AMD Athlon 64 X 2 5000 + socket AM2. With DDR2-800 for new records?

Written by Denis Maurer. Posted in Processors. 5 views

Foreword

Already, and the launch of Athlon 64 FX (at that time in the Socket 754 and socket 940) in September 2003, one was clear: as soon as DDR2 has established itself as a standard, AMD will support this type of memory. Since this statement went some time in the country.

In June 2004, Intel lead a together with the socket 775 as memory also DDR2. Started with DDR2-533 (so 266 MHz real time) the storage technology has evolved and is the predecessor clearly dwarfed with DDR2-800 and DDR2-1066. Quite clearly: DDR2 has established itself on the market and is priced (even) faster modules on a level with the predecessor. With the launch of the new socket AM2 AMD solves a promise from 2003.

We had the opportunity to take a look at the new platform and introduce below in great detail. On the following pages, it will go exclusively to the new processor family from AMD. Boards we will introduce a separate article, as well as nVidias new “nForce 500″-chipset.

Bookmark

Due to the complexity of the subject “Processors”, it is not possible all subtleties repeatedly to us. At this point it should be referred to interesting related publications.

  • Intel Pentium Extreme Edition 965
  • Athlon 64 FX-60 vs. Pentium XE 955
  • Living room PC: Intel’s Viiv takes off
  • Intel’s “core solo” and “Core Duo”
  • Display driver for dual core from ATi and nVidia
  • Intel announces new processor architecture for second half of 2006
  • Pentium D 840 and extreme Edition 840
  • Intel: Great progress at 65 nm

Specifications and features

Although the performance of processors in the foreground, it is with the car from the House to make themselves familiar AMD and Intel. To do this, we opted to present the most important information in a tabular overview.

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The processors overview
Features Athlon 64 X 2
Athlon 64 FX-62
Athlon 64
Sempron 64
Athlon 64 X 2
Athlon 64 FX-60
Athlon 64
Athlon 64 FX
Code name Windsor (1 MB / 512 kB) Orleans (512 kB)
Manila (256 kB / 128 kB)
Manchester (1 MB)
Toledo (2 MB)
Venice (512 kB)
San Diego (1 MB)
Logo
Clock rate or
Model no
(Beats in GHz)
3800 + (2.0, 2 x 512 kB)
4000 + (1 2.0, 2 x MB)
4200 + (2.2, 2 x 512 kB)
4400 + (2.2, 2 1 x MB)
4600 + (2,4, 2 x 512 kB)
4800 + (2.4, 2 1 x MB)
5000 + (2.6, 2 x 512 kB)
FX-62 (2.8, 2 1 x MB)
Athlon 64
3800 + (2.4 GHz 512 kB)
3500 + (2.2 GHz, 512 kB)
3200 + (2.0 GHz, 512 kB) Sempron 64
3600 + (2.0 GHz, 256 kB)
3500 + (2.0 GHz, 128 kB)
3400 + (1.8 GHz, 256 kB)
3200 + (1.8 GHz, 128 kB)
3000 + (1.6 GHz, 256 kB)
2800 + (1.6 GHz, 128 kB)
3800 + (2.0)
4200 + (2.2)
4400 + (2.2)
4600 + (2.4)
4800 + (2.4)
FX-60 (2.6)
3000 + (1.8)
3200 + (2.0)
3500 + (2.2)
3700 + (2.2)
3800 + (2.4)
4000 + (2.4)
FX-55 (2.6)
FX-57 (2.8)
Production 90 nm 90 nm 90 nm 90 nm
Socket Socket AM2 (940) Socket AM2 (940) Socket 939 Socket 939
Dual-core X X
Multithreading X X X X
Frontside bus accounts for accounts for accounts for accounts for
Frontside-bus load accounts for accounts for accounts for accounts for
Peripheral interface 8 GB / s HyperTransport 8 GB / s HyperTransport
6.4 GB / s HyperTransport
8 GB / s HyperTransport 8 GB / s HyperTransport
Storage controller integrated for
DDR2-800
integrated for
DDR2-667
integrated for
DDR-400
integrated for
DDR-400
Transistors 153.8 Million (2 x 512 kB)
227,4 M (2 x 1 MB)
kA (128 kB)
81.1 Million (256 kB)
81.1 Million (512 kB)
154 Million (2 x 512 kB)
233.2 Million (2 x 1 MB)
68.5 Million (512 kB)
114 Million (1 MB)
Chip size 183 mm³ (2 x 512 kB)
230 mm² (2 x 1 MB)
kA (128 kB)
103 mm² (256 kB)
103 mm² (512 kB)
147 mm² (2 x 512 kB)
199 mm² (2 x 1 MB)
83.5 mm square (512 kB)
115 mm square (1 MB)
L1-execution cache 2 x 64 kB 64 kB 2 x 64 kB 64 kB
L1 data cache 2 x 64 kB 64 kB 2 x 64 kB 64 kB
L2-cache 2 x 512 kB
2x1024kB
128 kB
256 kB
512 kB
2 x 512 kB
2x1024kB
512 kB
1024kB
L2 connection 128-Bit 128-Bit 128-Bit 128-Bit
L2 mode Exclusive L1 Exclusive L1 Exclusive L1 Exclusive L1
Cache total 1280 kB
2304 kB
256
384 kB
640 kB
1280 kB
2304 kB
640 kB
1152 kB
Features of Pentium 4, Pentium D and Pentium Extreme Edition Overview

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The processors overview
Features Pentium D 9xx,
Pentium
Extreme
Edition 9 x 5
Pentium D 8xx,
Pentium
Extreme
Edition 840
Pentium 4 6xx,.
Pentium 4
Extreme
Edition 3.73
Code name Presler Smithfield Prescott 2 m
Logo
Clock rate or
Model no
(Beats in GHz)
920 (2.8)
930 (3.0)
940 (3.2)
950 (3.4)
960 (3.6)
XE955 (3,46)
XE965 (3.73)
820 (2.8)
830 (3.0)
840 (3.2)
EE840 (3.2)
630 (3.0)
640 (3.2)
650 (3,4)
660 (3.6)
670 (3.8)
EE 3733 MHz
Production 65 nm 90 nm 90 nm
Socket Socket 775 Socket 775 Socket 775
Dual-core X
Multithreading √ (XE only) √ (XE only)
Frontside bus 800 MHz QDR
1066 MHz QDR
800 MHz QDR 800 MHz QDR
1066 MHz QDR
Frontside-bus load 2 2 1
Peripheral interface External controller External controller External controller
Storage controller External controller External controller External controller
Transistors 376 Million 230 Million 169 Million
Chip size 162 mm² 206 mm² 135 mm square
L1-execution cache 2 x 12,000 µ-OPS 2 x 12,000 µ-OPS 12,000 µ OPS
L1 data cache 2 x 16 kB 2 x 16 kB 16 kB
L2-cache 2 x 2048 kB 2 x 1024 kB 2048kB
L2 connection 256-Bit 256-Bit 256-Bit
L2 mode L1 inclusive L1 inclusive L1 inclusive
Cache total 4096 kB 2048 kB 1024 kB

Also the Athlon 64 in the socket AM2 is a real member of the K8 architecture (codenamed hammer) and therefore the differences in spite of the change of the base are not excessively radical. Set in the framework of article of treated Athlon 62 X 2 5000 +, 4600 +, 4200 + and 3800 + are all on the F2-stepping of the Windsor core. When the manufactured in 90 nm Athlon 64-X 2 processors (Toledo, Manchester) in the now detached Socket 939 the E4 and E6 stepping was used.

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The F-stepping the Athlon 64 provides support for DDR2 memory up to DDR2-800 in the case of Athlon 64 FX-62 and Athlon 64 X 2. Sempron and Athlon 64 (single core) are limited, as you can see from the table, with DDR2-667. Ultimately, the question of supported memory is only a matter of BIOS. The new, integrated memory controller is like his predecessor, able to operate the store far higher. In addition, rumors that support for DDR2-1066 is supplied in a short time abide.

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Thanks to the integrated memory controller has the Athlon 64 on a very low memory latency (see benchmarks Sciencemark). Very successful with this feature – Intel will take in future processors that are available after the architecture on the plan, at least in the server area a similar way – but if one enters a dependency on memory clock to processor clock. The memory frequency can be selected not more freely and thus e.g. DDR2-800 memory not always with the operated provided for 400 MHz.

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Real memory clock depending on the processor clock
Processor clock DDR2-400
(Target: 200 MHz)
DDR2-533
(Target: 266 MHz)
DDR2-667
(Target: 333 MHz)
DDR2-800
(Target: 400 MHz)
1.6 GHz (8 x 200) 200 MHz
(8 Piece)
266 MHz
(Splitter 6)
320 MHz
(Divisor 5)
1.8 GHz (9 x 200) 200 MHz
(Divider 9)
257 MHz
(7 Part miniseries)
300 MHz
(Splitter 6)
360 MHz
(Divisor 5)
2.0 GHz (10 x 200) 200 MHz
(10 Part miniseries)
250 MHz
(8 Piece)
333 MHz
(Splitter 6)
400 MHz
(Divisor 5)
2.2 GHz (11 x 200) 200 MHz
(Divisor 11)
244 MHz
(Divider 9)
314 MHz
(7 Part miniseries)
366 MHz
(Splitter 6)
2.4 GHz (12 x 200) 200 MHz
(12 Piece)
240 MHz
(10 Part miniseries)
300 MHz
(8 Piece)
400 MHz
(Splitter 6)
2.6 GHz (13 x 200) 200 MHz
(13 Part miniseries)
260 MHz
(10 Part miniseries)
325 MHz
(8 Piece)
371 MHz
(7 Part miniseries)
2.8 GHz (14 x 200) 200 MHz
(Divider 14)
254 MHz
(Divisor 11)
311 MHz
(Divider 9)
400 MHz
(7 Part miniseries)
3.0 GHz (15 x 200) 200 MHz
(Divider 15)
250 MHz
(12 Piece)
333 MHz
(Divider 9)
375 MHz
(8 Piece)

This peculiarity of the integrated memory controller is not new and already caused in the Socket 754, Socket 939 and socket 940 for not always entirely correct clock rates. In synthetic benchmarks such as SiSoft Sandra 2007 or Sciencemark an influence on the storage performance while demonstrate, in real-world applications, this state of affairs but not otherwise falls into the weight.

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Selected features of the processors overview
Features Athlon 64 X 2
Athlon 64 FX-62
Athlon 64
Sempron 64
Athlon 64 X 2
Athlon 64 FX-60
Athlon 64
Athlon 64 FX
Logo
Power saving Cool Cool’n’ quiet Cool Cool’n’ quiet Cool Cool’n’ quiet Cool Cool’n’ quiet
Date execution
Prevention (NX bit)
64 Bit technology √ (AMD64) √ (AMD64) √ (AMD64) √ (AMD64)
Virtualization
Technology
√ (Pacifica) √ (Pacifica)
(Not Sempron)
X X
CPU architecture 17-stage (FPU)
12-stage (ALU)
Pipeline
17-stage (FPU)
12-stage (ALU)
Pipeline
17-stage (FPU)
12-stage (ALU)
Pipeline
17-stage (FPU)
12-stage (ALU)
Pipeline
Instruction sets MMX
3DNow!
3DNow! +.
SSE
SSE2
SSE3
MMX
3DNow!
3DNow! +.
SSE
SSE2
SSE3
MMX
3DNow!
3DNow! +.
SSE
SSE2
SSE3
MMX
3DNow!
3DNow! +.
SSE
SSE2
SSE3
Selected features of the Pentium 4, Pentium D and Pentium Extreme Edition Overview

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Selected features of the processors overview
Features Pentium D 9xx,
Pentium
Extreme
Edition 9 x 5
Pentium D 8xx,
Pentium
Extreme
Edition 840
Pentium 4 6xx,.
Pentium 4
Extreme
Edition 3.73
Logo
Power saving From C1 stepping
9 x 0 (C1E, EIST)
965 (C1E)
C1E, enhanced
SpeedStep
(Not XE)
C1E, enhanced
SpeedStep
(Not XE)
Date execution
Prevention (NX bit)
64 Bit technology √ (EM64T) √ (EM64T) √ (EM64T)
Virtualization
Technology
√ (Vanderpool) X √ (Vanderpool)
Only P4 672, 662
CPU architecture 31-stage
Pipeline
31-stage
Pipeline
31-stage
Pipeline
Instruction sets MMX
SSE
SSE2
SSE3
MMX
SSE
SSE2
SSE3
MMX
SSE
SSE2
SSE3

On the feature page the Pacifica virtualization technology and the Presidio security technology are with the F-stepping. Thus, AMD Intel pulls the same and now also offers the technologies interesting primarily for enterprise. The concrete expression of the Presidio is still unclear, because this feature is not available in the BIOS or in the US is addressed this press kit to the socket AM2.

Chipset support

Gone are the days in which a processor was purchased solely due to his performance. Today is also the overall package, you get “AMD or Intel” after the landmark next to the performance or the power consumption. The following will concern the chipsets, which are available for the respective processors available.

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Chip set support for AMD processors
with socket 939 and socket AM2 overview
Processor ATi nVidia SiS ULi VIA
Logo
Athlon 64 X 2
Athlon 64 FX
(Dual core)
RS480
RD480
RD580
nForce 500-family
nForce 4-family
nForce 400
SiS756
SiS761GL
SiS761GX
M1695
M1697
K8T890 *.
K8M890
K8T900
Athlon 64
Athlon 64 FX
(Single core)
RS480
RD480
RD580
nForce 5 family
nForce 4-family
nForce 400
SiS755FX
SiS756
SiS761GL
SiS761GX
M1695
M1697
K8T800 Pro
K8T890
K8M890
K8T900
* Only revised version of the chip set
RS480 = Radeon Xpress 200
RD480 = Radeon Xpress 200 CrossFire
RD580 = Radeon Xpress 3200 CrossFire

As a result of the HyperTransport interface used for the Athlon 64 for the connection of peripherals, theoretically any current chipset for Socket 939 is suitable for the socket AM2. Solutions with ATi RD580 (ASUS M2R32-MVP Deluxe), VIA K8T890 (e.g. ASUS m2v) or nVidia nForce 4 (Albatron K8NF4X-AM2), GeForce 6100 (Gigabyte GA-M51GM-S2) appear in fact. Mainboards with ULi M1697 (MSI K9N master A4R) or SiS 761GX (PC chips A33G) may also be expected. All provide support for the complete product portfolio with “Socket AM2″ processors and thus satisfy all tastes.

The majority of the Board partners but clearly sets the focus on the new “nForce 500″ family, to which we enter into a separate article (link from 3 pm available). By law, you may claim that nVidia hereby that placed best solution on the market for the enthusiasts without a doubt. Even Intel’s upcoming Broadwater chipset (G965, P965, Q965) not approaches likely to top solutions NVIDIA nForce 590 SLI or nForce 570 SLI.

Quite so lavish as in AMD the offer for Intel processors, however, not presents itself, as demonstrated below.

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Chip set support for Intel processors overview
Processor ATi Intel nVidia SiS ULi VIA
Logo
Pentium XE 9 x 5 ? i975X nForce 4 Ultra
nForce 4 SLI XE
nForce 4 SLI
nForce 4 SLI x 16
? ? ?
Pentium D 9xx ? i945 family
i955X
i975X
nForce 4 Ultra
nForce 4 SLI XE
nForce 4 SLI
(No 920)
nForce 4 SLI x 16
? ? ?
Pentium XE 840 ? i955X
i975X
nForce 4 SLI
nForce 4 SLI x 16
nForce 4 SLI
nForce 4 SLI x 16
? ? ?
Pentium D 8xx RS400
RD400
i945 family
i955X
i975X
nForce4 Ultra
nForce4 SLI XE
nForce 4 SLI
(No 820)
nForce 4 SLI x 16
SiS656FX
SiS649FX
SiS656
SiS649
? ?
Pentium 4
Extreme
Edition
RS400
RD400
i925X/XE
i945 family
i955X
i975X
nForce4 Ultra
nForce4 SLI XE
nForce 4 SLI
nForce 4 SLI x 16
SiS656FX
SiS649FX
? PT880 ultra
PT894
PT894 Pro
Pentium 4 6xx/5xx RS400
RD400
i915 family
i925X/XE
i945 family
i955X
i975X
nForce4 Ultra
nForce4 SLI XE
nForce 4 SLI
nForce 4 SLI x 16
SiS656FX
SiS649FX
SiS656
SiS649
M1685 PT880
PT880 ultra
PT894
PT894 Pro
RS400 = Radeon Xpress 200
RD400 = Radeon Xpress 200 CrossFire

As you can see the Intel chipset support is relatively limited, especially if one opts for processors from the extreme Edition-(XE-)Familie. On our own motherboards only with the i975 is express chipset with Crossfire support (2 x x 8 lanes for the graphics cards) possible. Who expected support for SLI and prefers not also an Intel chipset with an Intel processor, from a motherboard chipset for the most interesting product portfolio provides nVidia currently. The presented in the context of the socket AM2, New nVidia chipset nForce 500 see also the light of the world with support for Intel’s next generation of processors in June

As it comes to support of the complete Pentium-D 900-series ATi, SiS, ULi and VIA looks like, is, however, unclear. In the camp of AMD is much better, the dual-core support although here processors and chipset not from a single source.

Power consumption

Performance is not everything, as semiconductor giant Intel “impressively” demonstrated 4 with the introduction of the Pentium manufactured in 90 nm. The processor made even such problems that although a 3.4 GHz fast model was introduced was to test only the slightly more fuel-efficient 3, 2-GHz variant available. The times of a quick and “energy saving” desktop processor from the House of Intel were over.

To enter into the topic of “Power”, the official data of the manufacturers are to serve us. It is worth noting that Intel and AMD determine these numbers in different ways. AMD specifies the maximum consumption. Intel, however, called the numbers “thermal design power”, so the performance that has to curb a cooling solution in common application scenarios. The actual maximum consumption can be higher.

Thermal design power (manufacturer)

Core Duo T1300, Yonah SC

27

Core Duo T2600, Yonah DC.
31
Athlon 64 X 2 3800 + EE SFF, Windsor
35
Athlon 64 X 2 4800 + EE, Windsor
65
Athlon 64 X 2 4400 +, Toledo
89
Athlon 64 X 2 4200 +, Manchester
89
Athlon 64 X 2 5000 +, Windsor
89
Athlon 64 FX-57, San Diego
104
Athlon 64 FX-60, Toledo
110
Athlon 64 X 2 4800 +, Toledo
110
Athlon 64 X 2 4600 +, Manchester
110
Pentium 4 EE 3.73 GHz, Prescott 2 m
115
Pentium 4 670, Prescott 2 m
115
Athlon 64 FX-62, Windsor
125
Pentium XE 840, Smithfield
130
Pentium XE 955, Presler
130
Pentium XE 965, Presler
130
Information in Watts (W)

With the socket AM2 AMD covers all demands on power consumption. For lovers of performance a 2.8 GHz Athlon 64 FX-62 with 125 Watts maximum power. Followed by all mainstream Athlon 64-X 2 processors with 89 Watt consumption. For power-saving AMD introduces expensive Energy-Efficient-(EE-)Modelle something, which addition to X are available 2 4800 + and devour maximum 65 Watts. In addition starts an X 2 3800 + as “energy efficient small form factor” by and makes even notebook processors with 35 watts competitors.

The range of processors are as follows:

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AMD’s socket AM2 processors overview
Processor Consumption (max) Voltage Price
Normal dual core Athlon 64 X 2
Athlon 64 FX-62 125 Watts 1, 35-1, 4 Volt 1031 US dollars
Athlon 64 X 2 5000 + 89 Watt 1, 30, 35 Volts $ 969
Athlon 64 X 2 4800 + 89 Watt 1, 30, 35 Volts 645 USD
Athlon 64 X 2 4600 + 89 Watt 1, 30, 35 Volts $ 558
Athlon 64 X 2 4400 + 89 Watt 1, 30, 35 Volts 470 USD
Athlon 64 X 2 4200 + 89 Watt 1, 30, 35 Volts 365 USD
Athlon 64 X 2 4000 + 89 Watt 1, 30, 35 Volts 328 USD
Athlon 64 X 2 3800 + 89 Watt 1, 30, 35 Volts 303 USD
Normal Athlon 64
Athlon 64 3800 + 62 Watt 1, 35-1, 4 Volt 290 USD
Athlon 64 3500 + 62 Watt 1, 35-1, 4 Volt $189
Athlon 64 3200 + 62 Watt 1, 35-1, 4 Volt 138 USD
Athlon 64 3000 + 62 Watt 1, 35-1, 4 Volt ?
Normal Sempron 64
Sempron 64 3600 + 62 Watt 1, 35-1, 4 Volt 123 USD
Sempron 64 3500 + 62 Watt 1, 35-1, 4 Volt $109
Sempron 64 3400 + 62 Watt 1, 35-1, 4 Volt 97 US dollars
Sempron 64 3200 + 62 Watt 1, 35-1, 4 Volt $87
Sempron 64 3000 + 62 Watt 1, 35-1, 4 Volt $ 77
Sempron 64 2800 +. 62 Watt 1, 35-1, 4 Volt 67 US dollars
Energy-efficient dual-core Athlon 64 X 2
Athlon 64 X 2 4800 + EE 65 Watt 1, 20-1, 25 Volt $ 671
Athlon 64 X 2 4600 + EE 65 Watt 1, 20-1, 25 Volt 601 USD
Athlon 64 X 2 4400 + EE 65 Watt 1, 20-1, 25 Volt 514 USD
Athlon 64 X 2 4200 + EE 65 Watt 1, 20-1, 25 Volt 417 USD
Athlon 64 X 2 4000 + EE 65 Watt 1, 20-1, 25 Volt 353 USD
Athlon 64 X 2 3800 + EE 65 Watt 1, 20-1, 25 Volt 323 USD
Athlon 64 X 2 3800 + EE SFF 35 Watt 1, 025-1, 075 Volt 364 USD
Low-power Athlon 64
Athlon 64 3500 + EE 35 Watt 1, 20-1, 25 Volt $231
Energy-efficient Sempron 64
Sempron 3500 + EE 35 Watt 1, 20-1, 25 Volt ?
Sempron 3400 + EE 35 Watt 1, 20-1, 25 Volt 145 USD
Sempron 3200 + EE 35 Watt 1, 20-1, 25 Volt $119
Sempron 3000 + EE 35 Watt 1, 20-1, 25 Volt 101 USD

What benefits have the “energy efficient” processors compared to the normal representatives, show our following measurements with a standard Voltcraft energy-check-3000-meter. None of the processors, special settings have been made. The Windows XP power management was set to the Profil “Desktop”. AMD’s Cool’n’ was cool quiet so not active, because for this profile “Minimum energy” would have to be loaded. Tests with enabled cool Cool’n’ quiet however showed that this power consumption in the idle state to further 10 Watt can be reduced.

Intel’s power C1E (but not enhanced SpeedStep, EIST) was active, as she operating system-transparent works by the processor clock is automatically lowered to up to 2.8 GHz. This applies to in our case but only on the Pentium 4 670 and Pentium XE 965. The extreme Edition 840 offers no C1E or EIST and the XE 955 this feature because of several times mentioned the defect is not available.

The Athlon 64 X 2 5000 + with a default voltage 1.35 Volt operated from. To simulate of the “energy efficient”- and “energy efficient small form factor” processors was lowered the voltage to 1.20 Volt and the clock on 2.4 GHz (is X 2 4600 + EE). Also, the tension of the X 2 3800 + EE SFF of 1,025 could we – to our own surprise – with the easily set 5000 + and stable to operate. The processor was operated here with 2.0 GHz.

The measurements were made in the Pentium XE 955 and Pentium XE 965 with an operating voltage of 1,3375 volts and 1,3000 volts. Both are the default values of the respective processors, which have been recognized by our motherboard. The tension of the “Athlon 64″ to compare registered processors in the Socket 939 was 1.35 volts.

Power consumption: Windows desktop (idle)

Athlon 64 X 2 4600 +, Manchester
106
Athlon 64 X 2 4800 +, Toledo
107
Athlon 64 X 2 3800 + EE SFF, Windsor
110
Athlon 64 FX-57, San Diego
113
Athlon 64 FX-60, Toledo
115
Athlon 64 X 2 4600 + EE, Windsor
118
Athlon 64 X 2 5000 +, Windsor
126
Pentium XE 965, Presler
138
Pentium 4 670, Prescott 2 m
140
Pentium XE 840, Smithfield
155
Pentium XE 955, Presler
161
Information in Watts (W)

Power consumption: full load (PCMark05)

Athlon 64 X 2 3800 + EE SFF, Windsor
134
Athlon 64 FX-57, San Diego
154
Athlon 64 X 2 4600 + EE, Windsor
160
Athlon 64 X 2 4600 +, Manchester
166
Athlon 64 X 2 4800 +, Toledo
169
Athlon 64 FX-60, Toledo
181
Athlon 64 X 2 5000 +, Windsor
194
Pentium XE 965, Presler
226
Pentium XE 955, Presler
258
Pentium 4 670, Prescott 2 m
266
Pentium XE 840, Smithfield
312
Information in Watts (W)

One should be fooled by the numbers: the comparative measurements of Socket 939 was conducted on an ASUS A8N-SLI Premium is a single-chip solution with nForce 4 SLi. This provides maximum 2 x two existing graphics cards x 8 PCIe lanes available. The “socket AM2″ platform, however, was from an Asus M2N32-SLI Deluxe nForce 590 SLI Board. This is the high-end variant with two chips for 2 x x 16 PCIe lanes. As a result, the power consumption of the socket AM2 system is necessarily higher than those of the Socket 939-reference solution.

One is still clear: with RES and EE SFF power can properly save. Extent to which the non-EE models with a significantly reduced voltage can be operated permanently stable, time will tell. It would be premature to make guarantees on the basis of our pattern provided by AMD. We have not had problems with lower voltages at least.

Overclocking

Although the Athlon 64 X 2 5000 + compared to the FX-62 with a fixed upward multiplier therefore comes and thus not specifically for the overclocking was designed, you can get more power out of it. Is possible to increase the reference clock an overclocking, is the default 200 MHz.

Plenty of room to the top does not provide 2 5000 + X. Stable operation with air cooling at 2.8 GHz (13 x 215 MHz) was possible without changing the voltage (1.35 volts). In addition, instabilities encountered.

Overclocking: PCMark06

Total score:
Athlon 64 X 2 5000 +, 2.8 GHz, 1.35
6.115
Athlon 64 X 2 5000 +, 2.6 GHz, 1.35
5.716
Processor test:
Athlon 64 X 2 5000 +, 2.8 GHz, 1.35
5,688
Athlon 64 X 2 5000 +, 2.6 GHz, 1.35
5.336
Information on points

Due to the extremely limited time which the socket AM2 system available to us, unfortunately no comprehensive statements are possible. The test systems equipped with FX-62 to – so we have experienced – up to a clock around 3 GHz can run it.

Test systems

To allow a possible fair comparison between the competitors, all tests in a closed MIDI tower with complete fan Assembly (two inlet at the back, blowing one side when the hard drive cage) were carried out, to be attentive so also on thermal problems in the car.

There up to Intel’s new mobile processors “Core Duo” and “core solo” all “firsts” from now on will be equipped with 64-bit support, have we us to resolutely all measurements on Microsoft’s Windows XP Professional x 64 carry out again to reveal advantages and disadvantages of the implementation. All in all thought the problems within limits. Only Aquamark 3 completely refused and the PCMark05 disturbed on the 64-bit version of Windows Media Encoder 9. Here, only the 32-bit version may be installed. More details will follow in the section “Benchmarks”.

  • Processor
    • AMD Athlon 64 FX-60 (2.6 GHz)
    • AMD Athlon 64 FX-57 (2.8 GHz)
    • AMD Athlon 64 X 2 5000 + (Windsor F2)
    • AMD Athlon 64 X 2 4800 + (Toledo E6)
    • AMD Athlon 64 X 2 4600 + (Manchester E4)
    • Intel Pentium Extreme Edition 955 (Presler B1)
    • Intel Pentium Extreme Edition 965 (Presler C1)
    • Intel Pentium Extreme Edition 840 (Smithfield A0)
    • Intel Pentium D 670 (Prescott 2 m E0)
  • Motherboard
    • Athlon 64 Socket AM2 platform:
      Asus M2N32-SLI Deluxe (nForce 590 SLI) – BIOS: 0401

    • Athlon 64 Socket 939 platform:
      ASUS A8N-SLI Premium (nForce 4 SLI) – BIOS: 1009
    • Pentium 4-socket 775 platform:
      Intel D975XBX (i975X Express)-BIOS: BX97510J. 86A. 0354 2005. 1208-1112
      Intel D975XBX (i975X Express)-BIOS: BX97510J. 86A. 0807 2006. 1403
  • Memory
    • 2x512MB DDR400 OCZ elite Platinum Ed PC4800 (DDR400 Cl2.5 3-2-6, AMD Socket 939)
    • 2x512MB DDR2-667 crucial Ballistix (DDR2-667 CL5-5-5-12, Intel socket 775)
    • 2 x 512 MB DDR2-1066 Corsair CMS2X512-8500 (DDR2-800 CL4-4-4-12, AMD Socket AM2)
  • Graphics card
    • Gigabyte GeForce 7800 GT (PCI Express)
  • Peripherals
    • Hitachi HDS722516VLSA80
  • Power supply
    • Tagan TG480-U22
  • Driver versions
    • nVidia ForceWare 81.98 (x 64) (SYSmark)
    • nVidia ForceWare 91.27 (x 64) (other tests)
    • nVidia nForce 5 9.34 Edition (x 64)
    • Intel chipset driver 7.2.2.1006 (x 64)
    • Intel audio driver 5.10.4825 (x 64)
    • Intel network driver 10.2 (x 64)
    • Intel southbridge drivers 5.5.0.1035 (X 64)
  • Software
    • Microsoft Windows XP Professional x 64
    • Microsoft DirectX 9.0 c December 2005
    • Microsoft Windows XP x 64 security patches < div > show all < div >
      KB898715, KB890046, KB893756, KB896358, KB896422, KB896424, KB896428, KB896688, KB899587, KB899588, KB899591, KB900725, KB901017, KB902400, KB904706, KB901214 (patches on SYSmark 2004 SE were not installed)

Benchmarks

All benchmarks were carried out in a resolution of 1280 x 1024 at 75 Hz. The games has been tested without forced FSAA or AF.

  • Synthetic
    • PCMark05 1.1.0
  • System
    • 7-Zip 4.32 32-bit
    • 7-Zip 4.32 64-bit
    • SYSmark 2004 SE
    • Photoshop CS 2.0
    • WinRAR 3.51
  • Rendering
    • MAXON Cinebench 2003 32-bit
    • MAXON Cinebench 2003 64-bit
    • Newtek Lightwave 8.5
  • Multimedia
    • Nero Recode 2.0 (Nero 7.0)
    • Tsunami MPEG video encoder Xpress 3.3.7.116
    • Apple QuickTime 7.03 Pro
    • Microsoft Windows Movie Maker
    • Apple iTunes 6.0
    • Vorbis Oggdrop XP
    • Lame 3.97 (b) 32-bit
    • Lame 3 97a 32-bit
  • Games
    • 3DMark03 3.6.0
    • 3DMark05 1.2.0
    • Battlefield 2 1.03
    • FarCry 1.31 32-bit
    • FarCry 1.31 64-bit
    • Fear multiplayer demo
    • Half life 2 lost coast
    • Quake 4 1.20
    • Serious Sam 2 demo
    • Unreal Tournament 2004 32-bit
    • Unreal Tournament 2004 64-bit

Sandra 2007

Sandra arithmetic whetstone

Pentium XE 965 S775 DDR2-667 CL5
19.861
Athlon 64 FX-60 S939 DDR400 Cl2
19.404
Athlon 64 X 2 5000 + SAM2 DDR2-800 CL4
19.322
Pentium XE 955 S775 DDR2-667 CL5
18.448
Athlon 64 X 2 4800 + S939 DDR400 Cl2
17.908
Athlon 64 X 2 4600 + S939 DDR400 Cl2
17.905
Athlon 64 X 2 4600 + SAM2 DDR2-800 CL4
17.835
Pentium XE 840 S775 DDR2-667 CL5
17.167
Athlon 64 X 2 4400 + S939 DDR400 Cl2
16.413
Athlon 64 X 2 4200 + S939 DDR400 Cl2
16.413
Athlon 64 X 2 4200 + SAM2 DDR2-800 CL4
16.343
Pentium D 960 S775 DDR2-667 CL5
14.959
Athlon 64 X 2 3800 + S939 DDR400 Cl2
14.921
Athlon 64 X 2 3800 + SAM2 DDR2-800 CL4
14.857
Pentium D 950 S775 DDR2-667 CL5
14.156
Pentium D 940 S775 DDR2-667 CL5
13.275
Pentium D 930 S775 DDR2-667 CL5
12.496
Pentium D 920 S775 DDR2-667 CL5
11.621
Athlon 64 FX-57 S939 DDR400 Cl2
10.430
Pentium 4 670 S775 DDR2-667 CL5
10.098
Data in MIPS

Sandra arithmetic series

Pentium XE 965 S775 DDR2-667 CL5
21.257
Pentium XE 955 S775 DDR2-667 CL5
19.817
Pentium XE 840 S775 DDR2-667 CL5
17.997
Athlon 64 FX-60 S939 DDR400 Cl2
14.483
Athlon 64 X 2 5000 + SAM2 DDR2-800 CL4
14.434
Athlon 64 X 2 4600 + S939 DDR400 Cl2
13.411
Athlon 64 X 2 4800 + S939 DDR400 Cl2
13.398
Athlon 64 X 2 4600 + SAM2 DDR2-800 CL4
13,250
Pentium D 960 S775 DDR2-667 CL5
12.694
Athlon 64 X 2 4400 + S939 DDR400 Cl2
12.297
Athlon 64 X 2 4200 + S939 DDR400 Cl2
12.278
Athlon 64 X 2 4200 + SAM2 DDR2-800 CL4
12.234
Pentium D 950 S775 DDR2-667 CL5
11.988
Pentium D 940 S775 DDR2-667 CL5
11.275
Athlon 64 X 2 3800 + SAM2 DDR2-800 CL4
11.143
Athlon 64 X 2 3800 + S939 DDR400 Cl2
11.034
Pentium 4 670 S775 DDR2-667 CL5
10.650
Pentium D 930 S775 DDR2-667 CL5
10.570
Pentium D 920 S775 DDR2-667 CL5
9.865
Athlon 64 FX-57 S939 DDR400 Cl2
7.782
Information in MFLOPS

Sandra multimedia integer

Pentium XE 965 S775 DDR2-667 CL5
55.874
Pentium XE 955 S775 DDR2-667 CL5
51.919
Pentium XE 840 S775 DDR2-667 CL5
47.990
Pentium D 960 S775 DDR2-667 CL5
44.013
Pentium D 950 S775 DDR2-667 CL5
41.547
Pentium D 940 S775 DDR2-667 CL5
39.093
Athlon 64 FX-60 S939 DDR400 Cl2
39.003
Athlon 64 X 2 5000 + SAM2 DDR2-800 CL4
38.834
Pentium D 930 S775 DDR2-667 CL5
36.650
Athlon 64 X 2 4600 + S939 DDR400 Cl2
35.986
Athlon 64 X 2 4800 + S939 DDR400 Cl2
35.952
Athlon 64 X 2 4600 + SAM2 DDR2-800 CL4
35.846
Pentium D 920 S775 DDR2-667 CL5
34.189
Athlon 64 X 2 4400 + S939 DDR400 Cl2
32.993
Athlon 64 X 2 4200 + S939 DDR400 Cl2
32.988
Athlon 64 X 2 4200 + SAM2 DDR2-800 CL4
32.849
Athlon 64 X 2 3800 + S939 DDR400 Cl2
29.975
Athlon 64 X 2 3800 + SAM2 DDR2-800 CL4
29.862
Pentium 4 670 S775 DDR2-667 CL5
28.458
Athlon 64 FX-57 S939 DDR400 Cl2
20.934
Information in instructions per second (it/s)

Sandra multimedia float

Pentium XE 965 S775 DDR2-667 CL5
90.164
Pentium XE 955 S775 DDR2-667 CL5
83.698
Pentium XE 840 S775 DDR2-667 CL5
77.514
Pentium D 960 S775 DDR2-667 CL5
69.607
Pentium D 950 S775 DDR2-667 CL5
65.742
Pentium D 940 S775 DDR2-667 CL5
61.826
Athlon 64 FX-60 S939 DDR400 Cl2
60.285
Athlon 64 X 2 5000 + SAM2 DDR2-800 CL4
60.110
Pentium D 930 S775 DDR2-667 CL5
57.994
Athlon 64 X 2 4600 + S939 DDR400 Cl2
55.673
Athlon 64 X 2 4800 + S939 DDR400 Cl2
55.640
Athlon 64 X 2 4600 + SAM2 DDR2-800 CL4
55.439
Pentium D 920 S775 DDR2-667 CL5
54.137
Athlon 64 X 2 4400 + S939 DDR400 Cl2
51.677
Athlon 64 X 2 4200 + SAM2 DDR2-800 CL4
50.794
Athlon 64 X 2 4200 + S939 DDR400 Cl2
50.760
Athlon 64 X 2 3800 + SAM2 DDR2-800 CL4
46.243
Pentium 4 670 S775 DDR2-667 CL5
45.822
Athlon 64 X 2 3800 + S939 DDR400 Cl2
45.043
Athlon 64 FX-57 S939 DDR400 Cl2
32.332
Information in instructions per second (it/s)

Sandra int buffered memory

Athlon 64 X 2 4600 + SAM2 DDR2-800 CL4
7.791
Athlon 64 X 2 5000 + SAM2 DDR2-800 CL4
7.501
Athlon 64 X 2 3800 + SAM2 DDR2-800 CL4
7.201
Athlon 64 X 2 4200 + SAM2 DDR2-800 CL4
7.183
Pentium XE 965 S775 DDR2-667 CL5
6.449
Pentium XE 955 S775 DDR2-667 CL5
6.445
Athlon 64 FX-57 S939 DDR400 Cl2
5.908
Athlon 64 X 2 4400 + S939 DDR400 Cl2
5.219
Athlon 64 X 2 4200 + S939 DDR400 Cl2
5.194
Athlon 64 FX-60 S939 DDR400 Cl2
5.187
Athlon 64 X 2 3800 + S939 DDR400 Cl2
5,179
Athlon 64 X 2 4800 + S939 DDR400 Cl2
5.169
Athlon 64 X 2 4600 + S939 DDR400 Cl2
5.163
Pentium D 940 S775 DDR2-667 CL5
5.075
Pentium D 950 S775 DDR2-667 CL5
5.074
Pentium D 960 S775 DDR2-667 CL5
5.073
Pentium D 930 S775 DDR2-667 CL5
5.069
Pentium D 920 S775 DDR2-667 CL5
5.064
Pentium XE 840 S775 DDR2-667 CL5
5.061
Pentium 4 670 S775 DDR2-667 CL5
5.047
Information in megabytes per second (MB/s)

Sandra float buffered memory

Athlon 64 X 2 4600 + SAM2 DDR2-800 CL4
7.776
Athlon 64 X 2 5000 + SAM2 DDR2-800 CL4
7.498
Athlon 64 X 2 3800 + SAM2 DDR2-800 CL4
7.208
Athlon 64 X 2 4200 + SAM2 DDR2-800 CL4
7.183
Pentium XE 965 S775 DDR2-667 CL5
6.439
Pentium XE 955 S775 DDR2-667 CL5
6.433
Athlon 64 FX-57 S939 DDR400 Cl2
5.958
Athlon 64 X 2 4400 + S939 DDR400 Cl2
5.215
Athlon 64 X 2 3800 + S939 DDR400 Cl2
5.187
Athlon 64 X 2 4200 + S939 DDR400 Cl2
5.185
Athlon 64 FX-60 S939 DDR400 Cl2
5.182
Athlon 64 X 2 4800 + S939 DDR400 Cl2
5.177
Athlon 64 X 2 4600 + S939 DDR400 Cl2
5.169
Pentium D 940 S775 DDR2-667 CL5
5,079
Pentium D 960 S775 DDR2-667 CL5
5.077
Pentium D 950 S775 DDR2-667 CL5
5.075
Pentium D 930 S775 DDR2-667 CL5
5.074
Pentium XE 840 S775 DDR2-667 CL5
5.065
Pentium D 920 S775 DDR2-667 CL5
5.065
Pentium 4 670 S775 DDR2-667 CL5
5.043
Information in megabytes per second (MB/s)

Sciencemark

Sciencemark 2.0 – memory bandwidth

Athlon 64 X 2 4600 + SAM2 DDR2-800 CL4
6.918
Athlon 64 X 2 5000 + SAM2 DDR2-800 CL4
6.800
Athlon 64 X 2 4200 + SAM2 DDR2-800 CL4
6.393
Athlon 64 X 2 3800 + SAM2 DDR2-800 CL4
6.265
Athlon 64 FX-57 S939 DDR400 Cl2
5.557
Pentium XE 955 S775 DDR2-667 CL5
5.508
Athlon 64 FX-60 S939 DDR400 Cl2
5.487
Pentium XE 965 S775 DDR2-667 CL5
5.429
Athlon 64 X 2 4600 + S939 DDR400 Cl2
5.396
Athlon 64 X 2 4200 + S939 DDR400 Cl2
5.387
Athlon 64 X 2 4800 + S939 DDR400 Cl2
5353
Athlon 64 X 2 4400 + S939 DDR400 Cl2
5.347
Athlon 64 X 2 3800 + S939 DDR400 Cl2
5.018
Pentium D 950 S775 DDR2-667 CL5
4.598
Pentium D 940 S775 DDR2-667 CL5
4.579
Pentium D 960 S775 DDR2-667 CL5
4.560
Pentium D 930 S775 DDR2-667 CL5
4.556
Pentium XE 840 S775 DDR2-667 CL5
4.532
Pentium D 920 S775 DDR2-667 CL5
4.524
Pentium 4 670 S775 DDR2-667 CL5
4.505
Information in megabytes per second (MB/s)

Sciencemark 2.0 – memory latency

Athlon 64 X 2 3800 + SAM2 DDR2-800 CL4
98
Athlon 64 X 2 3800 + S939 DDR400 Cl2
108
Athlon 64 X 2 4600 + SAM2 DDR2-800 CL4
111
Athlon 64 X 2 4200 + SAM2 DDR2-800 CL4
111
Athlon 64 X 2 4800 + S939 DDR400 Cl2
117
Athlon 64 X 2 4600 + S939 DDR400 Cl2
118
Athlon 64 X 2 4400 + S939 DDR400 Cl2
119
Athlon 64 X 2 4200 + S939 DDR400 Cl2
119
Athlon 64 FX-57 S939 DDR400 Cl2
124
Athlon 64 FX-60 S939 DDR400 Cl2
128
Athlon 64 X 2 5000 + SAM2 DDR2-800 CL4
128
Pentium D 920 S775 DDR2-667 CL5
260
Pentium XE 840 S775 DDR2-667 CL5
274
Pentium D 930 S775 DDR2-667 CL5
275
Pentium D 940 S775 DDR2-667 CL5
284
Pentium XE 955 S775 DDR2-667 CL5
285
Pentium D 950 S775 DDR2-667 CL5
293
Pentium D 960 S775 DDR2-667 CL5
306
Pentium XE 965 S775 DDR2-667 CL5
306
Pentium 4 670 S775 DDR2-667 CL5
332
Information in clock cycles

PCMark05

PCMark05 total

Athlon 64 FX-60 S939 DDR400 Cl2
6,024
Pentium XE 965 S775 DDR2-667 CL5
5.945
Athlon 64 X 2 4800 + S939 DDR400 Cl2
5.771
Pentium XE 955 S775 DDR2-667 CL5
5.736
Athlon 64 X 2 5000 + SAM2 DDR2-800 CL4
5.716
Athlon 64 X 2 4600 + S939 DDR400 Cl2
5.713
Pentium D 960 S775 DDR2-667 CL5
5.684
Athlon 64 X 2 4600 + SAM2 DDR2-800 CL4
<

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