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OpenVLA

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OpenVLA: An open-source vision-language-action model for robotic manipulation.

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OpenVLA

Added 1 June 2026

Overview

OpenVLA is an open-source vision-language-action model that enables robots to perform manipulation tasks by interpreting visual inputs and natural language commands. It combines a vision encoder, a language model, and an action decoder to output control signals. The model is designed to be fine-tuned for specific robots and environments.

Best for

Best for
Robotics researchers and developers building custom vision-language-action policies for manipulation

Use cases

  • Controlling robotic arms with natural language instructions
  • Fine-tuning the model for custom manipulation tasks or datasets
  • Research into generalist robot policies and imitation learning

Notes

OpenVLA is an open-source vision-language-action model that enables robots to perform manipulation tasks by interpreting visual inputs and natural language commands. It combines a vision encoder, a language model, and an action decoder to output control signals. The model is designed to be fine-tuned for specific robots and environments.

6,322 stars on GitHub. Last updated 2025-03-23. Licensed MIT.

Use cases

  • Controlling robotic arms with natural language instructions
  • Fine-tuning the model for custom manipulation tasks or datasets
  • Research into generalist robot policies and imitation learning

Pros

  • Open-source and community-driven, reducing vendor lock-in
  • Supports fine-tuning for task-specific adaptation
  • Large and growing ecosystem (6.3k+ GitHub stars)

Cons

  • Requires significant GPU memory and compute for inference and training
  • Model performance depends heavily on training data quality and task similarity
  • Not yet production-tested for safety-critical or high-reliability deployments

Indexed from awesome-llmops and enriched against its public facts.

Pros

  • Open-source and community-driven, reducing vendor lock-in
  • Supports fine-tuning for task-specific adaptation
  • Large and growing ecosystem (6.3k+ GitHub stars)

Cons

  • Requires significant GPU memory and compute for inference and training
  • Model performance depends heavily on training data quality and task similarity
  • Not yet production-tested for safety-critical or high-reliability deployments