V. A. Zverev
Saint Petersburg State University
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Publication
Featured researches published by V. A. Zverev.
Optics and Spectroscopy | 2011
V. A. Zverev; E. S. Rytova; I. N. Timoshchuk
A definition of a wave aberration as a phase shift upon composition of light waves in the image of a point is given using the concept of point eikonal. An expression that determines the total differential of a wave aberration function is obtained and the condition of its integrability is determined. The sequence of the wave aberration function definition at the known functions of the meridional and sagittal components of lateral aberration is presented.
Journal of Optical Technology | 2010
V. A. Zverev; E. S. Rytova; I. N. Timoshchuk
This paper gives a definition of the decentering of optical surfaces of revolution of spherical and nonspherical shape that constitute an optical system and determines how decentering the surfaces affects the position of the resulting image. The relationships presented here can be used for both refractive and reflective surfaces.
Journal of Optical Technology | 2010
V. A. Zverev; I. N. Timoshchuk
Based on the result of an aberrational analysis of a thin lens in air, it is demonstrated that not only stigmatic but also aplanatic correction of third-order aberrations is possible in an image formed by a system of positive lenses, and the conditions for carrying out this correction are determined.
Journal of Optical Technology | 2008
V. A. Zverev; I. Yu. Suborova
Using the relationships of geometrical optics, it is shown to be possible to convert the radiation of a flat source into a light tube of cylindrical shape. Versions of the optical conversion layouts are presented.
Journal of Optical Technology | 2012
S. V. Gaĭvoronskiĭ; V. A. Zverev
This paper analyzes the size parameters and aberrational characteristics of versions of composite optical systems made from reflective surfaces based on Gregory and Cassegrain objectives.
Journal of Optical Technology | 2012
V. A. Zverev; A. S. Kovaleva; I. N. Timoshchuk
This paper analyzes the aberrational properties of mirror and mirror–lens optical systems consisting of the concentric surfaces of the objective and presents a method of parametrically synthesizing them.
Journal of Optical Technology | 2012
V. A. Zverev; Yu. A. Podgornykh
It is shown that using an afocal Mersenne system that possesses known anaberrational properties makes it possible to construct a number of compact mirror and mirror–lens systems that possess aplanatic, anastigmatic, and planastigmatic correction of the aberrations of the resulting image, with the length of the system being about a factor of 4 less than the diameter of its entrance pupil.
Journal of Optical Technology | 2011
V. A. Zverev; I. N. Timoshchuk
This paper defines a generalized parametric model of an optical system and analyzes it. The results of the analysis make it possible to specify how much the structural parameters of the optical system may deviate from the nominal values for various forms of assemblies of optical devices.
Journal of Optical Technology | 2011
V. A. Zverev; E. S. Rytova; N. N. Timoshchuk
This paper analyzes how errors of fabrication and deployment affect the position of the baseline (the optical axis) when reflective prisms are being assembled. An expression is obtained for the law of refraction in matrix form, making it possible to use a simple and obvious derivation to obtain the decoplanarity invariant. By applying it successively to each of the surfaces of a prism, we obtain after the last surface the deviation of the ray coming out of the prism from the plane of the principal cross section in the form of a function of the deviations of the normals to all the surfaces of the prism from its principal cross section—i.e., of the decoplanarity of the normals to the surfaces of the prism.
Journal of Optical Technology | 2009
I. G. Bronshteĭn; V. A. Zverev; I. L. Livshits; Kim Young-Gi; Kim Tae-Young; Jung Philho
This paper discusses fundamental questions of constructing the optical setup of a compact objective and choosing the initial design for the system, based on the theory of the synthesis and composition of optical systems. The planning of the optical systems of compact objectives for mobile telephones is analyzed. An example of a design for a version of an objective is given.