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The time discretization in classes of integro-differential equations with completely monotonic kernels:Weighted asymptotic stability 被引量:3

The time discretization in classes of integro-differential equations with completely monotonic kernels:Weighted asymptotic stability
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摘要 We study discretization in classes of integro-differential equations where the functions aj(t),1≤j≤n,are completely monotonic on(0,∞) and locally integrable,but not constant.The equations are discretized using the backward Euler method in combination with order one convolution quadrature for the memory term.The stability properties of the discretization are derived in the weighted l1(ρ;0,∞) norm,where ρ is a given weight function.Applications to the weighted l1 stability of the numerical solutions of a related equation in Hilbert space are given. We study discretization in classes of integro-differential equationswhere the functions aj(t), 1 ≤ j ≤n, are completely monotonic on (0, ∞) and locally integrable, but not constant. The equations are discretized using the backward Euler method in combination with order one convolution quadrature for the memory term. The stability properties of the discretization are derived in the weighted 11 (p; 0, ∞) norm, where p is a given weight function. Applications to the weighted l^1 stability of the numerical solutions of a related equation in Hilbert space are given.
作者 XU Da
出处 《Science China Mathematics》 SCIE 2013年第2期395-424,共30页 中国科学:数学(英文版)
基金 supported by National Natural Science Foundation of China(Grant No.10971062)
关键词 积分微分方程 时间离散化 稳定性能 加权 单调 Hilbert空间 EULER方法 内核 the classes of integro-differential equation, completely monotonic kernel, backward Euler method,convolution quadrature, weighted l^1 asymptotic stability
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  • 1Mclean W,Thomée V.Numerical solutions via Laplace transforms of a fractional order evolution equations. Journal of Integral Equations . 2010
  • 2Mclean W,Thomée V.Maximum-norm error analysis of a numerical solution via Laplace transformation and quadra- ture of a fractional-order evolution equation. IMA Journal of Numerical Analysis . 2010
  • 3Russell R D,Williams J F,Xu X.MOVCOL4: A moving mesh code for fourth-order time-dependent partial di?erentialequations. SIAM Journal on Scientific Computing . 2007
  • 4Scherer R,Kalla S L,Boyadjev L, et al.Numerical treatment of fractional heat equations. Applied Numerical Mathematics . 2008
  • 5Soheili A R,Stockie J M.A moving mesh method with variable mesh relaxation time. Applied Numerical Mathematics . 2008
  • 6Budd C J,Huang W,Russell R D.Adaptivity with moving grids. Acta Numerica . 2009
  • 7Huang W,Ma J,Russell R D.A study of moving mesh PDE methods for numerical simulation of blowup in reaction di?usion equations. Journal of Computational Physics . 2008
  • 8Huang W,Russell R D.A moving collocation method for the numerical solution of time dependent di?erential equations. Applied Numerical Mathematics . 1996
  • 9Ma J,Jiang Y,Xiang K.Numerical simulation of blowup in nonlocal reaction-di?usion equations using a moving mesh method. Journal of Computational and Applied Mathematics . 2009
  • 10W.H. Deng.Numerical algorithm for the time fractional Fokker–Planck equation. Journal of Computational Physics . 2007

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