Niladri Satpathi

Dr. Niladri Satpathi is a Postdoctoral Researcher at the Biomedical and Environmental Sensorsystems (BIOS) group within the Department of Electrical Engineering at the University of Twente. He is affiliated with the Faculty of Electrical Engineering, Mathematics and Computer Science (EEMCS) and the MESA+ Institute, contributing to cutting-edge research at the intersection of fluid dynamics, microfluidics, and biomedical engineering.

Dr. Satpathi earned his Ph.D. from the Indian Institute of Technology, Madras (IIT Madras), where his doctoral research focused on drop impact dynamics, extreme wettability substrates, and liquid film interactions with surface acoustic waves. His work extended to collaborative projects on bulk acoustic waves in microchannels, elastocapillarity, and surface acoustic wave-based deicing techniques.

His research expertise centers on fluid-structure interactions in microscale systems, particularly droplet manipulation via surface acoustic waves and microbubble elasticity. Key applications include biomedical devices like blood oxygenators, bioparticle handling systems, and anti-icing technologies, with strong emphasis on experimental validation of theoretical models.

Analysis of his 15 recent publications (2020-2025) reveals a clear trajectory from fundamental droplet dynamics toward biomedical applications. Early work focused on impact phenomena and wettability effects, while recent publications (2024-2025) demonstrate sophisticated control of bioparticles and microcavities, indicating growing translational impact in medical diagnostics and environmental sensing.

No scientific awards were documented in the provided materials.

Information regarding student supervision or grant funding is not specified in the source text, though his collaborative projects suggest interdisciplinary team engagement.

Dr. Satpathi operates within the BIOS research group and MESA+ Institute infrastructure, utilizing advanced microfluidic and acoustic wave platforms. His current microbubble elasticity investigations support next-generation biosensor development, with experimental setups optimized for high-precision droplet manipulation and interfacial phenomenon characterization.