) computes the pressure and velocity field in isothermal pipe systems.
 Acoustics |
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 Pipe Acoustics |
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 Chemical Species Transport |
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 Fluid Flow |
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 Single-Phase Flow |
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 Nonisothermal Flow |
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 Heat Transfer |
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 Structural Mechanics |
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) computes the energy balance in pipe systems but receives the flow field as a value or as a known solved field. Wall heat transfer to the surroundings is included.
) solves a mass balance equation for pipes in order to compute the concentration distribution of a solute in a dilute solution, considering diffusion, dispersion, convection, and chemical reactions.
) solves the flow, pressure, and temperature simultaneously and fully coupled.
) solves the velocity fields, pressure, temperature, and reacting species transport simultaneously and fully coupled.
) solves rapid hydraulic transients in pipe systems, taking the elastic properties of both the fluid and pipe wall into account.
) models sound waves in flexible pipe systems, with the assumption of harmonic vibrations.
) models sound waves in flexible pipe systems, for arbitrary transient variations in pressure.
) is used for analysis of stresses and deformation in pipes.
) can be used to model problems where the forces from the fluid in a piping system act as structural loads. The structural deformations do not affect the flow.