M-ART Lab investigates the relationship between asymmetric material structures and their responsive functions. Our research is organized into three core directions.
Asymmetric Interfaces & Adaptive Energy Materials
We engineer chiral-functionalized interfaces in optoelectronic devices—especially perovskite-based devices—to enhance mechanical resilience, electronic selectivity, and long-term stability. Our research emphasizes interfacial reconstruction and the development of stimuli-responsive energy materials for next-generation device applications.
Circularly Polarized Light Platforms for Information & Imaging
We develop responsive materials with circularly polarized light (CPL) activity—ranging from chiral quantum dots to their hierarchical assemblies—to enable advanced optoelectronic platforms. Our research focuses on CPL-enabled LEDs, sensors, and chirality-encoded photonic devices, with particular emphasis on scalable fabrication methods and tunable, dynamic switching behaviors.
Quantum Chirality & Spin-Orbital Modulation
We explore low-dimensional chiral semiconductors, particularly those derived from perovskite systems, to investigate their unique spin–orbit coupling characteristics and chiral-induced spin selectivity (CISS). By leveraging structural asymmetry and light–matter interaction, we aim to better understand and tune spin filtering, spin-polarized transport, and coherence phenomena in solid-state materials.
DUANLAB for M-ART 