Michael Bearpark is a Principal Research Fellow in the Chemistry Department at Imperial College London. His research interests are in computational chemistry, including method and software development with applications to modeling the excited electronic states of large molecules and their photochemical reaction dynamics. He has contributed to the development of the Gaussian computational chemistry codes and his experimental collaborators includes laser spectroscopists working on the coherent control of chemical reactions.
et al., 2020, A radical-triggered reaction mechanism of the green-to-red photoconversion of EosFP, The Journal of Physical Chemistry B, Vol:124, ISSN:1520-6106, Pages:7765-7778
et al., 2020, Modeling multidimensional spectral lineshapes from first principles: Application to water-solvated adenine, Faraday Discussions, Vol:221, ISSN:1359-6640, Pages:219-244
Boggio-Pasqua M, Bearpark MJ, 2019, Using Density Functional Theory Based Methods to Investigate the Photophysics of Polycyclic Aromatic Hydrocarbon Radical Cations: A Benchmark Study on Naphthalene, Pyrene and Perylene Cations, Chemphotochem, Vol:3, ISSN:2367-0932, Pages:763-769
Segarra-Marti J, Tran T, Bearpark M, 2019, Computing the ultrafast and radiationless electronic excited state decay of cytosine and 5‐methyl‐cytosine cations: uncovering the role of dynamic electron correlation, Chemphotochem, Vol:3, ISSN:2367-0932, Pages:856-865
et al., 2019, Molecular vertical excitation energies studied with first-order RASSCF (RAS[1,1]): balancing covalent and ionic excited states, Journal of Physical Chemistry A, Vol:123, ISSN:1089-5639, Pages:5223-5230