Approximate Solutions of the Unsteady Boundary-Layer Equations
Alessandro Bianchini, Luciano de Socio, A. Pozzi
Abstract
Alessandro Bianchini, Luciano de Socio, A. Pozzi
Abstract
An approximate integral method is proposed for solving the unsteady laminar boundary-layer equations. The essence of the method is to assume a similar solution for the velocity profile even in those situations where similar solutions do not exist, and then to find a suitable scale function for the similarity variable. The scale function is the solution to a simple first-order linear partial differential equation. This solution is determined in closed form. Satisfactory results were obtained in comparison with more sophisticated and time-consuming procedures.
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An approximate integral method is proposed for solving the unsteady laminar boundary-layer equations. The essence of the method is to assume a similar solution for the velocity profile even in those situations where similar solutions do not exist, and then to find a suitable scale function for the similarity variable. The scale function is the solution to a simple first-order linear partial differential equation. This solution is determined in closed form. Satisfactory results were obtained in comparison with more sophisticated and time-consuming procedures.
Key concepts: Laminar flow, Mathematics, Mathematical analysis, Boundary layer, Partial differential equation, Similarity solution, Simple (philosophy), Function (biology)