awesome-repositories.com
Blog
MCP
awesome-repositories.com

Discover the best open-source repositories with AI-powered search.

ExploreCurated searchesOpen-source alternativesSelf-hosted softwareBlogSitemap
ProjectMCP serverAboutHow we rankPress
LegalPrivacyTerms
© 2026 Bringes Technology SRL·VAT RO45896025·hello@awesome-repositories.com
huggingface avatar

huggingface/accelerate

0
View on GitHub↗
9,725 stars·1,370 forks·Python·Apache-2.0·38 viewshuggingface.co/docs/accelerate↗

Accelerate

Accelerate is a PyTorch distributed training library that abstracts the boilerplate required to run models across multiple GPUs, TPUs, and CPUs. It functions as a deep learning model scaler and distributed hardware orchestrator, allowing the same training script to run on different hardware backends without modifying the core logic.

The project provides a distributed training command line interface for configuring compute environments and launching jobs across single or multi-node clusters. It includes a mixed precision training framework to implement FP16 and BF16 precision, reducing memory usage and increasing compute speed.

The library covers a broad range of scaling capabilities, including sharded data parallelism, gradient accumulation, and gradient clipping to optimize memory and stability. It manages distributed object preparation, state synchronization, and model persistence across available accelerators.

The toolkit includes a guided configuration prompt to set up hardware environments and save settings for subsequent launches.

Features

  • Distributed Training - Functions as a comprehensive toolkit for configuring data and model parallelism to scale neural network training across multiple devices.
  • Distributed Deep Learning - Scales deep learning model training across multiple compute nodes and GPUs using sharding and accumulation techniques.
  • Distributed Training Accelerators - Provides utilities to scale deep learning workloads across multiple hardware accelerators by abstracting device placement and distribution.
  • Distributed Training Orchestrators - Provides a framework for parallelizing model training across multiple processors and managing distributed training jobs.
  • Distributed Training Sharding - Implements strategies for partitioning training datasets and model states across multiple compute nodes.
  • Hardware Abstraction Layers - Provides a hardware abstraction layer to run the same training script across diverse backends like CPUs, GPUs, and TPUs.
  • Hardware Device Management - Implements a common interface for automated data placement and computation across diverse CPU and GPU hardware.
  • Large-Scale Model Training - Employs gradient accumulation and sharded parallelism to enable training of models that exceed the memory of a single device.
  • Mixed Precision Training - Employs lower-bit precision formats like FP16 and BF16 to accelerate training speeds and reduce memory consumption.
  • Fully Sharded Data Parallelism - Integrates fully sharded data parallelism to train large models by distributing parameters and optimizer states across devices.
  • PyTorch Training Frameworks - Provides high-level utilities specifically designed to organize and execute the distributed training of PyTorch models.
  • Gradient Accumulation Strategies - Implements gradient accumulation to simulate larger batch sizes within the memory limits of available hardware.
  • Distributed Script Launchers - Ships a utility for launching training processes across multiple GPUs on single or multi-node clusters.
  • Training Process Synchronization - Provides barrier mechanisms specifically for synchronizing distributed machine learning training processes.
  • Distributed Coordination Primitives - Provides low-level coordination primitives to synchronize state and checkpoints across multiple distributed nodes.
  • Distributed Training Coordination - Coordinates and synchronizes machine learning training tasks across multi-node clusters via ranks and network addresses.
  • Distributed Process Control - The ability to execute a function on a designated process index to ensure a task runs only once within a cluster.
  • Distributed Training Managers - Ships a command line interface for configuring hardware environments and launching distributed training jobs without modifying code.
  • Gradient Clipping Utilities - Provides utilities to rescale gradient values during backpropagation to prevent exploding gradients and training divergence.
  • Hardware Acceleration Abstractions - Offers a unified interface that abstracts platform-specific environment variables for hardware-accelerated compute.
  • Restrictions - Restricts specific code blocks to a single process to avoid duplicate logging and redundant data uploads.
  • Model Weight Management - Provides utilities for extracting state dictionaries to save model weights as single files or sharded checkpoints.
  • Gradient Normalizers - Automatically calculates and scales gradients based on the distributed setup to ensure numerical stability during training.
  • Training Checkpointing - Implements mechanisms for saving and restoring model and optimizer states to resume training from checkpoints.
  • ML Model Persistence - Handles the persistence of serialized machine learning models by unwrapping them from distributed containers.
  • Process Launchers - Provides utilities for starting distributed processes with automated environment and launch configuration.
  • Cluster Coordination - Coordinates state and workload distribution across multiple server nodes to synchronize large-scale model execution.
  • Environment Configuration - Provides a guided prompt for configuring compute environments and precision modes for execution.
  • Hardware Configuration Tools - Includes utilities for saving and managing hardware-specific settings to streamline the launch process.
  • Rank-Based Execution Control - Allows restricting specific functions, such as logging or uploads, to a single process to prevent redundancy.
  • CLI Script Execution - Provides a command-line interface for executing training and inference scripts while managing hardware resources.
  • Deep Learning Frameworks - Simplifies multi-GPU and TPU training for PyTorch models.
  • Large Language Models - Simplified abstraction for multi-device training.
  • Model Training and Fine-tuning - Training on multiple GPUs with mixed precision.
  • Optimization Tools - Simplifies multi-GPU and TPU training for PyTorch models.
  • Computation and Optimization - Abstraction for multi-GPU, TPU, and mixed-precision training boilerplate.
  • Developer Tools - Multi-GPU and TPU training utility.
  • Training and Utilities - Tool for multi-GPU and mixed-precision training.
  • Large Language Models (LLMs) - Listed in the “Large Language Models (LLMs)” section of the The Incredible Pytorch awesome list.

Star history

Star history chart for huggingface/accelerateStar history chart for huggingface/accelerate

How this analysis was created: This summary and feature list are AI-generated from collected project material and can contain mistakes. Stars, license and language are imported from GitHub. Inclusion does not mean that we have tested or audited this project. Check the source documentation for any feature you depend on. Learn more on our About page.

AI search

Explore more awesome repositories

Describe what you need in plain English — the AI ranks thousands of curated open-source projects by relevance.

Start searching with AI

Frequently asked questions

What does huggingface/accelerate do?

Accelerate is a PyTorch distributed training library that abstracts the boilerplate required to run models across multiple GPUs, TPUs, and CPUs. It functions as a deep learning model scaler and distributed hardware orchestrator, allowing the same training script to run on different hardware backends without modifying the core logic.

What are the main features of huggingface/accelerate?

The main features of huggingface/accelerate are: Distributed Training, Distributed Deep Learning, Distributed Training Accelerators, Distributed Training Orchestrators, Distributed Training Sharding, Hardware Abstraction Layers, Hardware Device Management, Large-Scale Model Training.

Which projects share features with huggingface/accelerate?

Projects with overlapping indexed features include: horovod/horovod — Horovod is a distributed deep learning framework and gradient synchronizer designed to scale model training across… fastai/fastai — Fastai is a high-level deep learning library built on PyTorch that provides a unified interface for managing the… zhaochenyang20/awesome-ml-sys-tutorial — This project provides a comprehensive technical guide and framework for engineering large-scale machine learning… pytorchlightning/pytorch-lightning — PyTorch Lightning is a high-level deep learning framework for PyTorch that automates training loops and removes… pytorch/torchtune — Torchtune is a PyTorch-native library for fine-tuning, aligning, and quantizing large language models. It provides a… lightning-ai/lightning — Lightning is a PyTorch training framework and distributed AI training orchestrator designed to decouple core research…

Projects sharing features with Accelerate

These projects share indexed features with Accelerate. Shared tags can include platform or build tooling; verify the primary use case before treating a result as a replacement.
  • horovod/horovodhorovod avatar

    horovod/horovod

    14,686View on GitHub↗

    Horovod is a distributed deep learning framework and gradient synchronizer designed to scale model training across multiple GPUs and compute nodes. It functions as a distributed training orchestrator and an elastic training engine, utilizing an MPI collective communication library to synchronize weights and gradients across TensorFlow, PyTorch, Keras, and MXNet models. The system distinguishes itself through dynamic elastic scaling, which allows it to adjust the number of active workers at runtime and recover from node failures. It optimizes communication efficiency using tensor fusion batchi

    Python
    View on GitHub↗14,686
  • fastai/fastaifastai avatar

    fastai/fastai

    27,862View on GitHub↗

    Fastai is a high-level deep learning library built on PyTorch that provides a unified interface for managing the entire machine learning lifecycle. It functions as a comprehensive training toolkit, abstracting hardware management and automating complex training loops to simplify the construction and execution of neural network models. The framework is distinguished by its notebook-centric development environment and a type-dispatching data pipeline that automatically applies transformations based on input data formats. It emphasizes transfer learning through discriminative layer-wise optimiza

    Jupyter Notebookcolabdeep-learningfastai
    View on GitHub↗27,862
  • zhaochenyang20/awesome-ml-sys-tutorialzhaochenyang20 avatar

    zhaochenyang20/Awesome-ML-SYS-Tutorial

    5,371View on GitHub↗

    This project provides a comprehensive technical guide and framework for engineering large-scale machine learning systems. It covers the full lifecycle of model development, focusing on the infrastructure and computational principles required to build, train, and serve generative AI models across distributed GPU clusters. The repository distinguishes itself by offering deep-dive tutorials and implementation strategies for complex system challenges. It emphasizes high-performance architectural primitives, such as collective communication orchestration, distributed tensor sharding, and static gr

    Python
    View on GitHub↗5,371
  • pytorchlightning/pytorch-lightningPyTorchLightning avatar

    PyTorchLightning/pytorch-lightning

    31,189View on GitHub↗

    PyTorch Lightning is a high-level deep learning framework for PyTorch that automates training loops and removes repetitive engineering boilerplate. It functions as a structured pipeline for managing machine learning experiments, providing a distributed training orchestrator and tools for mixed-precision training. The framework decouples scientific model architecture from the engineering required for infrastructure and scaling. This separation allows the same model code to execute across CPUs, GPUs, or TPUs through a hardware-agnostic execution engine and a centralized trainer that manages the

    Python
    View on GitHub↗31,189
Compare all 30 related projects→