Using modulation theory, we develop a simple [(2+1)-dimensional] model to describe the synergy between the thermo-optical and reorientational responses of nematic liquid crystals to light beams to describe the routing of spatial optical solitary waves (nematicons) in such a uniaxial environment. Introducing several approximations based on the nonlocal physics of the material, we are able to predict the trajectories of nematicons and their angular steering with temperature, accounting for the energy exchange between the input beam and the medium through one-photon absorption. The theoretical results are then compared to experimental data from previous studies, showing excellent agreement
We demonstrate thermo-optic control on the propagation of optical spatial solitons in nematic liquid...
We develop a modulation theory model based on a Lagrangian formulation to investigate the evolution ...
We develop a modulation theory model based on a Lagrangian formulation to investigate the evolution ...
Using modulation theory, we develop a simple [(2+1)-dimensional] model to describe the synergy betwe...
Employing several nematic liquid crystal mixtures, we investigate how the thermo-optic response of n...
Employing several nematic liquid crystal mixtures, we investigate how the thermo-optic response of n...
Employing several nematic liquid crystal mixtures, we investigate how the thermo-optic response of n...
Employing several nematic liquid crystal mixtures, we investigate how the thermo-optic response of n...
The waveguiding effect of spatial solitary waves in nonlinear optical media has been suggested as a ...
The propagation of light-induced thermo-reorientational solitary waves in nematic liquid crystals is...
The propagation of light-induced thermo-reorientational solitary waves in nematic liquid crystals is...
The propagation of light-induced thermo-reorientational solitary waves in nematic liquid crystals is...
We demonstrate thermo-optic control on the propagation of optical spatial solitons in nematic liquid...
We review the mathematical modelling of propagation and specific interactions of solitary beams in n...
We review the mathematical modelling of propagation and specific interactions of solitary beams in n...
We demonstrate thermo-optic control on the propagation of optical spatial solitons in nematic liquid...
We develop a modulation theory model based on a Lagrangian formulation to investigate the evolution ...
We develop a modulation theory model based on a Lagrangian formulation to investigate the evolution ...
Using modulation theory, we develop a simple [(2+1)-dimensional] model to describe the synergy betwe...
Employing several nematic liquid crystal mixtures, we investigate how the thermo-optic response of n...
Employing several nematic liquid crystal mixtures, we investigate how the thermo-optic response of n...
Employing several nematic liquid crystal mixtures, we investigate how the thermo-optic response of n...
Employing several nematic liquid crystal mixtures, we investigate how the thermo-optic response of n...
The waveguiding effect of spatial solitary waves in nonlinear optical media has been suggested as a ...
The propagation of light-induced thermo-reorientational solitary waves in nematic liquid crystals is...
The propagation of light-induced thermo-reorientational solitary waves in nematic liquid crystals is...
The propagation of light-induced thermo-reorientational solitary waves in nematic liquid crystals is...
We demonstrate thermo-optic control on the propagation of optical spatial solitons in nematic liquid...
We review the mathematical modelling of propagation and specific interactions of solitary beams in n...
We review the mathematical modelling of propagation and specific interactions of solitary beams in n...
We demonstrate thermo-optic control on the propagation of optical spatial solitons in nematic liquid...
We develop a modulation theory model based on a Lagrangian formulation to investigate the evolution ...
We develop a modulation theory model based on a Lagrangian formulation to investigate the evolution ...