AMD 10h

The AMD Family 10h, or K10, is a microprocessor microarchitecture by AMD based on the K8 microarchitecture.[1] Though there were once reports that the K10 had been canceled,[2] the first third-generation Opteron products for servers were launched on September 10, 2007, with the Phenom processors for desktops following and launching on November 11, 2007 as the immediate successors to the K8 series of processors (Athlon 64, Opteron, 64-bit Sempron).

K10 / Family 10h
General Info
Launched2007
Discontinued2012
Common manufacturer(s)
Performance
Max. CPU clock rate1700 MHz to 3700 MHz
FSB speeds1000 MHz to 2000 MHz
Architecture and classification
Min. feature size65 nm to 32 nm
Instruction setAMD64 (x86-64)
Physical specifications
Socket(s)
Products, models, variants
Core name(s)
History
PredecessorK8 - Hammer
SuccessorBulldozer - Family 15h

Nomenclatures

It is commonly perceived by the PC community that from the time after the use of the codename K8 for the AMD K8 or Athlon 64 processor family, AMD no longer uses K-nomenclatures (originally stood for Kryptonite[3]) since no K-nomenclature naming convention beyond K8 has appeared in official AMD documents and press releases after the beginning of 2005.

The name "K8L" was first coined by Charlie Demerjian in 2005, at the time a writer at The Inquirer,[4] and was used by the wider IT community as a convenient shorthand [5] while according to AMD official documents, the processor family was termed "AMD Next Generation Processor Technology".[6]

The microarchitecture has also been referred to as Stars, as the codenames for desktop line of processors was named under stars or constellations (the initial Phenom models being codenamed Agena and Toliman).

In a video interview,[7] Giuseppe Amato confirmed that the codename is K10.

It was revealed, by The Inquirer itself, that the codename "K8L" referred to a low-power version of the K8 family, later named Turion 64, and that K10 was the official codename for the microarchitecture.[5]

AMD refers to it as Family 10h Processors, as it is the successor of the Family 0Fh Processors (codename K8). 10h and 0Fh refer to the main result of the CPUID x86 processor instruction. In hexadecimal numbering, 0Fh (h represents hexadecimal numbering) equals the decimal number 15, and 10h equals decimal 16. (The "K10h" form that sometimes pops up is an improper hybrid of the "K" code and Family identifier number.)

Schedule of launch and delivery

Timeline

Historical information

In 2003, AMD outlined the features for upcoming generations of microprocessors after the K8 family of processors in various events and analyst meetings, including the Microprocessor Forum 2003.[8] The outlined features to be deployed by the next-generation microprocessors are as follows:

  • Threaded architectures.
  • Chip level multiprocessing.
  • Huge scale MP (multi-processor) machines.
  • 10 GHz operation.
  • Much higher performance superscalar, out of order CPU core.
  • Huge caches.
  • Media/vector processing extensions.
  • Branch and memory hints.
  • Security and virtualization.
  • Enhanced Branch Predictors.
  • Static and dynamic power management.

On April 13, 2006, Henri Richard, AMD executive vice president and chief officer for marketing and sales, acknowledged[9] the existence of the new microarchitecture in an interview.

In June 2006, AMD executive vice president Henri Richard had another interview with DigiTimes commented on the upcoming processor developments:

Q: What is your broad perspective on the development of AMD processor technology over the next three to four years? A: Well, as Dirk Meyer commented at our analysts meeting, we're not standing still. We've talked about the refresh of the current K8 architecture that will come in '07, with significant improvements in many different areas of the processor, including integer performance, floating point performance, memory bandwidth, interconnections and so on.

— AMD Executive Vice President, Henri Richard, Source: DigiTimes Interview with Henri Richard[10]

Confirmation of time frames
"Barcelona" die shot

On July 21, 2006, AMD President and Chief operating officer (COO) Dirk Meyer and Senior VP Marty Seyer confirmed that the launch date of new microprocessors of Revision H under the new microarchitecture is slated for the middle of 2007; and that it will contain a quad core version for servers, workstations, and high-end desktops, as well as a dual core version for consumer Desktops. Some of the Revision H Opterons shipped in 2007 will have a thermal design power of 68 W.

On August 15, 2006, at the launch of the first Socket F dual-core Opterons, AMD announced that the firm had reached the final design stage (tape-out) of quad-core Opteron parts. The next stages are testing and validation, with sampling to follow after several months.[11]

On June 29, 2007, AMD stated that server processors codenamed Barcelona will ship in August 2007, and corresponding server systems from partners will ship in September of the same year.[12]

On August 13, the reported ship dates for the first Barcelona processors were set for September 10, 2007. They announced the Opteron 2348 and 2350 will have core frequencies of 1.9 GHz and 2.0 GHz.[13]

TLB Bug

In November 2007 AMD stopped delivery of Barcelona processors after a bug in the translation lookaside buffer (TLB) of stepping B2 was discovered that could rarely lead to a race condition and thus a system lockup.[14] A patch in BIOS or software worked around the bug by disabling cache for page tables, but it was connected to a 5 to 20% performance penalty. Kernel patches that would almost completely avoid this penalty were published for Linux. In April 2008, the new stepping B3 was brought to the market by AMD, including a fix for the bug plus other minor enhancements.[15]

Internal codenames

As of November 2006, reports leaked the upcoming desktop part codenames Agena, Agena FX, and the core speeds of the parts range from 2.4 GHz - 2.9 GHz respectively, 512 KB L2 cache each core, 2 MB L3 cache, using HyperTransport 3.0, with a TDP of 125 W.[16] In recent reports, single core variants (codenamed Spica) and dual core with or without L3 cache (codenamed Kuma and Rana respectively) are available under the same microarchitecture.[17]

During the AMD Analyst Day 2006 on December 14, 2006, AMD announced their official timeline for server, desktop and mobile processors.[18] For the servers segment, AMD will unveil two new processors based on the architecture codenamed "Barcelona" and "Budapest" for 8/4/2-way and 1-way servers respectively. For the second half of 2007, HyperTransport 3.0 and Socket AM2+ will be unveiled, which are designed for the specific implementation of the aforementioned consumer quad core desktop chip series, with naming convention changes from city names (up to middle of 2007) to stars or constellations after that, such as Agena; in addition, the AMD Quad FX platform and its immediate successor will support the high end enthusiast dual-processor versions of the chip, codenamed as Agena FX, updates the processors line for AMD Quad FX platform. As with the server chips codenamed Barcelona, the new desktop quad core series will feature a shared L3 cache, 128-bit floating point (FP) units and an enhanced microarchitecture. Agena will be the native quad-core processor for the desktop. Kuma, a dual-core variant will follow on in Q3 while Rana, the dual-core version with no shared L3 cache is expected at the end of the year.

Subsequent product launches

More information about the upcoming chip codenamed "Montreal" on the server roadmap[19] using MCM technique of two "Shanghai" cores with a total of 12 MB L3 cache[20] codenamed AMD K10.5.[21] The desktop variant for Shanghai is codenamed Ridgeback.[22] Afterwards is the release of products based on the Bulldozer cores, which is optimized with integrated graphics core (AMD Accelerated Processing Unit) or native octal-core (8 core) server architecture (codenamed Sandtiger), and the Bobcat core, optimized for low-power operations.

Change of model nomenclatures

During Computex 2007 in early June, new information regarding the naming schemes of upcoming AMD microprocessors emerged. Additional letters indicating both performance and power envelope will precede the 4 digit model number.[23]

The model numbers of the new line of processors were apparently changed from the PR ratings used by its predecessors, the Athlon 64 series processors (except Phenom FX series, being suggested to follow the nomenclature of Athlon 64 FX series). As reported by DailyTech,[24] the model numbers are in alpha-numeric format as AA-@### where AA are alphabetical letters, the first letter indicating the processor class and the second indicating the typical TDP power envelope. The character @ is the series indicator, which varies by branding (see below table), and the last three characters (###) are the model number, with higher numbers indicating greater performance.

Not much information was known about the details of the model numbers, but the processors will be divided into three segments: Premium, Intermediate, and Value. Premium segment model numbers have processor class "G", Intermediate segment "B", and Value level "L", as discovered on the web from the AsRock website.[25] Similarly, three levels of TDP, "more than 65W", "65W", and "less than 65W", are indicated by the letters "P", "S", and "E" respectively.[24]

As of November 2007, AMD has removed the letters from the model names and X2/X3/X4 monikers for depicting the number of cores of the processor, leaving just a four digit model number with the first character being the sole identification of the processor family,[26] while Sempron remained using the LE prefix, as follows:

Series number [27]
Processor seriesIndicator
Phenom quad-core (Agena)9
Phenom triple-core (Toliman)8
Athlon dual-core (Kuma)7
Athlon single-core (Lima)1
Sempron LE single-core (Sparta)1

Live demonstrations

On November 30, 2006, AMD live demonstrated the native quad core chip known as "Barcelona" for the first time in public,[28] while running Windows Server 2003 64-bit Edition. AMD claims 70% scaling of performance in real world loads, and better performance than Intel Xeon 5355 processor codenamed Clovertown.[29] More details regarding this first revision of the next generation AMD microprocessor architecture have surfaced on the web including their clock speeds.[30][31]

On January 24, 2007, AMD Executive Vice President Randy Allen claimed that in live tests, in regard to a wide variety of workloads, "Barcelona" was able to demonstrate 40% performance advantage over the comparable Intel Xeon codenamed Clovertown dual-processor (2P) quad-core processors.[32] The expected performance of floating point per core would be approximately 1.8 times that of the K8 family, at the same clock speed.[33]

On May 10, 2007, AMD held a private event demonstrating the upcoming processors codenamed Agena FX and chipsets, with one demonstrated system being AMD Quad FX platform with one Radeon HD 2900 XT graphics card on the upcoming RD790 chipset, the system was also demonstrated real-time converting a 720p video clip into another undisclosed format while all 8 cores were maxed at 100% by other tasks.[34]

Sister microarchitecture

Also due in a similar time frame will be a sister microarchitecture, which will focus on lower power consumption chips in mobile platforms as well as small form factor features. This microarchitecture will contain specialized features such as mobile optimized crossbar switch and memory controller and other on-die components; link power management for HyperTransport 3.0; and others. At that time, AMD simply dubbed it "New Mobile Core", without giving a specific codename.

On the December 2006 analyst day, Executive vice president Marty Seyer announced the new mobile core codenamed Griffin launched in 2008 with inherited power optimizations technologies from the K10 microarchitecture, but based on a K8 design.

Iterations of the release

In late 2007 to second quarter of 2008, there will be a modification to the core to be fabricated at 45 nm process node,[35] with enhancements such as FB-DIMM support, Direct Connect Architecture 2.0, enhanced Reliability, Availability and Serviceability (RAS), and probably more for the processor die. The platform will also add support for I/O Virtualization, PCI Express 2.0, 10 Gigabit NIC, larger caches, and more.

However, reports have suggested that FB-DIMM support had been dropped from future roadmaps of the majority of AMD products since popularity is low.[36][37] Also, FB-DIMM's future as an industry standard had been called into question.

An article published by The Inquirer corroborates the earlier reports of the timeline (as cited in this article). According to the report, there will be three iterations of the server processor core: one named Barcelona, due in Q2 of 2007, with new CPU core components as well as the microarchitecture, but built on the old HyperTransport 2.0 infrastructure; the second is Budapest for single socket systems using socket AM2+ or socket AM3, with HyperTransport 3.0; and the third, codenamed Shanghai is an update of the server chip, based on 45 nm process,[38] probably also with HyperTransport 3.0 and DDR3 implementation, due in Q1-Q2 2008.[39]

AMD, on September 17, 2007, announced [40] that a three core (triple-core) processor will also be released under the Phenom brand lineup, codenamed Toliman. AMD official replied in an interview that this product is benefitted from ATI technologies to add fuses to the quad-core processor and shutting down one of the four cores [41] to become a triple-core processor, which the technique has been popular for making one or more mainstream GPU cores from a single high-end GPU core by blowing out parts of the circuit to save R&D costs while targeting more markets some time ago. The triple-core processor still see the same specifications for quad-core variants, the naming of the processor lineup, according to the AMD branding scheme, will be named as Phenom triple-core 8000 series, the processor line will be focused on what AMD called the fourth market segment or the "High-end Mainstream" segment beside Value, Mainstream and Performance segments in an interview with BetaNews, which the targeted customers of the processors are "those who are willing to pay more for more performance but not required for too much processing power as required by gamers and system builders",[42][43] while there are single core (Sempron) variants for low-end market, and dual-core (Athlon) variants for mid-range market, and quad-core (Phenom quad-core 9000 series and Phenom FX) variants should be seen in the high-end market at the same time frame.

Further in 2008, AMD will introduce Deneb FX for the replacement for the AMD Quad FX platform, as well as Deneb for the mainstream. Propos and Regor will also replace Kuma and Rana in the lower market segments. Socket AM2+ being named in the late 2006 might actually have been the original AM3 socket, but as naming conventions changed, so that the next generation of consumer desktop socket capable of DDR3 will be socket AM3.[44]

Features

Fabrication technology

AMD has introduced the microprocessors manufactured at 65 nm feature width using Silicon-on-insulator (SOI) technology, since the release of K10 coincides with the volume ramp of this manufacturing process.[45] The servers will be produced for Socket F(1207) or later 1207-pin socket infrastructure, the only server socket on AMD's near-term roadmap; the desktop parts will come on Socket AM2 or Socket AM2+.

AMD announced during the Technology Analyst Day [46] that the use of Continuous Transistor Improvement (CTI) and Shared Transistor Technology (STT) would finally lead to the implementation of Silicon-Germanium-On-Insulator (SGoI) on 65 nm process CPUs.[47]

Later processors were manufactured using 45nm SOI technology.

"APU" K10 processors were manufactured using 32nm SOI technology.

Starting at 45nm, immersion lithography was used.

Supported DRAM standards

The K8 family was known to be particularly sensitive to memory latency since its design gains performance by minimizing this through the use of an on-die memory controller (integrated into the CPU); increased latency in the external modules negates the usefulness of the feature. DDR2 RAM introduces some additional latency over traditional DDR RAM since the DRAM is internally driven by a clock at one quarter of the external data frequency, as opposed to one half that of DDR. However, since the command clock rate in DDR2 is doubled relative to DDR and other latency-reducing features (e.g. additive latency) have been introduced, common comparisons based on CAS latency alone are not sufficient. For example, Socket AM2 processors are known to demonstrate similar performance using DDR2 SDRAM as Socket 939 processors that utilize DDR-400 SDRAM. K10 processors support DDR2 SDRAM rated up to DDR2-1066 (1066 MHz).[48]

While some desktop K10 processors are AM2+ supporting only DDR2, an AM3 K10 processor supports both DDR2 and DDR3. A few AM3 motherboards have both DDR2 and DDR3 slots (this does not mean that you can fit both types at the same time), but for the most part they have only DDR3.

Lynx desktop processors only support DDR3, as they use the FM1 socket.

Higher computational throughput

It was also reported by several sources (such as AnandTech, The Inquirer and Geek.com) that the microprocessors implementing the microarchitecture will feature a doubling in the width of SSE execution units in the cores. With the help of major improvements in the memory subsystem (such as load re-ordering and improved prefetch mechanisms) as well as the doubled instruction fetch and load, it is expected to increase the suitability of the processor to scientific and high-performance computing tasks and potentially improve its competitiveness with Intel's Xeon, Core 2, Itanium 2 and other contemporary microprocessors.

Many of the improvements in computational throughput of each core are listed below.

Microarchitecture characteristics
K10 architecture.
K10 single core with overlay description, excluding the L2 cache array.

Characteristics of the microarchitecture include the following:[49]

  • Form factors
    • Socket AM2+ with DDR2 for the 65 nm Phenom and Athlon 7000 Series
    • Socket AM3 with either DDR2 or DDR3 for Semprons and the 45 nm Phenom II and Athlon II Series. They can also be used on AM3+ motherboards with DDR3. Note that, while all K10 Phenom Processors are backwards compatible with Socket AM2+ and Socket AM2, some 45 nm Phenom II Processors are only available for Socket AM2+. Lynx processors do not use either AM2+ nor AM3.
    • Socket FM1 with DDR3 for Lynx processors.
    • Socket F with DDR2, DDR3 with Shanghai and later Opteron processors
  • Instruction set additions and extensions
    • New bit-manipulation instructions ABM: Leading Zero Count (LZCNT) and Population Count (POPCNT)
    • New SSE instructions named as SSE4a: combined mask-shift instructions (EXTRQ/INSERTQ) and scalar streaming store instructions (MOVNTSD/MOVNTSS). These instructions are not found in Intel's SSE4
    • Support for unaligned SSE load-operation instructions (which formerly required 16-byte alignment)[50]
  • Execution pipeline enhancements
    • 128-bit wide SSE units
    • Wider L1 data cache interface allowing for two 128-bit loads per cycle (as opposed to two 64-bit loads per cycle with K8)
    • Lower integer divide latency
    • 512-entry indirect branch predictor and a larger return stack (size doubled from K8) and branch target buffer
    • Side-Band Stack Optimizer, dedicated to perform increment/decrement of register stack pointer
    • Fastpathed CALL and RET-Imm instructions (formerly microcoded) as well as MOVs from SIMD registers to general purpose registers
  • Integration of new technologies onto CPU die:
    • Four processor cores (Quad-core)
    • Split power planes for CPU core and memory controller/northbridge for more effective power management, first dubbed Dynamic Independent Core Engagement or D. I. C. E. by AMD and now known as Enhanced PowerNow! (also dubbed Independent Dynamic Core Technology), allowing the cores and northbridge (integrated memory controller) to scale power consumption up or down independently.[51]
    • Shutting down portions of the circuits in core when not in load, named "CoolCore" Technology.
  • Improvements in the memory subsystem:
    • Improvements in access latency:
      • Support for re-ordering loads ahead of other loads and stores
      • More aggressive instruction prefetching, 32 bytes instruction prefetch as opposed to 16 bytes in K8
      • DRAM prefetcher for buffering reads
      • Buffered burst writeback to RAM in order to reduce contention
    • Changes in memory hierarchy:
      • Prefetch directly into L1 cache as opposed to L2 cache with K8 family
      • 32-way set associative L3 victim cache sized at least 2 MB, shared between processing cores on a single die (each with 512 K  of independent exclusive L2 cache), with a sharing-aware replacement policy.
      • Extensible L3 cache design, with 6 MB planned for 45 nm process node, with the chips codenamed Shanghai.
    • Changes in address space management:
      • Two 64-bit independent memory controllers, each with its own physical address space; this provides an opportunity to better utilize the available bandwidth in case of random memory accesses occurring in heavily multi-threaded environments. This approach is in contrast to the previous "interleaved" design, where the two 64-bit data channels were bounded to a single common address space.
      • Larger Tagged Lookaside Buffers; support for 1 GB page entries and a new 128-entry 2 MB page TLB
      • 48-bit memory addressing to allow for 256 TB memory subsystems[52]
      • Memory mirroring (alternatively mapped DIMM addressing),[53] data poisoning support and Enhanced RAS
      • AMD-V Nested Paging for improved MMU virtualization, claimed to have decreasing world switch time by 25%.
  • Improvements in system interconnect:
    • HyperTransport retry support
    • Support for HyperTransport 3.0, with HyperTransport Link unganging which creates 8 point-to-point links per socket.
  • Platform-level enhancements with additional functionality:
    • Five p-states allowing for automatic clock rate modulation
    • Increased clock gating
    • Official support for coprocessors via HTX slots and vacant CPU sockets through HyperTransport: Torrenza initiative.

Feature tables

CPUs

CPU features table

APUs

APU features table

Desktop

Phenom Models

Agena (65 nm SOI, Quad-core)

Toliman (65 nm SOI, Tri-core)
  • Three AMD K10 cores
  • L1 cache: 64 KB instruction and 64 KB data cache per core
  • L2 cache: 512 KB per core, full-speed
  • L3 cache: 2 MB shared between all cores
  • Memory controller: dual channel DDR2-1066 MHz with unganging option
  • ISA extensions: MMX, Enhanced 3DNow!, SSE, SSE2, SSE3, SSE4a, ABM, AMD64, Cool'n'Quiet, NX bit, AMD-V
  • Socket AM2+, HyperTransport with 1600 to 1800 MHz
  • Power consumption (TDP): 65 and 95 Watt
  • First release
    • March 27, 2008 (B2 Stepping)
    • April 23, 2008 (B3 Stepping)
  • Clock rate: 2100 to 2500 MHz
  • Models: Phenom X3 8250e - 8850

Phenom II Models

Thuban (45 nm SOI, Hexa-core)

Zosma (45 nm SOI, Quad-core)

Deneb (45 nm SOI, Quad-core)

42 TWKR Limited Edition (45 nm SOI, Quad-core)

AMD released a limited edition Deneb-based processor to extreme overclockers and partners. Fewer than 100 were manufactured.

The "42" officially represents four cores running at 2 GHz, but is also a reference to the answer to life, the universe, and everything from The Hitchhiker's Guide to the Galaxy.[56]

Propus (45 nm SOI, Quad-core)

Heka (45 nm SOI, Tri-core)
  • Three AMD K10 cores using chip harvesting technique, with one core disabled
  • L1 cache: 64 KB instructions and 64 KB data per core
  • L2 cache: 512 KB per core, full-speed
  • L3 cache: 6 MB shared between all cores
  • Memory controller: dual channel DDR2-1066 MHz (AM2+), dual channel DDR3-1333 (AM3) with unganging option
  • ISA extensions: MMX, Enhanced 3DNow!, SSE, SSE2, SSE3, SSE4a, ABM, AMD64, Cool'n'Quiet, NX bit, AMD-V
  • Socket AM3, HyperTransport with 2000 MHz
  • Power consumption (TDP): 65 and 95 Watt
  • First release
    • 9 February 2009 (C2 Stepping)
  • Clock rate: 2500 to 3000 MHz
  • Models: Phenom II X3 705e - 740

Callisto (45 nm SOI, Dual-core)
  • Two AMD K10 cores using chip harvesting technique, with two cores disabled
  • L1 cache: 64 KB instructions and 64 KB data per core
  • L2 cache: 512 KB per core, full-speed
  • L3 cache: 6 MB shared between all cores
  • Memory controller: dual channel DDR2-1066 MHz (AM2+), dual channel DDR3-1333 (AM3) with unganging option
  • ISA extensions: MMX, Enhanced 3DNow!, SSE, SSE2, SSE3, SSE4a, ABM, AMD64, Cool'n'Quiet, NX bit, AMD-V
  • Socket AM3, HyperTransport with 2000 MHz
  • Power consumption (TDP): 80 Watt
  • First release
    • 1 June 2009 (C2 Stepping)
  • Clock rate: 3000 to 3500 MHz
  • Models: Phenom II X2 545 - 570

Regor (45 nm SOI, Dual-core)

Athlon X2 Models

Kuma (65 nm SOI, Dual-core)

Regor/Deneb (45 nm SOI, Dual-core)

Athlon II Models

Zosma (45 nm SOI, Quad-core)

Propus (45 nm SOI, Quad-core)

Rana (45 nm SOI, Tri-core)

Regor (45 nm SOI, Dual-core)

Sargas (45 nm SOI, Single-core)

Lynx (32 nm SOI, Dual or Quad-core)
  • Two or four AMD K10 cores with no L3 cache
  • APUs without graphics. See below.
  • Models: Athlon II X2 221 to Athlon II X4 651K

Sempron Models

Sargas (45 nm SOI, Single-core)

Sempron X2 Models

Regor (45 nm SOI, Dual-core)

Lynx (32 nm SOI, Dual-core)
  • Two AMD K10 cores with no L3 cache
  • APUs without graphics. See below.
  • Models: Sempron X2 198

Llano "APUs"

Lynx (32 nm SOI, Dual or Quad-core)

The first generation desktop APUs based on the K10 microarchitecture were released in 2011 (some models do not provide graphics capability, such as the Lynx Athlon II and Sempron X2).

  • Fabrication 32 nm on GlobalFoundries SOI process
  • Socket FM1
  • Die size: 228 mm2, with 1.178 billion transistors[61][62]
  • AMD K10 cores with no L3 cache
  • GPU: TeraScale 2
  • All A and E series models feature Redwood-class integrated graphics on die (BeaverCreek for the dual-core variants and WinterPark for the quad-core variants). Sempron and Athlon models exclude integrated graphics.[63]
  • Support for up to four DIMMs of up to DDR3-1866 memory
  • 5 GT/s UMI
  • Integrated PCIe 2.0 controller
  • Select models support Turbo Core technology for faster CPU operation when the thermal specification permits
  • Select models support Hybrid Graphics technology to assist a discrete Radeon HD 6450, 6570, or 6670 discrete graphics card. This is similar to the current Hybrid CrossFireX technology available in the AMD 700 and 800 chipset series
  • ISA extensions: MMX, Enhanced 3DNow!, SSE, SSE2, SSE3, SSE4a, ABM, NX bit, AMD64, Cool'n'Quiet, AMD-V
  • Models: Lynx desktop APUs and CPUs

Mobile

Turion II (Ultra) Models

"Caspian" (45nm SOI, Dual-core)

Turion II Models

"Caspian" (45nm SOI, Dual-core)

"Champlain" (45nm SOI, Dual-core)

Athlon II Models

"Caspian" (45nm SOI, Dual-core)

"Champlain" (45nm SOI, Dual-core)

Sempron Models

"Caspian" (45nm SOI, Single-core)

Turion II Neo Models

"Geneva" (45nm SOI, Dual-core)

Athlon II Neo Models

"Geneva" (45nm SOI, Dual-core)

"Geneva" (45nm SOI, Single-core)

V Models

"Geneva" (45nm SOI, Single-core)

"Champlain" (45nm SOI, Single-core)

Phenom II Models

"Champlain" (45nm SOI, Quad-core)

"Champlain" (45nm SOI, Tri-core)

"Champlain" (45nm SOI, Dual-core)

Llano APUs

"Sabine" (32nm SOI, Dual or Quad-core)
  • Fabrication 32 nm on GlobalFoundries' SOI process
  • Socket FS1
  • Two or four upgraded K10 cores codenamed Husky (K10.5) with no L3 cache, and with Redwood-class integrated graphics on die (WinterPark for the dual-core variants and BeaverCreek for the quad-core variants)
  • Integrated PCIe 2.0 controller
  • GPU: TeraScale 2
  • Select models support Turbo Core technology for faster CPU operation when the thermal specification permits
  • 2.5 GT/s UMI
  • ISA extensions: MMX, Enhanced 3DNow!, SSE, SSE2, SSE3, SSE4a, ABM, NX bit, AMD64, AMD-V, PowerNow!
  • Support for 1.35 V DDR3L-1333 memory, in addition to regular 1.5 V DDR3 memory specified
  • Models: Sabine mobile APUs

Server

There are two generations of K10-based processors for servers: Opteron 65 nm and 45 nm.

Successor
Main articles: AMD Fusion, Bulldozer (microarchitecture), and AMD Bobcat

AMD discontinued further development of K10 based CPUs after Thuban, choosing to focus on Fusion products for mainstream desktops and laptops and Bulldozer based products for the performance market. However, within the Fusion product family, APUs such as the first generation A4, A6 and A8-series chips (Llano APUs) continued to use K10-derived CPU cores in conjunction with a Radeon graphics core. K10 and its derivatives were phased out of production by the introduction of Trinity-based APUs in 2012, which replaced the K10 cores in the APU with Bulldozer-derived cores.

Family 11h and 12h derivatives

Turion X2 Ultra Family 11h
Further information: AMD mobile platform § Puma platform (2008), and AMD Turion § Turion X2 Ultra

The Family 11h microarchitecture was a mixture of both K8 and K10 designs with lower power consumption for laptop that was marketed as Turion X2 Ultra and was later replaced by completely K10-based designs.[1]

Fusion Family 12h
Further information: AMD Accelerated Processing Unit § Llano

The Family 12h microarchitecture is a derivative of the K10 design:[68][69]

  • Both CPU and GPU were re-used to avoid complexity and risk
  • Distinct Software and Physical integration makes Fusion (APU) microarchitectures different
  • Power-saving improvements including clock gating
  • Improvements to hardware pre-fetcher
  • Redesigned memory controller
  • 1MB L2 cache per core
  • No L3 cache
  • Two new buses for on-die GPU to access memory (called Onion and Garlic interfaces)
    • AMD Fusion Compute Link (Onion) - interfaces to CPU cache and coherent system memory (see cache coherence)
    • Radeon Memory Bus (Garlic) - dedicated non-coherent interface connected directly to memory

Media discussions

Note: These media discussions are listed in ascending date of publication.

gollark: What?
gollark: Your GPU costs less than your PSU?!
gollark: Thing is, though, it's four times as expensive as my 450W PSU, and not significantly better than that-but-more-powerful.
gollark: I mean, it looks cool and all, but the HX750 costs more than my CPU.
gollark: κακτυς

See also

References
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