2016
DOI: 10.18287/2412-6179-2016-40-2-179-187
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Implementation of the FDTD algorithm on GPU using a pyramid method

Abstract: In this paper we develop a pyramid method in the context of solving time-dependent Maxwell's equations based on the finite difference time domain (FDTD) approach, which is implemented on a Реализация разностного решения уравнений Максвелла на графических процессорах … Малышева С.А., Головашкин Д.Л. Компьютерная оптика, 2016, том 40, № 2 187 graphics processing unit (GPU). Application of this method allows the impact of the GPU's limited memory capacity on the computation time to be reduced, which is significan… Show more

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Cited by 6 publications
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“…In the early 80's of the last century [1], the difference solution of the d'Alembert equation was also applied to it, which is still being done [1,4]. We note that when solving the wave equation the problem of video memory shortage is more acute than for Maxwell's equations because of the necessity of finite-difference approximation of second, not first-order derivatives.…”
Section: Difference Solution Of the D'alembert Equation (One-dimensiomentioning
confidence: 99%
“…In the early 80's of the last century [1], the difference solution of the d'Alembert equation was also applied to it, which is still being done [1,4]. We note that when solving the wave equation the problem of video memory shortage is more acute than for Maxwell's equations because of the necessity of finite-difference approximation of second, not first-order derivatives.…”
Section: Difference Solution Of the D'alembert Equation (One-dimensiomentioning
confidence: 99%