University Assistant Professor

Dr Raj Pandya will be joining the department as a University Assistant Professor in Physical Chemistry in summer 2026. His research focuses on using light to visualise and control the quantum dynamics of atoms and electrons inside materials. His team develops and applies advanced laser spectroscopy and microscopy experiments (spanning visible–IR, THz, and X-ray wavelength ranges), as well as the associated optical tools, detectors, and theoretical methods needed to interpret them.

Current research directions include following random processes such as ion hopping in battery-relevant materials; using entangled photons and twisted light to access otherwise hidden molecular states in organic semiconductors; and resolving individual femtosecond electronic-transfer steps in non-light-driven reactions (e.g., electro-catalytic cycles).

Work in his group is highly interdisciplinary and collaborative, offering students experience in areas ranging from non-linear optics and signal processing/coding to nanomaterials chemistry.

The group aims to recruit 1–2 PhD students per year. For international applicants, the 2026 deadline has passed; applications from home students may still be considered. PDRA vacancies will be advertised as funding becomes available, and the group is happy to support Fellowship applications. Prospective students or collaborators are encouraged to get in touch if they are interested in the group’s research.

For further details see: https://www.iccd-lab.com/research

Publications

Microcavity-Like Exciton-Polaritons can be the Primary Photoexcitation in Bare Organic Semiconductors
A Rao, R Pandya, R Chen, Q Gu, J Sung, C Schnedermann, O Ojambati, R Chikkaraddy, J Gorman, G Jacucci, O Onelli, T Willhammar, D Johnstone, S Collins, P Midgley, F Auras, T Baikie, R Jayaprakash, F Mathevet, R Soucek, M Du, A Alvertis, A Ashoka, S Vignolini, D Lidzey, J Baumberg, R Friend, T Barisien, L Legrand, A Chin, J Yuen-Zhou, S Saikin, P Kukura, A Musser
(2021)
Giant Photoluminescence Enhancement in MoSe$_{2}$ monolayers treated with Oleic Acid Ligands
AOA Tanoh, J Alexander-Webber, Y Fan, N Gauriot, J Xiao, R Pandya, Z Li, S Hofmann, A Rao
(2021)
Correction to Optical and Electronic Properties of Colloidal CdSe Quantum Rings
J Xiao, Y Liu, V Steinmetz, M Caglar, J Mc Hugh, T Baikie, N Gauriot, M Nguyen, E Ruggeri, Z Andaji-Garmaroudi, SD Stranks, L Legrand, T Barisien, RH Friend, NC Greenham, A Rao, R Pandya
ACS Nano
(2021)
15
Optical and electronic properties of colloidal CdSe Quantum Rings
J Xiao, Y Liu, V Steinmetz, M Çağlar, JM Hugh, T Baikie, N Gauriot, M Nguyen, E Ruggeri, Z Andaji-Garmaroudi, SD Stranks, L Legrand, T Barisien, RH Friend, NC Greenham, A Rao, R Pandya
(2021)
Directed Energy Transfer from Monolayer $WS_{2}$ to NIR Emitting PbS-CdS Quantum Dots.
AOA Tanoh, N Gauriot, G Delport, J Xiao, R Pandya, J Sung, J Allardice, Z Li, CA Williams, A Baldwin, SD Stranks, A Rao
ACS nano
(2020)
14
Optical and electronic properties of colloidal CdSe Quantum Rings
R Pandya
ACS Nano
(2020)
Watching Carriers Move at the Nanoscale
R Pandya
Chem
(2020)
6
How Does the Symmetry of S1 Influence Exciton Transport in Conjugated Polymers?
R Pandya, AM Alvertis, Q Gu, J Sung, L Legrand, D Kréher, T Barisien, AW Chin, C Schnedermann, A Rao
(2020)
Optical projection and spatial separation of spin entangled triplet-pairs from the S1 (21Ag-) state of pi-conjugated systems
R Pandya, Q Gu, A Cheminal, RYS Chen, EP Booker, R Soucek, M Schott, L Legrand, F Mathevet, NC Greenham, T Barisien, AJ Musser, AW Chin, A Rao
Chem
(2020)
6
Optical Projection and Spatial Separation of Spin-Entangled Triplet Pairs from the S1 (21 Ag –) State of Pi-Conjugated Systems
R Pandya, Q Gu, A Cheminal, RYS Chen, EP Booker, R Soucek, M Schott, L Legrand, F Mathevet, NC Greenham, T Barisien, AJ Musser, AW Chin, A Rao
Chem
(2020)
6

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