My research focuses on studying the multiscale structure–processing-properties relationships of soft material systems to understand and further program how they interact with the environment and the biological systems. The understanding of how soft materials respond to external stimuli and in return change the stimuli will lead to the design of smart Actuating Materials that adapt to its surroundings spontaneously, aiming to reduce the consumption of resources and increase the energy efficiency. The understanding of how soft materials can be processed and functionalized at the micrometer scale will enable the fabrication of Micromachines, which can serve as tools to probe cellular behavior, to study microbial interactions, and to achieve targeted delivery. The understanding of how naturally-derived biopolymers assemble and form both biotic and abiotic interfaces with the surroundings will enable the design and fabrication of devices that can tackle pressing problems in Food & Sustainability with low environmental impact without sacrificing performance and functionalities.
By integrating insights from biology and robotics, the overarching goal of my research is to design, fabricate, and control biointerfacing robots and devices that can tackle real-world challenges in agriculture, sustainability, and healthcare.