Debot.Science
  • 🤖Welcome to DeBot.Science
  • 🚩Roadmap
    • Shaping the Future of Robotics
    • Part 1: The Dawn of the Agent
    • Part 2: Intelligence in Motion
    • Part 3: Robots for Everyone
    • Part 4: A Universe of Possibilities
  • 📟Asimov Agent
    • Vision
    • Design Philosophy
    • Development Timeline
      • Phase 1: Asimov Genesis
      • Phase 2: Asimov Agent 1.0
      • Phase 3: Asimov Agent 2.0
      • Phase 4: Asimov Agent Pro
    • Key Functionalities
    • Future Directions
  • 💻TECHNOLOGY
    • Technical Framework and Innovations
    • Simulation Environment: RoboGym
    • Data Integration and Digital Twins: SOBO Lab
    • Advanced Learning Frameworks
    • Multi-Robot Collaboration Framework
    • Physical AI and the Sim2Real Transition
  • 💲R3D Token
    • Token Info
    • Token Utility
      • Profit-Sharing from Revenue-Generating Activities
      • Collaboration and Partnerships
      • Cross-Ecosystem Integration
      • Reputation and Participation Incentives
      • Exclusive Platform Access
      • Revenue-Driven Buyback Mechanism
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  1. TECHNOLOGY

Simulation Environment: RoboGym

Our proprietary simulation platform, RoboGym, serves as the cornerstone of all virtual training. Unlike generic simulators, RoboGym is optimized for robotics-specific use cases, featuring modular environments, high-fidelity physics, and real-time adaptability.

Key Features:

  • Complex Terrain Generation Algorithm: Custom-designed to create diverse and challenging virtual environments, including terrains inspired by Martian surfaces, rocky outcrops, and dynamic obstacle fields.

  • Dynamic Environmental Modifiers: Introduced to simulate varying conditions, such as low-gravity settings, high-friction surfaces, and low-illumination scenarios. These are critical for preparing robots for unpredictable, real-world challenges.

  • Multi-Scenario Deployment: From quadrupeds to humanoids and rovers, RoboGym supports a wide range of robot morphologies and task-specific simulations, enabling training across diverse scenarios.

Results from Phase 1:

  • Training quadruped robots in obstacle avoidance and dynamic gait stability.

  • Successful application of domain randomization techniques to enhance the generalizability of trained policies.

Enhancements in Phase 2:

  • Expansion to simulate Martian terrains, focusing on rover dynamics, path planning, and collaborative multi-robot tasks.

  • Integration of real-world point cloud data into simulated environments using our SOBO Lab pipeline.

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Last updated 5 months ago

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