Papers
5
Total Citations
193
H-Index
5
About
Jason J. Gorman is a leading researcher in robotics and precision engineering, with key contributions spanning cable-driven robotic cranes, flexure-based mechanisms, and microassembly. His seminal work on the cable array robotic crane, including the widely cited 2003 paper (69 citations), addresses critical challenges in offshore cargo handling by developing dynamic models to mitigate payload oscillation in high-sea conditions. Gorman’s 2002 study (57 citations) further advanced this field by deriving equations of motion for flexible cables and solving kinematic redundancy through optimal force distribution, directly improving cargo handling safety and efficiency. In precision motion systems, his 2004 analysis of parallel mechanisms with flexure joints (36 citations) has been foundational for designing high-performance micro-robotic stages, emphasizing joint compliance effects on static and dynamic behavior. Gorman also pioneered force control for microassembly, as demonstrated in his 2003 work (26 citations), achieving micronewton-level resolution for handling microelectromechanical systems components. His notable achievement includes organizing the 2012 Robot Challenge competitions, fostering innovation in robotics education. With over 190 total citations, Gorman’s research continues to influence both industrial crane technology and precision micro-robotics.
Research Focus
Key Achievements
Top Papers
- 1Dynamic analysis of the cable array robotic crane69 citations · 2003
- 2Optimal force distribution applied to a robotic crane with flexible cables57 citations · 2002
- 3Analysis and design of parallel mechanisms with flexure joints36 citations · 2004
- 4Force Control of Linear Motor Stages for Microassembly26 citations · 2003
- 5Robot Challenge [Competitions]5 citations · 2012