Anca ALDEA

Dr. Anca ALDEA is a Scientific Researcher at the National Institute of Materials Physics (INFIM), where she works in the Laboratory of Functional Nanostructures. Her research spans multiple disciplines at the intersection of nanotechnology, electrochemistry, and condensed matter physics, with over 60 publications spanning nearly five decades of scientific contributions.

Dr. ALDEA's research focuses on the development of advanced electrochemical biosensors using nanomaterials, particularly electrospun polymeric fibers. Her work encompasses electrochemical genosensors for detecting genetic markers of diseases like chronic myeloid leukemia, superoxide detection systems for monitoring cellular stress and oxidative damage, and theoretical investigations of topological materials for quantum transport applications. She has made significant contributions to understanding edge states in topological insulators, quantum Hall effects in various 2D materials including graphene and phosphorene, and the development of novel sensor platforms using gold-coated electrospun fibers.

Her recent publication record shows a clear trend toward increasingly sophisticated biosensor development with clinical applications, while maintaining a strong theoretical foundation in condensed matter physics. The integration of nanomaterials with biological systems represents a central theme, with applications ranging from early disease detection to fundamental studies of quantum phenomena in low-dimensional systems.

Dr. ALDEA leads the BIONMEM project (2022-2024) focused on 'Ionophore embedded membranes for ion sensing in biological fluids,' demonstrating her active role in securing research funding. While specific student mentorship isn't detailed in the available information, her extensive publication record with multiple co-authors suggests active collaboration and likely supervision of junior researchers.

Working within the Laboratory of Functional Nanostructures at INFIM, Dr. ALDEA collaborates with a multidisciplinary team combining expertise in materials science, electrochemistry, and theoretical physics to develop next-generation sensing platforms and investigate fundamental quantum phenomena in nanostructured materials.