Achilles Kappis

Achilles Kappis is a Marie Sklodowska-Curie Research Fellow at the University of Southampton, affiliated with the Signal Processing Audio and Hearing Group. His research focuses on advancing spatial audio technologies through innovative microphone array configurations and virtual sensing methodologies.

His core research investigates sound field analysis and reproduction using optimized microphone arrays, with particular expertise in virtual sensing techniques for diffuse sound environments. Dr. Kappis develops novel array topologies that enable remote sensing applications while minimizing hardware requirements, bridging theoretical acoustic modeling with practical implementation for active noise control systems and spatial audio reproduction.

Recent publications (2024-2025) reveal a concentrated research trajectory in microphone array optimization, with increasing sophistication in handling diffuse sound fields and multi-microphone configurations. His work demonstrates consistent progression from fundamental array design to specialized applications in active noise control, showing strong interdisciplinary connections between acoustics, signal processing, and audio engineering.

Dr. Kappis has been awarded the prestigious Marie Sklodowska-Curie Fellowship, recognizing his research excellence and potential for scientific leadership. This competitive EU-funded fellowship supports his current research at Southampton.

Supported by the Marie Sklodowska-Curie Actions grant, Dr. Kappis conducts independent research while collaborating with Southampton's audio research community. His work involves both theoretical development and experimental validation, with potential applications spanning consumer audio, transportation noise control, and assistive hearing technologies.

Within the Signal Processing Audio and Hearing Group, Dr. Kappis leads research on advanced microphone array systems for virtual sensing applications. His current projects focus on optimizing array configurations for specific acoustic challenges, particularly in environments with complex sound field characteristics where conventional approaches fail.