A tridimensional model of the heat transfer in the system is considered to determine the validity conditions of the one dimensional model used to represent the center temperature.
The one dimensional model used in this work would exert an important influence on the design and structural optimization of the solar panel.
We also examine various simplified one-dimensional models used in the literature and show that these models do not describe the mass transfer controlled (fast reaction) regime accurately.
Three dimensional modeling, using the finite element method was developed and investigated to understand the progressive collapse of high rise buildings with composite steel frames.
We seek to reconcile these contractions by conducting simulations of groundwater flow, age and heat transport in a three dimensional model, using an alternative conceptual model, based on geological, thermal, isotope and historical data.
The length was based on simulations by a simple heterogeneous one dimensional model using literature parameters and kinetic data, while the diameter was selected to assure a linear fluid velocity between 0.5 and 2 m/s.
Three-dimensional models using concentric spheres would, he believed, yield good mathematical predictions of planetary positions without jeopardizing the physical principles of natural philosophy.
To facilitate interpretation we have generated a set of three-dimensional models using a recently developed technique, optical projection tomography.
For example, in a hierarchical docking workflow, two-dimensional molecular structures may first be converted into a set of three-dimensional models using a conformer generation tool.
Macro-mixing effects in batch and semi-batch reactors are investigated by constructing 3-dimensional models using a network of zones (NoZ) discretisation.
The 4-D model was reduced to a combination of lower-dimensional models using the lumped parameter technique, in which one or more particle characteristics is assumed to be fixed within the remaining distributions.
