Finite-Difference Scheme for Initial Boundary Value Problems in Financial Mathematics
We develop unconditionally monotone nite-difference schemes of second-order of local approxi- mation on uniform grids for the initial boundary problem value for the Gamma equation. Two-side estimates of the solution of the scheme are established. We consider the initial boundary value problem for...
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oai:112.137.131.14:VNU_123-683582020-01-07T03:03:34Z Finite-Difference Scheme for Initial Boundary Value Problems in Financial Mathematics Le, Minh Hieu Truong, Thi Hieu Hanh Dang, Ngoc Hoang Thanh Gamma equation Maximum principle Two-side estimates Monotone finite-difference scheme Quasi-linear parabolic equation Scientific computing We develop unconditionally monotone nite-difference schemes of second-order of local approxi- mation on uniform grids for the initial boundary problem value for the Gamma equation. Two-side estimates of the solution of the scheme are established. We consider the initial boundary value problem for the so called Gamma equation, which can be derived by transforming the nonlinear Black-Scholes equation for option price into a quasilinear parabolic equation for the second derivative of the option price, and for its exact solution the two-side estimates are obtained. By means of regu- larization principle, the previous results are generalized for construction of unconditionally monotone nite-difference scheme (the maximum principle is satised without constraints on relations between the coeffcients and grid parameters) of second order of approximation on uniform grids for this equa- tion. With the help of difference maximum principle, the two-side estimates for difference solution are obtained at the arbitrary non-sign-constant input data of the problem. A priori estimate in the maximum norm C is proved. It is interesting to note that the proven two-side estimates for differ- ence solution are fully consistent with differential problem, and the maximal and minimal values of the difference solution do not depend on the diffusion and convection coeffcients. Computational experiments, conrming the theoretical conclusions, are given. 2020-01-07T03:03:34Z 2020-01-07T03:03:34Z 2019 Article Le, M. H., et al. (2019). Finite-Difference Scheme for Initial Boundary Value Problems in Financial Mathematics. VNU Journal of Science: Mathematics – Physics, Vol. 35, No. 4 (2019) 79-86 2588-1124 http://repository.vnu.edu.vn/handle/VNU_123/68358 https//doi.org/ 10.25073/2588-1124/vnumap.4364 en VNU Journal of Science: Mathematics – Physics; application/pdf H. : ĐHQGHN |
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Gamma equation Maximum principle Two-side estimates Monotone finite-difference scheme Quasi-linear parabolic equation Scientific computing |
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Gamma equation Maximum principle Two-side estimates Monotone finite-difference scheme Quasi-linear parabolic equation Scientific computing Le, Minh Hieu Truong, Thi Hieu Hanh Dang, Ngoc Hoang Thanh Finite-Difference Scheme for Initial Boundary Value Problems in Financial Mathematics |
description |
We develop unconditionally monotone nite-difference schemes of second-order of local approxi-
mation on uniform grids for the initial boundary problem value for the Gamma equation. Two-side
estimates of the solution of the scheme are established. We consider the initial boundary value
problem for the so called Gamma equation, which can be derived by transforming the nonlinear
Black-Scholes equation for option price into a quasilinear parabolic equation for the second derivative
of the option price, and for its exact solution the two-side estimates are obtained. By means of regu-
larization principle, the previous results are generalized for construction of unconditionally monotone
nite-difference scheme (the maximum principle is satised without constraints on relations between
the coeffcients and grid parameters) of second order of approximation on uniform grids for this equa-
tion. With the help of difference maximum principle, the two-side estimates for difference solution
are obtained at the arbitrary non-sign-constant input data of the problem. A priori estimate in the
maximum norm C is proved. It is interesting to note that the proven two-side estimates for differ-
ence solution are fully consistent with differential problem, and the maximal and minimal values of
the difference solution do not depend on the diffusion and convection coeffcients. Computational
experiments, conrming the theoretical conclusions, are given. |
format |
Article |
author |
Le, Minh Hieu Truong, Thi Hieu Hanh Dang, Ngoc Hoang Thanh |
author_facet |
Le, Minh Hieu Truong, Thi Hieu Hanh Dang, Ngoc Hoang Thanh |
author_sort |
Le, Minh Hieu |
title |
Finite-Difference Scheme for Initial Boundary Value Problems in Financial Mathematics |
title_short |
Finite-Difference Scheme for Initial Boundary Value Problems in Financial Mathematics |
title_full |
Finite-Difference Scheme for Initial Boundary Value Problems in Financial Mathematics |
title_fullStr |
Finite-Difference Scheme for Initial Boundary Value Problems in Financial Mathematics |
title_full_unstemmed |
Finite-Difference Scheme for Initial Boundary Value Problems in Financial Mathematics |
title_sort |
finite-difference scheme for initial boundary value problems in financial mathematics |
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H. : ĐHQGHN |
publishDate |
2020 |
url |
http://repository.vnu.edu.vn/handle/VNU_123/68358 https//doi.org/ 10.25073/2588-1124/vnumap.4364 |
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1680966036231290880 |