Power Electronics Design Automation

Researchers in this area develop automated tools and methodologies for the design and optimization of power electronic systems. This work addresses challenges in creating efficient, reliable, and compact power converters and electronic systems. Investigations include the development of algorithms for device modeling, circuit simulation, system-level design, and the integration of novel semiconductor technologies. Specific focus areas involve automating the process of parasitic extraction, optimizing thermal management within electronic components, and ensuring electromagnetic compatibility to reduce noise and interference. The research also explores advancements in materials and device physics to improve performance and efficiency.

This research has direct relevance to Arkansas's growing advanced manufacturing sector, particularly in areas such as electric vehicle components, renewable energy systems, and smart grid technologies. By improving the design and efficiency of power electronics, this work supports the development of more sustainable energy infrastructure and advanced industrial processes. Furthermore, advancements in power electronics are critical for modernizing transportation and improving energy efficiency across various industries operating within the state.

This research area draws upon expertise in dynamic systems analysis, materials science, and semiconductor device design. Connections are also made to multichip module design and electromagnetic compatibility. This work is conducted across multiple institutions within Arkansas, fostering a collaborative environment for advancing power electronics design automation.