huggingface-accelerate

Enable distributed training for PyTorch scripts with automatic device placement.

Updated Mar 25, 2026
One-click install
npx skills add https://github.com/afel6/scal-ai-pipeline --skill huggingface-accelerate-afel6
Or copy as Structured Prompt for Agent▼
Please help me install this Agent Skill.
Skill: huggingface-accelerate
Source: https://github.com/afel6/scal-ai-pipeline/tree/main/hermes_skills_library/optional-skills/mlops/accelerate
Command: npx skills add https://github.com/afel6/scal-ai-pipeline --skill huggingface-accelerate-afel6

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes references (resource) components.

What problem does it solve?

Accelerate removes the boilerplate and launcher complexity required to convert a single-GPU PyTorch script into a robust distributed training job, handling device placement, mixed precision, and orchestration so engineers can scale experiments reliably.

Core Features & Use Cases

  • Minimal code changes: Enable distributed training by adding just a few lines and calling accelerator.prepare to wrap model, optimizer, and dataloaders.
  • Unified backend support: Works with DDP, DeepSpeed ZeRO, FSDP, Megatron-LM, TPUs, and CPU-only setups for both single-node and multi-node runs.
  • Performance and stability: Built-in mixed-precision (fp16/bf16/fp8), gradient accumulation, checkpoint/save/load helpers, and interactive accelerate config for reproducible launches.
  • Use Case: Fine-tune large transformer models across multiple GPUs with ZeRO/FSDP for memory savings, or run Megatron tensor+pipeline parallelism for massive models.

Quick Start

Configure your environment with accelerate config and then run accelerate launch train.py to start distributed training.

Frequently Asked Questions about huggingface-accelerate

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I convert a single GPU PyTorch script to distributed training?▼

PyTorch distributed training is enabled by adding a few lines and calling accelerator.prepare to wrap the model, optimizer, and dataloaders. This removes boilerplate and handles device placement automatically for multi-GPU runs.

Can I use FSDP and DeepSpeed for mixed-precision fine-tuning?▼

Yes, unified backend support includes DeepSpeed ZeRO and FSDP for memory savings during fine-tuning. Built-in mixed-precision training supports fp16, bf16, and fp8 formats to optimize performance and stability across multiple GPUs.

What is the best way to launch a multi-node PyTorch training job?▼

The best way to launch multi-node PyTorch training is using the integrated launcher for deterministic distributed runs. After configuring your environment with accelerate config, run accelerate launch train.py to reliably start your multi-node job.

Does this distributed training approach support TPUs and CPU-only setups?▼

Yes, the approach supports single-node multi-GPU, multi-node, TPU, and CPU-only setups. It provides automatic device placement and accelerator.prepare orchestration to ensure your script runs correctly across these varied hardware environments.

How does gradient accumulation work with large transformer models?▼

Gradient accumulation is built-in to handle large transformer models when memory savings are needed. It works alongside mixed-precision training and checkpoint orchestration to manage memory constraints during fine-tuning across multiple GPUs.