IEEE Transactions on Electronic Computers · 1967 · 15 citations · 6 references
Natural SciencesComputer ScienceMathematicsComputational MechanicsDifferential EquationsDynamical SystemsComputational DynamicsDynamic SimulationNumerical AnalysisNumerical Methods For Differential EquationsNumerical StabilityVariational FormulationError PropagationNumerical Stability In DynamicsPontryagin Maximum PrinciplePontryagin's Maximum PrincipleVariational ModelingVariational Perturbation Theory
Error analysis in the computer simulation of dynamic systems is fundamentally a variational problem. The computing errors are small variations of the computed solutions with respect to the exact solution of the differential equations being integrated. It is not surprising, therefore, that many of the mathematical tools used to perform error analysis in the computer simulation of dynamic systems are similar to those used in the variational or perturbational analysis of those systems themselves. Fundamental papers in this direction have been published previously [8], [9], [13]. The present paper, however derives the error-propagation equations in a more basic form, which makes it easier to apply such variational mathematical tools as Liapunoff's second method to analyze error stability, and Pontryagin's maximum principle to study ``worst-case'' errors in computation.
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The Elements of Nuclear Reactor Theory
Samuel Glasstone, Milton C. Edlund, C. Beck et al. · American Journal of Physics · 1953 · 416 citations · Full text