Considering cancer not only as malignant cells on their own but as a complex disease in
which tumor cells interact and communicate with their microenvironment has motivated the …

The ability to solve the radiative transfer equation in a fast and accurate fashion is central to
several important applications in combustion physics, controlled thermonuclear fusion and …

A review of various strategies for implementing Monte Carlo analysis of radiative media is
presented. Comparisons of the performance (defined as the variance of the results …

This article deals with an efficient strategy for numerically simulating radiative transfer
phenomena using distributed computing. The finite element method alongside the discrete …

The spectral and directional dependence of emissivity along with radiative emissions of
scattering media has been characterized as functions of the optical thickness, scattering …

Abstract Graphics Processing Unit (GPU), originally developed for real-time, high-definition
3D graphics in computer games, now provides great faculty in solving scientific applications …

The iterative convergence of the P 1 radiation model can be slow in optically thin scenarios
when employing classical iterative methods. In order to remedy this shortcoming, an in …

The method of discrete ordinates is commonly used to solve the Boltzmann radiation
transport equation for applications ranging from simulations of fires to weapons effects. The …

The development of a new unified, multi-threaded runtime system for the execution of
asynchronous tasks on heterogeneous systems is described in this work. These …

Present trends in high performance computing present formidable challenges for
applications code using multicore nodes possibly with accelerators and/or co-processors …