Intel instruction set extensions

Continue From WikiChip extensions - x86 X86 ISA has gone through numerous iterations that have added new instructions for specific tasks. These collections of new instructions are grouped into extensions. Different microprocessor models have different levels of support for certain extensions. The X86 ISA review has been developed over forty years. Various extensions have been proposed and implemented by various vendors to improve the functionality of the basic set of instructions. Timeline (edit) Experimental extensions (edit) Reverse compatibility (edit) Generally speaking, all extensions are supported from their introductory date to today. The extensions introduced by AMD K6-2 (i.e. 3DNow! and E3DNow!) and those introduced by the AMD bulldozer (i.e. FMA4, XOP, LWP, and then TBM) are out of date. Note that zen, at least for the first step, still offer FMA4 support, even if it is not specified by CPUID. See also extensions to the x86 microprocessor set architecture for Microprocessors from Intel and AMD Advanced Vector Extensions (AVX, also known as Sandy Bridge New Extensions) are extensions to the x86 microprocessor set architecture for microprocessors from Intel and AMD, proposed by Intel in March 2008 and first supported by Intel with the Sandy Bridge processor in the first quarter of 2011, followed by AMD with the delivery of the Bulldozer processor in the third quarter of 2011. AVX provides new features, new instructions and a new coding scheme. AVX2 (also known as Haswell New Instructions) expands most additional commands to 256 bits and introduces fusion multiplication (FMA) operations. They were first supported by Intel with the Haswell processor, which comes in 2013. The AVX-512 extends the AVX to 512-bit support with a new EVEX prefix proposed by Intel in July 2013 and first supported by Intel with the Knights Landing processor, which was shipped in 2016. AVX uses sixteen YMM registers to perform a single instruction on multiple parts of the data (see SIMD). Each YMM register can hold and do simultaneous operations (mathematics) on: eight 32-bit single-point floating dots or four 64-bit two-point floating point numbers. The width of THE SIMD registers has been increased from 128 bits to 256 bits and renamed from XMM0-XMM7 to YMM0-YMM7 (in x86-64 mode, from XMM0-XMM15 to YMM0-YMM15). Outdated SSE instructions can still be used via the VEX set-top box to work on the lower 128 bits of YMM registers. The AVX-512 registration scheme as an extension from AVX (YMM0-YMM15) and SSE (XMM0-XMM15) registers 511 256 255 128 127 0 MMM0 YMM0 MMMM1 YMM1 YMM1 XMM1 MM2 YMM2 MMM3 YMM3 X3MMMM XMM4 MM5 YMM5 XMM5 MMM5 MMM6 YMM6 XMM6 MM7 YMM7 XMM7 MM8 YMM8 MM8 MM9 XMM9 MMMM9 MMM10 YMM10 MMM10 MM11 YMM11 XMM11 XMM1 1MM1MM1 YMM12 YMM12 XMM12MM12MM12MM12MM12MM12MM12MM12MM12MM1 МММ14 YMM14 XMM14 МММ15 YMM15 XMM15 МММ16 YMM16 YMM16 MMM17 YMM17 XMM17 MM18 YMM18 XMM18 MM19 YMM19 XMM19 MM20 YMM20 XMM20 MM21 HM21 YMM21 XMM21 MM22MM22 XMM222MM22 YMM23 XMM23 XMM23 MM23 MM23 MMM24 YMM24 XMM22MM22 YMM25 XMM25 MMM26 YMM26 XMM26 MM27 YMM27 XMM27 MMM28 YMM28 XMM28 MM29 YMM29 YMM29 XMM2 9 YMM30 YMM30 XMM30 NOMM31 YMM1 XMM31 AVX presents a three-series SIMD training format where the appointments register differ from two sources. For example, the SSE instruction using the usual two-go form a a b can now use an indestructible three-strong form c q a b, preserving both sources of operands. The three-part AVX format is limited to SIMD operands (YMM) and does not include instructions with general registers (e.g. EAX). This support will be available for the first time in AVX2. The SIMD memory alignment requirement has been relaxed. The new VEX coding scheme introduces a new set of code prefixes that expands the opcode space, allows instructions to have more than two opernds and allows SIMD vector registers to be longer than 128 bits. VeX prefix can also be used on outdated SSE instructions, giving them a three-go form, and forcing them to interact more effectively with AVX instructions without the need for VSERUPPER and VEEROALL. The AVX instructions support both 128-bit and 256-bit SIMD. 128-bit versions can be useful for improving old code without the need to expand vectorization, and avoid punishment for moving from SSE to AVX, they are also faster on some early AMD AVX implementations. This mode is sometimes known as the AVX-128. New Instructions These AVX instructions are in addition to those that are 256-bit extensions of outdated 128-bit SSE instructions; Most of them can be worked on as 128-bit and 256-bit operands. Instruction Description VBROADCASTSSS, VBROADCASTSD, VBROADCASTF128 Copy 32-bit, 64-bit or 128-bit ram operands for all XMM or YMM vector register elements. VINSERTF128 replaces either the bottom half or the top half of the 256-bit YMM register with a 128-bit source. The other half of the destination remains unchanged. VEXTRACTF128 Removes either the bottom half or the top half of the 256-bit YMM register and replicates the value to a 128-bit opera. VMASKMOVPS, VMASKMOVPD Conditionally reads any number of items from SIMD vector memory to the destination register, leaving the remaining vector elements unread and placing the relevant elements in the destination register to zero. In addition, conditionally records any number of elements from the SIMD operand vector register to the operand vector memory, leaving the rest of the memory opera intact. On the AMD Jaguar processor architecture, this operand memory guide takes more than 300 hour cycles when the mask is zero, in which case the instruction should do nothing. This is be a design flaw. VPERMILPS, VPERMILPD Permute in-lane. Shuffle 32-bit or 64-bit vector elements of one entrance opera. It's in a 256-bit instruction band, which means they work on all 256 bits with two separate 128-bit shuffling, so they can't shuffle through 128-bit bands. VPERM2F128 Shuffle four 128-bit vector elements from two 256-bit original operas in the opera 256-bit destination, with an immediate constant as a selector. SEE ALSO Set all YMM registers to zero and mark them as unused. Used when switching between 128-bit usage and 256-bit use. TAKERURPER Set the top half of all YMM registers to zero. Used when switching between 128-bit usage and 256-bit use. Processors with Intel Sandy Bridge AVX processors, Sandy Bridge E 1 2011 processors, Ivy Bridge E processors, Ivy Bridge E processors, Haswell processors for the third quarter of 2013, Haswell E processors for 2013, Broadwell processors for 2014, Skylake processors for the fourth quarter of 2014, Broadwell E processors for the 3rd quarter of 2015, Broadwell E processors for the 3rd quarter of 2015, Broadlake Kaby Lake processors for 2016, Skylake-X processors for 2016/ No.1 2017 (desktop/mobile) Skylake-X processors, Coffee Lake processors for 2nd quarter 2017, Cannon Lake processors for 4 2017 quarter, Whisky Lake Processors for 2018, Cascade Lake processors for the third quarter of 2018, Ice Lake processors for the fourth quarter of 2018, 3rd quarter 201 201 Comet Lake Processor (branded Core only) , Tiger Lake 2019 processor, Rocket Lake 2020 processor, 2021 Alder Lake processor, 2021 Not all processors from the listed families support AVX. Typically, Core i3/i5/i7 processors support them, while Pentium and Celeron processors don't. AMD: Jaguar-based processors and new Puma-based processors and new Heavy Equipment bulldozer-based processors, 4 2011-based 2011 processors, Steamroller 2012- based processors, 2014 excavator-based processors and newer zen-based processors in 2015, zen-1 2017 processors, 2018-based processors, zen-3 processors, 2020 issues related to compatibility between future Intel and AMD processors are discussed as part of the XOP set of instructions. VIA: Nano quadcore Eden X4 zhaoxing: WuDaoKou-based processors (KX-5000 and KH-20000) compiler and support collector Absoft supports with the mavx flag. The Free Pascal compiler supports THE AVX and AVX2 with -CfAVX and -CfAVX2 switches from version 2.7.1. GNU Assembler 'inline assembly (GAS) features support these instructions (available through GCC), as do Intel's primitives and Intel's inline builder (closely compatible with GAS, albeit more common in handling local links within the inline code). GCC, starting with 4.6 there was a 4.3 branch with some support) and the Intel Compiler Suite, starting with version 11.1 support for AVX. The Open64 4.5.1 version supports the AVX with the mavx flag. PathScale is supported through the -mavx flag. The Vector Pascal compiler supports AVX through the -cpuAVX32 flag. Visual Visual 2010/2012 compiler supports AVX through internal and /arch:AVX switch. Other collectors such as the MASM VS2010 version, YASM, AVX operating system support adds a new register state through the 256-bit wide YMM register file, so clear operating system support is required to properly save and restore extended AVX registers between context switches. The following versions of the operating system support AVX: DragonFly BSD: support was added in early 2013. FreeBSD: Support added to the January 21, 2012 patch, which was included in the 9.1 Linux stable release: supported from the 2.6.30 kernel version, 17, released on June 9, 2009. macOS: Support is added to the 10.6.8 (Snow Leopard) update released on June 23, 2011. OpenBSD: Support added on March 21, 2015. Solaris: supported in Solaris 10 Update 10 and Solaris 11 Windows: supported in Windows 7 SP1, Windows Server 2008 R2 SP1, Windows 8, Windows 10 Windows Server 2008 R2 SP1 with Hyper-V requires a hot fix to support AMD AVX (Opteron 6200 and 4200 series), KB2568088 Advanced Vector Extensions 2 Advanced Vector Extensions 2 (AVX2), also known as Haswell New Instructions, is an extension of the AVX set of instructions presented in the micro-architecture Intel Haswell. AVX2 makes the following additions: extend most SSE vector integrators and AVX instructions to 256 bits of three-opand general-purpose bit manipulation and multiply the support collection, allowing vector elements to be downloaded from non-adjacent DWORD memory sites- and WORD-granulation of any-to-any permamy vector shifts. Sometimes another extension using another cpuid flag is considered part of the AVX2; These instructions are listed on their own page, not below: three-opera fused multiply-accumulate support (FMA3) New Instructions Instruction Description VBROADCASTSSSS, VBROADCASTSD Copy 32-bit or 64-bit register operas for all XMM or YMM vector register elements. These are registration versions of the same instructions in AVX1. There is no 128-bit version however, but the same effect can simply be achieved with vinserTF128. VPBROADCASTB, VPBROADCASTW, VPBROADCASTD, VPBROADCAST' Copy 8, 16, 32 or 64-bit registry or operand memory for all XMM or YMM vector register items. VBROADCASTI128 Copy 128-bit memory operands for all elements of the YMM vector register. VINSERTI128 replaces either the bottom half or the top half of the 256-bit YMM register with a 128-bit source. The other half of the destination remains unchanged. VEXTRACTI128 Extracts either the bottom half or the top half of the 256-bit YMM register and copies the value to 128-bit opera. VGATHERDPD, VGATHER-PD, VGATHERDPS, VGATHER-PS collects one- or double values accurate accuracy using 32 or 64-bit indices and scale. VPGATHERDD, VPGATHERD, VPGATHER-D, VPGATHER VPGATHER or 64-bit integrative values using 32 or 64-bit indices and scale. VPMASKMOVD, VPMASKMOV' Conditionally reads any number of items from SIMD vector memory to the destination register, leaving the rest of the vector elements unread and placing the relevant elements in the destination register to zero. In addition, conditionally records any number of elements from the SIMD operand vector register to the operand vector memory, leaving the rest of the memory opera intact. VPERMPS, VPERMD Shuffle eight 32-bit vector elements of one 256-bit source of operands in a 256-bit operand destination, with a register or memory operand as a selector. VPERMPD, VPERMH Shuffle four 64-bit vector elements of one 256-bit source of operands in a 256-bit operand destination, with a register or memory operand as a selector. VPERM2I128 Shuffle (two of) four 128-bit vector elements of two 256-bit plumage sources in a 256-bit operandi assignment, with an immediate constant as a selector. VPBLENDD Doubleword an immediate version of SSE4's PBLEND instructions. VPSLLVD, VPSLLV' Shift has gone logical. Allows variable shifts where each item shifts according to the packaged input. VPSRLVD, VPSRLV' Shift is logical. Allows variable shifts where each item shifts according to the packaged input. VPSRAVD Shift right arithmetically. Allows variable shifts where each item shifts according to the packaged input. Processors with AVX2 Intel Haswell processor (core branded only), Haswell E processor 2013 (branded Core only), 2014 Broadwell 3 processor (branded Core only), 2014 Broadwell E 4 processor (branded Core only), Skylake processor 2016 (branded Core only), 3 quarter 20 14th Kaby Lake Processor (branded Core only), processor No.3 2016 (ULV mobile) / No.1 2017 (working/mobile) Skylake-X processor (branded Core only), Coffee Lake no2 2017 processor (branded Core only), 2017 Cannon Lake processor, Cascade Lake processor 2018, Ice Lake processor for the second quarter of 2019, Comet Lake processor for the third quarter of 2019 (branded Core only), Tiger Lake processor for the 3rd quarter of 2019, Rocket Lake No.3 2020 processor, 2021 Alder Lake processor, 2021 AMD excavator processor and newer 2015 zen processor , zen 2 2017 processor, zen 2 processor No.2, No. 3 2019 zen 3 processor, 2020 VIA: Nano quadCore Eden X4 AVX-512 Home article: AVX-512 AVX-512 are 512-bit extensions of the 256-bit Advanced Mobile Expansion Vector SIMD instructions for the x86 instruction set architecture, proposed by Intel in July 2013, and supported by Intel's Landing Knights processor. The AVX-512 instruction is encoded with the new EVEX console. It allows 4 operands, 7 new 64-bit opmask registers, mode memory with automatic transmission, explicit rounding control, and compressed mode of motion memory address. The width of the register file has been increased to 512 bits, and the total number of registers has been increased to 32 (MMM0-MM31 registers) MMM0-MM31) x86-64 mode. The AVX-512 consists of several extensions, not all designed to support all processors by implementing them. The set of instructions consists of the following: AVX-512 Foundation - adds a few new instructions and expands most 32-bit and 64-bit floating toy SSE-SSE4.1 and AVX/AVX2 with EVEX coding scheme to support 512-bit registers, Mask operations, broadcasting option, and built-in rounding and exception management AVX-512 Conflict Detection Instructions (CD) - Effective conflict detection to allow more cycles, to be vectorized, supported by Knights Landing 3 AVX-512 Exponential and Reciprocal Instructions (ER) - exponential and reciprocal operations designed to assist in the implementation of transcendental operations, supported by Knights Landing (AVX-512 Pre-Race Instruction (PF) - New Opportunities prefetch, supported Knights Landing Most Operations AVX-512 also operate on XMM (128-bit) and YMM (256-bit) registers (including XMM16-XMM31 and YMM16-YMM31 in x86-64) BW) - expands AVX-512 to cover 8-bit and 16-bit integrators (AVX-512 Doubleword and quadrord) - extended 32-bit and 64-bit operations with AVX- 512 Integer Fused Multiply Add (IFMA) - a fusion multi-bit addition for 512-bit integrators. Instructions for manipulation of the AVX-512 Vector Byte vector (VBMI) add instructions for rearranging vector rates that are not available in AVX-512BW. AVX-512 Vector Neural Network Instructions Word Variable Precision (4VNNIW) - Vector Instructions for Deep Learning. AVX-512 Fusion Multiplication Accumulation Packed With One Precision (4FMAPS) - Vector Instructions for Deep Learning. THE 100 bits set at 1. VPCLMUL-DD is a smaller multiplication of four-word. The AvX-512 Vector Neural Network Instructions (VNNI) are vector instructions for deep learning. THE AVX-512 Galois field New Instructions (GFNI) are vector instructions for calculating the Galois field. AVX-512 Vector AES (VAES) instructions are vector instructions for AES coding. AVX-512 Vector Byte Manipulation Instructions 2 (VBMI2) is a load on the yut/word, storage and concatetion with change. THE AVX-512 (BITALG) bit algorithms are instructions for bit-bit manipulation that extend VPOPCNTD. Only the main expansion of the AVX-512F (AVX-512 Foundation) is required for all implementations, although all current processors also support CD (conflict detection); Coprocessors will additionally support ER, PF, 4VNNIW, 4FMAPS and VPOPCNTD, while desktop processors will support VL, D, BW, IFMA, VBMI, VPOPCNTD, VPCLMUL-D, etc. they can work on 512-bit MMM registers, as well as maintain 128/256 bit XMM/YMM registers (with word, doubleword and four integer operands (with AVX-512BW/D and VBMI). Processors AVX-512 AVX-512 Subset F CD PF PF 4FMAPS 4VNNIW VL D'BW VBMA VBMI2 VPOPCNTD' BITALG VNNICLMUL-D' GF VAES Intel Landing Knights (2016) Yes, yes, No Intel Knights Mill (2017) Yes No No No Intel Skylake-SP, Skylake-X (2017) No Yes No Intel Lake Cannon (2018) Yes No Intel Cascade Lake-SP (2019) No Yes No Intel Ice Lake (2019) Yes no AMD processors that support AVX-512, and AMD has not yet unveiled plans to support AVX-512. Compilers, supporting AVX-512 GCC 4.9 and newer Clang 3.9 and newer ICC 15.0.1 and newer compiler C'29 Java 9 (30) Go to 1.11 31 Julia (Julia) - applications suitable for floating point computing in multimedia, scientific and financial applications (AVX2 adds support for operations inger). Increases concurrency and bandwidth in floating point SIMD calculations. Reduces the burden on the register due to non-destructive instructions. Improves the performance of Linux RAID software (required AVX2, AVX insufficient) StarCitizen software (Game) Starting with version 3.11 and beyond StarCitizens minimum requirements have been updated to use AVX, the game engine currently uses DirectX 11, but is developing Vulkan API support for use in its modified Lumberyard engine. Blender uses AVX2 in render engine cycles. Botan uses avX and AVX2 when it is available to speed up some algorithms such as ChaCha. Crypto uses both AVX and AVX2 when it is available to speed up some algorithms such as Salsa and ChaCha. OpenSSL uses optimized AVX and AVX2 cryptographic features from 1.0.2. This support is also present in various clones and forks, such as LibreSSL Prime95/MPrime, the software used for GIMPS, has started using AVX instructions, as the 27.x. dav1d AV1 decoder version can use AVX2 on supported processors. dnetc, the software used distributed.net, has the AVX2 core available for its RC5 project and will soon release it for its OGR-28 project. Einstein@Home uses AVX in some of its distributed applications that are looking for gravitational waves. The company uses AVX Folding@home the settlement cores sold with the GROMACS library. Horizon: zero dawn uses the AVX1's Decima (game engine) and is the engine the game uses. RPCS3, an open source PlayStation 3 emulator, uses AVX2 and AVX-512 instructions to emulate PS3 games. Network Device Interface, an IP video/audio protocol developed by NewTek for live production, uses AVX and AVX2 to improve performance. TensorFlow with version 1.6 and tensorflow above versions requires processor support at least AVX. AVX2 video coders The AVX-512 can use the AVX2 or AVX-512 to speed up coding. Different processor-based cryptocurrency miners (such as the Bitcoin and Litecoin puler processor) use AVX and AVX2 for a variety of different procedures, including SHA-256 and crypt. libsodium uses AVX to implement scalar multiplication for Curve25519 and Ed25519, AVX2 for BLAKE2b, Salsa20, ChaCha20 and AVX2 and AVX-512 in the implementation of the Argon2 algorithm. libvpx open source VP8/VP9 encoder/decoder uses AVX2 or AVX-512 when available. FFTW can use AVX, AVX2 and AVX-512 when available. LLVMpipe, an OpenGL rendering software in Mesa using Gallium and LLVM infrastructure, uses AVX2 when needed. glibc uses AVX2 (with FMA) for optimized implementation (i.e. expf, sinf, powf, atanf, atan2f) of various mathematical functions in libc. The Linux kernel can use AVX or AVX2 with AES-NI as an optimized implementation of the AES-GCM cryptographic algorithm. The Linux kernel uses AVX or AVX2, when available, in optimized implementation of several other cryptographic ciphers: Camelia, CAST5, CAST6, Serpent, Twofish, MORUS-1280 and other primitives: Poly1305, SHA-1, SHA-256, SHA-512, ChaCha20. POCL, the portable computing language that implements OpenCL, uses AVX, AVX2 and AVX512 whenever possible. .NET Core and .NET Framework can use AVX, AVX2 through common System.Numerics.Vectors namespace. .NET Core, starting with version 2.1 and more widely after version 3.0 can directly use all AVX, AVX2 internal through System.Runtime.Intrinsics.X86 namespace. EmEditor 19.0 and above uses the AVX-2 to speed up processing. The massive X softsynth from Native Instruments requires an AVX. Microsoft teams use AVX2 instructions to create a blurr or custom background for video chat participants. Simdjson JSON Disassembly Library uses AVX2 to achieve improved decoding speed. Down, because the AVX instructions are wider and generate more heat, Intel processors have provisions to reduce the Turbo Boost frequency limit when such instructions are performed. Regulation is divided into three levels: L0 (100%): Normal turbocharger limit. L1 (85%): Limit AVX Boost. Soft triggers 256-bit heavy (floating point unit: FP math and multiplication integer) instructions. L2 (60%): AVX-512 Boost. Soft triggering of 512-bit heavy instructions. Downclocking means that using AVX in a mixed workload with an Intel processor can be penalized for frequency, even though it is faster in a clean context. Avoiding the use of broad and heavy instructions helps to minimize in these cases. THE AVX-512VL allows you to use 256-bit or 128-bit operands in the AVX-512, making it his default for mixed loads. See also the expansion of memory protection Scalable vector extension for ARM - a new set of vector instructions (complementing VFP and NEON) similar to the AVX-512, with some additional features. References - Kanter, David (September 25, 2010). Sandy Bridge Microarchitecture by Intel. www.realworldtech.com. received on February 17, 2018. Pear, Joel (October 24, 2011). Bulldozer Analysis: Why the AMD chip is so frustrating - Page 4 out of 5 - ExtremeTech. ExtremeTech. Received on February 17, 2018. a b c d e James Reinders (July 23, 2013), AVX-512, Intel, extracted August 20, 2013 - Intel Xeon Phi Processor 7210 (16GB, 1.30 GHz, 64 cores) product specifications. Intel ARK (Product Specifications). Received on March 16, 2018. - b Haswell New Instruction Descriptions Now Available, Software.intel.com, received January 17, 2012 - 14.9. Intel 64 and IA-32 Architecture Software Developer Guide Volume 1: Basic Architecture (PDF) (-051US ed.). Intel. page 349. Received on August 23, 2014. Memory arguments for most VEX prefix instructions work normally without causing #GP (0) on any alignment in the direction of detail (as opposed to Legacy SSE instructions). i386 and x86-64 Options - Using the GNU compiler collection (GCC). Received on February 9, 2014. Intel, AMD and VIA Microarchitecture: Optimization Guide for Build and Compiler Programmers (PDF). Received on October 17, 2016. AVX2 Chess Programming. Received on October 17, 2016. Intel offers Peek in Nehalem and Larrabee. ExtremeTech. March 17, 2008. Intel Core i7-3960X Extreme Edition Processor. Received on January 17, 2012. Dave Christie (May 7, 2009), Striking a Balance, AMD Developer blogs, archived from the original November 9, 2013, extracted January 17, 2012 - New instructions for the release of Bulldozer and Bulldozer and Bulldozerriver (PDF), AMD, October 2012 - YASM 0.7.0 Release Notes. yasm.tortall.net. Add support for extended FPU staffs to amd64, for both 64bit and 32bit ABIs, svnweb.freebsd.org, January 21, 2012, received January 22, 2012 - FreeBSD 9.1-RELEASE announcement. Received on May 20, 2013. x86: Add linux kernel support for YMM state received July 13, 2009 - Linux 2.6.30 - Linux Kernel Newbies, received July 13, 2009 - Twitter received June 23, 2010 (unreliable source?) - Add support for maintaining/restoring FPU status with XSAVE/XRSTOR., received March 25, 2015 - Support for floating points for 64-bit drivers received December 6, 2009 Additional instructions AVX-512. Intel. Received on August 3, 2014. b Intel Architecture Instruction Set Expansion Programming Handbook (PDF). Intel. Received on January 29, 2014. - b c d e f g Intel® Architecture Settings Extension Future Features Programming Handbook. Intel. Received on October 16, 2017. Intel® software Intel Emulator® Software. software.intel.com. Received on 11 June 2016. GCC 4.9 release series - changes, new features and fixes - GNU Project - Free Software Fund (FSF). gcc.gnu.org. received on April 3, 2017. LLVM 3.9 Release Notes - llVM 3.9 documentation. releases.llvm.org. received on April 3, 2017. Intel® Parallel Studio XE 2015 Composer Edition C Release Notes (en) Intel® Software. software.intel.com. received on April 3, 2017. Microsoft Visual Studio 2017 supports Intel® AVX-512. JDK 9 Release Notes. Go 1.11 Release Notes. The demystification of auto-vectorization in Julia. juliacomputing.com. September 27, 2017. Received on April 11, 2020. Anne LoopVectorization. JuliaLang. January 1, 2020. Received on April 11, 2020. Linux RAID. LVN. February 17, 2013. Archive from the original on April 15, 2013. Improving OpenSSL performance. May 26, 2015. Received on February 28, 2017. dav1d: performance and completion of the first release. November 21, 2018. Received on November 22, 2018. Einstein@Home applications. Tensorflup 1.6. New version 19.0 - EmEditor (text editor) - MASSIVE X requires a compatible AVX processor. Native tools. Received on November 29, 2019. Equipment requirements for Microsoft teams. Microsoft. Received on April 17, 2020. Jeff Langdale; Daniel Lemire (2019). Parsing the gigabyte of JSON per second. arXiv:1902.08318 DB. B Lemire, Daniel. AVX-512: when and how to use these new instructions. Blog by Daniel Lemire. BeeOnRope. SIMD instructions, reducing the frequency of the processor. Overflowing stacks. x86 - AVX 512 vs. AVX2 performance for simple array processing cycles. Overflowing stacks. Intel Intrinsics Guide x86 External Links To the Assembly Language Handbook from the intel architecture instruction set extensions. intel architecture instruction set extensions programming reference

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