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Explore the top contributors showcasing the highest number of app submissions within our community.

AMD

Advanced Micro Devices (AMD) is a global semiconductor company that designs CPUs, GPUs, and accelerators for data centers, PCs, and embedded systems. Founded in 1969, AMD has built a significant AI infrastructure position through its AMD Instinct GPU line and the open-source ROCm software stack, which together serve as an alternative to proprietary GPU ecosystems for large-scale AI development.

General
CompanyAdvanced Micro Devices, Inc.
Founded1969
HeadquartersSanta Clara, California, USA
Websiteamd.com
DocumentationROCm Docs
GitHubgithub.com/ROCm
Developer HubAMD ROCm Developer Hub
TypeSemiconductor / AI Infrastructure

Start building with AMD products

AMD provides cloud-based GPU access, open-source software tooling, and developer resources for building AI applications at scale. Whether you are training a custom model, running large-scale inference, or benchmarking AI workloads, AMD's infrastructure stack gives you the compute and software you need without proprietary lock-in. Explore what the community has built on AMD by checking out AMD Use Cases and Applications.


Core Products

AMD Instinct GPU Accelerators

The AMD Instinct series are data center GPUs built for AI training and inference at scale. The MI300X is based on the CDNA 3 architecture and supports up to 192GB of HBM3 memory, making it well-suited for large language model inference where memory capacity is a bottleneck. The MI325X extends this to 288GB of HBM3E memory. Seven of the ten largest model builders and AI companies, including Meta, OpenAI, Microsoft, and xAI, run production workloads on Instinct GPUs.

ROCm (Radeon Open Compute)

ROCm is AMD's open-source software platform for GPU-accelerated computing. It supports HIP, OpenCL, and OpenMP programming interfaces and integrates with major ML frameworks including PyTorch, TensorFlow, and JAX. ROCm 7 is the current version, engineered for generative AI and HPC workloads with expanded hardware compatibility and new development tools.

For framework support, installation guides, and libraries, see our ROCm tech page.

HIP SDK

The AMD HIP (Heterogeneous-compute Interface for Portability) SDK allows developers to write GPU-accelerated code that runs on AMD hardware. HIP code is also designed to be portable to CUDA, lowering the barrier for developers migrating workloads from other GPU platforms.

AMD Developer Cloud

AMD provides a cloud environment where developers can access AMD Instinct GPU hardware for testing and benchmarking, along with free credits, training materials, and community support.

For setup details, credit access, and tutorials, see our AMD Developer Cloud tech page.


Developer Resources

AMD's open-source developer ecosystem is built around ROCm, with documentation, libraries, and tooling available for AI and HPC workloads on AMD hardware.


Key Features

Open-source software stack ROCm is fully open-source under the MIT and Apache 2.0 licenses, giving developers full visibility into the toolchain and the ability to contribute upstream.

Large memory capacity The MI300X provides up to 192GB of HBM3 memory per GPU, enabling inference of very large models (70B+ parameter) on a single accelerator without model parallelism.

Framework compatibility ROCm supports PyTorch, TensorFlow, JAX, and ONNX Runtime, allowing most standard AI training and inference pipelines to run without significant modification.

HIP portability HIP code compiles for both AMD and NVIDIA hardware, reducing the cost of maintaining GPU-specific codebases across infrastructure environments.


Use Cases

Large language model inference The high HBM capacity of AMD Instinct GPUs makes them a practical choice for serving large models where VRAM is the primary constraint.

AI model training Teams training custom models at scale use AMD Instinct GPUs through cloud providers and on-premise clusters as a cost-competitive alternative to other data center GPU options.

HPC workloads ROCm's support for scientific computing libraries makes AMD hardware a common choice for high-performance computing in research and enterprise environments.

Hackathon and prototyping AMD provides cloud access and credits for developers building AI prototypes, making it possible to test workloads on AMD hardware without upfront hardware costs. Explore upcoming AI hackathons that use AMD infrastructure.

amd AI Technologies Hackathon projects

Discover innovative solutions crafted with amd AI Technologies, developed by our community members during our engaging hackathons.

HomzDoctor – AI Healthcare Copilot

HomzDoctor – AI Healthcare Copilot

HomzDoctor is an AI-powered healthcare platform built to assist both patients and healthcare providers throughout the healthcare journey. Our goal is not to replace doctors but to help them make faster and more informed decisions. Patients can upload medical reports, lab results, X-rays, MRI scans, CT scans, and other healthcare documents. The platform processes this information and generates structured insights that can help doctors review cases more efficiently. A key part of our solution is the doctor verification layer. Any AI-generated finding must be reviewed and approved by a licensed healthcare professional before it is presented as a diagnosis or treatment recommendation. This ensures patient safety and keeps doctors in control of medical decisions. After doctor approval, HomzDoctor continues to support patients through several healthcare services. Patients can ask questions about their reports using an AI assistant, receive medication reminders, track adherence to prescriptions, find nearby pharmacies, and schedule appointments with healthcare providers. The platform uses a multi-agent architecture where specialized AI agents handle different tasks such as medical imaging analysis, diagnostic support, medication information, pharmacy services, appointment scheduling, and patient assistance. This approach makes the system more scalable and efficient. We built HomzDoctor to address common healthcare challenges such as delayed access to information, missed medications, difficulty understanding medical reports, and finding healthcare services quickly. Our team consists of three members who worked on designing the healthcare workflow, building the AI agent system, developing the backend and frontend applications, and integrating healthcare-related services into a single platform.

FinOps Swarm

FinOps Swarm

Enterprise project finances run across three legacy systems: a mainframe ERP holding committed and actual costs, IBM TM1 holding the budget via a SQL source database, and Cognos BI as the reporting layer. When a change order is approved, all three systems should update. They rarely do. Nobody finds out until Cognos renders a report days later, by which time decisions have already been made on wrong numbers. This is not a data quality problem. It is an event propagation problem. Change orders fall into a manual queue that nobody owns end-to-end. A senior analyst spends 2-4 hours per project per week just to answer one question: what did we actually spend this week? Because the mainframe only stores cumulative running totals, not period-bounded figures. FinOps Swarm replaces manual reconciliation with six Band-coordinated AI agents. Agent 1 detects approved change orders and posts to the Band shared room. Agents 2 and 3 run in parallel: one checks the mainframe ERP, one checks the SQL source feeding TM1 via TurboIntegrator. Agent 4 waits for both findings in the Band room, then calls a local Llama 3.2 model on AMD hardware to generate a CFO-ready narrative. Financial data never leaves the network. Agent 5 surfaces only genuine exceptions to the CFO with a one-click decision card. Agent 6 computes period-bounded weekly spend automatically from mainframe snapshots. Band's shared room is load-bearing, not decorative. Agents 2 and 3 post independent findings. Agent 4 waits for both. Agent 5 reads everything. Built by a systems engineer who works on TM1 and mainframe pipelines daily. Every pain point is real.