Fast computing of conformal mapping and its inverse of bounded multiply connected regions onto second, third and fourth categories of koebe’s canonical slit regions

This paper presents a boundary integral method with the adjoint generalized Neumann kernel for conformal mapping of a bounded multiply connected region onto a disk with spiral slits region Ω1. This extends the methods that have recently been given for mappings onto annulus with spiral slits region Ω...

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Main Authors: Sangawi, A. W. K., Murid, A. H. M., Wei, L. K.
Format: Article
Published: Springer New York LLC 2016
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Online Access:http://eprints.utm.my/id/eprint/72178/
https://www.scopus.com/inward/record.uri?eid=2-s2.0-84979737528&doi=10.1007%2fs10915-016-0171-3&partnerID=40&md5=e4b069b72fb8983aa364c5734cb33691
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spelling my.utm.721782017-11-20T08:18:52Z http://eprints.utm.my/id/eprint/72178/ Fast computing of conformal mapping and its inverse of bounded multiply connected regions onto second, third and fourth categories of koebe’s canonical slit regions Sangawi, A. W. K. Murid, A. H. M. Wei, L. K. QA Mathematics This paper presents a boundary integral method with the adjoint generalized Neumann kernel for conformal mapping of a bounded multiply connected region onto a disk with spiral slits region Ω1. This extends the methods that have recently been given for mappings onto annulus with spiral slits region Ω2, spiral slits region Ω3, and straight slits region Ω4 but with different right-hand sides. This paper also presents a fast implementation of the boundary integral equation method for computing numerical conformal mapping of bounded multiply connected region onto all four regions Ω1, Ω2, Ω3, and Ω4 as well as their inverses. The integral equations are solved numerically using combination of Nyström method, GMRES method, and fast multipole method (FMM). The complexity of this new algorithm is O((m+ 1) n) , where m+ 1 is the multiplicity of the multiply connected region and n is the number of nodes on each boundary component. Previous algorithms require O((m+ 1) 3n3) operations. The algorithm is tested on several test regions with complex geometries and high connectivities. The numerical results illustrate the efficiency of the proposed method. Springer New York LLC 2016 Article PeerReviewed Sangawi, A. W. K. and Murid, A. H. M. and Wei, L. K. (2016) Fast computing of conformal mapping and its inverse of bounded multiply connected regions onto second, third and fourth categories of koebe’s canonical slit regions. Journal of Scientific Computing, 68 (3). pp. 1124-1141. ISSN 0885-7474 https://www.scopus.com/inward/record.uri?eid=2-s2.0-84979737528&doi=10.1007%2fs10915-016-0171-3&partnerID=40&md5=e4b069b72fb8983aa364c5734cb33691
institution Universiti Teknologi Malaysia
building UTM Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Teknologi Malaysia
content_source UTM Institutional Repository
url_provider http://eprints.utm.my/
topic QA Mathematics
spellingShingle QA Mathematics
Sangawi, A. W. K.
Murid, A. H. M.
Wei, L. K.
Fast computing of conformal mapping and its inverse of bounded multiply connected regions onto second, third and fourth categories of koebe’s canonical slit regions
description This paper presents a boundary integral method with the adjoint generalized Neumann kernel for conformal mapping of a bounded multiply connected region onto a disk with spiral slits region Ω1. This extends the methods that have recently been given for mappings onto annulus with spiral slits region Ω2, spiral slits region Ω3, and straight slits region Ω4 but with different right-hand sides. This paper also presents a fast implementation of the boundary integral equation method for computing numerical conformal mapping of bounded multiply connected region onto all four regions Ω1, Ω2, Ω3, and Ω4 as well as their inverses. The integral equations are solved numerically using combination of Nyström method, GMRES method, and fast multipole method (FMM). The complexity of this new algorithm is O((m+ 1) n) , where m+ 1 is the multiplicity of the multiply connected region and n is the number of nodes on each boundary component. Previous algorithms require O((m+ 1) 3n3) operations. The algorithm is tested on several test regions with complex geometries and high connectivities. The numerical results illustrate the efficiency of the proposed method.
format Article
author Sangawi, A. W. K.
Murid, A. H. M.
Wei, L. K.
author_facet Sangawi, A. W. K.
Murid, A. H. M.
Wei, L. K.
author_sort Sangawi, A. W. K.
title Fast computing of conformal mapping and its inverse of bounded multiply connected regions onto second, third and fourth categories of koebe’s canonical slit regions
title_short Fast computing of conformal mapping and its inverse of bounded multiply connected regions onto second, third and fourth categories of koebe’s canonical slit regions
title_full Fast computing of conformal mapping and its inverse of bounded multiply connected regions onto second, third and fourth categories of koebe’s canonical slit regions
title_fullStr Fast computing of conformal mapping and its inverse of bounded multiply connected regions onto second, third and fourth categories of koebe’s canonical slit regions
title_full_unstemmed Fast computing of conformal mapping and its inverse of bounded multiply connected regions onto second, third and fourth categories of koebe’s canonical slit regions
title_sort fast computing of conformal mapping and its inverse of bounded multiply connected regions onto second, third and fourth categories of koebe’s canonical slit regions
publisher Springer New York LLC
publishDate 2016
url http://eprints.utm.my/id/eprint/72178/
https://www.scopus.com/inward/record.uri?eid=2-s2.0-84979737528&doi=10.1007%2fs10915-016-0171-3&partnerID=40&md5=e4b069b72fb8983aa364c5734cb33691
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score 13.160551