Processors
Processor Number | Cache | Clock Speed | # of Cores/ # of Threads | Max TDP/ Power | Memory Types | Graphics |
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Processor Number | Cache | Clock Speed | # of Cores/# of Threads | Max TDP/Power | Memory Types | Graphics |
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Processor Number | Cache | Clock Speed | # of Cores/ # of Threads | Max TDP/ Power | Memory Types | Graphics |
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Processor Number | Cache | Clock Speed | # of Cores/# of Threads | Max TDP/Power | Memory Types | Graphics |
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Processor Number | Cache | Clock Speed | # of Cores/# of Threads | Max TDP/Power | Memory Types | Graphics |
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Processor Number | Cache | Clock Speed | # of Cores/ # of Threads | Max TDP/ Power | Memory Types | Graphics |
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Intel Corporation (commonly referred to as Intel) is an American multinational technology company headquartered in Santa Clara, California. Intel is one of the world's largest and highest valued semiconductor chip makers, based on revenue.[4] It is the inventor of the x86 series of microprocessors, the processors found in most personal computers.
Intel Corporation was founded on July 18, 1968. Intel also makes motherboard chipsets, network interface controllers andintegrated circuits, flash memory, graphics chips, embedded processors and other devices related to communications and computing. Founded by semiconductor pioneers Robert Noyce and Gordon Moore and widely associated with the executive leadership and vision of Andrew Grove, Intel combines advanced chip design capability with a leading-edge manufacturing capability. Though Intel was originally known primarily to engineers and technologists, its "Intel Inside" advertising campaign of the 1990s made it a household name, along with its Pentium processors.
Intel was an early developer of SRAM and DRAM memory chips, and this represented the majority of its business until 1981. Although Intel created the world's first commercial microprocessor chip in 1971, it was not until the success of the personal computer (PC) that this became its primary business. During the 1990s, Intel invested heavily in new microprocessor designs fostering the rapid growth of the computer industry. During this period Intel became the dominant supplier of microprocessors for PCs, and was known for aggressive and sometimes illegal tactics in defense of its market position, particularly againstAdvanced Micro Devices (AMD), as well as a struggle with Microsoft for control over the direction of the PC industry.[5][6]
The 2013 rankings of the world's 100 most valuable brands published by Millward Brown Optimor showed the company's brand value at number 61.[7]
Intel has also begun research into electrical transmission and generation.[8][9] Intel has recently introduced a 3-D transistor that improves performance and energy efficiency.[10] Intel has begun mass-producing this 3-D transistor, named the Tri-Gate transistor, with their 22 nm process, which is currently used in their 3rd generation core processors initially released on April 29, 2012.[11] In 2011, SpectraWatt Inc., a solar cell spinoff of Intel, filed for bankruptcy under Chapter 11.[12] In June 2013, Intel unveiled its fourth generation of Intel Core processors (Haswell) in an event named Computex in Taipei.[13]
The Open Source Technology Center at Intel hosts PowerTOP and LatencyTOP, and supports other open-source projects such as Wayland, Intel Array Building Blocks, Threading Building Blocks (TBB), and Xen.[14][15]
Intel is a portmanteau of the words integrated and electronics. The fact that "intel" is the term for intelligence information also made the name appropriate.
AMD is the second largest maker of personal computer microprocessors after Intel. They also make flash memory, integrated circuits for networking devices, and programmable logic devices. AMD reports that it has sold over 100 million x86 (Windows-compatible) microprocessors. Its Athlon (formerly called the "K7") microprocessor, delivered in mid-1999, was the the first to support a 200 MHz bus. In March, 2000, AMD announced the first 1 gigahertz PC microprocessor in a new version of the Athlon.
Founded in 1969, AMD along with Cyrix has often offered computer manufacturers a lower-cost alternative to the microprocessors from Intel. AMD develops and manufactures its processors and other products in facilities in Sunnyvale, California, and Austin,Texas. A new fabrication facility was opened in Dresden, Germany, in 1999.
The lower cost of AMD's microprocessors was a contributor to lower PC prices in the 1998-2000 period. Reviewers generally rated the K6 and Athlon equivalent to or slightly better than comparable Pentium microprocessors from Intel. In addition to "the first mainstream 200 MHz system bus," Athlon includes a superscalarpipelining floating point unit, and a programmable L1 and L2. The Athlon uses AMD's aluminum 0.18 micron technology.
AMD FX Processors
FEATURES
New Instruction Capabilities
- AVX - Advanced Vector Extensions increase parallelism for scientific and 3D apps using heavy floating point calculations
- FMA4 and XOP – Floating-Point Vector Multiply-Accumulate and eXtended Operations improves throughput and performance on many integer and floating point vector functions
- AES - Advanced Encryption Standard increases performance on encryption apps like TrueCrypt® and PCMark®
AMD FX Processors
We call it the new AMD FX 8-Core Processor Black Edition and it's unlocked for your overclocking pleasure.1 Experience unmatched multitasking and pure core performance with the industry's first 32nm 8-core desktop processor. Get the speed you crave with AMD Turbo CORE Technology to push your core frequencies to the limit when you need it most. Go beyond the limits of maximum speed with easy-to-use AMD OverDrive™ technology and AMD Catalyst™ Control Center™ software suites. But the best part of all? You'll get all this impressive performance at an unbelievable price. You'll be asking yourself "what competition?" in no time.
AMD FX 8-Core Processors
- The industry's first and only native 8-core desktop processor for unmatched multitasking and pure core performance with "Bulldozer" architecture.
- New 32 nanometer die shrink designed to reduce leakage for improved efficiency, increased clock rate headroom and better thermals.
AMD Turbo CORE Technology
- AMD FX Processors come equipped with AMD Turbo CORE Technology.2 AMD Turbo CORE Technology is a performance boosting technology that helps increase performance on the applications that need it the most.
AMD Balanced Smart Cache
- Shared L3 cache ( up to 8MB)
- Improved scheduling and pre-fetch capabilities
- 64-ways (16-ways/sub-cache)
- Increased data queue sizes
- Coherency for 8-cores
AMD Wide Floating Point Accelerator
- Shared FP Scheduler
- Dual 128-bit Floating point engines – capable of teaming together for 256-bit AVX instructions or operating separately with each core
HyperTransport™ Technology
- One 16-bit link at up to 5600MT/s
- Up to 8.0GB/s HyperTransport™ I/O bandwidth; Up to 16GB/s in HyperTransport Generation 3.0 mode
- Up to 37GB/s total delivered processor-to-system bandwidth (HyperTransport bus + memory bus)
Benefit: Quick access times to system I/O for better performance.
Integrated DRAM Controller with AMD Memory Optimizer Technology
- A high-bandwidth, low-latency integrated memory controller
- Supports up to DDR3-1866
- Supports new low voltage memories of 1.35V and 1.2V
- Up to 29.9GB/s memory bandwidth for DDR3
- New Pre-Fetcher improvements
- Direct communications to each core in Dual-Core module (APIC registers in each core)
Benefit: Optimized memory controller to feed more cores.
AMD Virtualization™ (AMD-V™) Technology with IOMMU
- Silicon feature-set enhancements designed to improve the performance, reliability and security of existing and future virtualization environments by allowing virtualized applications with direct and rapid access to their allocated memory.
- IOMMU is an extension to AMD64 architecture to support address translation and access protection on DMA transfers
- Security for User Level application and Virtual Machine guest operating system
- Address translation and access control
- Device isolation
- Device assignment in virtualized systems
- Security and trusted boot support
- Unified interrupt management
Benefit: Helps virtualization software to run more securely and efficiently enabling a better experience when dealing with virtual systems
AMD PowerNow!™ AMD Technology (Cool'n'Quiet™ Technology)
- Enhanced power management features which automatically and instantaneously adjusts performance states and features based on processor performance requirements
- C6 power state flushes the cache and removes voltage from individual cores to help reduce power consumption
- CC6 power state puts all cores in C6 into an even lower power state
- for quieter operation and reduced power requirements
- Separate memory controller power control
- IO-based c-state interface
- Works automatically without the need for drivers or BIOS enablement.
- Power can be switched on or off within a single clock cycle, saving energy with minimal impact to performance
Benefit: Helps users get more efficient performance by dynamically activating or turning off parts of the processor.
AMD FX PROCESSORS | ||||||
---|---|---|---|---|---|---|
Model Number | Frequency | Total L2 Cache | L3 Cache | Packaging | Thermal Design Power | CMOS Technology |
FX 9590* | 4.7/5.0 GHz | 8MB | 8MB | socket AM3+ | 220W | 32nm SOI |
FX 9370* | 4.4/4.7 GHz | 8MB | 8MB | socket AM3+ | 220W | 32nm SOI |
FX 8370 | 4.0/4.3 GHz | 8MB | 8MB | socket AM3+ | 125W | 32nm SOI |
FX 8370E | 3.3/4.3 GHz | 8MB | 8MB | socket AM3+ | 95W | 32nm SOI |
FX 8350 | 4.0/4.2 GHz | 8MB | 8MB | socket AM3+ | 125W | 32nm SOI |
FX 8320 | 3.5/4.0 GHz | 8MB | 8MB | socket AM3+ | 125W | 32nm SOI |
FX 8320E | 3.2/4.0 GHz | 8MB | 8MB | socket AM3+ | 95W | 32nm SOI |
FX 6350 | 3.9/4.2 GHz | 6MB | 8MB | socket AM3+ | 125W | 32nm SOI |
FX 6300 | 3.5/4.1 GHz | 6MB | 8MB | socket AM3+ | 95W | 32nm SOI |
FX 6200 | 3.8/4.1 GHz | 6MB | 8MB | socket AM3+ | 125W | 32nm SOI |
FX 6100 | 3.3/3.9 GHz | 6MB | 8MB | socket AM3+ | 95W | 32nm SOI |
FX 4350 | 4.2/4.3 GHz | 4MB | 8MB | socket AM3+ | 125W | 32nm SOI |
FX 4300 | 3.8/4.0 GHz | 4MB | 4MB | socket AM3+ | 95W | 32nm SOI |
FX 4130 | 3.8/3.9 Ghz | 4MB | 4MB | socket AM3+ | 125W | 32nm SOI |
FX 4100 | 3.6/3.8 Ghz | 4MB | 8MB | socket AM3+ | 95W | 32nm SOI |
*Featuring a 220 Watt TDP, the AMD FX™ 9000 Series processors have special system requirements including a robust liquid cooling system. For more information, see the AMD FX™ 9000 Series system requirements page.
AMD64 Technology | Yes |
Simultaneous 32- & 64-bit computing | Yes |
L1 Cache (Instruction + Data) per core | 128KB (64KB + 64KB) |
L2 Cache (1MB per core) | 8MB or 6MB or 4MB |
L3 Cache | 8MB (shared L3) |
HyperTransport™ Technology | HyperTransport™ Technology up to 4000MT/s full duplex, or up to 16.0GB/s I/O Bandwidth |
Integrated DDR3 Memory Controller | Yes |
Memory Controller Width | 128-bit |
Type of Memory Supported | Up to DDR3 1866 |
Memory Bandwidth | Up to 21 GB/s dual channel memory bandwidth |
Total Processor-to-system Bandwidth (HyperTransport plus memory bandwidth) | Up to 37 GB/s |
Process Technology | 32 nanometer, SOI (silicon-on-insulator) Technology |
Packaging | AM3+ |
Thermal Design Power | 220W, 125W, & 95W |
Manufacturing Sites | GLOBALFOUNDRIES Dresden, Germany |
AMD FX PROCESSORS | ||||||
---|---|---|---|---|---|---|
Model Number | Frequency | Total L2 Cache | L3 Cache | Packaging | Thermal Design Power | CMOS Technology |
FX 9590* | 4.7/5.0 GHz | 8MB | 8MB | socket AM3+ | 220W | 32nm SOI |
FX 9370* | 4.4/4.7 GHz | 8MB | 8MB | socket AM3+ | 220W | 32nm SOI |
FX 8370 | 4.0/4.3 GHz | 8MB | 8MB | socket AM3+ | 125W | 32nm SOI |
FX 8370E | 3.3/4.3 GHz | 8MB | 8MB | socket AM3+ | 95W | 32nm SOI |
FX 8350 | 4.0/4.2 GHz | 8MB | 8MB | socket AM3+ | 125W | 32nm SOI |
FX 8320 | 3.5/4.0 GHz | 8MB | 8MB | socket AM3+ | 125W | 32nm SOI |
FX 8320E | 3.2/4.0 GHz | 8MB | 8MB | socket AM3+ | 95W | 32nm SOI |
FX 6350 | 3.9/4.2 GHz | 6MB | 8MB | socket AM3+ | 125W | 32nm SOI |
FX 6300 | 3.5/4.1 GHz | 6MB | 8MB | socket AM3+ | 95W | 32nm SOI |
FX 6200 | 3.8/4.1 GHz | 6MB | 8MB | socket AM3+ | 125W | 32nm SOI |
FX 6100 | 3.3/3.9 GHz | 6MB | 8MB | socket AM3+ | 95W | 32nm SOI |
FX 4350 | 4.2/4.3 GHz | 4MB | 8MB | socket AM3+ | 125W | 32nm SOI |
FX 4300 | 3.8/4.0 GHz | 4MB | 4MB | socket AM3+ | 95W | 32nm SOI |
FX 4130 | 3.8/3.9 Ghz | 4MB | 4MB | socket AM3+ | 125W | 32nm SOI |
FX 4100 | 3.6/3.8 Ghz | 4MB | 8MB | socket AM3+ | 95W | 32nm SOI |
*Featuring a 220 Watt TDP, the AMD FX™ 9000 Series processors have special system requirements including a robust liquid cooling system. For more information, see the AMD FX™ 9000 Series system requirements page.
AMD64 Technology | Yes |
Simultaneous 32- & 64-bit computing | Yes |
L1 Cache (Instruction + Data) per core | 128KB (64KB + 64KB) |
L2 Cache (1MB per core) | 8MB or 6MB or 4MB |
L3 Cache | 8MB (shared L3) |
HyperTransport™ Technology | HyperTransport™ Technology up to 4000MT/s full duplex, or up to 16.0GB/s I/O Bandwidth |
Integrated DDR3 Memory Controller | Yes |
Memory Controller Width | 128-bit |
Type of Memory Supported | Up to DDR3 1866 |
Memory Bandwidth | Up to 21 GB/s dual channel memory bandwidth |
Total Processor-to-system Bandwidth (HyperTransport plus memory bandwidth) | Up to 37 GB/s |
Process Technology | 32 nanometer, SOI (silicon-on-insulator) Technology |
Packaging | AM3+ |
Thermal Design Power | 220W, 125W, & 95W |
Manufacturing Sites | GLOBALFOUNDRIES Dresden, Germany |
AMD A-Series APU Processors
FEATURES
Get evolved with AMD’s next-generation APU
Introducing AMD’s most advanced APU technology. The AMD A10-7870K challenges the very definition of a processor with 12 Compute Cores (4 CPU + 8 GPU)* and innovative Graphics Core Next (GCN) architecture.1
*Visit amd.com/ComputeCores to learn more about compute cores
Features
Tuned for Modern Workloads
AMD A-Series APUs utilize the latest AMD Turbo Core technologies to maximum CPU and GPU performance in your latest applications, enabling up to 4.1GHz of CPU performance to deliver an amazing experience
Get fantastic performance with GCN architecture
Immerse yourself in leading-edge graphics technology with Graphics Core Next (GCN) architecture from AMD. This third-generation technology unlocks advanced features and the stunning performance of AMD Radeon™ graphics.1
Raise your game with DirectX™ 12, Vulkan™, & Mantle
The new AMD A-Series APUs support the latest graphics APIs to bring next generation games to life. With support for these latest technologies in the latest AMD APUs, you can game at unprecedented levels of performance, with impressive effects and details.2
Experience breathtaking immersive audio
AMD TrueAudio technology provides 32-channel surround audio to make games sound better and deliver more accurate voice recognition. Experience a whole new level of immersion.3
Unlock your system’s full compute potential with HSA
Revolutionary Heterogeneous System Architecture (HSA) is a new standard in processor design where the CPU and GPU work together in harmony. With HSA, the full potential of AMD hardware enables more efficient performance, so applications are fast and responsive.
SPECS
AMD A-SERIES ACCELERATED PROCESSOR MODEL NUMBER AND FEATURE COMPARISONS | ||||||||
---|---|---|---|---|---|---|---|---|
Model | Radeon™ Brand | Compute Cores* | CPU Clock Speed | GPU Clock Speed | TDP | Total L2 Cache | DDR3 Speed | Display Capabilities |
A10-7870K* | Radeon™ R7 |
12 (4 CPU + 8GPU)
|
4.1 GHz/ 3.9 GHz
| 866 MHz | 95W | 4 MB | 2133 | HDMI 1.4a, Display Port 1.2, DVI, AMD Freesync™ technology |
A10-7850K4 | Radeon™ R7 graphics | 12 (4 CPU + 8GPU) | 4.0 GHz/ 3.7 GHz | 720 MHz | 95 W | 4 MB | 2133 | HDMI 1.4a, Display Port 1.2, DVI, AMD Freesync™ technology |
A10-7800 | Radeon™ R7 graphics | 12 (4 CPU + 8 GPU) | 3.9 GHz/ 3.5 GHz | 720 MHz | 65 W/ 45 W | 4 MB | 2133 | HDMI 1.4a, Display Port 1.2, DVI, AMD Freesync™ technology |
A10-7700K4 | Radeon™ R7 graphics | 10 (4 CPU + 6GPU) | 3.8 GHz/ 3.4 GHz | 720 MHz | 95 W | 4 MB | 2133 | HDMI 1.4a, Display Port 1.2, DVI, AMD Freesync™ technology |
A8-7670K | Radeon™ R7 graphics | 10 (4 CPU + 6 GPU)³ | 3.9 GHz/3.6 GHz | 757 MHz | 95 W | 4 MB | 2133 | HDMI 1.4a, Display Port 1.2, DVI, AMD Freesync™ technology |
A8-7650K | Radeon™ R7 graphics | 10 (4 CPU + 6 GPU)³ | 3.8 GHz/3.3 GHz | 720 MHz | 95 W | 4 MB | 2133 | HDMI 1.4a, Display Port 1.2, DVI, AMD Freesync™ technology |
A8-7600 | Radeon™ R7 graphics | 10 (4 CPU + 6 GPU) | 3.8 GHz/ 3.1 GHz | 720 MHz | 65 W/ 45 W | 4 MB | 2133 | HDMI 1.4a, Display Port 1.2, DVI, AMD Freesync™ technology |
A6-7400K4 | Radeon™ R5 graphics | 6 (2 CPU + 4 GPU) | 3.9 GHz/ 3.5 GHz | 756 MHz | 65 W/ 45 W | 1 MB | 1866 | HDMI 1.4a, Display Port 1.2, DVI, AMD Freesync™ technology |
AMD PRO A-SERIES ACCELERATED PROCESSORS | ||||||||
---|---|---|---|---|---|---|---|---|
Model | Radeon™ Brand | Compute Cores* | CPU Clock Speed | GPU Clock Speed | TDP | Total L2 Cache | DDR3 Speed | Display Capabilities |
A10 PRO-7850B | Radeon™ R7 graphics | 12 (4 CPU + 8GPU) | 4.0 GHz/ 3.7 GHz | 720 MHz | 95 W | 4 MB | 2133 | HDMI 1.4a, Display Port 1.2, DVI |
A10 PRO-7800B | Radeon™ R7 graphics | 12 (4 CPU + 8GPU) | 3.9 GHz/ 3.5 GHz | 720 MHz | 65 W/ 35 W | 4 MB | 2133 | HDMI 1.4a, Display Port 1.2, DVI |
A8 PRO-7600B | Radeon™ R7 graphics | 10 (4 CPU + 6GPU) | 3.8 GHz/ 3.1 GHz | 720 MHz | 65 W/ 35 W | 4 MB | 2133 | HDMI 1.4a, Display Port 1.2, DVI |
A6 PRO-7400B | Radeon™ R5 graphics | 6 (2 CPU + 4GPU) | 3.9 GHz/ 3.5 GHz | 756 MHz | 65 W/ 35 W | 1 MB | 1866 | HDMI 1.4a, Display Port 1.2, DVI |
A4 PRO-7350B | Radeon™ R5 graphics | 5 (2 CPU + 3GPU) | 3.8 GHz/ 3.4 GHz | 514 MHz | 65 W/ 35 W | 1 MB | 1866 | HDMI 1.4a, Display Port 1.2, DVI |
A4 PRO-7300B | Radeon™ HD8470D graphics | N/A | 4.0 GHz/ 3.8 GHz | 800 MHz | 65 W | 1 MB | 1600 | HDMI 1.4a, Display Port 1.2, DVI |
AMD A-SERIES ACCELERATED PROCESSOR MODEL NUMBER AND FEATURE COMPARISONS | |||||||||
---|---|---|---|---|---|---|---|---|---|
Model | Radeon™ Brand | CPU Clock Speed | CPU Cores on Die | TDP | Total L2 Cache | Radeon™ Cores on Die* | GPU Clock Speed | DDR3 Speed | Display Capabilities |
A10-6800K4 | HD 8670D | 4.4 GHz/ 4.1 GHz | 4 cores | 100 W | 4 MB | 384 | 844 MHz | 2133 | HDMI 1.4a, Display Port 1.2, DVI |
A10-6790K4 | HD 8670D | 4.3 GHz/ 4.0 GHz | 4 cores | 100 W | 4 MB | 384 | 844 MHz | 1866 | HDMI 1.4a, Display Port 1.2, DVI |
A10-6700 | HD 8670D | 4.3 GHz/ 3.7 GHz | 4 cores | 65 W | 4 MB | 384 | 844 MHz | 1866 | HDMI 1.4a, Display Port 1.2, DVI |
A10-6700T | HD 8670D | 3.5 GHz/ 2.5 GHz | 4 cores | 45 W | 4 MB | 384 | 720 MHz | 1866 | HDMI 1.4a, Display Port 1.2, DVI |
A10-5800K4 | HD 7660D | 4.2 GHz/ 3.8 GHz | 4 cores | 100 W | 4 MB | 384 | 800 MHz | 1866 | HDMI 1.4a, Display Port 1.2, DVI |
A10-5700 | HD 7660D | 4.0 GHz/ 3.4 GHz | 4 cores | 65 W | 4 MB | 384 | 760 MHz | 1866 | HDMI 1.4a, Display Port 1.2, DVI |
A8-6600K4 | HD 8570D | 4.2 GHz/ 3.9 GHz | 4 cores | 100 W | 4 MB | 256 | 844 MHz | 1866 | HDMI 1.4a, Display Port 1.2, DVI |
A8-6500 | HD 8570D | 4.1 GHz/ 3.5 GHz | 4 cores | 65 W | 4 MB | 256 | 800 MHz | 1866 | HDMI 1.4a, Display Port 1.2, DVI |
A8-6500T | HD 8570D | 3.1 GHz/ 2.1GHz | 4 cores | 45 W | 4 MB | 256 | 720 MHz | 1600 | HDMI 1.4a, Display Port 1.2, DVI |
A8-5600K4 | HD 7560D | 3.9 GHz/ 3.6 GHz | 4 cores | 100 W | 4 MB | 256 | 760 MHz | 1866 | HDMI 1.4a, Display Port 1.2, DVI |
A8-5500 | HD 7560D | 3.7 GHz/ 3.2 GHz | 4 cores | 65W | 4 MB | 256 | 760 MHz | 1866 | HDMI 1.4a, Display Port 1.2, DVI |
A8-3850 | HD 6550D | 2.9 GHz | 4 cores | 100W | 4 MB | 400 | 600 MHz | 1866 | HDMI 1.1a, Display Port 1.2, DVI |
A8-3820 | HD 6550D | 2.8 GHz/ 2.5 GHz | 4 cores | 65 W | 4 MB | 400 | 600 MHz | 1866 | HDMI 1.1a, Display Port 1.2, DVI |
A8-3800 | HD 6550D | 2.7 GHz/ 2.4 GHz | 4 cores | 65 W | 4 MB | 400 | 600 MHz | 1866 | HDMI 1.1a, Display Port 1.2, DVI |
A6-6400K | HD 8470D | 4.1 GHz/ 3.9 GHz | 2 cores | 65 W | 1 MB | 192 | 800 MHz | 1866 | HDMI 1.4a, Display Port 1.2, DVI |
A6-5400K | HD 7540D | 3.8 Ghz/ 3.6 GHz | 2 cores | 65 W | 1 MB | 192 | 760 MHz | 1866 | HDMI 1.4a, Display Port 1.2, DVI |
A6-5200 | HD 8400 | 2.0 Ghz | 4 cores | 25 W | 2 MB | 128 | 600 MHz | 1600 | HDMI 1.4a, Display Port 1.2, DVI |
A6-3670K4 | HD 6530D | 2.7 GHz | 4 cores | 100 W | 4 MB | 320 | 444 MHz | 1866 | HDMI 1.1a, Display Port 1.2, DVI |
A6-3650 | HD 6530D | 2.6 GHz | 4 cores | 100 W | 4 MB | 320 | 443 MHz | 1866 | HDMI 1.1a, Display Port 1.2, DVI |
A6-3620 | HD 6530D | 2.5 GHz/ 2.2 GHz | 4 cores | 65 W | 4 MB | 320 | 444 MHz | 1866 | HDMI 1.1a, Display Port 1.2, DVI |
A6-3600 | HD 6530D | 2.4 GHz/ 2.1 GHz | 4 cores | 65 W | 4 MB | 320 | 443 MHz | 1866 | HDMI 1.1a, Display Port 1.2, DVI |
A6-3500 | HD 6530D | 2.4 GHz/ 2.1 GHz | 3 cores | 65 W | 3 MB | 320 | 443 MHz | 1866 | HDMI 1.1a, Display Port 1.2, DVI |
A4-7300 | HD 8470D | 4.0GHz/ 3.8GHz | 2 cores | 65W/45W | 1 MB | 192 | 800 MHz | 1600 | HDMI 1.4a, Display Port 1.2, DVI |
A4-6320 | HD 8370D |
4.0GHz/
3.9GHz | 2 cores | 65 W | 1 MB | 128 | 760 MHz | 1600 | HDMI 1.4a, Display Port 1.2, DVI |
A4-6300 | HD 8370D | 3.9GHz/ 3.7GHz | 2 cores | 65 W | 1 MB | 128 | 760 MHz | 1600 | HDMI 1.4a, Display Port 1.2, DVI |
A4-5300 | HD 7480D | 3.6 Ghz/ 3.4 GHz | 2 cores | 65 W | 1 MB | 128 | 723 MHz | 1600 | HDMI 1.4a, Display Port 1.2, DVI |
A4-5000 | HD 8330 | 1.50 Ghz | 4 cores | 15 W | 2 MB | 128 | 500 MHz | 1600 | HDMI 1.4a, Display Port 1.2, DVI |
A4-4020 | HD 7480D | 3.2 Ghz/ 3.4 Ghz | 2 cores | 65 W | 1 MB | 128 | 760 MHz | 1333 | HDMI 1.4a, Display Port 1.2, DVI |
A4-4000 | HD 7480D | 3.2G hz/ 3.0G Hz | 2 cores | 65 W | 1 MB | 160 | 720 MHz | 1333 | HDMI 1.4a, Display Port 1.2, DVI |
A4-3400 | HD 6410D | 2.7 GHz | 2 cores | 65 W | 1 MB | 160 | 600 MHz | 1600 | HDMI 1.1a, Display Port 1.2, DVI |
A4-3300 | HD 6410D | 2.5 GHz | 2 cores | 65 W | 1 MB | 160 | 443 MHz | 1600 | HDMI 1.1a, Display Port 1.2, DVI |
AMD Athlon™ APUs
FEATURES
Upgradable platform
Designed to grow as your needs do.
- Utilize the flexible AM1 platform and select the AMD Athlon™ or AMD Sempron™ APU that’s right for you
- Pack more performance into your rig as the AM1 platform updates and improves
Incredible value
Take advantage with affordable, multitasking performance and sharp, vivid HD graphics
- AMD Radeon™ R3 graphics help exceed expectations for accelerated HD playback and everyday performance
- Socketed AM1 motherboards can enable small, sleek form factors with extraordinary value
Latest technology and features
Enjoy dynamic interactivity and exceptional features, including:
- Microsoft® DirectX® 11.2 and support for Windows 8.1 for an immersive experience on the most advanced OS
- Video Codec Engine (VCE) enables fast encoding across multiple devices so you can enjoy media almost anywhere
- Support for lightning-fast USB 3.0 and SATA 6GBps connectivity so you can access the content you want, whenever you need it
SPECS
AMD ATHLON™ APU PROCESSORS | ||
---|---|---|
Model Number | 5350 | 5150 |
AMD Radeon™ Brand | Radeon™ R3 Graphics | Radeon™ R3 Graphics |
CPU Cores | 4 | 4 |
CPU Clock Speed | 2.05 GHz | 1.6 GHz |
TDP | 25W | 25W |
Total Dedicated L2 Cache | 2MB | 2MB |
Radeon™ Cores | 128 | 128 |
GPU Clock Speed | 600 MHz | 600 MHz |
GCN Technology | Yes | Yes |
Platform | AM1 | AM1 |
DDR3 Speed | 1600 | 1600 |
OTHER AMD ATHLON PROCESSORS
Affordable performance for everyday computing
Get to fun, faster, with a system that boots and loads applications quickly and easily. Enjoy reliable, responsive performance on thousands of software applications—including those that let you communicate with family and friends.
Features & Benefits
- Affordable - performance
- Full-featured to improve your computing experience
- AMD64 technology
- HyperTransport™ technology
- Enjoy full compatibility with the tools you use daily
- Get more value from your PC
- Reliability from an industry leader
More information:
AMD Sempron™ APUs
FEATURES
Upgradable platform
Designed to grow as your needs do.
- Utilize the flexible AM1 platform and select the AMD Athlon™ or AMD Sempron™ APU that’s right for you
- Pack more performance into your rig as the AM1 platform updates and improves
Incredible value
Take advantage with affordable, multitasking performance and sharp, vivid HD graphics
- AMD Radeon™ R3 graphics help exceed expectations for accelerated HD playback and everyday performance
- Socketed AM1 motherboards can enable small, sleek form factors with extraordinary value
Latest technology and features
Enjoy dynamic interactivity and exceptional features, including:
- Microsoft® DirectX® 11.2 and support for Windows 8.1 for an immersive experience on the most advanced OS
- Video Codec Engine (VCE) enables fast encoding across multiple devices so you can enjoy media almost anywhere
- Support for lightning-fast USB 3.0 and SATA 6GBps connectivity so you can access the content you want, whenever you need it
SPECS
AMD SEMPRON™ APU PROCESSORS | ||
---|---|---|
Model Number | 3850 | 2650 |
AMD Radeon™ Brand | Radeon™ R3 Graphics | Radeon™ R3 Graphics |
CPU Cores | 4 | 2 |
CPU Clock Speed | 1.3 GHz | 1.45 GHz |
TDP | 25W | 25W |
Total Dedicated L2 Cache | 2MB | 1MB |
Radeon™ Cores | 128 | 128 |
GPU Clock Speed | 450 MHz | 400 MHz |
GCN Technology | Yes | Yes |
Platform | AM1 | AM1 |
DDR3 Speed | 1600 | 1333 |
OTHER AMD SEMPRON PROCESSORS
Affordable performance for everyday computing
Get to fun, faster, with a system that boots and loads applications quickly and easily. Enjoy reliable, responsive performance on thousands of software applications—including those that let you communicate with family and friends.
Features & Benefits
- Affordable - performance
- Full-featured to improve your computing experience
- AMD64 technology
- HyperTransport™ technology
- Enjoy full compatibility with the tools you use daily
- Get more value from your PC
- Reliability from an industry leader
More information:
AMD Phenom™ II Processors
FEATURES
AMD Phenom™ II X6 Six-Core Processors
The backbone of the VISION Black technology platform, the new AMD Phenom™ II X6 six-core processors are the fastest CPUs AMD has ever created. The AMD Phenom™ II X6 six-core processors are also the world's only six-core processors for under $200*. At the heart of a VISION Black Technology platform, the AMD Phenom II X6 processor is the most advanced AMD desktop processor and features innovative AMD Turbo CORE technology to adjust to the dynamic needs of performance users.
New AMD Turbo CORE Technology
Both the AMD Phenom™ II X6 1055T and 1090T come equipped with AMD's new Turbo CORE technology. AMD Turbo CORE technology is a performance boosting technology that automatically switches from six cores to three turbocharged core for applications that just need raw speed over multiple cores. While in Turbo CORE mode, the AMD Phenom™ II X6 1090T shifts frequency speed from 3.2GHz on six cores, to 3.6GHz on three cores, making it the fastest processor AMD has ever created.
AMD Phenom™ II Triple and Quad-Core Processors
- True quad-core and triple-core designed from the ground up for better communication between cores.
- Benefit: Cores can communicate on die rather than on package for better performance
AMD64 with Direct Connect Architecture
- Helps improve system performance and efficiency by directly connecting the processors, the memory controller, and the I/O to the CPU.
- Designed to enable simultaneous 32- and 64-bit computing
- Integrated Memory Controller
- Benefits: Increases application performance by dramatically reducing memory latency
- Scales memory bandwidth and performance to match compute needs
- HyperTransport™ Technology provides up to 16.0GB/s peak bandwidth per processor—reducing I/O bottlenecks
- Up to 37GB/s total delivered processor-to-system bandwidth (HyperTransport bus + memory bus)
AMD Balanced Smart Cache
- Shared L3 cache (either 6MB or 4MB)
- 512K L2 cache per core
- Benefit: Shortened access times to the highly accessed data for better performance.
AMD Wide Floating Point Accelerator
- 128-bit floating point unit (FPU)
- High performance (128bit internal data path) floating point unit per core.
- Benefit: Larger data paths and quicker floating point calculations for better performance.
HyperTransport™ Technology
- One 16-bit link at up to 4000MT/s
- Up to 8.0GB/s HyperTransport™ I/O bandwidth; Up to 16GB/s in HyperTransport Generation 3.0 mode
- Up to 37GB/s total delivered processor-to-system bandwidth (HyperTransport bus + memory bus)
- Benefit: Quick access times to system I/O for better performance.
Integrated DRAM Controller with AMD Memory Optimizer Technology
- A high-bandwidth, low-latency integrated memory controller
- Supports PC2-8500 (DDR2-1066); PC2-6400 (DDR2-800), PC2-5300 (DDR2-667), PC2-4200 (DDR2-533) or PC2-3200 (DDR2-400) SDRAM unbuffered DIMMs – AM2+
- Support for unregistered DIMMs up to PC2 8500(DDR2-1066MHz) and PC3 10600 (DDR3-1333MHz) – AM3
- Up to 17.1GB/s memory bandwidth for DDR2 and up to 21GB/s memory bandwidth for DDR3
- Benefit: Quick access to system memory for better performance.
AMD Virtualization™ (AMD-V™) Technology With Rapid Virtualization Indexing
- Silicon feature-set enhancements designed to improve the performance, reliability, and security of existing and future virtualization environments by allowing virtualized applications with direct and rapid access to their allocated memory.
- Benefit: Helps virtualization software to run more securely and efficiently enabling a better experience when dealing with virtual systems
AMD PowerNow!™ Technology (Cool’n’Quiet™ Technology)
- Enhanced power management features which automatically and instantaneously adjusts performance states and features based on processor performance requirements
- For quieter operation and reduced power requirements
- Benefit: Enables cooler and quieter platform designs by providing extremely efficient performance and energy usage.
AMD CoolCore™ Technology
- Reduces processor energy consumption by turning off unused parts of the processor. For example, the memory controller can turn off the write logic when reading from memory, helping reduce system power.
- Works automatically without the need for drivers or BIOS enablement.
- Power can be switched on or off within a single clock cycle, saving energy with no impact to performance.
- Benefit: Helps users get more efficient performance by dynamically activating or turning off parts of the processor.
Dual Dynamic Power Management™
- Enables more granular power management capabilities to reduce processor energy consumption.
- Separate power planes for cores and memory controller, for optimum power consumption and performance, creating more opportunities for power savings within the cores and memory controller.
- Benefit: Helps improve platform efficiency by providing on demand memory performance while still allowing for decreased system power consumption
*As of 4/27 AMD offers a six core consumer CPU at a lower price than competing four core consumer CPUs from Intel. Intel Core i5 750 priced at $199 USD as advertised on www.newegg.com on 4/15. AMD's SEP for the AMD Phenom II X6 1055T processor is $199.
MODEL NUMBER COMPARISON
AMD PHENOM™ II X6 PROCESSOR | ||||||
---|---|---|---|---|---|---|
Model Number | Frequency | Total L2 Cache | L3 Cache | Packaging | Thermal Design Power | CMOS Technology |
1100T* | 3.3 GHz | 3MB | 6MB | socket AM3 | 125W | 45nm SOI |
1090T* | 3.2 GHz | 3MB | 6MB | socket AM3 | 125W | 45nm SOI |
1075T | 3.0 GHz | 3MB | 6MB | socket AM3 | 125W | 45nm SOI |
1065T | 2.9 GHz | 3MB | 6MB | socket AM3 | 95W | 45nm SOI |
1055T | 2.8 GHz | 3MB | 6MB | socket AM3 | 125W | 45nm SOI |
1045T | 2.7 GHz | 3MB | 6MB | socket AM3 | 95W | 45nm SOI |
AMD PHENOM™ II X4 PROCESSOR | ||||||
---|---|---|---|---|---|---|
Model Number | Frequency | Total L2 Cache | L3 Cache | Packaging | Thermal Design Power | CMOS Technology |
980* | 3.7 GHz | 2MB | 6MB | socket AM3 | 125W | 45nm SOI |
975* | 3.6 GHz | 2MB | 6MB | socket AM3 | 125W | 45nm SOI |
970* | 3.5 GHz | 2MB | 6MB | socket AM3 | 125W | 45nm SOI |
965* | 3.4 GHz | 2MB | 6MB | socket AM3 | 125W | 45nm SOI |
955* | 3.2 GHz | 2MB | 6MB | socket AM3 | 125W | 45nm SOI |
850 | 3.3 GHz | 2MB | | socket AM3 | 95W | 45nm SOI |
ENERGY EFFICIENT AMD PHENOM™ II X4 PROCESSOR PRODUCT MODEL COMPARISONS | ||||||
---|---|---|---|---|---|---|
Model Number | Frequency | Total L2 Cache | L3 Cache | Packaging | Thermal Design power | CMOS Technology |
910e | 2.6GHz | 2MB | 6MB | socket AM3 | 65W | 45nm SOI |
AMD PHENOM™ II X2 PROCESSOR | |||||
---|---|---|---|---|---|
Model Number | Frequency | Total L2 Cache | Packaging | Thermal Design power | CMOS Technology |
565* | 3.4GHz | 1MB | socket AM3 | 80W | 45nm SOI |
560* | 3.3GHz | 1MB | socket AM3 | 80W | 45nm SOI |
AMD PHENOM II X4 B SERIES PROCESSOR | |||||||||||
---|---|---|---|---|---|---|---|---|---|---|---|
Model Number | Cores | Clock Frequency | I/O Bus Speed1 | Package Profile | Memory Speed | Voltage | Max Temp | TDP | Dedicated L2 Cache | L3 Cache | Process Technology |
B97 | 4 | 3.2GHz | 4.0GT/s | Socket AM3 | DDR3-1333 | 0.80-1.425V | 71'C | 95W | 2 | 6 | 45nm SOI |
B95 | 4 | 3.0GHz | 4.0GT/s | Socket AM3 | DDR3-1333 | 0.80 -1.425V | 71'C | 95W | 2 |
6
|
45nm SOI
|
B93
|
4
| 2.8GHz | 4.0GT/s | Socket AM3 | DDR3-1333 | 0.80 -1.425V | 71'C | 95W | 2 | 6 | 45nm SOI |
*Available as Black Edition PIB | |
AMD64 Technology | Yes |
Simultaneous 32- & 64-bit computing | Yes |
L1 Cache (Instruction + Data) per core | 128KB (64KB + 64KB) |
L2 Cache (512KB per core) | 2MB or 1.5MB or 1MB |
L3 Cache | 6MB (shared L3) |
HyperTransport™ Technology | HyperTransport™ Technology up to 4000MT/s full duplex, or up to 16.0GB/s I/O Bandwidth |
Integrated DDR2 Memory Controller | Yes |
Memory Controller Width | 128-bit |
Type of Memory Supported | Support for unregistered DIMMs up to PC2 8500(DDR2-1066MHz) and PC3 10600 (DDR3-1333MHz) |
Memory Bandwidth | up to 21 GB/s dual channel memory bandwidth |
Total Processor-to-system Bandwidth (HyperTransport plus memory bandwidth) | up to 37 GB/s |
Process Technology | 45 nanometer, SOI (silicon-on-insulator) Technology |
Packaging | AM3(938-pin) organic micro PGA |
Thermal Design Power | 140W, 125W, 95W, 80W or 65W |
Manufacturing Sites | GLOBALFOUNDRIES Dresden, Germany |
AMD Athlon™ II Processors
FEATURES
Performance Enhancements
AMD Direct Connect Architecture
An award-winning technology designed to reduce bottlenecks that can exist when multiple components compete for access to the processor bus. Competing x86 systems use a single front-side bus (FSB) which must carry memory access, graphics, and I/O traffic. Eliminate the FSB, and you can reduce delays that competing access requests can cause.
AMD Wide Floating Point Accelerator
Doubles processor bandwidth from 64- to a full 128-Bit Floating-Point math processing pipeline that can double many of the bandwidth paths that help keep it full.
AMD Digital Media XPress™ 2.0 Technology
Provides support for SSE, SSE2, SSE3, SSE4a, and MMX instructions for digital media applications and security.
CPU Architectural Features
True Multi-Core Processing
The extensive AMD64 architectural optimizations and features enable thorough integration of multiple cores within the same processor, with each core having its own L1 and L2 caches.
AMD Dedicated Multi-Cache
Each core has its own dedicated L2 cache, which enables simultaneous independent core access to L2 cache, eliminating the need for cores to arbitrate for cache access. This helps reduce latency on L2 cache accesses.
AMD Virtualization™ (AMD-V™) Technology
Silicon feature-set enhancements designed to improve the performance, reliability, and security of both existing and future virtualization environments.
AMD PowerNow! 3.0 Technology
The latest power management technologies that deliver performance on demand when you need it, and power savings when you don't.
Simultaneous 32-bit and 64-bit Computing
AMD64 technology enables a breakthrough approach to 64-bit computing that doubles the number of registers in the processor and allows PC users to use today’s 32-bit software applications while enabling them to also use the next generation of 64-bit applications.
CPU Power Management Technologies Featured In AMD PowerNow!™ 3.0 Technology
Cool’n’Quiet™ 3.0 Technology
Up to eight different performance states help enhance power efficiency. Simplified performance state transitions can reduce latency and the software overhead of performance state changes.
AMD Dynamic Power Management
Each processor core, and the integrated memory controller and HyperTransport™ controller, is powered by dedicated voltage planes.
Integrated Dual-Channel Memory Controller
Directly connects the processor to memory for optimum performance, low latency, and high throughput.
Multi-Point Thermal Control
The next-generation design features multiple on-die thermal sensors with digital interface. Automatic reduction of p-state when temperature exceeds pre-defined limit. Additional memory thermal management interface.
AMD CoolCore™ Technology
Coarse and fine transistor control that can automatically reduce processor energy consumption by turning off unused parts of the processor.
MODEL NUMBER COMPARISON
AMD ATHLON™ II X4 QUAD-CORE PROCESSOR | |||||
---|---|---|---|---|---|
Model Number | Frequency | CMOS Technology | Total Dedicated L2 Cache | Packaging | Thermal Design Power |
651 | 3.0 GHz | 32nm SOI | 4MB | socket FM1 | 100W |
645 | 3.1 GHz | 45nm SOI | 2MB | socket AM3 | 95W |
641 | 2.8 GHz | 32nm SOI | 4MB | socket FM1 | 100W |
640 | 3.0 GHz | 45nm SOI | 2MB | socket AM3 | 95W |
638 | 2.7 GHz | 32nm SOI | 4MB | socket FM1 | 65W |
631 | 2.6 GHz | 32nm SOI | 4MB | socket FM1 | 100W |
ENERGY EFFICIENT AMD ATHLON™ II X4 QUAD-CORE PROCESSOR | |||||
---|---|---|---|---|---|
Model Number | Frequency | CMOS Technology | Total Dedicated L2 Cache | Packaging | Thermal Design Power |
620e | 2.6 GHz | 45nm SOI | 2MB | socket AM3 | 45W |
615e | 2.5 GHz | 45nm SOI | 2MB | socket AM3 | 45W |
ENERGY EFFICIENT AMD ATHLON™ II X3 TRIPLE-CORE PROCESSOR | |||||
---|---|---|---|---|---|
Model Number | Frequency | CMOS Technology | Total Dedicated L2 Cache | Packaging | Thermal Design Power |
425e | 2.7 GHz | 45nm SOI | 1.5MB | socket AM3 | 45W |
420e | 2.6 GHz | 45nm SOI | 1.5MB | socket AM3 | 45W |
AMD ATHLON™ II X2 DUAL-CORE PROCESSOR | |||||
---|---|---|---|---|---|
Model Number | Frequency | CMOS Technology | Total Dedicated L2 Cache | Packaging | Thermal Design Power |
270 | 3.4 GHz | 45nm SOI | 2MB | socket AM3 | 65W |
265 | 3.3 GHz | 45nm SOI | 2MB | socket AM3 | 65W |
260 | 3.2 GHz | 45nm SOI | 2MB | socket AM3 | 65W |
255 | 3.1 GHz | 45nm SOI | 2MB | socket AM3 | 65W |
250 | 3.0 GHz | 45nm SOI | 2MB | socket AM3 | 65W |
240 | 2.8 GHz | 45nm SOI | 2MB | socket AM3 | 65W |
ENERGY EFFICIENT AMD ATHLON™ II X2 DUAL-CORE PROCESSOR | |||||
---|---|---|---|---|---|
Model Number | Frequency | CMOS Technology | Total Dedicated L2 Cache | Packaging | Thermal Design Power |
250e | 3.0GHz | 45nm SOI | 2MB | socket AM3 | 45W |
245e | 2.9GHz | 45nm SOI | 2MB | socket AM3 | 45W |
AMD64 Technology | Yes |
Simultaneous 32- & 64-bit computing | Yes |
L1 Cache (Instruction + Data) | 64K of L1 instruction and 64K of L1 data cache per core X2 - 256KB total L1 per processor X3 – 384KB total L1 per processor X4 - 512KB total L1 per processor |
L2 Cache (total dedicated) | X2 - 2MB X3 – 1.5MB X4 - 2MB |
Integrated DDR Memory Controller | Yes |
Memory Controller Width | 128-bit |
Type of Memory Supported | X2 - Support for unregistered DIMMs up to PC2-8500 (DDR2-1066MHz) -AND- PC3-8500 (DDR3-1066MHz) X3 and X4 - Support for unregistered DIMMs up to PC2-8500 (DDR2-1066MHz) -AND- PC3 10600 (DDR3-1333MHz) |
Total Processor-to-System Bandwidth | X2 – Up to 33.1GB/s bandwidth [Up to 17.1 GB/s total bandwidth (DDR3-1066) + 16.0GB/s (HT3)] Up to 28.8GB/s bandwidth [Up to 12.8 GB/s total bandwidth (DDR2-1066) + 16.0GB/s (HT3)] X3 and X4 – Up to 37.3GB/s total bandwidth [Up to 21.3 GB/s memory bandwidth (DDR3-1333) + 16.0GB/s (HT3)] Up to 28.8GB/s bandwidth [Up to 12.8 GB/s total bandwidth (DDR2-1066) + 16.0GB/s (HT3)] |
Thermal Design Power | 45W, 65W and 95W |
Manufacturing Sites | GLOBALFOUNDRIES Fab 1 Module 1. |
Comparison
AMD Athlon™ Processors
AMD Athlon™ X4 Quad-Core Processors
MODEL NUMBER | FREQUENCY | CMOS TECHNOLOGY | TOTAL DEDICATED L2 CACHE | SOCKET | THERMAL DESIGN POWER |
---|---|---|---|---|---|
860K | 4.0GHz/3.7GHz | 28nm | 4MB | FM2+ | 95W |
840 | 3.8GHz/3.1GHz | 28nm | 4MB | FM2+ | 65W |
760K | 4.1GHz/3.8GHz | 32nm | 4MB | FM2/FM2+ | 100W |
750 | 3.9GHz/3.4GHz | 32nm | 4MB | FM2/FM2+ | 65W |
750K | 4.0GHz/3.4GHz | 32nm | 4MB | FM2/FM2+ | 100W |
740 | 3.7GHz/3.2GHz | 32nm | 4MB | FM2/FM2+ | 65W |
AMD Athlon™ X2 Dual-Core Processors
MODEL NUMBER | FREQUENCY | CMOS TECHNOLOGY | TOTAL DEDICATED L2 CACHE | SOCKET | THERMAL DESIGN POWER |
---|---|---|---|---|---|
450 | 3.9GHz/3.5GHz | 28nm | 1MB | FM2+ | 65W |
370K | 4.2GHz/4.0GHz | 32nm | 1MB | FM2/FM2+ | 65W |
350 | 3.9GHz/3.5GHz | 32nm | 1MB | FM2/FM2+ | 65W |
340 | 3.6GHz/3.2GHz | 32nm | 1MB | FM2/FM2+ | 65W |
A small number of AMD Athlon X4 860K processor-in-a-box (PIB) products were shipped between July and October 2014 with an incorrect definition label affixed to the product packaging. This label incorrectly stated the CPU base and boost frequencies as 3.4GHz / 3.9GHz instead of 3.7GHz/4.0GHz. AMD’s warranty for end consumers is not affected.
AMD Sempron™ CPU
FEATURES
Get affordable performance that redefines everyday computing
- Get to fun, fast, with a system that boots and loads applications quickly and easily
- Enjoy reliable, responsive performance on thousands of software applications—including those that let you communicate with family and friends
The AMD64 core provides leading-edge performance for both 32-bit and 64-bit applications
- AMD64 technology provides full-speed support for x86 code base without compromising performance
- 40-bit physical addresses, 48-bit virtual addresses
- Sixteen 64-bit integer registers
- Sixteen 128-bit SSE/SSE2/SSE3 registers
- AMD Digital Media XPress™ provides support for SSE, SSE2, SSE3 and MMX instructions
A high-bandwidth, low-latency integrated DDR memory controller
- Supports PC2-5300 (DDR2-667), PC2-4200 (DDR2-533) or PC2-3200 (DDR2-400) SDRAM unbuffered DIMMs
- Support for 64-bit DDR2 SDRAM memory
- Up to 10.6GB/s memory bandwidth
HyperTransport™ Technology for high speed I/O communication
- One 16-bit link up to 2000MHz bidirectional
- Up to 6.4GB/s HyperTransport™ I/O bandwidth
- Up to 17.0GB/s total delivered processor-to-system bandwidth (HyperTransport bus + memory bus)
Large high performance on-chip cache
FM2/FM2+ MODEL NUMBER COMPARISON
SOCKET | MODEL NUMBER | FREQUENCY | L2 CACHE | THERMAL DESIGN POWER |
---|---|---|---|---|
FM2/FM2+ | 250 | 3.6GHz/3.2GHz | 1MB | 65W |
FM2/FM2+ | 240 | 3.3GHz/2.9GHz | 1MB | 65W |
AM3 COMPARISON
AMD SEMPRON™ CPU | ||||
---|---|---|---|---|
Socket/Technology | Model Number | Frequency | L2 Cache | Thermal Design Power |
Socket AM3 | 150 | 2.9GHz | 1MB | 45W |
Socket AM3 | 145 | 2.8GHz | 1MB | 45W |
Socket AM3 | 140 | 2.7GHz | 1MB | 45W |
FEATURES | AMD SEMPRON™ CPU (SOCKET AM3) | INTEL CELERON® D LGA775 |
---|---|---|
Processor-To-System Bandwidth | System Bus: up to 6.4 GB/s Memory Controller: up to 10.6 GB/s Total: up to 17.0 GB/s | Total: up to 8.0 GB/s |
3D and Multimedia Instructions | 3DNow!™ Professional technology,SSE, SSE2, SSE3 | SSE, SSE2, SSE3 |
L2 Cache | L2 cache: 1MB | Total Cache: 256KB or 512KB |
L1 Cache (Instruction + Data) | 128KB (64KB + 64KB) | 32KB or 64KB |
Process Technology | 45 nanometer SOI technology | 65 nanometer |
Thermal Design Power | 45W | 65W |
AMD Radeon™ Solid State Drives (SSD)
FEATURES
OCZ Barefoot 3 Controller technology – Delivers the performance and endurance you need for an efficient computing experience
Next generation flash – The A19 NAND flash from Toshiba delivers high performance at a cost you can afford
Design – The sleek black alloy housing offers a slimmer 7mm size compatible with desktop PCs as well as ultra-thin notebooks
Acronis® True Image™ HD – Easily transfer games, programs and data from your old hard drive to your AMD Radeon™ R7 series SSD
Warranty – Experience workload endurance rated at 30GB/day of host writes for four years1
Accessories – Includes a free-of-charge 3.5” desktop adapter
SPECS
Physical | |
Usable Capacities | 120GB - 480GB |
NAND Components | Toshiba A19nm Multi-Level Cell (MLC) |
Interface | Serial ATA (SATA) 6Gb/s (SATA III) |
Controller | Indilinx Barefoot 3 M00 |
Form Factor | 2.5 inch, 7mm height |
Dimensions | 99.70 x 69.75 x 7.00 mm |
Weight | 115g |
Reliability / Compatibility | |
Data Path Protection | BCH ECC corrects up to 44 random bits/1KB |
MTBF | 2.3 million hours |
Encryption | 256-bit AES-compliant |
Product Health Monitoring | Self-Monitoring, Analysis and Reporting Technology (SMART) Support |
Endurance | Rated for 30GB/day of host writes for 4 years under typical client workloads |
Serial ATA | Fully compliant with Serial ATA International Organization: Serial ATA Revision 3.2. Fully compliant with ATA/ ATAPI-8 Standard Native Command Queuing (NCQ) |
Operating Systems | Windows, Linux, Mac OSX |
Power Requirements | Standard SATA Power Connector |
Targeted Applications | Client workstations and laptops |
Environmental | |
Power Consumption | Idle: 0.60W Active: 3.45W |
Operating Temperature | 0°C - 70°C |
Storage Temperature | -45°C - 85°C |
Shock Resistance | 1000G/0.5ms |
Vibration (Operational) | 2.17Grms (7-800Hz) |
Vibration (Non-operational) | 3.13Grms (5-800Hz) |
Altitude (Operational) | -1,000ft. to 10,000ft |
Altitude (Non-operational) | -1,000ft. to 40,000ft |
Certifications | UL C/US, FCC, CE, C-Tick, KCC, BSMI, VCCI, WEEE |
PERFORMANCE
RADEON ™ R7 120G SSD | RADEON™ R7 240G SSD | RADEON™ R7 480G SSD | |
---|---|---|---|
Max Capacity | 120GB | 240GB | 480GB |
Max Read2 | 550 MB/s | 550 MB/s | 550 MB/s |
Max Write2 | 470 MB/s | 530 MB/s | 530 MB/s |
FOB Random Read IOPS (4K QD32)3 | 85,000 IOPS | 95,000 IOPS | 100,000 IOPS |
FOB Random Write IOPS (4K QD32)3 | 90,000 IOPS | 90,000 IOPS | 90,000 IOPS |
Steady State Random Write IOPS (4K QD32)4 | 12,000 IOPS | 20,000 IOPS | 23,000 IOPS |
AMD VS INTEL COMPARISSON
These are interesting times for CPU makers. Gone are the days where a few hours’ laptop battery life was considered efficient and where the only computers people had in their homes were noisy, hot desktops. Now, the pre-built desktop PC is all but a dead man walking: in 2013 the market collapsed with desktop sales falling 9.8 percent globally. In emerging markets the story was even worse: a fall of 11.3 percent as users sought smaller, cheaper, less-power hungry devices.
In 2014 there was a bit of a boost as businesses replaced PCs when support for Windows XP ended, but in 2015 shipments again fell. According to analysts, there will only be a "moderate decline" overall because more Windows tablets and hybrids - 2-in-1 laptop/tablets - were sold.
Overall, the result has been upheaval for the silicone industry’s main players. Less than a decade ago, Intel and AMD had the world at their feet. Intel’s distinctive audio logo rang out wherever laptops were sold and AMD’s future was considerably bright thanks to its 2006 acquisition of graphics powerhouse ATI. These chip giants haven't quite kept up with the times, though. The tech landscape is fast changing and Intel and AMD's apparent slowness to switch focus to mobile computing has allowed other chip manufacturers – most notably ARM but also the likes of VIA and Qualcomm – to dominate this huge new market.
Intel vs AMD: Why it matters
If you’re buying a traditional laptop or PC, AMD and Intel are your only choices for processors, but don’t make the mistake of thinking the PC’s slump in popularity means either company is sliding towards irrelevance. Both have ground to make up but in 2014 Intel’s total revenue was $55.8bn (around £36bn) and it was sitting on a cash pile of $5.67bn (around £3.7bn). Intel doesn't make all its money from PC and laptop processors, of course. It also produces graphics processors, wired and wireless network adaptors, server and workstation processors and components, plus set-top box parts. While you won't find an Intel processor in many smartphones or tablets, the firm does produce many SoCs for mobile devices.
AMD is the smaller of the two companies by some margin. For one thing, while Intel builds its own chips in over a dozen fabrication (fab) plants in the USA, Ireland, Israel and China, AMD sold off its last fab in 2009. Today, just like ARM, VIA, MediaTek and others, AMD designs its own chips but outsources the manufacturing. Producing microprocessors is formidably expensive and AMD’s revenue pales in comparison to Intel’s: merely $5.51bn (£3.5bn).
Intel vs AMD: History and breakthroughs
Both companies have a history of innovation. When Intel produced the 8080 processor in 1974, it lay the groundwork for the x86 processors which provided the foundations for desktop PCs for nearly 30 years. It’s an astute marketeer, too: its mid-2000s Centrino platform, consisting of a low-power processor, a wireless chip and a mobile chipset, took the market by storm with its reputation for desktop-class computing power and long battery life. Its shift from the x86 brand to “Pentium” (copyrighting a series of numbers proved impossible) was a similar stroke of PR genius.
The ability of Intel’s marketing department to outspend and out-think others continues. The success of Intel’s Ultrabook trademark might be perilously tied to Microsoft’s stumbling efforts with Windows 8, but the company’s understanding that consumers need short, snappy brands rather than clock frequencies and other jargon endures.
AMD’s position as underdog is a consistent one. Marketing consultant Mercury Research reported AMD hit a record 22 percent share of the market in 2006; now the company hovers around the 17 percent mark, thanks in part to its dominance of the console market: both the Xbox One and PlayStation 4 have custom 8-core AMD 'Jaguar' processors at their hearts.
Arguably, AMD’s largest recent innovation was its acquisition of Graphics Processing Unit (GPU) manufacturer ATI in 2006. The $5.6bn transaction (about £3bn) saw AMD join Intel in being able to deliver integrated graphics chips - that is, GPUs that live on the same chip as the CPU. The result is less graphical horsepower, but vastly reduced power draw and heat output. Forget fire-breathing, discrete graphics cards (last year's Radeon R9 280X drew around 250W at its peak and needed two cooling fans) – AMD understood that the future of silicone lay in reducing power consumption and size as much as in increasing computational power. These days, people don't need more power: they want better battery life from portable devices.
AMD vs Intel: Challenges
On the face of it, both AMD and Intel were well-placed to answer the needs of users as the sales of mobile devices exploded. The desktop PC market was in steady decline, laptop sales were on the rise, and the mobile phone was begging for reinvention. Intel already had an incredibly strong reputation with its laptop Centrino platform, and while AMD’s Turion competitor was a distant second, the race was on to win a market that knew mobility was the future of computing.
Intel started strongly. Remember the netbook? Before the netbook, spending less than £500 on a laptop would net you something slow and bulky with limited battery life. The first netbooks – the likes of the Asus Eee PC 701, released in the UK in 2007 – cost under £200, weighed under a kilo and, while unlikely to be seen at many LAN gaming parties, offered enough processing power to run basic work applications and – critically – applications that ran in web browsers. The processor at its heart? An ultra-low voltage version of the humble Celeron.
The netbook was a critical and commercial success, and Intel capitalised with its Atom processors. This was Intel silicone at its cheapest: bought in batches of a thousand the earliest Atom CPUs were reputed to cost manufacturers under $30, and for a few years the netbook ruled. Consumers wanted small, cheap computers and Intel, with its wealth of experience in mobile processors, was perfectly placed to answer the call.
The problem arrived in tablet form.“We don't know how to make a $500 computer that's not a piece of junk,” said Steve Jobs in 2008. “Netbooks aren’t better than anything,” he added at the 2010 launch of the first generation iPad. Apple’s chief operating officer Tim Cook agreed, describing netbooks as “not a good consumer experience”, and thus the iPad came to be.
The issue for Intel and AMD was not that they failed to anticipate consumer’s preference for mobile devices. The problem was the form factor: the iPad sold 300,000 units on the first day of its availability in 2010. In picking traditional form factor laptops and netbooks, with traditional desktop operating systems built around traditional x86 hardware, Intel and AMD had backed the wrong horse. In fact, Intel, Microsoft and HP had tried to make tablets a success years before the iPad, but the combination of Windows (an OS designed for the keyboard and mouse), short battery life and chunky, heavy hardware meant no-one wanted to use them.
The problem for Intel and AMD wasn’t that the iPad – and following tablets from the likes of Sony, Samsung and others – didn’t need processors. It was that they needed a new type. And the kingdom of the SoC (system on a chip) – in which a computer’s entire functions are embedded on a single chip – was already ruled by British processor giant ARM.
ARM’s processors are a completely different architecture than the traditional chips favoured by Intel and AMD. ARM’s Reduced Instruction Set Computing (RISC) processors are physically simpler than x86 processors, which means they cost less and draw less power. As the iPad – and the stampede of tablets which followed – took off, it seemed AMD and Intel had missed a significant boat. Fast forward to 2015 and the netbook is dead, slain by high-quality tablets that perform well, offer long battery life, and cost much less than a standard laptop.
Intel vs AMD: New form factors
Even Microsoft, long-time ally of x86 hardware, piled on the misery for Intel and AMD. Windows RT, released in late 2012, was the first version of Windows that would run on ARM-powered devices, theoretically giving Microsoft access to low-cost tablets and – potentially – freezing Intel out even more. However, the Windows RT platform flopped: in 2013 Microsoft had to take a $900 million write-down on its unsold Windows RT devices, and the company’s chief financial officer Amy Hood understated things spectacularly when she said “we know we have to do better, particularly on mobile devices.”
While we were impressed with the Surface Pro 3, it's the best of a relatively bad bunch of so-called "two-in-one" devices which supposedly offer the best of both worlds: one minute a full Windows laptop, the next a tablet. The problem is that Windows 8's touch interface wasn't that good, and few developers made apps for it. Now, Microsoft's immediate future hangs on the success of Windows 10.
Intel isn’t hanging its hopes on Microsoft, though. At CES 2015, it unveiled the Curie module, a button-sized module for wearable devices. This uses the Quark SE SoC which can be powered by a coin battery. For its relatively slow start in the world of tablet, wearable and ultra-portable computing, Intel still has plenty left in the tank.
Change focus to gaming – worth around £1.72bn to the British economy according to the Association for UK Interactive Entertainment – and there’s an entirely different story to be told. Intel does deal with graphics processing, of course, but its expertise lies in integrated graphics. Integrated graphics are ideal for small laptops: an integrated graphics processor doesn’t add much to the price of a laptop, doesn’t draw too much power and – contrary to popular opinion – does offer enough 3D processing oomph for the odd game.
For anyone looking to play the latest releases at detail settings that put the latest consoles to shame, though, discrete graphics cards have always been the answer, and it’s here that AMD has a significant edge. AMD’s current crop of graphics card run the gamut from low-profile, passively-cooled cards up to its latest R9 390X cards, which retail around £400 for the card alone. Discrete graphics aren’t the only gaming arena AMD’s strong in, either. As well as having its chips in both the Xbox One and PlayStation 4, it also supplies the GPU in Nintendo’s Wii U. It might not have much to shout about in developing platforms such as tablets or hybrids, but gamers have plenty to thank it for.
If you’re building a desktop PC, the choice between AMD and Intel is as real as ever. The choice is as complicated as ever, too: visit any well-known online retailer and you’ll be faced with a choice of over 600 CPUs. If you’re driven by budget, AMD has a strong command of the lower price-points, but if you opt for AMD it doesn’t mean you exclude yourself from high-end computing: the company’s top-end Athlon processors put up a tough challenge to Intel’s flagship Core i7 CPUs.
Intel’s is dominant, though, and across mid-range and high-end processors there’s an enormous amount of choice. For powerful, everyday computing the Core i5 continues to serve well: you can pick one up for around £150 and up. True power users – those editing video, rendering 3D animations, or those who simply want to get to the top of the SETI@home leaderboard, can opt for Intel’s Core i7 chips.
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