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AMD CDNA

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AMD CDNA
NameAMD CDNA
DeveloperAdvanced Micro Devices
Introduced2020s
ArchitectureRDNA-derived compute architecture
ProcessTSMC 7 nm, 6 nm, 5 nm (varies)
MarketsHigh-performance computing, data centers, AI

AMD CDNA

AMD CDNA is a family of compute-focused microarchitectures developed by Advanced Micro Devices for high-performance computing, artificial intelligence, and data center acceleration. It evolved from AMD's graphics expertise and targets workloads in supercomputers, cloud services, and research institutions. Major deployments and roadmap decisions involved collaborations with technology companies and national laboratories.

Overview

CDNA was announced as AMD's response to trends in accelerator-driven computing involving institutions such as Oak Ridge National Laboratory, Lawrence Livermore National Laboratory, Los Alamos National Laboratory, CERN, and corporations like Microsoft, Amazon Web Services, Google, and Meta Platforms. The design aimed to address exascale initiatives exemplified by projects like Frontier (supercomputer), El Capitan, and procurement programs from organizations including Department of Energy, European Commission, and Japan Aerospace Exploration Agency. The initiative aligned with competitive dynamics involving NVIDIA, Intel Corporation, ARM Holdings, and collaborations between IBM and national research centers.

Architecture

CDNA adopted a compute-first layout influenced by preceding AMD microarchitectures such as RDNA, Vega (microarchitecture), and GCN. It emphasized matrix and tensor operations comparable to accelerators like NVIDIA A100, Google TPU, and designs by Intel Xe. Key elements included large die layouts leveraging foundries such as TSMC, memory subsystems akin to High Bandwidth Memory, and interconnect schemes referencing Infinity Fabric and industry fabrics like PCI Express, CCIX, and CXL. Instruction sets, virtualization features, and coherence strategies interacted with operating systems and runtimes maintained by projects such as Linux kernel, OpenCL, ROCm, and standards bodies like the Khronos Group.

Hardware Products

Products based on CDNA appeared in form factors competing with accelerators from vendors including NVIDIA Corporation, Intel Xeon Phi, and OEM platforms by HPE, Dell Technologies, Lenovo, and Cray Inc.. Notable hardware integrations involved systems deployed by supercomputing centers at Argonne National Laboratory and enterprise cloud offerings from Oracle Corporation and Alibaba Group. Fabrication and supply chain considerations linked AMD with suppliers such as TSMC, packaging partners like ASE Technology Holding, and distribution through channels including Ingram Micro and Arrow Electronics.

Software and Ecosystem

The software ecosystem for CDNA was developed alongside open and proprietary stacks including ROCm, HIP, OpenCL, OpenMP, and machine learning frameworks such as TensorFlow, PyTorch, and MXNet. Partnerships spanned research groups at Stanford University, Massachusetts Institute of Technology, University of California, Berkeley, and industry labs at NVIDIA Research and Google Research for benchmarking and optimization. Toolchains utilized compilers and libraries associated with GCC, LLVM, BLAS, and vendors like HPE Pointnext and Microsoft Research for deployment, while standards and interoperability discussions involved ISO, IEEE, and the Open Compute Project.

Performance and Benchmarks

CDNA-class accelerators were benchmarked against contemporaries such as NVIDIA A100, Google TPU v3, and Intel Habana Labs devices using suites developed by SPEC, TOP500, and machine learning benchmarks maintained by MLPerf. Performance claims emphasized throughput in FP64, FP32, BFLOAT16, and INT8 metrics relevant to workloads from Los Alamos National Laboratory, Sandia National Laboratories, and climate modeling centers like NOAA. Results influenced procurement decisions by organizations including NASA, European Southern Observatory, and commercial cloud providers such as Amazon Web Services and Microsoft Azure.

Market Position and Use Cases

CDNA targeted segments including exascale supercomputing exemplified by projects like Frontier (supercomputer) and enterprise AI clouds operated by Google Cloud Platform and Microsoft Azure. Primary use cases spanned scientific simulation at institutions like CERN, genomics at centers such as Broad Institute, financial modeling in firms including Goldman Sachs, and autonomous research in companies like Tesla, Inc. and Waymo LLC. Competitive dynamics placed AMD against NVIDIA Corporation, Intel Corporation, and emerging startups backed by investors including Sequoia Capital and Andreessen Horowitz.

Category:AMD microarchitectures