012026
Boosting thermalization of classical and quantum many-body systems
Designing the coupling to an environment offers a way to prepare many-body thermal states faster while preserving the target equilibrium state.
RESEARCH ARCHIVE
Selected Works
Quantum correlations, nonequilibrium dynamics, and the geometry of control.
Complete publication list on Google Scholar01Quantum nonlocality and many-body systems
022025
Optimizing quantum violation for multipartite facet Bell inequalities
Systematic optimization helps identify multipartite Bell tests with stronger quantum violations, supporting the search for experimentally useful nonlocality witnesses.
032025
Spectral gap optimization for enhanced adiabatic state preparation
Optimizing spectral gaps along a preparation path helps reduce the bottlenecks that make adiabatic quantum-state preparation slow.
02Stochastic thermodynamics
012025
Promoting fluctuation theorems into covariant forms
Extends standard nonequilibrium relations so they still work in relativistic settings.
022025
Thermodynamically Consistent Lindbladians for Quantum Stochastic Thermodynamics
Clarifies how to model open quantum dynamics without losing thermodynamic consistency.
032023
Exploring quasiprobability approach to quantum work in the presence of initial coherence: Advantages of the Margenau-Hill distribution
Explains which notion of quantum work remains useful when initial coherence is present.
042023
Hierarchical structure of fluctuation theorems for a driven system in contact with multiple heat reservoirs
Organizes several fluctuation relations into one unified picture for driven systems.
052021
Quantum-Classical Correspondence Principle for Heat Distribution in Quantum Brownian Motion
Connects quantum heat fluctuations with their classical Brownian-motion limit.
03Finite-time thermodynamics and heat engines
012024
Optimal control theory for maximum power of Brownian heat engines
Provides an explicit optimal-control recipe for pushing Brownian engines to maximum power.
022023
Geodesic lower bound of the energy consumption to achieve membrane separation within finite time
A geometric bound quantifies the extra energy needed for fast membrane separation and identifies paths that reduce that cost.
032022
Optimizing Brownian heat engine with shortcut strategy
Uses geometric control ideas to improve finite-time Brownian engine performance.
042022
Speeding up quantum adiabatic processes with a dynamical quantum geometric tensor
Introduces a geometric control principle for faster adiabatic quantum evolution.
052022
Efficiency statistics of a quantum Otto cycle
Moves beyond average efficiency and characterizes the full performance fluctuations of the engine.
062021
Extrapolating the thermodynamic length with finite-time measurements
Finite-duration measurements can estimate thermodynamic length, making a quantity that bounds dissipation accessible without infinitely slow experiments.
072019
Achieve Higher Efficiency at Maximum Power with Finite-time Quantum Otto Cycle
Shows that a finite-time quantum Otto engine can outperform standard maximum-power benchmarks.
082019
Boosting the performance of quantum Otto heat engines
Shows how carefully timed control can improve both power and efficiency in Otto engines.
092018
Bose-Fermi duality in a quantum Otto heat engine with trapped repulsive bosons
Shows how particle interactions reshape the efficiency of a quantum Otto engine.
04Transport and nonequilibrium physics
012025
Monitored quantum transport: full counting statistics of a quantum Hall interferometer
Shows what continuous monitoring changes, and what it preserves, in mesoscopic transport.
022025
Ergodicity breaking and scaling relations for finite-time first-order phase transition
Identifies observable finite-time signatures of first-order phase transitions.
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