Bound states of optical solitons represent ideal candidates to investigate fundamental
nonlinear wave interaction principles and have been shown to exhibit intriguing analogies to …

We numerically study solitary-wave solutions for the nonlinear Schrödinger equation
perturbed by the effects of third-order and negative fourth-order dispersion. At a single wave …

We study the dynamical evolution of two-frequency pulse compounds, ie, intriguing bound-
states of light, kept together due to their incoherent interaction. A special class of solutions of …

We present a detailed overview of the physics of two-color soliton molecules in nonlinear
waveguides, ie bound states of localized optical pulses which are held together due to an …

We study incoherently coupled two-frequency pulse compounds in waveguides with single
zero-dispersion and zero-nonlinearity points. In such waveguides, supported by a negative …

For waveguides with two separate regions of anomalous dispersion, it is possible to create a
quasistable two-color solitary wave. In this paper, we consider how those waves interact with …

The generation of two-frequency compound states is very challenging because it requires
the access to two incommensurable frequencies that can be group-velocity matched within …

Nonlinear waveguides with two distinct domains of anomalous dispersion can support the
formation of molecule-like two-color pulse compounds. They consist of two tightly bound …

We numerically investigate coherent supercontinuum (SC) generation extending from the
deep ultraviolet to the mid-infrared spectral region using few-cycle optical pulses, pumped …

Mid-infrared (MIR) Kerr microcombs are of significant interest for portable dual-comb
spectroscopy and precision molecular sensing due to strong molecular vibrational …