Michael McEvoy
Papers
4
Total Citations
691
H-Index
4
About
Michael McEvoy is a pioneer in the emerging field of robotic materials—composites that seamlessly integrate sensing, actuation, computation, and communication. His foundational 2015 paper on this concept, with over 645 citations, has become a cornerstone for researchers aiming to create autonomous, shape-changing systems. McEvoy’s work demonstrates how such materials can enable airfoils that morph their aerodynamic profiles or vehicles with adaptive camouflage, blending structural engineering with distributed intelligence. His major contributions include developing variable-stiffness composites that use Joule heating to control local rigidity, enabling precise, autonomous shape change. McEvoy also advanced distributed control algorithms for inverse kinematics, allowing beams composed of multiple smart segments to coordinate their curvature without central oversight. In robotic construction, he introduced assembly path planning that uses Finite Element Analysis to ensure structural stability during the building process—a critical step toward autonomous construction in challenging environments. With a citation count exceeding 690 across his most influential works, McEvoy’s research sits at the intersection of materials science, robotics, and control theory. His vision of materials that compute and adapt in real time is not only reshaping how we think about smart structures but also laying the groundwork for future systems that can respond intelligently to their environment.
Research Focus
Key Achievements
Top Papers
- 1Materials that couple sensing, actuation, computation, and communication645 citations · 2015
- 2Assembly path planning for stable robotic construction21 citations · 2014
- 3Shape-Changing Materials Using Variable Stiffness and Distributed Control14 citations · 2018
- 4Distributed Inverse Kinematics for Shape-changing Robotic Materials11 citations · 2016