Semiconductor and Quantum Materials for Microelectronics and Integrated Devices

The Al Balushi Research Group develops scalable approaches for synthesizing and integrating emerging electronic materials, including compound semiconductor heterostructures, quantum materials, two-dimensional materials, nanowires, quantum dots, and other nanoscale systems. Our work uses chemical vapor deposition, metalorganic chemical vapor deposition, molecular precursor chemistry, and laser-assisted processing to create thin films and nanostructures with controlled composition, structure, interfaces, and functionality.

We are especially interested in bridging fundamental materials synthesis with technologies that matter to industry, including microelectronics, photonics, advanced logic, memory, neuromorphic computing, and emerging quantum devices. Our research focuses on developing new crystal growth, processing, and integration strategies that can move beyond small-scale demonstrations toward scalable, manufacturable materials platforms.

A major goal of the group is to understand and control how materials form during growth. To do this, we develop in situ growth platforms and optical probes that allow us to monitor crystallization, phase evolution, defect formation, and surface reactions as they occur. These capabilities help us discover new materials, uncover synthesis mechanisms, and accelerate the translation of emerging materials into future device technologies.