Journal of Propulsion and Power · 1999 · 114 citations · 16 references
EngineeringOcean EngineeringPhysicsComputational Fluid DynamicsFluid DynamicsFluid MechanicsCavitationFluid PropertiesHydrodynamic ResponseMarine HydrodynamicsShock WavesWake Field AnalysisCavitation BehaviorCavitation DynamicsCavitation HydrodynamicsCavitation ModelingCavitation SimulationEuler EquationsShock DynamicsTest Cases
The focus of this study is on cavitation in the wake of a high-velocity underwater projectile. A physical model based on the Euler equations is presented in terms of two-phase mixture properties. Mathematical closure is achieved by providing equations of state for the possible thermodynamic states: compressible liquid, compressible two-phasemixture,andcompressiblepurevapor.Fortheoperatingconditionsstudiedhere,allstatesaresubcritical. Theproposedmodelissolvedusingahybridcomputationalschemedevelopedtoaccuratelyresolvepropertyproe les across discontinuities. The model is validated with several one-dimensional test cases that have known analytic solutions. For modeling the hypervelocity underwater projectile, the model is shown to compute unsteady shockwave development as well as the projectile-wake cavitation zone. The model is then used to conduct a parametric study on the affect of e ow and projectile properties on cavitation.
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Difference Methods for Initial-Value Problems
E. I., Robert D. Richtmyer, K. W. Morton · Mathematics of Computation · 1968 · 3.4K citations
<i>Difference Methods for Initial-Value Problems</i>
Robert D. Richtmyer, E. H. Dill · Physics Today · 1959 · 3.2K citations · Full text
On Godunov-type methods near low densities
Bernd Einfeldt, C.‐D. Munz, Philip L. Roe et al. · Journal of Computational Physics · 1991 · 980 citations