Our research spans the fundamental and applied frontiers of Floquet engineering, quantum thermodynamics, and beyond-Carnot energy conversion — powered by collaborative partnerships worldwide.
Our work is organized around three deeply interconnected research pillars, each addressing a critical aspect of quantum energy science.
Engineering beyond-Carnot efficiency through Floquet-driven quantum thermodynamic cycles. By exploiting squeezed thermal reservoirs and quantum coherence, we design engines that surpass classical thermodynamic limits — extracting more useful work from quantum-scale heat gradients than any classical system permits.
Creating entirely novel material properties through periodic driving fields. Our research explores Floquet-engineered topological insulators, Floquet-Bloch states in driven lattice systems, and light-induced superconductivity — transforming ordinary materials into exotic quantum phases on demand.
Developing the fundamental theory of energy, work, and heat at quantum scales. We investigate non-equilibrium steady states, quantum work extraction protocols, and the information-thermodynamics interface — rewriting the rules of energy conversion for the quantum era.
Deep-dive initiatives driving our most ambitious experimental and theoretical work.
Developing next-generation energy harvesting devices that leverage periodic Floquet driving to dramatically increase photovoltaic and thermoelectric conversion efficiencies. Our protocols exploit non-equilibrium quantum states to capture energy from sources that classical devices cannot efficiently access.
Engineering robust topological phases of matter through Floquet driving. We create and characterize programmable edge states, anomalous Floquet topological insulators, and driven topological superconductors — building blocks for fault-tolerant quantum technologies and dissipationless energy transport.
Pioneering Floquet-based quantum error correction codes that use time-periodic measurement schedules to protect quantum information. These dynamically generated codes offer hardware-efficient pathways to fault-tolerant quantum computing with reduced qubit overhead.
Mapping the rich landscape of phase transitions in periodically driven quantum systems. From discrete time crystals to Floquet many-body localization, we explore how driving protocols create entirely new phases of matter with no equilibrium counterpart.
Breakthroughs in quantum energy science require the convergence of expertise across physics, materials science, engineering, and computer science. Our research thrives on deep collaborative partnerships that span academia, national laboratories, and industry.
We actively seek partnerships with universities pursuing cutting-edge quantum science, government research laboratories with advanced experimental facilities, and industry partners developing real-world quantum technologies. Our collaborative model emphasizes open knowledge exchange, shared experimental access, and co-development of intellectual property.
Whether your team is working on theoretical quantum thermodynamics, experimental Floquet engineering, quantum computing hardware, or advanced materials characterization, we welcome the opportunity to explore synergies and co-create the future of quantum energy technology.
We believe in open, reproducible research. Our published findings, datasets, and theoretical frameworks are made available to the broader scientific community to accelerate progress across the field.
We are always looking for passionate researchers and forward-thinking organizations to partner with on quantum energy challenges.
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