2007
DOI: 10.4304/jmm.2.6.15-25
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Shape Morphing of Complex Geometries Using Partial Differential Equations

Abstract: Abstract-An alternative technique for shape morphing using a surface generating method using partial differential equations is outlined throughout this work. The boundaryvalue nature that is inherent to this surface generation technique together with its mathematical properties are hereby exploited for creating intermediate shapes between an initial shape and a final one. Four alternative shape morphing techniques are proposed here. The first one is based on the use of a linear combination of the boundary cond… Show more

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Cited by 8 publications
(8 citation statements)
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References 19 publications
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“…One major use of the Bloor et al's PDE method was to develop computer aided manufacturing tools by which many industrial models, such as the marine propeller [7], the swirl port [31] and aircraft geometry [6], can be easily mimicked. Moreover, it has also been demonstrated that the PDE method can be applied to shape morphing [8], geometric modelling for web visualisation [9], mesh reconstruction [10], etc.…”
Section: Pde Methodsmentioning
confidence: 99%
See 1 more Smart Citation
“…One major use of the Bloor et al's PDE method was to develop computer aided manufacturing tools by which many industrial models, such as the marine propeller [7], the swirl port [31] and aircraft geometry [6], can be easily mimicked. Moreover, it has also been demonstrated that the PDE method can be applied to shape morphing [8], geometric modelling for web visualisation [9], mesh reconstruction [10], etc.…”
Section: Pde Methodsmentioning
confidence: 99%
“…Moreover, the behaviour of PDE surfaces has been proven compatible with those underlying tensor-product surfaces, such as Bezier surface [2], B-splines [3], etc. Taken together, these advantages have contributed to a widespread adoption of the PDE methods in a range of disciplines, such as free-form surface design [4], solid modelling [5], computer aided manufacturing [6,7], shape morphing [8], web visualisation [9], mesh reconstruction [10], etc. In this paper, we address a prolonged topic, facial geometry parameterisation, by exploring and examining the feasibility of one PDE method in face modelling and facial animation.…”
Section: Introductionmentioning
confidence: 99%
“…In addition to the work carried out by Bloor and Wilson, using PDE-based surface modelling in generating three-dimensional models was also greatly promoted by Ugail et al Their work applied PDE-based approaches in optimisation of thin-walled structures [42], modelling of oedemous limbs and venous ulcers [43], reconstruction of 3D human facial images [44], shape morphing between different geometric objects [45], parametric design of aircraft geometry [46], surface profiling of micro-scale structures [47], modelling of the compaction behaviour of cylindrical pharmaceutical tablets [48], and facial geometry parameterisation [49].…”
Section: Three-dimensional Pde Surface Modelsmentioning
confidence: 99%
“…Castro and Ugail [19] showed a classification of morphing techniques based into two main groups that are essentially distinguished by the kind of approach employed in their development, as 'volume-based' and 'boundary-based' approaches. The first kind regarded the entire surface representing the object as a set of specific control points that can be modified.…”
Section: Morphing Techniquesmentioning
confidence: 99%