Area of research
Condensed Matter Physics · Materials Chemistry
Research interest
Research interests include Materials science, Optoelectronics, Light-emitting diode, Visible light communication, Quantum efficiency, and Diode.
Flexible 2 × 2 multiple access visible light communication system based on an integrated parallel GaN/InGaN micro-photodetector array module
Key Technologies for High-Speed Si-Substrate LED Based Visible Light Communication
31.38 Gb/s GaN-based LED array visible light communication system enhanced with V-pit and sidewall quantum well structure
15.26Gb/s Si-substrate GaN high-speed visible light photodetector with super-lattice structure
Si-substrate vertical-structure InGaN/GaN micro-LED-based photodetector for beyond 10 Gbps visible light communication
Si-substrate LEDs with multiple superlattice interlayers for beyond 24 Gbps visible light communication
High-speed visible light communication systems based on Si-substrate LEDs with multiple superlattice interlayers
Wide bandgap and ultra-wide bandgap semiconductors
Phosphor-free, color-mixed, and efficient illuminant: Multi-chip packaged LEDs for optimizing blue light hazard and non-visual biological effects
Enhance the efficiency of green-yellow LED by optimizing the growth condition of preparation layer
Effect of Barrier Temperature on Photoelectric Properties of GaN-Based Yellow LEDs*
Comparison of nonlinear equalizers for high-speed visible light communication utilizing silicon substrate phosphorescent white LED
Large-coverage underwater visible light communication system based on blue LED employing equal gain combining with integrated PIN array reception
Study on the performance of InGaN-based green LED by designing different preparing layers
Effects of V-pits covering layer position on the optoelectronic performance of InGaN green LEDs
Effect of AlGaN interlayer in bottom quantum barriers on efficiency enhancement of InGaN green light-emitting diodes
High speed underwater visible light communication system based on LED employing maximum ratio combination with multi-PIN reception
Realization of Highly Efficient InGaN Green LEDs with Sandwich-like Multiple Quantum Well Structure: Role of Enhanced Interwell Carrier Transport
10.72Gb/s Visible Light Communication System Based On Single Packaged RGBYC LED Utilizing QAM-DMT Modulation With Hardware Pre-Equalization
Performance enhancement of yellow InGaN-based multiple-quantum-well light-emitting diodes grown on Si substrates by optimizing the InGaN/GaN superlattice interlayer
Electroluminescence from the InGaN/GaN Superlattices Interlayer of Yellow LEDs with Large V-Pits Grown on Si (111)
Effects of thickness ratio of InGaN to GaN in superlattice strain relief layer on the optoelectrical properties of InGaN-based green LEDs grown on Si substrates
Effect of V-shaped Pit area ratio on quantum efficiency of blue InGaN/GaN multiple-quantum well light-emitting diodes
Hole injection from the sidewall of V-shaped pits into <i>c</i>-plane multiple quantum wells in InGaN light emitting diodes
A new interpretation for performance improvement of high-efficiency vertical blue light-emitting diodes by InGaN/GaN superlattices
Influence of growth rate on the carbon contamination and luminescence of GaN grown on silicon
Roles of V-shaped pits on the improvement of quantum efficiency in InGaN/GaN multiple quantum well light-emitting diodes
Electroluminescence from the sidewall quantum wells in the V-shaped pits of InGaN light emitting diodes
High brightness InGaN-based yellow light-emitting diodes with strain modulation layers grown on Si substrate