Graduate Research Assistant—High Density Electronics Center, University of Arkansas, Fayetteville
PhD Student, Department of Electrical Engineering and Computer Science
Supervisor: Dr. David Huitink
HIDEC Scholar and Ph.D. student in Electrical Engineering at the University of Arkansas, specializing in power electronics and advanced electronic packaging. Experienced in leading laboratory operations, with a strong foundation in research and practical expertise in PCB design, SMT processes, and semiconductor packaging. Actively involved in mentoring and training students through workshops and hands-on demonstrations. Demonstrated success in developing training materials, teaching, and delivering technical workshops, while managing complex laboratory operations. Adept at troubleshooting, ensuring equipment safety, and guiding students and researchers in the effective use of state-ofthe-art lab tools and technologies. Brings a solid background in academic research, technical training, and prior industry experience in solar energy and smart grid projects to support innovation and knowledge transfer in advanced electrical engineering research.
Using renewable energy, including solar, wind, and hydro, to cut carbon emissions and provide energy needed around the world.
Integrating nanotechnology to enhance energy efficiency, and user comfort through advanced nano-sensors, flexible electronics, and energy harvesting systems. Aims to improve the functionality, security, and sustainability of energy technologies for diverse applications.
Intelligent adaptive power grid construction: Renewable energy law, grid stability, and optimization of the distribution system by relying on the characteristics of advanced communication and control technology.
Investigation of new storage technologies (batteries, supercapacitors, thermal storage) able to compensate for supply and load in the system based on renewable energy.
Development of machine-learning-based algorithms for energy management optimization, fault detection and diagnosis, demand forecasting, and predictive maintenance in power systems.
Development of semiconductor devices for energy-efficient power electronics and low-loss electrical systems.
Research on cutting-edge power conversion technologies aimed at improving electronics and driving the efficiency of renewable energy systems.
Wireless charging systems for safe and efficient power transfer to electric vehicles and portable devices without physical connectors.
Power electronics, Batteries, Vehicle to grid (supporting sustainable transport) Focus on energy-efficient components that contribute to reducing losses through high-efficiency devices designed for enhanced performance.
Identifying weaknesses in energy systems and power grids, crafting plans to protect critical infrastructure from potential cyber-attacks, and maintaining operational resilience.
• MATLAB
• Simulink
• OrCad
• Altium
• Cadence
• COMSOL
• Ansys
• Solid works
• PSpice
• Python
• C++
• Verilog (Quartus) • Autocad
• Ki-Cad
• Cambam
• PVsyst
• Homer
• SAP and Oracle