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NVIDIA Ampere

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NVIDIA Ampere
NameNVIDIA Ampere
DeveloperNVIDIA
Release2020
ArchitectureAmpere
FabricationSamsung / TSMC
PredecessorVolta / Turing
SuccessorAda Lovelace

NVIDIA Ampere is a GPU microarchitecture developed by NVIDIA for datacenter, professional visualization, and consumer graphics markets. It succeeded Volta (microarchitecture) and Turing (microarchitecture), competing with products from AMD and influencing designs at Intel Corporation and ARM Ltd.. Ampere-powered accelerators have been adopted across cloud platforms such as Amazon Web Services, Google Cloud Platform, and Microsoft Azure and used in research at institutions like Massachusetts Institute of Technology and Stanford University.

Overview

Ampere launched in 2020 amid demand for accelerated computing in fields represented by OpenAI, DeepMind, Facebook (Meta Platforms), IBM Research, and Lawrence Berkeley National Laboratory. It targets workloads exemplified by models from GPT-3, BERT, ResNet, Transformer (machine learning model), and simulations like those run at CERN and Los Alamos National Laboratory. Ampere chips are fabricated by foundries such as Samsung Electronics and Taiwan Semiconductor Manufacturing Company. Major products include datacenter accelerators used by NVIDIA DGX systems and consumer cards sold to gamers and creators via channels like Best Buy and Newegg.

Architecture

Ampere introduced architectural changes following ideas tested on NVIDIA Volta and NVIDIA Turing. It features third-generation Tensor Cores and second-generation RT Cores, facilitating mixed-precision operations used in projects at Allen Institute for AI and University of California, Berkeley. Ampere supports CUDA enhancements and works with standards from PCI Express consortium and memory interfaces like GDDR6X developed by Micron Technology. The design emphasizes throughput advances inspired by research from Carnegie Mellon University and California Institute of Technology, and it integrates techniques popularized in publications at NeurIPS and International Conference on Machine Learning.

GPUs and Product Lineup

Products based on Ampere span datacenter and consumer markets. Datacenter cards include accelerators used in NVIDIA A100 systems integrated into servers from vendors such as Dell Technologies, Hewlett Packard Enterprise, and Lenovo. Consumer GPUs based on Ampere appeared as part of the GeForce RTX 30 series, retailed through partners like ASUS, MSI, and Gigabyte Technology. Workstation variants target industries served by Autodesk, Adobe Systems, and Siemens Digital Industries Software. Cloud instances use Ampere GPUs in services provided by Oracle Cloud Infrastructure and Alibaba Cloud for workloads from organizations such as NASA and European Space Agency.

Performance and Benchmarks

Ampere's performance was evaluated in contexts resembling benchmarks from SPEC and machine-learning suites used by Stanford DAWN Project and MLPerf. Synthetic workloads compared Ampere to chips from AMD Radeon Technologies Group and accelerators from Google TPU families, with results published by entities like Tom's Hardware and AnandTech. In AI training, Ampere demonstrated speedups on transformer models similar to those reported by OpenAI and Microsoft Research. For ray tracing workloads, comparisons referenced titles and engines developed by Epic Games and Unity Technologies, while compute throughput metrics matched workloads run by NVIDIA Research and academic groups at University of Cambridge.

Software and Ecosystem

Ampere integrates tightly with the CUDA ecosystem and libraries maintained by NVIDIA Corporation, such as cuDNN, TensorRT, and NCCL. It supports frameworks from TensorFlow, PyTorch, ONNX Runtime, and toolchains used at Google Research and Facebook AI Research. Development workflows often use orchestration from Kubernetes and container images hosted on Docker Hub and registry services affiliated with Red Hat. Profiling and debugging tools from NVIDIA Nsight and integrations with platforms like Hugging Face and Weights & Biases accelerated model development in labs including MIT CSAIL and ETH Zurich.

Market Reception and Impact

Ampere affected markets monitored by analysts at Gartner, IDC, and J.P. Morgan Chase. Its introduction coincided with semiconductor trends involving TSMC capacity, supply issues noted by United States Department of Commerce, and crypto-mining interest from communities such as Bitcoin and Ethereum. Enterprises from Bloomberg L.P. to Goldman Sachs leveraged Ampere compute for analytics and risk modeling, while scientific consortia like Human Genome Project participants used it for genomics pipelines. Competitive responses came from Advanced Micro Devices with products tied to CDNA architecture and from Intel with efforts under Project Aurora and other initiatives.

Category:Graphics processing units