MISC-Lab
CV


Education

  • Ph.D., Purdue University, 1997
  • B.S./M.S. (Math), Moscow State University, Russia, 1994
  • B.S./M.S.M.E., Bauman MSTU, Moscow, Russia, 1993

Teaching Interests

Professor Fedorov’s teaching interests encompass courses in mechanics, materials science, and thermodynamics at both undergraduate and graduate levels. His instruction emphasizes fundamental principles and their application to engineering problems, integrating experimental and computational approaches. He is committed to fostering a deep understanding of material behavior and physical phenomena relevant to mechanical engineering through rigorous coursework and active student engagement.

Research Interests

Professor Fedorov’s research focuses on the mechanics of materials and nonlinear dynamics, investigating complex material behavior under various loading conditions. His work combines experimental techniques with theoretical modeling to better understand deformation, damage, and failure mechanisms. The research aims to advance knowledge of microstructural effects on macroscopic properties, contributing to the development of predictive models in mechanical engineering and materials science.

Recent Publications

  • JD Chapman, PA Kottke, AG Fedorov, Heat and mass transfer enhancement of thin film evaporative cooling by nanoelectrospray-induced gas jets, International Journal of Heat and Mass Transfer 256, 127948, 2026.
  • JM Meacham, AG Fedorov, FL Degertekin, Systems and methods for mitigating particle aggregation caused by standing wave and transient acoustophoretic effects, US Patent 12,397,274, 2025.
  • DL Simeroth, PA Kottke, AG Fedorov, Combined Thermal Management and Power Generation for Reusable Hypersonic Vehicles, Journal of Thermophysics and Heat Transfer, 1-9, 2025.
  • JC Sentmanat, PA Kottke, AG Fedorov, Charged droplet manipulation by gas jets at sub-atmospheric pressures, Physical Review Fluids 10 (11), 114303, 2025.
  • JM Meacham, AG Fedorov, FL Degertekin, Systems and methods for mitigating particle aggregation caused by standing wave and transient acoustophoretic effects, US Patent App. 19/290,579, 2025.