
doi: 10.1007/bf00418006
A mixed boundary value problem associated with the diffusion equation, that involves the physical problem of cooling of an infinite parallel- sided composite slab, is solved completely by using the Wiener-Hopf technique. An analytical expression is derived for the sputtering temperature at the quench front being created by a cold fluid moving on the upper surface of the slab at a constant speed v. The dependence of the various configurational parameters of the problem under consideration, on the sputtering temperature, is rather complicated and representative tables of numerical values of this important physical quantity are prepared for certain typical values of these parameters. Asymptotic results in their most simplified forms are also obtained when (i) the ratio of the thicknesses of the two materials comprising the slab is very much smaller than unity, and (ii) the quench-front speed v is very large, keeping the other parameters fixed, in both the cases.
Elastic materials, cooling, diffusion equation, Heat equation, quench front, Wiener-Hopf technique, sputtering temperature, 532, cold fluid, analytical expression, Dynamical problems in solid mechanics, Composite and mixture properties, Mathematics, Thermodynamics in solid mechanics, infinite parallel-sided composite slab
Elastic materials, cooling, diffusion equation, Heat equation, quench front, Wiener-Hopf technique, sputtering temperature, 532, cold fluid, analytical expression, Dynamical problems in solid mechanics, Composite and mixture properties, Mathematics, Thermodynamics in solid mechanics, infinite parallel-sided composite slab
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