A method is proposed for generating Bessel-like optical beams with arbitrary trajectories in free space. The method involves phase-modulating an optical wavefront so that conical bundles of rays are formed whose apexes write a continuous focal curve with prespecified shape. These ray cones have circular bases on the input plane, thus their interference results in a Bessel-like transverse field profile that propagates along the specified trajectory with a remarkably invariant main lobe. Such beams can be useful as hybrids between nonaccelerating and accelerating optical waves that share diffraction-resisting and self-healing properties
We theoretically show that it is possible to generate diffraction-resisting higher order Bessel beam...
We theoretically predict and experimentally demonstrate that it is possible to generate diffraction-...
We present an experimental realization of spiraling and snaking zero-order Bessel beams; light modes...
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...
We theoretically and experimentally demonstrate self-accelerating Bessel-like optical beams propagat...
Optical beams of the Bessel-type can counteract diffraction and thus maintain their profile during p...
A class of nonparaxial accelerating optical waves is introduced. These are beams with a Bessel-like ...
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 numerically investigate the possibility to generate freely accelerating or decelerating pulses. I...
We introduce an analytical technique for engineering the trajectory of diffraction-resisting laser b...
Over the past several years, spatially shaped self-accelerating beams along different trajectories h...
We introduce a new class of nonparaxial optical beams with a Bessel-like profile that are capable to...
AbstractBessel illumination is an established method in optical imaging and manipulation to achieve ...
We theoretically show that it is possible to generate diffraction-resisting higher order Bessel beam...
We theoretically predict and experimentally demonstrate that it is possible to generate diffraction-...
We present an experimental realization of spiraling and snaking zero-order Bessel beams; light modes...
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...
We theoretically and experimentally demonstrate self-accelerating Bessel-like optical beams propagat...
Optical beams of the Bessel-type can counteract diffraction and thus maintain their profile during p...
A class of nonparaxial accelerating optical waves is introduced. These are beams with a Bessel-like ...
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 numerically investigate the possibility to generate freely accelerating or decelerating pulses. I...
We introduce an analytical technique for engineering the trajectory of diffraction-resisting laser b...
Over the past several years, spatially shaped self-accelerating beams along different trajectories h...
We introduce a new class of nonparaxial optical beams with a Bessel-like profile that are capable to...
AbstractBessel illumination is an established method in optical imaging and manipulation to achieve ...
We theoretically show that it is possible to generate diffraction-resisting higher order Bessel beam...
We theoretically predict and experimentally demonstrate that it is possible to generate diffraction-...
We present an experimental realization of spiraling and snaking zero-order Bessel beams; light modes...