Chemical Species Transport Interfaces
The Chemical Species Transport branch () includes a number of subbranches to describe mass transport and chemical reactions. The physics interfaces are summarized in the first section, and then described in detail throughout this chapter. All physics interfaces include features for defining arbitrary reaction kinetics, to be used as mass sources and sinks, as well as arbitrary mass transport parameters.
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Overview of Chemical Species Transport Interfaces
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The Transport of Diluted Species Interface
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The Transport of Diluted Species in Porous Media Interface
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The Transport of Diluted Species in Fractures Interface
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The Transport of Concentrated Species Interface
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The Transport of Concentrated Species in Porous Media Interface
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The Nernst–Planck Equations Interface
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The Nernst–Planck–Poisson Equations Interface
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The Electrophoretic Transport Interface
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The Size-Based Population Balance Interface
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The Vapor–Liquid Equilibrium Multiphysics Interfaces
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The Reacting Flow, Concentrated Species Multiphysics Interface
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The Reacting Flow, Diluted Species Multiphysics Interface
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The Reacting Flow in Porous Media Multiphysics Interfaces
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The Nonisothermal Reacting Flow Multiphysics Interfaces
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The Dispersed Two-Phase Flow with Species Transport Multiphysics Interfaces
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The Precipitation and Crystallization Multiphysics Interfaces
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The Surface Reactions Interface
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The Transport of Diluted Species in Fractures Interface
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Theory for the Transport of Diluted Species Interface
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Theory for the Transport of Concentrated Species Interface
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Theory for the Electrophoretic Transport Interface
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Theory for the Surface Reactions Interface
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Theory for the Nernst–Planck Equations Interface
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Theory for the Size-Based Population Balance Interface
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Theory for the Vapor–Liquid Equilibrium Interfaces
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Theory for the Reacting Laminar Flow Interface
For a detailed description and background of The Chemistry Interface and The Reaction Engineering Interface see The Chemistry and Reaction Engineering Interfaces chapter.