RynnVLA-001 – Alibaba DAMO Academy’s Open-Source Vision-Language-Action Model

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What is RynnVLA-001?

RynnVLA-001 is a vision–language–action model developed by Alibaba DAMO Academy. By pretraining on a large corpus of first-person-view videos, the model learns human operational skills and implicitly transfers them to robotic arm control. Combining video generation techniques with a Variational Autoencoder (VAE), it can produce coherent, smooth action sequences that more closely resemble human movements. The model unifies “next-frame prediction” and “next-action prediction” within a single Transformer architecture, significantly improving robots’ success rate and instruction-following ability in complex tasks.

RynnVLA-001 – Alibaba DAMO Academy’s Open-Source Vision-Language-Action Model


Key Features of RynnVLA-001

  • Understanding language commands: Accepts natural language instructions such as “Move the red object into the blue box.”

  • Generating action sequences: Produces coherent, smooth action sequences based on the given command and current visual environment, driving the robotic arm to complete tasks.

  • Adapting to complex scenarios: Handles intricate pick-and-place tasks and long-horizon operations, increasing task completion rates.

  • Imitating human operations: Learns from first-person-view videos to generate actions that more closely resemble natural human manipulation.


Technical Principles of RynnVLA-001

  1. Stage 1 – First-person video generation model:
    Pretrained on large-scale first-person-view video datasets to learn visual patterns and physical dynamics of human operations. Uses a Transformer-based autoregressive architecture to predict future frames, simulating visual reasoning in robotic operations.

  2. Stage 2 – Variational Autoencoder (VAE):
    Compresses action clips into compact embedding vectors to reduce computational costs. The VAE decoder reconstructs the embeddings into coherent action sequences, improving the smoothness of action predictions.

  3. Stage 3 – Vision–Language–Action model:
    Fine-tunes the pretrained video generation model into a VLA model that unifies “next-frame prediction” and “next-action prediction.” Using a Transformer architecture, it combines visual inputs and language instructions to generate action embeddings that drive robots to perform tasks.


Project Links


Application Scenarios

  • Industrial automation: Drives robots to perform complex assembly and quality inspection tasks in manufacturing, improving efficiency and product quality.

  • Service robots: Enables robots to follow natural language commands to perform everyday tasks in homes or restaurants, such as organizing items or delivering food.

  • Logistics and warehousing: Guides robots to sort and transport goods in warehouses, optimizing inventory management workflows.

  • Healthcare: Assists in surgical procedures or rehabilitation training, enhancing the precision and efficiency of medical services.

  • Human–robot collaboration: Improves robots’ understanding of human instructions, enabling natural and seamless human–robot interactions.

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