My research has been focused on the growth of III-V semiconductor nanostructure using a Metal Organic Chemical Vapor Deposition (MOCVD), Plasma-Assisted Molecular-Beam Epitaxy (MBE) and the fabrication of various devices such as wearable optoelectronics, next-generation sensors, and sustainable energy devices.
Hydrogen generation with high efficiency and long-term stability
Control of carrier dynamics by inducing high carrier concentration and carrier guiding effect through the New conceptual III-nitride nanostructures
Improvement in hydrogen generation using III-nitride nanostructures coated with 2D materials, such as Graphene oxide
Thermal stability and mechanical robustness make it ideal for sensors in high-temperature, high-pressure environments like automotive and aerospace.
UV sensitivity and wide bandgap make it ideal for UV sensors in environmental monitoring and radiation detectors in medical, security, and space applications.
These sensors provide high sensitivity and fast response times, making them ideal for gas and chemical detection in industrial safety, air quality monitoring, and healthcare.
GaN nanowires exhibit superior optical properties, such as high light emission efficiency due to their ability to reduce non-radiative recombination.
Color conversion through bandgap engineering is useful because it allows precise tuning of the emission wavelength in semiconductor materials.
Their compatibility with flexible substrates and ability to scale down Micro-LEDs enable the development of ultra-high resolution, lightweight, and portable AR/VR/MR displays.