Vita Highlights
WORK EXPERIENCE:
Massachusetts Institute of Technology Cambridge, MA
Postdoctoral Associate
• Principal Investigator: Prof. Bernhardt L. Trout
Projects: In collaboration with Merck Sharp & Dohme Corp.
o Computational modeling of the disulfide crosslinking reaction with different oxidants.
o Development of novel ab-initio self-consistent QM/MM-MD method.
o Study of the micro-environmental effect on the disulfide crosslinking reaction.
Shanghai New York University Shanghai, China
Postdoctoral Associate
• Principal Investigator: Assistant Prof. William J. Glover
• Projects: Development of polarizable embedding QM/MM method.
University of California Davis, CA
Junior Specialist
• Principal Investigator: Prof. Alexei. A. Stuchebrukhov
• Projects: Study of the electron transfer currents in the respiratory complex I.
University of California Davis, CA
Teaching Assistant/Head TA
University of the Pacific Stockton, CA
Teaching Assistant
IBM Egypt Cairo, Egypt
Software Developer 2003-2004
• Projects:
o I have worked on the WBI Modeler using Visual C++ 6.
o I have worked on the WBI Monitor product using Java and Oracle/DB2.
ABSTRACTS, PUBLICATIONS, AND PATENTS:
Hagras MA, Marek RA, Feras Hatahet, and Trout BL. Computational Modeling for the Oxidation Reactions of the Cysteine Residues with the Superoxide and the Organic Radical Species. The Journal of Physical Chemistry A. (submitted and revised).
Hagras MA, Bellucci MA, Gobbo G, Marek RA, and Trout BL. Computational Modelling for the Disulfide Cross-linking Reaction. The Journal of Physical Chemistry B. 2020 Oct 28;124(44): 9840-9851.
Wang P, Dhananjayan N, Hagras MA, Stuchebrukhov AA. Respiratory complex I: Bottleneck at the entrance of quinone site requires conformational change for its opening. Biochimica et Biophysica Acta (BBA)-Bioenergetics. 2020 Oct 9:148326.
Hagras M, Stuchebrukhov A, inventors. Inhibition of respiratory complex III by ligands that interact with a regulatory switch. The United States patent application US 16/531,511. 2020 Jan 23.
Ni Y, Hagras MA, Konstantopoulou V, Mayr JA, Stuchebrukhov AA, Meierhofer D. Mutations in NDUFS1 Cause Metabolic Reprogramming and Disruption of the Electron Transfer. Cells. 2019 Oct;8(10):1149.
Hagras MA*, Stuchebrukhov AA*. Concerted Two-Electron Reduction of Ubiquinone in Respiratory Complex I. The Journal of Physical Chemistry B. 2019 May 29;123(25):5265-73.
Hagras MA, Glover WJ. Polarizable Embedding for Excited-State Reactions: Dynamically Weighted Polarizable QM/MM. Journal of chemical theory and computation. 2018 Mar 21;14(4):2137-44.
Stuchebrukhov AA, Hagras MA. Two-electron reduction of ubiquinone in respiratory complex I. Biochimica et Biophysica Acta (BBA)-Bioenergetics. 2018 Sep 1;1859:e43.
Hagras MA, Stuchebrukhov AA. Electron tunneling in proteins program. Journal of Computational Chemistry. 2016 Jun 5;37(15):1388-95.
Hagras MA, Stuchebrukhov AA., Internal switches modulating electron tunneling currents in respiratory complex III, Biochim Biophys Acta. 2016 Jun;1857(6):749-758.
Hagras MA, Stuchebrukhov AA., Novel Inhibitors for a Novel Binding Site in Respiratory Complex III, J Phys Chem B. 2016 Mar 17;120(10):2701-8.
Hagras MA, Hayashi T, Stuchebrukhov AA., Quantum Calculations of Electron Tunneling in Respiratory Complex III, The Journal of Physical Chemistry B 2015 119 (46), pp 14637-51.
Hagras MA, Stuchebrukhov AA., Transition Flux Formula for the Electronic Coupling Matrix Element, The journal of physical chemistry. B, 2015, 119 (24), pp 7712–7721.
Hagras, M., Hayashi, T., Stuchebrukhov, A. (Sep., 2015). Computational studies of electron tunneling in respiratory complex III. Combined Biology Program Training Grant Retreat.
Hagras, M., Stuchebrukhov, A. (Feb. 2015). Internal switches modulating electron flow in bc1 complex. Biophysical Society 59th Annual Meeting.
Hagras, M., Hayashi, T., Stuchebrukhov, A. (Feb. 2014). Computational studies of electron tunneling in respiratory complex III. Biophysical Society 58th Annual Meeting.
Hagras, M., Faridi, J.S. (May 2008). Overexpression of active Akt3 induces differential binding of co-regulator proteins to the estrogen receptor as a possible mechanism of tamoxifen resistance. American Association for Cancer Research.