COOKIES: By using this website you agree that we can place Google Analytics Cookies on your device for performance monitoring. |
University of Cambridge > Talks.cam > Isaac Newton Institute Seminar Series > Multistep methods for hyperbolic systems with relaxation and optimal control problems.
Multistep methods for hyperbolic systems with relaxation and optimal control problems.Add to your list(s) Download to your calendar using vCal
If you have a question about this talk, please contact nobody. FKTW05 - Frontiers in numerical analysis of kinetic equations We are concerned with the development of high-order space and time numerical methods based on multistep time integrators for hyperbolic systems with relaxation and optimal control problems. From the computational point of view, standard numerical methods designed for the fluid-dynamic scaling of hyperbolic systems with relaxation present several drawbacks and typically lose efficiency in describing the parabolic limit regime. First, we will present IMEX linear multistep methods, which are able to handle all the different scales and capture the correct asymptotic behavior, independently from its nature, without time step restrictions imposed by the fast scales. Secondly, we will focus on the properties of multi-step schemes for time discretization of adjoint equations arising in optimal control problems, in particular when the constrain corresponds to hyperbolic relaxation systems and kinetic equations. Different numerical examples will confirm the theoretical analysis. This talk is part of the Isaac Newton Institute Seminar Series series. This talk is included in these lists:
Note that ex-directory lists are not shown. |
Other listsGrames for the Brain CUSPE Science@DarwinOther talksCaring only for canes? Botanical sociability in the Anglo-Caribbean in the age of revolution Posters, Networking and Drinks Reception Final Presentations Ensemble Inference Methods for Models with Noisy and Expensive Likelihoods Active Compound Droplets Bacterial movement by run and tumble: models, patterns, pathways, scales |