modal-serverless-gpu

Run ML training, inference, and API deployments on Modal's serverless GPU cloud.

Updated Apr 10, 2026
One-click install
npx skills add https://github.com/VYRE-Studios/Windows-Agentic-Framework --skill modal-serverless-gpu-vyre-studios
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: modal-serverless-gpu
Source: https://github.com/VYRE-Studios/Windows-Agentic-Framework/tree/main/skills/mlops/cloud/modal
Command: npx skills add https://github.com/VYRE-Studios/Windows-Agentic-Framework --skill modal-serverless-gpu-vyre-studios

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes references (resource) components.

What problem does it solve?

This Skill provides a practical, production-oriented workflow for running GPU-intensive machine learning training and inference without managing servers, enabling teams to deploy models as scalable APIs and run transient batch jobs with pay-per-second billing.

Core Features & Use Cases

  • Serverless GPU access across a broad range of hardware for cost-effective inference and training at scale.
  • Python-native application definition and container image management for rapid iteration and reproducible environments.
  • Persistent volumes, secrets management, and scheduling primitives to support model caching, secure credential access, and recurring jobs.
  • Multi-GPU and distributed training patterns, dynamic batching, and cold-start mitigation for latency-sensitive production workloads.
  • Use Case: Expose a PyTorch model as a REST API that scales from zero to hundreds of GPUs, while using a shared volume for model artifacts and secrets for credentials.

Quick Start

Deploy a GPU-backed Modal app that loads a PyTorch model on an A100, mounts a persistent volume for model weights, and exposes a REST predict endpoint.

Frequently Asked Questions about modal-serverless-gpu

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

FAQPage Schema
How do I deploy a PyTorch model as a serverless GPU API?

Serverless GPU deployment for PyTorch models involves wrapping your inference logic in a Python-native application definition and exposing a REST predict endpoint. This approach scales from zero to hundreds of GPUs on demand, mounting persistent volumes for model weights while using secrets for secure credential access.

What is the best way to run distributed ML training without managing servers?

Serverless GPU compute for distributed ML training eliminates server management by applying Python-native container definitions to transient batch jobs. You can execute multi-GPU training patterns with persistent volumes for artifacts, paying only per second of compute used during the job lifecycle.

Can I use persistent volumes and secrets for serverless GPU inference?

Persistent volumes and secrets management are supported for serverless GPU inference workloads. Volumes enable model caching and shared artifact access across scaled instances, while secrets management securely handles credentials required by your ML APIs and training jobs.

How do I mitigate cold-start latency for serverless ML inference APIs?

Cold-start mitigation for serverless ML inference APIs is handled through container image management and scheduling primitives. By keeping environments warm and optimizing image builds, you reduce latency for production workloads that require dynamic batching and rapid scaling responses.

Does serverless GPU compute support scheduled cron-like tasks for ML pipelines?

Scheduled cron-like tasks are supported for serverless GPU workloads on Modal's cloud. You can automate recurring ML training jobs, batch processing, and model updates by leveraging the platform's scheduling primitives alongside persistent volumes for state management.

What GPU hardware is available for serverless ML workloads?

A broad range of GPU hardware is available for serverless ML workloads, including A100s for intensive training and inference tasks. This hardware access is on-demand, allowing you to select appropriate GPUs for cost-effective scaling without provisioning underlying infrastructure.