- B.S. (1998) and M.S. (2000) in Applied Mathematics and Physics from the Moscow Institute of Physics and Technology
- M.S. (2003) and Ph.D. (2007) in Chemistry from University of Southern California under the guidance of Prof. Andrey F. Vilesov
- Postdoctoral research (2007–2012) with Prof. Robert W. Field at the Massachusetts Institute of Technology
- Postdoctoral research (2013–2014) with Prof. Arthur. G. Suits at Wayne State University
- Since 2015, Assistant Chemist at Argonne National Laboratory, Chemical Sciences and Engineering Division
I am interested in discovering fundamental mechanisms of chemical reactions in the gas phase. How and why do molecules react? What are the ways of steering the outcome of their reactions? Can we rationally design new fuels or improve the biomass conversion processes? These questions can be answered by a combination of the experiments that I am conducting using the chirped-pulse millimeter-wave (CPmmW) spectroscopy and the theoretical support I am receiving from my colleagues. In particular, we are investigating the contributions from the roaming radicals dynamics, non-thermal effects, quantum tunneling, and H-atom addition/elimination to the outcomes of chemical reactions in different experimental environments.
In this research effort, complex networks of chemical reactions are thermally initiated in the micro-tubular pyrolysis reactor (Chen nozzle) heated to 800–1900 K. The reaction products are cooled in the supersonic expansion to ~10 K where they are observed and quantified using CPmmW spectroscopy. Based on these measurements, and with the help of kinetic modeling, reaction networks are built and new chemical pathways are discovered.
Time-Resolved Kinetic Chirped-Pulse spectroscopy
In this novel experimental approach, chemistry in my room temperature flow-tube reactor is initiated by UV laser pulses. Subsequent reactions and thermalization of energized photo-products are observed with a time- and vibrational quantum state-resolved chirped-pulse rotational spectroscopy. Vibrational population distributions of reaction products are a key to discovering new reaction mechanisms.
Assignment of rotational spectra using artificial neural networks
Increasing throughput of spectroscopic data from broadband chirped-pulse rotational experiments opens new opportunities for chemical research. At the same time, assignment of broadband rotational spectra and identification of chemical species becomes a bottleneck. We have demonstrated the potential of machine learning for sorting through these spectroscopic data and eventually converting them to chemical information.
Daniel P. Zaleski and Kirill Prozument, “Automated assignment of rotational spectra using artificial neural networks”, J. Chem. Phys. 149, 104106 (2018)
Peter J. Weddle, Canan Karakaya, Huayang Zhu, Raghu Sivaramakrishnan, Kirill Prozument, Robert J. Kee, “Boundary-layer model to predict chemically reacting flow within heated, high-speed, micro-tubular reactors”, Int. J. Chem. Kinet., 50, 473−480 (2018)
Daniel P. Zaleski, Lawrence B. Harding, Stephen J. Klippenstein, Branko Ruscic, and Kirill Prozument, “Time-Resolved Kinetic Chirped-Pulse Rotational Spectroscopy in a Room Temperature Flow Reactor“, J. Phys. Chem. Lett. 8, 6180−6188 (2017)
Daniel P. Zaleski and Kirill Prozument, “Pseudo-equilibrium geometry of HNO determined by an E-Band CP-FTmmW spectrometer”, Phys. Chem. Lett. 680, 101−108 (2017)
Daniel P. Zaleski, Chuanxi Duan, Miguel Carvajal, Isabelle Kleiner, and Kirill Prozument, “The Broadband Rotational Spectrum of Fully Deuterated Acetaldehyde (CD3CDO) in a CW Supersonic Expansion”, J. Mol. Spectrosc. 342, 17−24 (2017)
Hiromichi Hoshina, Mikhail Slipchenko, Kirill Prozument, Deepak Verma, Michael W. Schmidt, Joseph Ivanic, and Andrey F. Vilesov, ”Infrared Spectroscopy and Structure of (NO)n Clusters”, J. Phys. Chem. A 120, 527−34 (2016)
Chamara Abeysekera, Lindsay N. Zack, G. Barratt Park, Baptiste Joalland, James M. Oldham, Kirill Prozument, Nuwandi M. Ariyasingha, Ian R. Sims, Robert W. Field, and Arthur G. Suits, “A chirped-pulse Fourier-transform microwave/pulsed uniform flow spectrometer. II. Performance and applications for reaction dynamics ”, J. Chem. Phys. 141, 214203 (2014)
James M. Oldham, Chamara Abeysekera, Baptiste Joalland, Lindsay N. Zack, Kirill Prozument, Ian R. Sims, G. Barratt Park, Robert W. Field, and Arthur G. Suits, “A chirped-pulse Fourier-transform microwave/pulsed uniform flow spectrometer. I. The low-temperature flow system”, J. Chem. Phys. 141, 154202 (2014)
Kirill Prozument, Yury V. Suleimanov, Beat Buesser, James M. Oldham, William H. Green, Arthur G. Suits, and Robert W. Field, “A Signature of Roaming Dynamics in the Thermal Decomposition of Ethyl Nitrite: Chirped-Pulse Rotational Spectroscopy and Kinetic Modeling”, J. Phys. Chem. Lett. 5, 3641−3648 (2014)
Kirill Prozument, G. Barratt Park, Rachel G. Shaver, AnGayle K. Vasiliou, James M. Oldham, Donald E. David, John S. Muenter, John F. Stanton, Arthur G. Suits, G. Barney Ellison, and Robert W. Field, “Chirped-pulse millimeter-wave spectroscopy for dynamics and kinetics studies of pyrolysis reactions”, Phys. Chem. Chem. Phys. 16, 15739−15751 (2014)
Kirill Prozument, Rachel G. Shaver, Monika Ciuba, John S. Muenter, G. Barratt Park, John F. Stanton, Hua Guo, Bryan M. Wong, David S. Perry, and Robert W. Field, A New Approach toward Transition State Spectroscopy, Faraday Discuss. 163, 33−57 (2013)
Anthony P. Colombo, Yan Zhou, Kirill Prozument, Stephen L. Coy, and Robert W. Field, Chirped-pulse millimeter-wave spectroscopy: Spectrum, dynamics, and manipulation of Rydberg–Rydberg transitions, J. Chem. Phys. 138, 014301 (2013)
Kirill Prozument, Anthony P. Colombo, Yan Zhou, G. Barratt Park, Vladimir S. Petrović, Stephen L. Coy, and Robert W. Field, Chirped-Pulse Millimeter-Wave Spectroscopy of Rydberg-Rydberg Transitions, Phys. Rev. Lett. 107, 143001 (2011)
G. Barratt Park, Adam H. Steeves, Kirill Kuyanov-Prozument, Justin L. Neill and Robert W. Field, Design and evaluation of a pulsed-jet chirped-pulse millimeter-wave spectrometer for the 70–102 GHz region, J. Chem. Phys. 135, 024202 (2011)