A family of closed form expressions for the scalar field of strongly focused Gaussian beams in oblate spheroidal coordinates is given. The solutions satisfy the wave equation and are free from singularities. The lowest order solution in the far field closely matches the energy density produced by a sine condition, high-aperture lens illuminated by a paraxial Gaussian beam. At the large waist limit it reduces to the paraxial Gaussian beam form. It is equivalent to the spherical wave of combined complex point source and sink but has the advantage of more direct interpretation.Peer reviewe
Abstract. An overview is given of two types of focused beams, Gaussian beams and Bessel beams. First...
We study the three-dimensional field distribution of a focused axially symmetric flattened Gaussian ...
The vector wave equation for electromagnetic waves, when subject to a number of constraints correspo...
Non-paraxial theories of wave propagation are essential to model the interaction of highly focused l...
A new mathematical model for the fundamental mode of a propagating Gaussian beam is presented. The m...
In paraxial optics, the spatial and angular localization of a beam are usually characterized through...
Thesis (Ph. D.)--University of Rochester. Institute of Optics, 2009.The recent trend in applications...
It is shown that three-dimensional nonparaxial beams are described by the oblate spheroidal exact so...
The problem of field expansion is studied in terms of Gaussian beams and complex source points. Part...
ComplexFocus is a Mathematica package that implements the Complex Focus fields, a family of vector b...
Highly focused beams are applicable in many areas, such as optical particle trapping, particle accel...
We report the first, to the best of our knowledge, observation of concentrating paraxial beams of li...
This is the author accepted manuscript. The final version is available from IOP Publishing via the D...
The vector Mathieu-Gauss beams of integer order are examined as the solutions of the vector paraxial...
A new kind of tridimensional scalar optical beams is introduced. These beams are called Lorentz beam...
Abstract. An overview is given of two types of focused beams, Gaussian beams and Bessel beams. First...
We study the three-dimensional field distribution of a focused axially symmetric flattened Gaussian ...
The vector wave equation for electromagnetic waves, when subject to a number of constraints correspo...
Non-paraxial theories of wave propagation are essential to model the interaction of highly focused l...
A new mathematical model for the fundamental mode of a propagating Gaussian beam is presented. The m...
In paraxial optics, the spatial and angular localization of a beam are usually characterized through...
Thesis (Ph. D.)--University of Rochester. Institute of Optics, 2009.The recent trend in applications...
It is shown that three-dimensional nonparaxial beams are described by the oblate spheroidal exact so...
The problem of field expansion is studied in terms of Gaussian beams and complex source points. Part...
ComplexFocus is a Mathematica package that implements the Complex Focus fields, a family of vector b...
Highly focused beams are applicable in many areas, such as optical particle trapping, particle accel...
We report the first, to the best of our knowledge, observation of concentrating paraxial beams of li...
This is the author accepted manuscript. The final version is available from IOP Publishing via the D...
The vector Mathieu-Gauss beams of integer order are examined as the solutions of the vector paraxial...
A new kind of tridimensional scalar optical beams is introduced. These beams are called Lorentz beam...
Abstract. An overview is given of two types of focused beams, Gaussian beams and Bessel beams. First...
We study the three-dimensional field distribution of a focused axially symmetric flattened Gaussian ...
The vector wave equation for electromagnetic waves, when subject to a number of constraints correspo...