Sentence examples for model for reactor from inspiring English sources

A structured dynamic model for reactor network modeling is formulated and embedded in a MINLP with robust eigenvalue constraints.

This, together with the inherent impossibility to predict changes in product distribution, results in the restricted applicability of a single first-order reaction as predictive model for reactor analysis and design.

On the basis of a worldwide reference model for reactor antineutrinos, the ratio between reactor antineutrino and geoneutrino signals in the geoneutrino energy window is estimated to be 0.7 considering reactors operating in year 2013 and reaches a value of 8.9 by adding the contribution of the future nuclear power plants.

The basic elements involved when using a computational flow model for reactor engineering or any other application, are: (1) geometry modeling and grid generation; (2) specification of system data and selection of mathematical models and boundary conditions; (3) solution of model equations; and (4) analysis and interpretation of simulation results.

A multiscale model is subsequently established to quantify the two types of reaction rate and simulate the catalyst leaching from a cross-coupling catalyst, PdEncat™ 30; including: (1) a multi-particle sizes model for catalyst scale; and (2) a dispersion model for reactor scale.

Finally, we discuss the suitability of the reduced model for reactor-scale modeling and extensions for transient simulations and other slender chemical engineering systems.

Some applications of computational flow models for reactor engineering of fluidized bed reactors were then discussed.

Heat transfer models for reactor core and intermediate heat exchanger were also included.

We also develop algebraic surrogate models for reactor outlets as functions of reactor design and operating conditions.

Towards this, a one dimensional plant dynamics code DYANA-P has been developed with thermal hydraulic models for reactor core, hot and cold pools, intermediate heat exchangers, pipelines, steam generator, primary sodium circuits and secondary sodium circuits.

Knowledge of underlying physics and its mathematical representation (Chapters 2 to 5), of numerical methods to solve such mathematical representations (Chapters 6 and 7) and of computational tools to implement these numerical methods (this chapter), equip the reader to harness the potential of computational flow modeling for reactor engineering.