Area of research
Electrical and Electronic Engineering · Materials Chemistry
Research interest
Research interests include Halide, Seesaw molecular geometry, Photoexcitation, Stokes shift, Excited state, and Tin.
Metal Halide Scaffolded Assemblies of Organic Molecules with Enhanced Emission and Room Temperature Phosphorescence
Reaching 90% Photoluminescence Quantum Yield in One-Dimensional Metal Halide C<sub>4</sub>N<sub>2</sub>H<sub>14</sub>PbBr<sub>4</sub> by Pressure-Suppressed Nonradiative Loss
0D and 2D: The Cases of Phenylethylammonium Tin Bromide Hybrids
Green Emitting Single-Crystalline Bulk Assembly of Metal Halide Clusters with Near-Unity Photoluminescence Quantum Efficiency
Bulk Assembly of Zero-Dimensional Organic Lead Bromide Hybrid with Efficient Blue Emission
Bulk Assembly of Corrugated 1D Metal Halides with Broadband Yellow Emission
Organic Metal Halide Hybrids: Bulk Assembly of Corrugated 1D Metal Halides with Broadband Yellow Emission (Advanced Optical Materials 6/2019)
Low dimensional metal halide perovskites and hybrids
Facile Preparation of Light Emitting Organic Metal Halide Crystals with Near-Unity Quantum Efficiency
Unraveling luminescence mechanisms in zero-dimensional halide perovskites
A One-Dimensional Organic Lead Chloride Hybrid with Excitation-Dependent Broadband Emissions
Zero-dimensional Cs<sub>4</sub>EuX<sub>6</sub> (X = Br, I) all-inorganic perovskite single crystals for gamma-ray spectroscopy
Direct Evidence of Exciton–Exciton Annihilation in Single-Crystalline Organic Metal Halide Nanotube Assemblies
A Zero‐Dimensional Organic Seesaw‐Shaped Tin Bromide with Highly Efficient Strongly Stokes‐Shifted Deep‐Red Emission
Bulk assembly of organic metal halide nanotubes
A Zero‐Dimensional Organic Seesaw‐Shaped Tin Bromide with Highly Efficient Strongly Stokes‐Shifted Deep‐Red Emission
Ba2TeO as an optoelectronic material: First-principles study