Distributed computing has revolutionized the way complex mathematical calculations are performed. This article explores the application of distributed computing for the calculation of complex integrals which are widely used for numeric simulation of optic fields. Article discusses possible solutions for numeric simulation of optic fields involving distributed computing techniques, and highlights the advantages of this approach. By harnessing the power of distributed computing, researchers can tackle complex optical fields more efficiently than ever before
The results of laser autofluorescence microscopy of the distribution of the intensity of the MLA of polycrystalline structures of biological tissue preparations are presented. The data of a statistical analysis of the distribution of the magnitude of the intensity of MLA networks of biological crystals of histological sections of tissues of the spleen and kidney with the parenchymal morphological structure of the dead with different levels of blood loss are presented.
A theoretical basis for the method of polarization-interference mapping of optically thin polycrystalline films of human biological fluids is given. The coordinate distributions of the value of the local contrast of the interference distributions of the polarization-inhomogeneous microscopic images of polycrystalline films of the synovial fluid of the human joint are investigated. In the framework of the statistical (statistical moments of the 1st-4th order) approaches, objective criteria for the distribution of the values of local contrast are established. The possibility of differentiation of weak changes in the optical anisotropy of blood films of healthy and patients with breast cancer patients is determined.
The results of the multifunctional Stokes polarimetric mapping of the manifestations of phase and amplitude anisotropy of histological sections of the internal organs of rats are presented. The methods of statistical analysis of vector-parametric images are used. Criteria for the differentiation of pathological conditions are obtained.
This report contains the results of approbations of the polarization correlometry method (PCM) – statistical mapping of biological tissues fractal structure (myocardium and brain - “fibrillar optically anisotropic networks” and the wall of the rectum - “island optically anisotropic structures”) and liquids (polycrystalline films of synovial fluid - a superposition of “structured and island networks of biological crystals").
The principles of the use of fractal analysis in the problems of polarization mapping of microscopic images of biological preparations are considered. Myocardial tissue of the deceased with various pathological and necrotic changes was selected as the object of study. A model of the polycrystalline structure of such an object is proposed. Obtained maps of the ellipticity of the polarization of microscopic images of such an object. Within the framework of fractal analysis, the statistical moments of the 1st - 4th orders were found, which characterize the distribution of the logarithmic dependences of the power spectra of polarization ellipticity maps. The criteria for differentiation of various pathological states of myocardial tissue are determined.
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