Focuses on the development of next-generation photovoltaics using carbon-based organic semiconductors. 

 We aim to realize low-cost, lightweight, and flexible energy sources suitable for wearable electronics and building-integrated applications through solution-processing techniques.

  Investigates high-performance solar cells based on perovskite crystal structures. 

 Our research concentrates on precise crystal growth control and interface engineering to achieve both exceptional power conversion efficiency and long-term operational stability.

 Develops high-sensitivity sensors that convert light into electrical signals across a broad spectrum, from UV to IR. 

 We explore novel materials to enhance detectivity and response speed for applications in optical communications, imaging, and bio-sensing.

 Researches chemically synthesized nanocrystals with size-tunable optical and electrical properties. 

 We focus on developing high-purity light emitters for displays (QLEDs) and advanced nanomaterials for Short-Wave Infrared (SWIR) sensing technologies.

 Explores stretchable and wearable sensors capable of detecting mechanical deformations. 

 By integrating functional nanomaterials with flexible substrates, we develop high-sensitivity devices for human-machine interfaces and real-time health monitoring.

 Studies advanced energy storage systems characterized by high power density and rapid charge-discharge rates. 

 Our research aims to design nanostructured electrodes to bridge the gap between conventional capacitors and batteries for sustainable energy solutions.