Coercivity Landscape Characterizes Dynamic Hysteresis
Physical Review Letters 136, 117102 (2026). Editors’ Suggestion.
A unified landscape picture for dynamic hysteresis across slow-to-fast driving regimes.
Hello! I am Miao Chen, a graduate student in physics at Beijing Normal University. I am pursuing an M.Sc. in Theoretical Physics at BNU, following my B.Sc. in Physics from Jiangxi Normal University in 2024. My research focuses on non-equilibrium statistical physics, with particular interests in dynamic hysteresis, finite-time and finite-size scaling, and information thermodynamics.
I am interested in how driven many-body systems respond across different time and length scales, and how universal constraints emerge from microscopic dynamics. Recent projects include coercivity landscapes in dynamic hysteresis and finite-time thermodynamics of autonomous information machines.
Coercivity Landscape Characterizes Dynamic Hysteresis
Physical Review Letters 136, 117102 (2026). Editors’ Suggestion.
A unified landscape picture for dynamic hysteresis across slow-to-fast driving regimes.
Finite-time and finite-size scalings of coercivity in dynamic hysteresis
Physical Review E 113, 034124 (2026).
Finite-time and finite-size effects jointly shape coercivity scaling and plateau behavior.
Finite-Time Thermodynamics of an Autonomous Information Machine
arXiv:2604.15953 (2026).
Finite-time performance and thermodynamic trade-offs in an autonomous information machine.
Rényi entanglement asymmetry in (1+1)-dimensional conformal field theories
Physical Review D 109, 065009 (2024).
Entanglement asymmetry as a diagnostic of symmetry breaking in conformal field theories.
A PDF version of my academic CV is available here: Download CV.
Non-equilibrium statistical physics; phase transitions; information thermodynamics.
* denotes equal contribution.