Javascript must be enabled to continue!
Successive Overrelaxation–Progressive Interpolation for Loop Subdivision Surfaces
View through CrossRef
The Loop subdivision scheme is one of the most widely used approximation subdivision methods for generating smooth surfaces. However, the limiting surface of the Loop subdivision scheme does not interpolate the vertices of the original mesh and may exhibit shrinkage in certain cases. To overcome this limitation, we propose the Successive Overrelaxation–Progressive Iterative Approximation (SOR-PIA) method, which adjusts the positions of the original vertices so that the corresponding limit surface of the Loop subdivision scheme can interpolate the vertices of the given mesh. The optimal relaxation parameter for the SOR-PIA method is also provided. Compared to classical PIA, Weighted PIA (W-PIA), Hermitian and skew-Hermitian PIA (HSS-PIA), and Weighted Hermitian and skew-Hermitian PIA (WHSS-PIA), the proposed method converges faster while maintaining accuracy, as demonstrated by numerical examples.
Title: Successive Overrelaxation–Progressive Interpolation for Loop Subdivision Surfaces
Description:
The Loop subdivision scheme is one of the most widely used approximation subdivision methods for generating smooth surfaces.
However, the limiting surface of the Loop subdivision scheme does not interpolate the vertices of the original mesh and may exhibit shrinkage in certain cases.
To overcome this limitation, we propose the Successive Overrelaxation–Progressive Iterative Approximation (SOR-PIA) method, which adjusts the positions of the original vertices so that the corresponding limit surface of the Loop subdivision scheme can interpolate the vertices of the given mesh.
The optimal relaxation parameter for the SOR-PIA method is also provided.
Compared to classical PIA, Weighted PIA (W-PIA), Hermitian and skew-Hermitian PIA (HSS-PIA), and Weighted Hermitian and skew-Hermitian PIA (WHSS-PIA), the proposed method converges faster while maintaining accuracy, as demonstrated by numerical examples.
Related Results
Progress in Surface Theory
Progress in Surface Theory
The workshop
Progress in Surface Theory
, organised by Uwe Abresch (Bochum), Josef Dorfmeister (München), and Masaaki Umehara (Osaka) was he...
Interactions between titanium surfaces and biological components
Interactions between titanium surfaces and biological components
El conocimiento de las interacciones entre célula/proteína/biomaterial es fundamental para la ingeniería de superficies debido a las numerosas aplicaciones biomédicas y biotecnológ...
Evaluation of origin of driving force for loop formation in a chromatin fiber
Evaluation of origin of driving force for loop formation in a chromatin fiber
Abstract
Chromosome condensation results from the formation of consecutive chromatin loops in which excluded volume interactions lead to chromoso...
The Family of Multiparameter Quaternary Subdivision Schemes
The Family of Multiparameter Quaternary Subdivision Schemes
In the field of subdivision, the smoothness increases as the arity of schemes increases. The family of high arity schemes gives high smoothness comparative to low arity schemes. In...
Creases and boundary conditions for subdivision curves
Creases and boundary conditions for subdivision curves
Our goal is to find subdivision rules at creases in arbitrary degree subdivision for piece-wise polynomial curves, but without introducing new control points e.g. by knot insertion...
Creases and boundary conditions for subdivision curves
Creases and boundary conditions for subdivision curves
Our goal is to find subdivision rules at creases in arbitrary degree subdivision for piece-wise polynomial curves, but without introducing new control points e.g. by knot insertion...
Creases and boundary conditions for subdivision curves
Creases and boundary conditions for subdivision curves
Our goal is to find subdivision rules at creases in arbitrary degree subdivision for piece-wise polynomial curves, but without introducing new control points e.g. by knot insertion...

