Mr. Junyang Sui | Photonic Thermal Management | Editorial Board Member

Mr. Junyang Sui is an emerging scholar in photonics, metamaterials, and multifunctional metastructures, recognized for his extensive contributions to logic-integrated photonic devices, Janus metastructures, nonreciprocal radiation systems, and multi-physical quantity sensing. With a rapidly growing research portfolio comprising over 35 peer-reviewed publications, he has consistently advanced the field through innovative designs that merge optical physics, nonlinear effects, topological states, and liquid-crystal-modulated structures. His works span high-impact journals such as Nanoscale, Journal of Materials Chemistry A, IEEE Transactions on Antennas and Propagation, Applied Physics Letters, Optics Letters, Optics Express, Annalen der Physik, Physical Chemistry Chemical Physics, Sensors, and International Journal of Heat and Mass Transfer. Mr. Sui’s research is characterized by multidisciplinary breadth—ranging from photonic spin Hall-effect–based biosensing, Weyl-semimetal-enabled nonreciprocal radiation, and topology-driven logic gates, to dual-mode radiative cooling films, CPA-based biological sensing, and liquid-crystal–regulated metamaterial systems for angle, pressure, and thermal detection. His collaborations with leading researchers such as Hai-Feng Zhang, Jia-Hao Zou, Si-Yuan Liao, Qi Chen, and others reflect his active engagement in complex, cross-disciplinary problem-solving. Across his body of work, Mr. Sui has proposed devices that simultaneously perform optical logic operations and real-time sensing, demonstrating novel strategies for next-generation integrated photonic computing and intelligent sensors. His contributions hold strong implications for advanced diagnostics, thermal management, terahertz communication, smart detection systems, and reconfigurable photonic engineering, positioning him as a promising researcher whose innovations continue to influence both theoretical developments and practical applications in modern photonics and metamaterials.