We envision soft electronic microfluidic systems that leverage mechanics, microfluidics, acoustofluidics, and bioelectronics to precisely manipulate, monitor, and control biological and chemical microenvironments. By integrating compliant materials with programmable fluidic and acoustic interactions, we engineer multifunctional platforms for biochemical analysis, organoids, organ-on-chip technologies, and microscale therapeutic systems. These technologies establish new opportunities for precision diagnostics, disease modeling, and next-generation biointegrated healthcare.

We envision mechanics-driven wearable systems that exploit the biomechanics of the human body as an active design principle for next-generation biointegrated electronics. By integrating soft electronics, experimental biomechanics, computer vision, and mechanics-informed engineering, we investigate and engineer the complex interactions at the skin-device interface across diverse motions and physiological conditions. These systems establish new opportunities for continuous health monitoring, adaptive human-machine interfaces, personalized therapeutics, and seamless integration between electronics and the human body.