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Exact and approximate analytical solutions of the two- und three-dimensional radiative transfer equation

Exact and approximate analytical solutions of the two- und three-dimensional radiative transfer equation
二维和三维辐射传递方程的精确和近似解析解
批准号:
284841045
负责人:
Professor Dr. Alwin Kienle
金额:
$0.0万
依托单位国家:
德国
项目类别:
Research Grants
财政年份:
--
资助国家:
德国
项目状态:
未结题
起止时间:

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中文摘要
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英文摘要
The radiative transfer equation (RTE) is the fundamental equation for describing light propagation in scattering media in the mesoscopic and macroscopic scales such as in biological media, in plastics, in paints, in stones, in soils, in the atmosphere or in the interstellar space. Usually, the RTE is solved by numerical approaches like the Monte Carlo method. Recently, however we succeeded in deriving analytical solutions to the RTE for different geometries and to some of its extensions, e.g. for the generalized RTE. The aim of the project is to derive further important analytical solutions to the RTE for a variety of geometries in all spatial frequency domains and in all spatial domains considering also the solutions for discrete numbers of scattering interactions. Furthermore, analytical solutions will be derived for the correlation RTE and the diffusion equation, an often used approximation of the RTE. The new analytical solutions will be validated with or compared to Monte Carlo simulations. Analytical solutions of the RTE will be combined to solutions of the heat conduction equation, to which also analytical solutions will be derived for different geometries. In addition, the new analytical solutions will be efficiently implemented, first, to study important applications in different technical and medical fields and, second, to make the solutions available to the interested user.
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Anisotropic light propagation in biological tissue
Optische Kurzkohärenztomographie: Modellierung der Licht-Gewebe-Wechselwirkung
Light propagation in anisotropic biological tissue - influence of microstructure on scattering
Fundamental theoretical and experimental investigations of wavefront shaping deep in biological media
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