Approximately invariant solutions of creeping flow equations
Matteo Gorgone

TL;DR
This paper develops a method to find approximately invariant solutions of creeping flow equations for second grade fluids, demonstrating its effectiveness through a boundary value problem in a physically relevant context.
Contribution
It introduces a new approach to compute first order approximate Lie symmetries for non-Newtonian fluid flow equations and explicitly constructs invariant solutions.
Findings
Successfully computed approximate Lie symmetries
Derived explicit invariant solutions for the flow equations
Validated the method with a boundary value problem
Abstract
In this paper, the steady creeping flow equations of a second grade fluid in cartesian coordinates are considered; the equations involve a small parameter related to the dimensionless non--Newtonian coefficient. According to a recently introduced approach, the first order approximate Lie symmetries of the equations are computed, some classes of approximately invariant solutions are explicitly determined, and a boundary value problem is analyzed. The main aim of the paper is methodological, and the considered mechanical model is used to test the reliability of the procedure in a physically important application.
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