Fangjie Qi
Papers
7
Total Citations
226
H-Index
5
About
Fangjie Qi is pioneering the frontier of autonomous soft robotics, where intelligence emerges not from microchips but from the physics of shape and instability. Her research harnesses phenomena like snapping, twisting, and multistability to create robots that move, navigate, and adapt without onboard electronics. In a landmark 2022 study (63 citations), she demonstrated self-sustained snapping in free-standing wavy rings, enabling autonomous dancing and locomotion—a principle inspired by the Venus flytrap. She extended this into a defected twisted ring topology (2024, 61 citations) that achieves periodic flip–spin–orbit motion, mimicking celestial mechanics in a soft robot. Her 2023 work on a physically intelligent maze escaper (53 citations) showed how geometric and material nonlinearities can replace computational intelligence for autonomous navigation. More recently, she has developed fully 3D-printed miniature soft hydraulic actuators with shape memory (2024, 38 citations) and multistable thin-shell metastructures for reconfigurable metabots (2025). By embedding programmability and autonomy into material structure itself, Qi is redefining what soft robots can do—moving beyond simple actuation toward truly intelligent, self-directed motion.
Research Focus
Key Achievements
Top Papers
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- 3Physically intelligent autonomous soft robotic maze escaper53 citations · 2023
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- 6Programmable seconds-to-days-long delayed snapping in jumping metashells3 citations · 2025
- 7Aerial Track‐Guided Autonomous Soft Ring Robot2 citations · 2025