Dispersion management in highly nonlinear, carbon disulfide filled holey fibres

Poletti, F.; Camerlingo, Angela; Petropoulos, P.; Richardson, David J.

doi:10.1109/leoswt.2008.4444447

Cited by 2 publications

(1 citation statement)

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“…Further extensions are required to involve higher order modes, as well as the degenerate (orthogonal) polarization of each mode. [ 129 ] In particular, the degenerate polarization of each mode might play a decisive role in nonlinear pulse propagation as the cross‐polarization component of the third‐order susceptibility (i.e.,

\chi ^{(3)}_{xy}

) is non‐zero in highly noninstantaneous liquids. [ 89,130 ] This leaves room for future studies in order to show extraordinarily strong nonlinear polarization rotations in non‐birefringent waveguides.…”

Section: Best Practice In Modeling Nonlinear Pulse Propagationmentioning

confidence: 99%

Liquid‐Core Optical Fibers—A Dynamic Platform for Nonlinear Photonics

Chemnitz

Junaid

Schmidt

2023

Laser & Photonics Reviews

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Softphotonics has emerged as a new discipline that utilizes soft matter (i.e., liquids, gels, bio‐materials) as waveguide materials with versatile functionalities. The flexible properties of soft matter show great potential for further exploiting nonlinear in‐fiber phenomena to gain more insights into their fundamental dynamics and to inspire a new generation of broadband optical light sources and signal processors that are adaptable, reconfigurable, and biocompatible. In particular, incorporating solvents with extraordinary temperature sensitivity, miscibility, and nonlinearity into optical fibers has spawned a series of inventions and fundamental scientific findings over the last decades. This review highlights the current state of development of nonlinear photonics in liquid‐filled fibers. The current state of knowledge in the linear and nonlinear material properties of the most prominent solvents (CS2, CCl4, C2Cl4, benzene and its derivatives) are revisited, and recent advances in nonlinear liquid‐core fiber optics, including a special highlight on phenomena that are unique to liquids, such as modified solitary states and local dispersion control are summarized. Finally, the leading scientific challenges for advancing the field, which highlights liquid‐core fibers as a rich platform for science and technology, are discussed.

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