John D. Sweeney
Papers
10
Total Citations
202
H-Index
7
About
John D. Sweeney is a pioneering researcher in multi-robot coordination and humanoid robotics, whose work has fundamentally advanced how teams of mobile platforms achieve robust, scalable, and real-time behavior. His most influential contributions center on developing frameworks for coordinated control, where robots are modeled as redundant spatial mechanisms governed by multi-objective controllers—a concept detailed in his highly cited 2003 paper (57 citations). Sweeney’s research addresses critical challenges in scalability and schedulability, demonstrating how large, distributed robot systems can maintain performance through efficient task scheduling and quality-of-service (QoS) management in mobile networks. He also introduced a cascaded filter approach for multi-objective control, enabling robots to satisfy multiple constraints simultaneously. In humanoid robotics, Sweeney proposed a groundbreaking framework for learning and control that leverages intrinsic motivation—rewarding robots for generating novel sensorimotor feedback—to efficiently acquire complex behaviors. His work on robot programming by demonstration further extends this learning paradigm. With over 200 total citations across his key papers, Sweeney’s research has shaped the fields of coordinated robotics, real-time control, and autonomous learning, making him a notable figure in intelligent robotic systems.
Research Focus
Key Achievements
Top Papers
- 1Coordinated teams of reactive mobile platforms57 citations · 2003
- 2
- 3A FRAMEWORK FOR LEARNING AND CONTROL IN INTELLIGENT HUMANOID ROBOTS31 citations · 2005
- 4Real-time support for mobile robotics23 citations · 2004
- 5A Framework for Learning Declarative Structure19 citations · 2006
- 6Active QoS Flow Maintenance in Controlled Mobile Networks18 citations · 2005
- 7Cascaded filter approach to multi-objective control14 citations · 2004
- 8
- 9Resource management for real-time tasks in mobile robotics3 citations · 2006
- 10A Teleological Approach to Robot Programming by Demonstration2 citations · 2022