www.spec.org for more information. ROM-260| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

ROM-35:• AMD 7702 score of 12.88@14 tiles on 2 node 4 socket VMmark 3.1, classic SAN. can be found at https://www.vmware.com/content/dam/digitalmarketing/vmware/en/pdf/vmmark/2019-08-07-HPE-ProLiant-DL385Gen10.pdf. Productavailable Aug 7, 2019. The next highest score, 9.02@9 tiles, with the 8280, can be found at https://www.vmware.com/products/vmmark/results3x.0.html VMware VMmark 3.x results can be found athttps://www.vmware.com/products/vmmark/results3x.html. ROM-35
ROM-36:•The AMD EPYC 7702 server is the only 4 host 4 socket VMmark 3.1 vSAN score of 12.23 @ 13 tiles https://www.vmware.com/content/dam/digitalmarketing/vmware/en/pdf/vmmark/2019-08-07-HPE-ProLiant-DL325Gen10.pdf. The current#1 score for 4 node 8 sockets or less is 8.51 @ 9 tiles with the Gold 6152, https://www.vmware.com/products/vmmark/results3x.0.html. AMD 7702 score of can be found athttps://www.vmware.com/content/dam/digitalmarketing/vmware/en/pdf/vmmark/2019-08-07-HPE-ProLiant-DL325Gen10.pdf. ROM-36

ROM-42:• Based on AMD internal testing of ANSYS FLUENT 19.1 as of July 17, 2019. 885 rating on lm6000_16m benchmark using 2 x AMD EPYC™ 7742 processors in AMD "Daytona" Reference Design, 1TB (16 x 64GB DDR4-3200) memory,
256GB SATA (OS), 1TB NVMe (Data), Red Hat® Enterprise Linux v7.6, ANSYS FLUENT 19.1, NPS = NPS4, SMT = OFF, BOOST = ON, X2APIC = ON, Determinism Slider = Performance, Governor = Performance, CC6 = Disabled. 444
rating on lm6000_16m benchmark using 2 x Intel Xeon Platinum 8280 processors in Supermicro SuperServer 2029U-TN24R4T server, 384GB (12 x 32GB DDR4-2933) memory, 240GB SATA (OS), 500GB NVMe (Data), Red Hat®
Enterprise Linux v7.6, ANSYS FLUENT 19.1, Power Management = Max Performance, Intel Hyper-Threading Technology = OFF, SNC = ON, ADDDC = OFF. Testing with other AMD EPYC or Intel Xeon processors may result in different
performance results. ROM-42
ROM-56:• Based on AMD internal testing of Altair RADIOSS 2018 as of July 17, 2019. 9.75 rating on T10M benchmark using 2 x AMD EPYC™ 7742 processors in AMD "Daytona" Reference Design, 1TB (16 x 64GB DDR4-3200) memory, 256GB
SATA (OS), 1TB NVMe (Data), Red Hat® Enterprise Linux v7.6, Altair RADIOSS 2018, NPS = NPS4, SMT = OFF, BOOST = ON, X2APIC = ON, Determinism Slider = Performance, Governor = Performance, CC6 = Disabled. 5.68 ratingon T10M benchmark using 2 x Intel Xeon Platinum 8280 processors in Supermicro SuperServer 2029U-TN24R4T server, 384GB (12 x 32GB DDR4-2933) memory, 240GB SATA (OS), 500GB NVMe (Data), Red Hat® Enterprise Linux v7.6,
Altair RADIOSS 2018, Power Management = Max Performance, Intel Hyper-Threading Technology = OFF, SNC = ON, ADDDC = OFF. Testing with other AMD EPYC or Intel Xeon processors may result in different performance results.
ROM-56
ROM-99:• A 2P EPYC 7702 powered server has SPECvirt_sc2013 score of 5451.2 and 305 VMs, https://www.spec.org/virt_sc2013/results/res2019q3/virt_sc2013-20190726-00122-perf.html as of August 7, 2019. The next highest score is a 2P Intel
Platinum 8180 server with a score of 3376 and 189 VMs, https://www.spec.org/virt_sc2013/results/res2017q4/virt_sc2013-20171017-00098-perf.html as of July 28, 2019. SPEC® and SPECvirt® are registered trademarks of the Standard
Performance Evaluation Corporation. See www.spec.org for more information. ROM-99
ROM-100:• based on VMmark 3.1 SAN. An EPYC 7702 powered server delivered a VMmark 3.1 SAN storage score of 12.88 with 14 tiles on Aug 7, 2019. https://www.vmware.com/content/dam/digitalmarketing/vmware/en/pdf/vmmark/2019-08-07-HPEProLiant-DL385Gen10.pdf. Product available Aug 7, 2019. The next highest 2 node 4 socket score of 9.02 @ 9 tiles with Platinum 8280, ttps://www.vmware.com/products/vmmark/results3x.0.html, July 28, 2019. VMware VMmark 3.0 and
3.1 results can be found at https://www.vmware.com/products/vmmark/results3x.html. ROM-100
ROM-112:• Based on AMD internal testing as of 30July2019 of Blender version 2.8RC3 on Ubuntu 19.04 – kernel 5.0x, rendering a frame from the Blender Open Source Movie Project “Spring” Shot file 02_040_A with 3000 samples, denoising disabled,
motion blur disabled and render time added to EXIF data on AMD reference platform configured with 2 x AMD EPYC 7742 processors, 16 x 32GB, 3200MHz DDR4 DIMMs, 128GB drive, AMD Radeon RX 580 graphics card and AGESA
1.0.0.1 BIOS versus an Intel server from a major OEM configured with 2 x Intel Platinum 8280 processors, 12 x 32GB, DDR4 2933MHz DIMMs, 256GB drive, AMD Radeon RX 580 graphics card and 2.2.10 BIOS. The AMD systemcompleted the frame render in an average of 24.90 mins and the Intel system completed the same render in an average of 47.58 mins. 47.58/24.90=1.91-1=91% faster or 1.9X the performance. Results may vary. ROM-112| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

ROM-113:• Based on AMD internal testing as of 30July2019 of GROMACS 2019.3 lignocellulose3M_rf benchmark. AMD reference platform configured with 2 x AMD EPYC 7742 processors, 16 x 64GB, 3200MHz DDR4 DIMMs, 256GB OS drive, 1TB
NVMe data drive and AGESA 1.0.0.1 BIOS versus an Intel server from a major OEM configured with 2 x Intel Platinum 8280 processors, 12 x 64GB, DDR4 2933MHz DIMMs, 240GB OS drive and a 500GB NVMe drive. The AMD platformachieved 5.3 ns/day and the Intel platform achieved 3.3 ns/day of simulation time. 5.3/3.3=1.6-1=60% better or 1.6x the performance. Results may vary. ROM-113
ROM-131:• Based on AMD internal testing as of 30July2019 of HSsort test from TPCx-HS benchmark version 2.0.3 on 2 Terabytes of data. 3 x Supermicro AS -1123US-TN10RT servers configured with 2 x AMD EPYC 7542 processors 32c per socket/64c
per node16x 32GB 3200MHz DDR4 DIMMs, 3x 1TB NVMe drives, Mellanox CX-5 NIC and BIOS 2.0 NPS= NPS4; SMT=ON; Determinism Slider= Power; versus an 3 x Intel servers from a major OEM configured with 2 x Intel Platinum
8280 processors, 28c per socket/56c per node, 12x 32GB DDR4 2933MHz DIMMs, 3x 1TB NVMe drives, Mellanox CX-5 NIC and BIOS 3.1 Hyper-Threading=Enable; Power Technology: Custom; Power Performance Tuning: Bios Controls
EPB; ENERGY_PERF_BIAS_CFG mode: Extreme Performance. Both systems used RHEL 7.6, openjdkversion1.8.0_212-b04, HDP 3.1, Spark version 2.3.2. The AMD servers achieved an average of 2,301,033,506 b/s and the Intel servers
achieved an average of 1,500,587,408 b/s. 2,301,033,506/1,500,587,408 = 1.53-1=53% more throughput or 1.53x the throughput. Results may vary. ROM-131
ROM-132:• Based on AMD internal testing as of 30July2019 of HSsort test from TPCx-HS benchmark version 2.0.3 on 2 Terabytes of data. 3 x Supermicro AS -1123US-TN10RT servers configured with 2 x AMD EPYC 7542 processors 32c per socket/64c
per node16x 32GB 3200MHz DDR4 DIMMs, 3x 1TB NVMe drives, Mellanox CX-5 NIC and BIOS 2.0 NPS= NPS4; SMT=ON; Determinism Slider= Power; versus an 3 x Intel servers from a major OEM configured with 2 x Intel Platinum
8280 processors, 28c per socket/56c per node, 12x 32GB DDR4 2933MHz DIMMs, 3x 1TB NVMe drives, Mellanox CX-5 NIC and BIOS 3.1 Hyper-Threading=Enable; Power Technology: Custom; Power Performance Tuning: Bios Controls
EPB; ENERGY_PERF_BIAS_CFG mode: Extreme Performance. Both systems used RHEL 7.6, openjdkversion1.8.0_212-b04, HDP 3.1, Spark version 2.3.2. The AMD server finished the test in an average of 870 sec and the Intel server
finished the test in an average 1,335 sec. 1- 870/1,335 = 35% faster or 1.35x faster. Results may vary. ROM-132

ROM-136:• Based on AMD internal testing as of 02Aug2019 of HammerDB Benchmark v3.1 on Microsoft SQL Server®. AMD reference platform with 2 x AMD EPYC 7742 processors, 16 x 32GB, 3200MHz DDR4 DIMMs, 6 x Micron 9300 2.9TB
NVMe drives and BIOS AGESA 1.0.0.1 versus an Intel server from a major OEM configured with 2 x Intel Platinum 8280 processors, 4x64GB and 8x32GB 2933MHz DDR4 DIMMs, 6 x Micron 9300 2.9TB NVMe drives and BIOS 3.1. The
AMD server achieved an average of 8,935,583 TPM and the Intel server achieved an average of 6,132,927 TPM. 8,935,583/6,132,927 = 1.46-1=46% more throughput/TPM or 1.5x the throughput/TPM. Results may vary. ROM-136
ROM-137:• Based on AMD internal testing as of 02Aug2019 of HammerDB Benchmark v3.1 on Microsoft SQL Server®. AMD reference platform with 2 x AMD EPYC 7742 processors, 16 x 32GB, 3200MHz DDR4 DIMMs, 6 x Micron 9300 2.9TB
NVMe drives and BIOS AGESA 1.0.0.1 versus an Intel server from a major OEM configured with 2 x Intel Platinum 8280 processors, 4x64GB and 8x32GB 2933MHz DDR4 DIMMs, 6 x Micron 9300 2.9TB NVMe drives and BIOS 3.1. The
AMD server supported 256 users with an average of 8,935,583 TPM and the Intel server supported 112 user with an average of 6,132,927 TPM. 256/112 = 2.3X or 230% the users, 1.3x more or 130% more. Results may vary. ROM-137
ROM-138:•

Results as of 8/7/2019 using VMmark(R) 3.1 vSAN. AMD 7702 score of can be found at https://www.vmware.com/content/dam/digitalmarketing/vmware/en/pdf/vmmark/2019-08-07-HPE-ProLiant-DL325Gen10.pdf. Product available Aug 7,
2019. The next highest score with an Intel 6152, can be found at, ttps://www.vmware.com/products/vmmark/results3x.0.html. VMware VMmark 3.x results can be found at https://www.vmware.com/products/vmmark/results3x.html. ROM-138

ROM-172:• Compares running 8,400 identical Docker containers on Intel 2 Socket Xeon 8280 based systems versus AMD EPYC™ 7702 based. Internal AMD testing performed on each system running from 4 to 256 containers with identical loads, relative
performance/throughput in events per second. The Intel based system reached 60% and 100% thread saturation at between 64 to 88 containers and 96 to 128 containers respectively. The AMD based system reached 60% thread saturation at
between 140 to 185 containers. 100% of threads on the AMD system were saturated at 256 containers. At the closest measured point to 60% thread saturation, the Intel based system ran 64 containers while the AMD EPYC™ based system ran
140 containers within +/- 3% performance calculated as events processed per second per container. This resulted in the AMD EPYC™ based systems running 2.2X (140 vs 64) the number of containers at nominal (60%) utilization. System
Configurations: Intel Xeon based servers with (2) Intel® Xeon® Platinum 8280 2.7G, 28C/56T, (12) 32GB RDIMM, 2933MT/s, Dual Rank DIMMs, Hard Drives including (1) 480GB SSD SAS Mix Use, (1) 1.6TB NVME Drive; AMD
EPYC™ servers with (2) AMD EPYC™ 7702, 2.0G, 64C/128T, (16) 32GB RDIMM, 2933MT/s, Dual Rank DIMMs, Hard Drives including (1) 480GB SSD SAS Mix Use, (1) 1.6TB NVME Drive. ROM-172| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019

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| AMD EPYC | DECEMBER 2019 | PC CLUSTER CONSORTIUM 2019