"Fundamental" Parameteric Geometry Representations for Aircraft Component Shapes
By B. Kulfan, J. Bussoletti. 2006
495 citations recorded by the source corpus.
Subfields: Aerospace Engineering, Biomedical Engineering, Industrial and Manufacturing Engineering
View Paper: https://www.semanticscholar.org/paper/ed774e5019baab9a457e175d4fb3faf8e6442ea5
How researchers see this paper
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In Aerospace Engineering
In Biomedical Engineering
In Industrial and Manufacturing Engineering
- Christian B. Allen
- Thomas C. S. Rendall
- A. Morris
- Daniel J. Poole
- N. Taylor
- Dominic Masters
- Ning Qin
- Fengxia Zhu
Citations in the corpus
- Intuitive Class/Shape Function Parameterization for Airfoils (2014, methodology): “The CST method, proposed by Kulfan [2,25–27], is increasingly used in airfoil optimization.”
- Domain-Element Method for Aerodynamic Shape Optimization Applied to a Modern Transport Wing (2009, methodology): “Awide variety of shape control andmorphingmethods have been developed [1–11], but these often do not allow sufficiently free-form design, can produce infeasible shapes, and do not allow the possibility of manual manipulation of the geometry [12,13].”
- Universal Parametric Geometry Representation Method (2008, methodology): “The results of the previously reported extensive investigations [9] of the adequacy of the shape function methodology using Bernstein polynomials to represent a wide variety of airfoils showed that a relatively low-order Bernstein polynomial (typically BPO6 to BPO9) matched the airfoils geometries, ”
- A Geometric Comparison of Aerofoil Shape Parameterisation Methods (2016, methodology): “This concept of adding a linear combination of simple basis functions to a base shape has also been used in a constructive manner, for instance, Kulfan’s CST[7] method which adds a combination of Bernstein polynomials to a simple, analytical ‘aerofoil class’ shape.”