BACKGROUND The past 10 to 15 years have witnessed substantial advances in our ability
to controllably adjust, slow down, or accelerate the speed of light signals propagating …

We consider a slow-wave nanoplasmonic waveguide system with spatially separated
(distant) quantum emitters. Based on a nanoplasmonic waveguide quantum electrodynamic …

A systematic approach to investigate lasing and net amplification in plasmonic structures
with a finite‐difference time‐domain method coupled to the rate equations of four‐level and …

We perform a first-principles calculation of the quantum-limited laser linewidth, testing the
predictions of recently developed theories of the laser linewidth based on fluctuations about …

Usually, the cavity is considered an intrinsic part of laser design to enable coherent
emission. For different types of cavities, it is assumed that the light coherence is achieved by …

Electromagnetic pulse propagation in the slow light regime and near a zero group velocity
point is relevant to a plethora of potential applications, and has analogies in numerous other …

We employ a recently developed optical pulse propagation formulation suitable for slow and
stopped light regimes to demonstrate light stopping by a (transient) grating coupling in a toy …

By reducing the number of dimensions that light can propagate in from three to two, control
over the properties of propagation can be achieved. The plasmonic modes of planar …

We theoretically discuss properties of intersubband surface plasmon polaritons (ISPPs)
supported by the system consisting of a multiple quantum well (MQW) slab embedded into …