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Multi-Agent Robotics Coverage engineering diagram
Project Detail

Multi-Agent Robotics Coverage

Distributed control, ROS integration, and experimental coverage efficiency

UCSD Multi-Agent Robotics LabUndergraduate Researcher10/2025 – Present

Research project in UCSD Multi-Agent Robotics Lab focusing on distributed robotic coverage using Voronoi-based algorithms. The work connects theory, control, localization, and experimental performance on real robotic platforms.

Domain
Distributed robotics
Core Method
Voronoi coverage + centroid control
Stack
Python, ROS, data logging
Tools Used
PythonROSMulti-agent AlgorithmsExperimental Robotics Platforms
Research Sponsors
  • National Science Foundation
  • AFOSR
  • Naval Research Laboratory
  • Northrop Grumman
Engineering Challenges
  • Making distributed coverage logic converge reliably when localization, mapping quality, and communication imperfections affect robot behavior.
  • Integrating control laws with ROS feedback loops so theoretical updates remain stable on physical hardware.
  • Measuring coverage efficiency and convergence with enough experimental discipline to support real research conclusions.
Design Approach
  • Developed Voronoi-based coverage and centroid control algorithms for distributed workspace allocation.
  • Integrated localization, mapping, and ROS feedback control to support repeatable robot operation.
  • Implemented multi-agent coordination logic and evaluated convergence behavior and coverage efficiency.
Validation / Testing
  • Performed system identification and controller tuning using experimental data logging.
  • Observed closed-loop behavior on multi-agent robotic platforms rather than relying only on simulation.
  • Tracked convergence quality and controller response to refine gains and coordination behavior.
Results / Impact
  • Built a stronger bridge between distributed robotics theory and experimentally validated system behavior.
  • Improved controller tuning and measurement discipline for multi-agent coverage experiments.
  • Contributed research infrastructure relevant to autonomy, control, and robotics experimentation.
Next Steps
  • Expand testing across larger workspaces and more diverse multi-robot scenarios.
  • Refine robustness against localization error and dynamic disturbances.
  • Compare coverage performance across alternative coordination and feedback strategies.
Project Media
Replace with test footage, CAD renders, GitHub links, or experiment media when available.