Explicit Stable Methods For Second Order Parabolic Systems
. We show that it is possible to construct stable, explicit finite difference approximations for the classical solution of the initial value problem for the parabolic systems of the form @ t = A(t; x) + f on R d , where A(t; x) = P ij @ i a ij (t; x)
Ned Zad Limi C, Ned Zad
core
Exponentially fitted numerical method for solving singularly perturbed delay reaction-diffusion problem with nonlocal boundary condition. [PDF]
Wondimu GM +3 more
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Selecting a nonuniform finite-difference discretization before a reference solution is available requires a decision rule that uses assembled rows but does not confuse local consistency with stability.
Andrey Krylov
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Efficient simulation of a slow-fast dynamical system using multirate finite difference schemes
We consider a system of ordinary differential equations describing a slow-fast dynamical system, in particular, a predator-prey system that is highly susceptible to local time variations.
Patidar, Kailash C., Mergia, Woinshet D.
core
F-actin bending facilitates net actomyosin contraction By inhibiting expansion with plus-end-located myosin motors. [PDF]
Tam AKY, Mogilner A, Oelz DB.
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Hemodynamic Assessment of a Vascular Diseased Model with Therapeutic Nanoparticles
D. Srik, Surabhi Rathore
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Opposing flows in a one dimensional convection-diffusion problem
O’Riordan Eugene
doaj +1 more source
Solving third-order boundary value problems with quartic splines. [PDF]
Pandey PK.
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Approximating prediction error variances and reliabilities in a multiple-trait genomic prediction model using Monte Carlo sampling. [PDF]
Heikkilä A +4 more
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