Our lab is innovative and interdisciplinary by integrating polymer physics, polymer chemistry, optics, colloid and interface science and biomimetics. Our research focuses on disordered photonic materials, covering multiple directions from fundamental science to practical applications.

In fundamental research, we focus on the precise, multiscale control of disordered photonic materials, employing techniques such as colloidal and polymer self-assembly to discover the relationship between structure and optical properties. We investigate the sel—assembled nanostructures, precisely controlling hierarchical structures, and using optical model to analyze their relationship with reflection, transmission, and scattering. By exploring effects such as photonic bandgaps and light scattering, we reveal the advantages of disordered structures in color regulation.

In applied research, we develop innovative, low-carbon self-assembly techniques to enable large-scale, green manufacturing of structural color materials, which not only show excellent color performance but also substantially reduce production carbon footprint. We also actively explore novel applications of intelligent disordered photonic materials, particularly in smart windows, thermal management, anti-counterfeiting, and dynamic displays.

Through this research, we not only advance the scientific development of novel materials but also achieve practical breakthroughs in environmental protection, energy, and military security.