Accurate and efficient forward models of photon migration in heterogeneous geometries are
important for many applications of light in medicine because many biological tissues exhibit …

Accurate and rapid estimation of fluence, reflectance, and absorbance in multilayered
biological media has been essential in many biophotonics applications that aim to diagnose …

In this article, we describe a novel Monte Carlo code for time-integrated and time-resolved
photon migration simulations of excitation and fluorescent light propagation (with …

Emerging clinical applications including bioluminescence imaging require fast and accurate
modelling of light propagation through turbid media with complex geometries. Monte Carlo …

We deal with light diffusion in mismatched N-layered turbid media having a finite or an
infinitely thick N'th layer. We focus on time-resolved light propagation in both the frequency …

The study of light propagation in diffusive media requires solving the radiative transfer
equation, or eventually, the diffusion approximation. Except for some cases involving simple …

Efficient forward models of photon migration in complex geometries are important for
noninvasive imaging of tissue in vivo with diffuse optical tomography (DOT). In particular …

Accurately determining the optical properties of multi-layer turbid media using a layered
diffusion model is often a difficult task and could be an ill-posed problem. In this study, an …

In this paper, we demonstrate that a scanning MEMS mirror can be employed to create a
linear gradient line source that is equivalent to a planar source. This light source setup …

We deal with light diffusion in N-layered turbid media. The steady-state diffusion equation is
solved for N-layered turbid media having a finite or an infinitely thick N'th layer. Different …