TC
Tianyu Chen
University of Bristol, Nanyang Technological University, Northwestern Polytechnical University
Research areas: Engineering · Biomedical Engineering · Advanced Sensor and Energy Harvesting Materials · Soft Robotics and Applications · Advanced Materials and Mechanics
Employment
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The University of Bristol Academic , Research Associate in Artificial Muscles and Soft Actuator Technologies for Wearable Assistance2025 - Present
Education
- 2021 - 2025
- 2017 - 2020
- 2013 - 2017
Projects & Funding
Projects & funding information is unavailable.
Publications (20)
- Suture‐Inspired Interlocking Metamaterials for Energy‐Efficient Morphing Save
- Muscle Coactivation-Inspired Stiffness-Driven Control Strategy for Antagonistic Soft Robots Save
- Thermally Responsive Architected Actuators with Programmable Shape Morphing and Tunable Stiffness Save
- Flexible Multichannel Muscle Impedance Sensors for Collaborative Human-machine Interfaces Save
- Negative-pressure soft pneumatic actuators enabled by asymmetrically distributed bending units Save
- Design and modeling of a programmable morphing structure with variable stiffness capability Save
- Multistable Soft Robots Assembled from Bistable Auxetic Building Blocks Save
- Active Fabrics With Controllable Stiffness for Robotic Assistive Interfaces Save
- Scale-inspired programmable robotic structures with concurrent shape morphing and stiffness variation Save
- Tunable mechanics of architectured composites from particle assemblies Save
- Hierarchical tessellation enables programmable morphing matter Save
- High‐Efficiency Single‐Droplet Energy Harvester for Self‐Sustainable Environmental Intelligent Networks Save
- A Dual‐Responsive Artificial Skin for Tactile and Touchless Interfaces Save
- Self‐Sensing Robotic Structures from Architectured Particle Assemblies Save
- Computational modelling of frictional deformation of bimodal nanograined metals Save
- Modelling the Shear Banding in Gradient Nano-Grained Metals Save
- Enhanced frictional performance in gradient nanostructures by strain delocalization Save
- Shear band multiplication induced strong strain delocalization and high tensile ductility in amorphous thin films by metallic substrates Save
- Tailoring tensile ductility of thin film by grain size graded substrates Save
- Eliminating deformation incompatibility in composites by gradient nanolayer architectures Save