Elham MOHSENZADEH

Elham MOHSENZADEH is an Associate Professor and Research Supervisor at JUNIA - HEI (Higher School of Engineering) in France, specializing in electrospinning technology and nanofiber applications. She leads the Multifunctional Textiles & Processes Group and holds Section CNU 61 affiliation. Her research spans multiple interdisciplinary fields including materials science, textile engineering, and biomedical applications.

Her research interests focus on developing nanofibers, microfibers, and nanocomposites for diverse applications such as sensors, energy harvesting, filtration systems, and biomedical devices. She has pioneered work in electrospun membranes for air filter clogging detection, gas sensors for NO/NO₂ detection, and thermal management textiles. Her expertise includes electrospinning techniques, nanofiber characterization, and functional textile development.

Analysis of her recent publications reveals strong trends in environmental monitoring applications, particularly gas sensing for medical diagnostics (asthma detection through NO monitoring) and energy-efficient building technologies. Her work bridges fundamental materials science with practical engineering solutions for air quality monitoring, personal thermal management, and medical diagnostics.

• Best Presentation Award, Development of an Electrospun Composite as Substitutive Diaphragmatic Membrane (2017)

As a research supervisor, she leads multiple significant projects including ANR-PRCE POCOMA on polymer membranes for thermal comfort, ANR-PRCE SAFIRS on intelligent air filtration, and the Interreg MOTION project developing orthosis for children with neurological disorders. Her work demonstrates strong industry and international academic collaboration across France, Belgium, and the UK.

Her laboratory work focuses on the Multifunctional Textiles & Processes Group at JUNIA, where she develops innovative electrospun membranes and nanofiber-based sensors. Current research directions include improving gas sensor sensitivity at lower temperatures, optimizing nanofiber structures for specific applications, and developing dual-mode temperature regulation textiles.