Article ID | Journal | Published Year | Pages | File Type |
---|---|---|---|---|
659332 | International Journal of Heat and Mass Transfer | 2009 | 14 Pages |
Abstract
A computational methodology for optimization of fin shapes is formulated and demonstrated in the context of steady, laminar, fully-developed forced convection in a straight duct of circular cross-section, with air as the fluid and non-twisted, uninterrupted, longitudinal internal fins made of steel, aluminium, and copper. The governing equations are solved using finite volume methods. The fins shapes are approximated using non-uniform rational B-splines, with the control points as design variables. A gradient-based method is used for the optimization. Results pertaining to the maximization of suitably defined thermal performance, subject to constant pumping power per unit length, are presented and discussed.
Keywords
Related Topics
Physical Sciences and Engineering
Chemical Engineering
Fluid Flow and Transfer Processes
Authors
Eric Duplain, B. Rabi Baliga,