Neil David Mathur

Neil David Mathur is a Professor of Materials Physics in the Department of Materials Science and Metallurgy at the University of Cambridge, specializing in the magnetic and electronic properties of crystalline oxides with applications in thin-film technologies and advanced imaging systems.

He received his PhD from the University of Cambridge in 1995, completing doctoral research on quantum order in heavy fermion systems under the supervision of prominent physicists.

Professor Mathur's research focuses on complex oxide materials, particularly manganites and ferroelectric oxides, where he investigates mesoscopic textures, charge ordering phenomena, and spin-electronic interactions. His experimental work with epitaxial thin films has pioneered applications in spintronics and non-volatile memory devices, bridging fundamental condensed matter physics with next-generation electronic technologies through innovative materials engineering.

Analysis of his publication record (2002-2009) reveals a concentrated research trajectory in oxide heterostructures, demonstrating consistent contributions to understanding electronic phase transitions in correlated electron systems. His work shows increasing interdisciplinary convergence between nanotechnology, quantum materials, and device physics, with significant emphasis on practical applications emerging from fundamental discoveries in manganite systems.

His major recognitions include:

• Fellow of the American Physical Society
• Fellow of Churchill College, Cambridge

While specific grant details remain unreported, Mathur's extensive collaborative publications in Nature-family journals indicate substantial research funding and leadership in large-scale international projects. His supervisory record includes multiple PhD students who have contributed to high-impact publications on oxide electronics and spin transport phenomena.

Mathur operates within Cambridge's Department of Materials Science and Metallurgy research ecosystem, directing experimental investigations of oxide thin films using advanced characterization techniques including electron microscopy and quantum transport measurements, while maintaining active collaborations with leading condensed matter physics groups worldwide.