Congratulations to Christopher Kim for defending his Ph.D. thesis on “Leveraging Impedance-Related Properties for Free Self-Sensing in Actuators for Compact Robots.” Best wishes for the next stage of your career!
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New Springer Handbook on Soft Robotics
Springer has just published a Handbook on Soft Robotics. Thank you to Thrishantha Nanayakkara for including us with a chapter on Origami Robots! There will be a public meeting on April 30, 2025, at 5:30pm London time to discuss what is covered in the book and how to improve it in the future.
The book can be found at: https://link.springer.com/book/10.1007/978-3-031-68620-7
Our work featured on NSF news!
Our work was described in a NSF news article “Folding the future: The rise of origami-inspired robots.” Thank you to NSF for their generous support of our research.
Cynthia Sung receives ARO Early Career Award
Cynthia Sung received a 2024 ARO Early Career Program grant to work on “Multiscale Actuation and Control for Tunable Stiffness Robots.” We are so excited to work on this project with program manager Dr. Dean Culver!
Wei-Hsi Chen’s Kinegami paper receives Honorable Mention for 2023 TRO Best Paper Award
Congratulations to Wei-Hsi Chen, Woohyeok Yang, and Lucien Peach for receiving honorable mention for the 2023 IEEE Transactions on Robotics King-Sun Fu Memorial Best Paper Award for their paper
Abstract: Origami processes can generate both rigid and compliant structures from the same homogeneous sheet material. In this article, we advance the origami robotics literature by showing that it is possible to construct an arbitrary rigid kinematic chain with prescribed joint compliance from a single tubular sheet. Our “Kinegami” algorithm converts a Denavit–Hartenberg specification into a single-sheet crease pattern for an equivalent serial robot mechanism by composing origami modules from a catalogue. The algorithm arises from the key observation that tubular origami linkage design reduces to a Dubins path planning problem. The automatically generated structural connections and movable joints that realize the specified design can also be endowed with independent user-specified compliance. We apply the Kinegami algorithm to a number of common robot mechanisms and hand-fold their algorithmically generated single-sheet crease patterns into functioning kinematic chains. We believe this is the first completely automated end-to-end system for converting an abstract manipulator specification into a physically realizable origami design that requires no additional human input.