Research

Wave physics for quantum technologies

The lab develops theory, simulation, and experimental workflows for resonant electromagnetic systems, quantum hardware interfaces, and metamaterial-enabled sensing.

Complex-frequency electrodynamics and non-Hermitian scattering

We study resonant wave systems using complex-frequency excitations, non-Hermitian scattering theory, and temporal waveform design to reveal poles, zeros, and transient response channels that are hidden in steady-state measurements.

Pole-zero engineering in microwave, optical, and polaritonic systems
Waveform design for scattering beyond conventional bounds
Fano interference, coherent perfect absorption, and exceptional response
Complex-frequency excitations for resonator diagnostics

Relevant Publications

Complex-frequency excitation concepts including virtual absorption and scattering responses — Complex-frequency excitation concepts for resonant scattering, virtual absorption, and non-Hermitian response.

Quantum control and quantum-hardware diagnostics

QTM Lab develops control and diagnostic approaches for quantum hardware where realistic electromagnetic environments, calibration, and device-level constraints shape performance.

Pulse, waveform, and response-function design for quantum systems
Hardware-aware diagnostics for superconducting and photonic platforms
Qiskit-based education, prototyping, and quantum-computing workflows
Reproducible Python/Jupyter notebooks for simulation and analysis

Relevant Publications

QTM quantum technology and metamaterials artwork — Quantum technology workflows linking control, hardware, and simulation.

Circuit/cavity QED and photonic interfaces

We investigate superconducting/circuit-QED interfaces, microwave cavities, photonic coupling mechanisms, and resonator architectures for quantum information systems and measurement.

Superconducting microwave cavities and qubit-compatible resonators
Cavity-QED and circuit-QED response modeling
Photonic and microwave interfaces for quantum hardware
Isolation, bandwidth, and Fano-inspired device concepts

Relevant Publications

Metamaterial resonator array with light interacting with a molecular system — Resonant electromagnetic platforms for microwave, photonic, and QED-inspired interfaces.

Nanophotonics, metasurfaces, and reconfigurable antennas

The lab uses resonant nanophotonics and electromagnetic design to shape light, microwaves, and near fields with compact structures, active materials, and metasurface architectures.

Mie resonators, dielectric antennas, and multipolar scattering
Metasurfaces for wavefront, polarization, and field control
Reconfigurable antennas and adaptive electromagnetic structures
Polaritonic materials, van der Waals systems, and topological response

Relevant Publications

Metasurface array interacting with light and a molecule — Metasurface and resonator concepts for structured light–matter interaction.

Quantum sensing, cryogenic sensing, and applied metrology

We build sensing concepts where metamaterials, resonators, and quantum materials improve field sensitivity, spatial selectivity, and measurements in demanding environments.

Cryogenic sensing and wireless sensing concepts
NV-diamond magnetometry and quantum-sensor interfaces
MRI field-control metasurfaces and applied metrology
Microwave, RF, THz, and mid-IR sensing opportunities

Relevant Publications

Layered quantum materials and nanoscale optical response artwork — Quantum materials and nanoscale fields for sensing and applied metrology.

Computational electromagnetics and quantum simulation

Computational work in the lab combines full-wave electromagnetic solvers, reduced-order models, quantum toolkits, and high-performance workflows to connect design, theory, and measurement.

Full-wave simulation for microwave, optical, and metasurface devices
GPU/HPC workflows for parameter sweeps and inverse design
QuTiP and Qiskit for quantum-system modeling and education
Versioned, documented, reproducible simulation pipelines

Relevant Publications

Quantum technology and metamaterials artwork with geometric quantum motifs — Simulation, modeling, and high-performance workflows for QTM research.