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11	A computer subroutine for the numerical solution of nonlinear Fredholm equations Tieman, Henry William 25 April 1991 (has links) Graduation date: 1991
12	Graphics aided projective method for plate-wire antennas Hassan, Mohamed Abdel Aziz Ibrahim. January 1976 (has links) No description available. Antennas (Electronics)
13	Integral equations solution of the capacitive effect of microstrip discontinuities. Benedek, Peter. January 1972 (has links) No description available. Microwave wiring Electric capacity
14	The projective solution of two dimensional scalar scattering problems. Kenton, Paul Richard January 1972 (has links) No description available. Electromagnetic fields Electromagnetic waves -- Scattering
15	Critical withdrawal from a two-layer fluid / by Graeme C. Hocking Hocking, Graeme C. (Graeme Charles) January 1985 (has links) Bibliography: leaves 77-78 / 78 leaves : ill. (some col.) ; 30 cm. / Title page, contents and abstract only. The complete thesis in print form is available from the University Library. / Thesis (Ph.D.)--University of Adelaide, Dept. of Applied Mathematics, 1986 532.051 19 Fluid dynamics Mathematics. Series. Integral equations Numerical solutions.
16	The projective solution of two dimensional scalar scattering problems. Kenton, Paul Richard January 1972 (has links) No description available. Electromagnetic fields Electromagnetic waves -- Scattering
17	Graphics aided projective method for plate-wire antennas Hassan, Mohamed Abdel Aziz Ibrahim January 1976 (has links) No description available. Antennas (Electronics)
18	Integral equations solution of the capacitive effect of microstrip discontinuities. Benedek, Peter. January 1972 (has links) No description available. Microwave wiring Electric capacity
19	A state-variable approach to the solution of Fredholm integral equations. January 1967 (has links) Bibliography: p. 36. TK7855.M41 R43 no.459 Integral equations Numerical solutions Differential equations, Linear Stochastic processes
20	Numerical multigrid algorithm for solving integral equations Paul, Subrata 03 May 2014 (has links) Integral equations arise in many scienti c and engineering problems. A large class of initial and boundary value problems can be converted to Volterra or Fredholm integral equations. The potential theory contributed more than any eld to give rise to integral equations. Integral equations also has signi cant application in mathematical physics models, such as di rac- tion problems, scattering in quantum mechanics, conformal mapping and water waves. The Volterra's population growth model, biological species living together, propagation of stocked sh in a new lake, the heat transfer and the heat radiation are among many areas that are described by integral equations. For limited applicability of analytical techniques, the numer- ical solvers often are the only viable alternative. General computational techniques of solving integral equation involve discretization and generates equivalent system of linear equations. In most of the cases the discretization produces dense matrix. Multigrid methods are widely used to solve partial di erential equation. We discuss the multigrid algorithms to solve integral equations and propose usages of distributive relaxation and the Kaczmarz method. / Department of Mathematical Sciences Multigrid methods (Numerical analysis) Relaxation methods (Mathematics)

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