This model includes all main physical processes required to define an accurate particle combustion simulation.
The proposed bottom-up model includes all main economic agents in a general equilibrium framework.
This model includes all relevant physical processes: diffusion, convection, drift and shock effects on cosmic ray propagation inside the heliosphere.
An improved three-dimensional CFD model includes all relevant phenomena and is valuable for gas management in a DMFC design.
Our model includes all known sources of intrinsic noise in our calorimeters including the observed broad band excess noise.
The mathematical model includes all major components from the thermal interface through the heat pipes and fins.
The model includes all of the heat transfer parameters in greenhouses including the heat loss for plant evapotranspiration, and the heat gain from environmental control systems.
The robot calibration model includes all 12 kinematic parameters, and the calibration method used is based on the linearization of the direct kinematics model in each calibration configuration.
The model includes all relevant convective, conductive and radiative heat transfer mechanisms and is validated against high temperature experimental data from a laboratory scale test facility.
The CFD model includes all relevant effects: movement of the particle curtain and the air, solar radiation, thermal radiation transfer, mechanical and thermal interactions between the particles, the air and the walls and conduction through the walls.
The TRACE model includes all of the primary components: the core, downcomer, hot legs, cold legs, pumps, direct reactor auxiliary cooling system (DRACS), the primary heat exchangers (PHXs), etc.
