Maxim A. Makeev
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Also affiliated: University of Notre Dame (1997–2005); University of Southern California (2001–2006); Tufts University (2019–2020); Ames Research Center (2006–2010); University of Minnesota (1997–2015); University of California, Santa Cruz (2010); University of Michigan (2013–2017); National Aeronautics and Space Administration (2010); Minnesota Supercomputing Institute (2015); Stony Brook University (2022); University of Missouri (2017–2019)
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Biography and Research Information
OverviewAI-generated summary
Maxim A. Makeev's research utilizes atomistic and ab initio simulation methods, alongside machine learning, to investigate materials science topics. His current work includes atomistic simulation studies of model porous glasses and computational investigations of materials for energy storage. Previously, his research has encompassed the stochastic theory of surface evolution under energetic ion bombardment, atomistic simulations of semiconductor nanostructures, the physics of hypervelocity impacts, and shock-wave propagation in composite materials.
Makeev's scholarly output includes 65 publications, with a total of 1,450 citations and an h-index of 15. He has collaborated with researchers at the University of Arkansas at Fayetteville, including Yousra Nahas, Sergei Prokhorenko, Suyash Rijal, and Laurent Bellaiche, on multiple shared publications. He maintains an active laboratory website detailing his research activities.
Metrics
- h-index: 15
- Publications: 64
- Citations: 1,450
Selected Publications
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Novel static and dynamical properties of electric topological defects (2026)
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Formation mechanism of quasiordered superstructures of electric bubbles (2025)
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Quasihexagonal arrays of electric-skyrmion bubbles in thin-film ferroelectrics: Pattern formation and structure (2024)
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Top Collaborators
- Quasihexagonal arrays of electric-skyrmion bubbles in thin-film ferroelectrics: Pattern formation and structure
- Formation mechanism of quasiordered superstructures of electric bubbles
- Novel static and dynamical properties of electric topological defects
- Quasihexagonal arrays of electric-skyrmion bubbles in thin-film ferroelectrics: Pattern formation and structure
- Formation mechanism of quasiordered superstructures of electric bubbles
- Novel static and dynamical properties of electric topological defects
- Quasihexagonal arrays of electric-skyrmion bubbles in thin-film ferroelectrics: Pattern formation and structure
- Formation mechanism of quasiordered superstructures of electric bubbles
- Novel static and dynamical properties of electric topological defects
- Formation mechanism of quasiordered superstructures of electric bubbles
- Novel static and dynamical properties of electric topological defects
- Quasihexagonal arrays of electric-skyrmion bubbles in thin-film ferroelectrics: Pattern formation and structure
- Novel static and dynamical properties of electric topological defects
- Novel static and dynamical properties of electric topological defects
- Novel static and dynamical properties of electric topological defects
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