The multimedia model is organized around four main principles.
Electricity Planning-Low-Carbon Development (EP-LCD) model is organized in spheres and sectors and was customized following a modular approach.
Second, the macroscopic traffic flow model along with the measurement model is organized in a compact state-space form, based on which a traffic state estimator is designed by use of the extended-Kalman-filtering method.
The generic product assembly model is organized according to STEP, using mostly the entities of integrated resources and partly self-defined entities, which are necessary for design and assembly planning.
The model is organized in modules related with the main visual biological areas, and is implemented mainly using the LISSOM architecture, a recent self-organizing algorithm closely reflecting the essential behavior of cortical circuits.
The model is organized as a discrete set of linked algorithms that represent the processes (time dependent release rate, spreading, transport on the water surface, evaporation from the water surface, transport and dispersion in the atmosphere, and, if ignited, burning and associated radiated heat fields) affecting LNG once it is released into the environment.
An infant's internal working model is organized around the accessibility and responsiveness of his or her caregiver.
The logic model is organized to show the relationships between the component parts (Table 3).
The model is organized into various smaller submodels, but all submodels are mathematically integrated to simulate an organism level response.
The data model is organized from a chemical-centric viewpoint to allow data integration and exchange with other data sources and to facilitate the linkage of the reference toxicity information to chemical-specific data generated using in vitro technologies (i.e., ToxCast).
