An unsteady natural convective boundary layer fluid flow of thick incompressible water hybrid nanofluid is discussed over an oscillating permeable stretching surface. The radiative and chemically reactive hybrid nanofluid flow is induced in rotating coordinates. Essential thermophysical properties of hybrid nanofluid are utilized. The boundary layer equations governing the present phenomena are converted into nondimensional form using appropriate dimension free transformations. The non dimensionalized partial differential equations are then solved analytically by Laplace transform technique and the exact solutions are attained. The performance of all the involving parameters are surveyed and the set of mathematical outputs for temperature, velocity and concentration are graphically depicted. The expressions for skin friction, Nusselt number and Sherwood number have been derived and the numerical results are displayed through tables and graphs. Growth of heat transfer rate is observed by rising radiation parameter and frequency of oscillation. Important aspects of the present study in the physical ground are examined.
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