Biological tissue scatters light mainly in the forward direction where the scattering phase
function has a narrow peak. This peak makes it difficult to solve the radiative transport equation. …

… We investigated the propagation of light in biological tissues … Because of pronounced
anisotropic light scattering by … tissue as well as for the diagnosis of early tissue alterations. …

… We study light propagation in biological tissue using the radiative transport equation. The
Green’s function is the fundamental solution to the radiative transport equation from which all …

… We developed a new parallel computational method for solving fluorescence and elastically
scattered light propagation through a biological tissue illuminated by a collimated incident …

… cannot be evaluated solely from studies performed with common tissue phantoms that were
… of tissue. Our results further imply that polarized-light propagation through biological tissue …

… biological tissues. We have seen that linearly and circularly polarized light propagates
differently in these tissues… Further, we have identified regions in which imaging by polarized light …

… In this section models for transport of light and matter through a fibrous tissue (samples of
human sclera) are presented. The optical models developed show different features of how the …

… model light propagation within tissue we must first understand the basic interactions of light
… in molecules and proteins with the incident light that will give rise to macroscopic quantities …

… of biological tissue structures and their specificity related to interactions with light [1], this
section 3 describes light-tissue … with light [1], this section 3 describes light-tissue interactions …

… Light propagation in biological tissue is usually described by the radiative transport equation
assuming that biological tissue can … In contrast to this assumption, biological tissues often …