Bill Goodwine

About

Bill Goodwine’s research bridges the frontiers of distributed robotics, nonlinear control theory, and fractional-order dynamics, with a focus on systems that are stratified, symmetric, or multi-agent. He is best known for developing the MICAbot platform (105 citations), an inexpensive and flexible robotic system that enabled large-scale distributed robotics and mobile sensor network experiments. His foundational work on controllability and motion planning for stratified configuration spaces—systems with piecewise-differentiable dynamics, such as quasi-static legged robots and finger gaiting—has been widely influential, with key papers earning 51 and 48 citations. Goodwine also pioneered the use of fractional-order differential equations to model multi-robot systems, showing that complex inter-generational dynamics can be captured with reduced-order models (41 citations). His later work on health monitoring via fractional-order system identification (32 citations) and terrain-blind walking control for underactuated bipeds (23 citations) demonstrates a sustained commitment to both theory and application. Across his career, Goodwine has advanced the understanding of how symmetry, stratification, and fractional calculus can simplify and solve challenging problems in robotics and control.

Research Focus

Key Achievements

Top Papers

1. 1
   MICAbot: a robotic platform for large-scale distributed robotics

   105 citations · 2004
2. 2
   Motion planning for kinematic stratified systems with application to quasi-static legged locomotion and finger gaiting

   51 citations · 2002
3. 3
   Controllability of kinematic control systems on stratified configuration spaces

   48 citations · 2001
4. 4
   Modeling a multi-robot system with fractional-order differential equations

   41 citations · 2014
5. 5
   Fractional-order system identification for health monitoring

   32 citations · 2018
6. 6
   Trajectory generation for kinematic legged robots

   29 citations · 2002
7. 7
   Multi-agent compositional stability exploiting system symmetries

   28 citations · 2013
8. 8
   Gait controllability for legged robots

   27 citations · 2002
9. 9
   Terrain-blind walking of planar underactuated bipeds via velocity decomposition-enhanced control

   23 citations · 2019
10. 10
    Motion Planning for Nonlinear Symmetric Distributed Robotic Formations

    23 citations · 2007

Key Collaborators

Contact & Links