SuperAPI AI Directory

Gemini Robotics - Google DeepMind's Embodied Intelligence Large Model

Author: AI小集 · Original source: AI工具集

What is Gemini Robotics

Gemini Robotics is a robotics project launched by Google DeepMind based on Gemini 2.0 , bringing the capabilities of large multimodal models into the physical world. The project includes two main models: Gemini Robotics-ER and Gemini Robotics. Gemini Robotics-ER is an enhanced vision-language model (VLM) with strong embodied reasoning capabilities, supporting tasks such as understanding 3D space, object detection, pointing, trajectories, and grasp prediction. Gemini Robotics is a vision-language-action (VLA) model that supports direct control of robots to complete complex manipulation tasks, demonstrating robustness to changes in object types and positions and executing open-vocabulary instructions. Based on further fine-tuning, Gemini Robotics can solve long-horizon, high-dexterity tasks (such as origami or playing cards) and quickly adapt to new tasks and robot embodiments.

Gemini Robotics

Main Features of Gemini Robotics

  • Intelligent dialogue and question answering for executing complex tasks:
    • High-dexterity tasks: such as origami, playing cards, using tools, etc.
    • Long-horizon tasks: such as packing a lunch box, making a sandwich, and other multi-step tasks.
    • Fine manipulation: such as using tweezers to pick up small objects, tightening bottle caps, etc.
  • Powerful visual and language understanding capabilities:
    • Visual understanding: recognizing and locating objects in scenes, supporting multi-view understanding, 3D spatial reasoning, and object detection.
    • Language understanding: understanding natural language instructions and executing open-vocabulary tasks.
  • Environmental adaptation and generalization capabilities:
    • Visual generalization: robust to changes in background, lighting, and distracting objects in scenes.
    • Action generalization: adapting to changes in object positions and manipulation of different object instances.
    • Instruction generalization: understanding different expressions of instructions (such as different languages, instructions with spelling errors).

Technical Principles of Gemini Robotics

  • Gemini 2.0 foundation model: built on Gemini 2.0. Gemini 2.0 provides Gemini Robotics with powerful visual and language understanding capabilities.
  • Embodied reasoning: Gemini Robotics-ER is an extended version of Gemini Robotics, focusing on embodied reasoning capabilities. It supports understanding 3D space, object relationships, and motion trajectories in the physical world.
  • Vision-language-action (VLA) model:
    • Visual input: acquiring scene images through cameras to recognize objects and the environment.
    • Language instructions: understanding natural language instructions and converting them into specific robot actions.
    • Action output: generating robot action instructions to achieve execution of complex tasks.
  • Data-driven training:
    • Robot action data: learning how to perform various tasks based on operation data from real robots.
    • Non-robot data: such as web images, text, videos, etc., providing rich background knowledge and generalization capabilities.
  • Architecture design:
    • Cloud VLA backbone network: responsible for handling complex visual and language reasoning tasks.
    • Local action decoder: Runs locally on the robot, responsible for generating action commands in real time, ensuring low latency and high responsiveness.

Gemini Robotics project address

Gemini Robotics application scenarios

  • Industrial manufacturing: Used in complex assembly, quality inspection, and repair to improve production efficiency and precision.
  • Logistics and warehousing: Enables automation of cargo sorting, packaging, and loading/unloading, improving logistics efficiency.
  • Home services: Assists with household chores such as organizing, cleaning, and caring for the elderly or disabled.
  • Healthcare: Assists with rehabilitation training and surgical operations, supporting medical processes.
  • Education and research: Serves as an educational tool and research assistant, supporting teaching and experimental operations.