M.Phil / MS
Permanent URI for this collectionhttps://repository.cuilahore.edu.pk/handle/123456789/52
This collection archives the complete set of theses produced by students of the COMSATS University Islamabad, Lahore Campus.
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Item Analysis of Integral Equations of Ahlfors Map for Multiply Connected Regions(Library Information Services, COMSATS University, Lahore Campus, 2018) Razi Ahmad,; FA16-RMT-025; Dr. Kashif Nazar, Assistant Profesor [; LHR TP 5433This research is to analyze the boundary integral equation of Ahlfors map of multiply connected region also the derivation of a new boundary integral equation related to Ahlfors map. These integral equations are then parameterized and discretized into the system of equations by using the Nystrom method with trapezoidal rule.Item Integral Equations Method for Ahlfors Map and its Zeros(Library Information Services COMSATS University Islamabad Lahore Campus, 2021) Muhammad Ilyas; SP19-RMT-023; LHR TP 7409; Dr. Kashif NazarThe purposeofthisstudyistoexamineandanalyzetheboundaryintegral equations ofanAhlforsmapformultiplyconnectedregions.Alsotoderive some newboundaryintegralequationsrelatedtoanAhlforsmapwhich maymorebesuitableforfindingtheAhlforsmapanditsunknownzeros. The Nystr¨om methodwiththetrapezoidalrulewillbeusedtoparametrize and discretizetheseintegralequationsintosystemsofequations.Item Formation and Analysis of Ahlfors Map Integral Equations for the Regions with Multiple(Library Information Services, COMSATS University Islamabad, Lahore Campus, 2021) Usman Ashraf; Sp19-RMT-005; LHR TP 7410; Dr. Kashif NazarThis research work elaborates the detailed numerical analysis of the integr equation related to Szegö kernel and Ahlfors map with the assistance Mathematica 12.0. The Ahlfors map and Szegö kernel are both associated to ea other. This is a Fredholm integral equation of second kind via Kerzman-Stein kern where Szegö kernel is the solution of this integral equation. The solution of integr equation is obtained by transforming the integral equations into matrix form aft discretizing. This work presents the computation techniques of Ahlfors map, zeros, boundary values and the interior points of a region under Ahlfors map. Th research construct one new Ahlfors map integral equation with Neumann-ty kernel for the regions with multiple connectivity onto a unit disk. The kernel an non-homogeneous term of this equation contain zeros of Ahlfors map. This integr equations is constructed by a non-homogeneous boundary relationship for t regions with multiple connectivity. The new Ahlfors map integral equation analyzed by parameterizing and discretizing. Discretized integral equations leadItem Comparisons of the Computation of Zeros of Ahlfors Map in Bounded Doubly Connected Regions(Library Information Services, COMSATS University Islamabad, Lahore Campus, 2025) Mohsin Khan; FA23-RMT-023; Dr. Kashif Nazar; LHR TP 9769This thesis compares and analyzes various methods for determining the zeros of the Ahlfors map in bounded doubly connected regions. The Riemann mapping theorem’s extension to multiply connected domains, known as the Ahlfors map, is crucial for complex analysis and has important uses in engineering and science fields like fluid dynamics. The two special points, or zeros, of the Ahlfors map in doubly connected regions can be found using a variety of methods described in the literature. The Ahlfors map is a fundamental mathematical tool that enables us to project complex structures onto a unit disk while preserving the same angles. The second zero of the Ahlfors map is more difficult to locate than the first. Several mathematical and numerical techniques, including boundary integral equations, and specific kernels like the Szego˝ and Neumann kernels, are used and compared in the thesis. The research compares these methods to see which ones are more accurate, faster, and more stable when applied to different types of doubly connected regions. The results help identifies the best approaches for calculating the Ahlfors map’s zeros and can be useful in practical fields like fluid dynamics, electricity, and image processing. This work also helps future studies on more complex shapes and higher connectivity regions.