Biosensors have been designed and developed for detecting biomarkers, biomolecules,
proteins, enzymes, organisms, and various types of bacterial and viral diseases since the …

Quantum optics with giant atoms has provided a new paradigm to study photon scatterings.
In this work, we investigate the nontrivial single-photon scattering properties of giant atoms …

We study the collective radiative decay of a system of two two-level emitters coupled to a
one-dimensional waveguide in a regime where their separation is comparable to the …

We develop a semianalytical model to describe bound states in the continuum (BICs) in
photonic crystal slabs. We model leaky modes supported by photonic crystal slabs as a …

We investigate the potential for two-dimensional atom arrays to modify the radiation and
interaction of individual quantum emitters. Specifically, we demonstrate that control over the …

Waveguides allow for direct coupling of emitters separated by large distances, offering a
path to connect remote quantum systems. However, when facing the distances needed for …

Dissipation, often associated with plasmons, leads to decoherence and is generally
considered fatal for quantum nonlinearities and entanglement. Counterintuitively, by …

We develop a formalism for modelling $ exact $ time dynamics in waveguide quantum
electrodynamics (QED) using the real-space approach. The formalism does not assume any …

Waveguide quantum electrodynamics constitutes a modern paradigm for the interaction of
light and matter, in which strong coupling, bath structure, and propagation delays can break …

Generalized spin-boson (GSB) models describe the interaction between a quantum
mechanical system and a structured boson environment, mediated by a family of coupling …