A class of nonparaxial accelerating optical waves is introduced. These are beams with a Bessel-like profile that are capable of shifting laterally along fairly arbitrary trajectories as the wave propagates in free space. The concept expands on our previous proposal of paraxial accelerating Bessel-like beams to include beams with subwavelength lobes and/or large trajectory angles. Such waves are produced when the phase at the input plane is engineered so that the interfering ray cones are made to focus along the prespecified path. When the angle of these cones is fixed, the beams possess a diffraction-free Bessel profile on planes that stay normal to their trajectory, which can be considered as a generalized definition of diffractionless pro...
Over the past several years, spatially shaped self-accelerating beams along different trajectories h...
We show that new families of diffraction-free nonparaxial accelerating optical beams can be generate...
International audienceAccelerating beams are a novel class of optical waves where the localized inte...
A class of nonparaxial accelerating optical waves is introduced. These are beams with a Bessel-like ...
We introduce a new class of nonparaxial optical beams with a Bessel-like profile that are capable to...
A method is proposed for generating Bessel-like optical beams with arbitrary trajectories in free sp...
A method is proposed for generating Bessel-like optical beams with arbitrary trajectories in free sp...
International audienceThis chapter illustrates the capabilities of non-diffractive Bessel beams for ...
We introduce a new family of nonseparable, pulselike and beamlike solutions of the wave equation in ...
We experimentally demonstrate self-accelerating Bessel-like optical beams propagating along arbitrar...
We experimentally demonstrate self-accelerating Bessel-like optical beams propagating along arbitrar...
We theoretically and experimentally demonstrate self-accelerating Bessel-like optical beams propagat...
We investigate the propagation dynamics of accelerating beams that are shape-preserving solutions of...
Over the past several years, spatially shaped self-accelerating beams along different trajectories h...
We show that new families of diffraction-free nonparaxial accelerating optical beams can be generate...
International audienceAccelerating beams are a novel class of optical waves where the localized inte...
A class of nonparaxial accelerating optical waves is introduced. These are beams with a Bessel-like ...
We introduce a new class of nonparaxial optical beams with a Bessel-like profile that are capable to...
A method is proposed for generating Bessel-like optical beams with arbitrary trajectories in free sp...
A method is proposed for generating Bessel-like optical beams with arbitrary trajectories in free sp...
International audienceThis chapter illustrates the capabilities of non-diffractive Bessel beams for ...
We introduce a new family of nonseparable, pulselike and beamlike solutions of the wave equation in ...
We experimentally demonstrate self-accelerating Bessel-like optical beams propagating along arbitrar...
We experimentally demonstrate self-accelerating Bessel-like optical beams propagating along arbitrar...
We theoretically and experimentally demonstrate self-accelerating Bessel-like optical beams propagat...
We investigate the propagation dynamics of accelerating beams that are shape-preserving solutions of...
Over the past several years, spatially shaped self-accelerating beams along different trajectories h...
We show that new families of diffraction-free nonparaxial accelerating optical beams can be generate...
International audienceAccelerating beams are a novel class of optical waves where the localized inte...