Papers
9
Total Citations
83
H-Index
5
About
Jie-Wei Wong is an emerging researcher at the intersection of soft robotics, smart materials, and sustainable polymer engineering. His work focuses on developing next-generation actuators and robotic systems that operate effectively in extreme environments, particularly underwater and deep-sea settings. Wong's most celebrated contribution is his design of a jelly-like artificial muscle — accumulating over 26 citations — which ingeniously combines the rapid electro-response of dielectric elastomer actuators with the transparency and biocompatibility of hydrogels, enabling untethered underwater robots with fast self-repair capabilities. His broader robotics research extends to chemo-mechanical robots and electrohydraulic systems capable of withstanding deep-sea pressures, addressing the persistent challenge of material stiffening in harsh conditions. Alongside his robotics work, Wong has made meaningful contributions to sustainable materials science, developing catalyst-free, solvent-free biopolyester thermosets with intrinsic shape reconfigurability and degradability — bridging functionality with environmental responsibility. More recent investigations into conformal hydrogel skins and twist-induced mechanical behavior in ribbons demonstrate his expanding interest in programmable structures and functional surfaces. With over 80 total citations and a publication record spanning multiple disciplines, Wong represents a versatile and rapidly maturing scientific voice in advanced materials and intelligent robotic systems.
Research Focus
Key Achievements
Top Papers
- 1A jelly-like artificial muscle for an untethered underwater robot26 citations · 2024
- 2
- 3Plasticized electrohydraulic robot autopilots in the deep sea14 citations · 2025
- 4
- 5A Jelly-Like Artificial Muscle for Untethered Underwater Robot5 citations · 2023
- 6Slipknot-gauged mechanical transmission and robotic operation4 citations · 2025
- 7
- 8Spraying Conformal Hydrogel Skins as Functional Platform2 citations · 2026
- 9Twist-Induced bifurcation and path manipulation in compressed ribbons1 citations · 2025