Journal of Applied Physics · 1972 · 27 citations · 12 references
Natural SciencesPhysicsComputational Fluid DynamicsComputational MechanicsFluid DynamicsNonlinear DynamicsNonlinear Wave DynamicsShock WavesElastic InteractionLongitudinal WavesNonlinear WavesPerturbation AnalysisShock DynamicsShock Wave DynamicsShock Wave PropagationShock-induced Nonlinearities
A perturbation solution is obtained for the propagation of longitudinal shock waves in a one-dimensional lattice with a velocity step applied to the first mass. The nonlinear part of the elastic interaction force is assumed to be of parabolic form. The growth of particle velocity at the head of the wave and the noticeable high-frequency contributions travelling behind, that arise due to nonlinearity, have been observed previously in numerical studies and are found also in the perturbation solution. Within the range of validity of the solution, the nonlinear growth of maximum particle velocity at the head of the shock wave is shown to increase with distance into the lattice as the two-thirds power.
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<i>Mathematical Methods for Digital Computers</i>
Anthony Ralston, Herbert S. Wilf, Peter L. Balise · Physics Today · 1961 · 951 citations
<i>Integrals of Bessel Functions</i>
Yudell L. Luke, J. Gillis · Physics Today · 1963 · 471 citations