A second-order numerical method for the aggregation equations

Carrillo, José; Fjordholm, Ulrik; Solem, Susanne

doi:10.1090/mcom/3563

A second-order numerical method for the aggregation equations
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by José A. Carrillo, Ulrik S. Fjordholm and Susanne Solem HTML | PDF

Math. Comp. 90 (2021), 103-139 Request permission

Abstract:

Inspired by so-called TVD limiter-based second-order schemes for hyperbolic conservation laws, we develop a formally second-order accurate numerical method for multi-dimensional aggregation equations. The method allows for simulations to be continued after the first blow-up time of the solution. In the case of symmetric, $\lambda$-convex potentials with a possible Lipschitz singularity at the origin, we prove that the method converges in the Monge–Kantorovich distance towards the unique gradient flow solution. Several numerical experiments are presented to validate the second-order convergence rate and to explore the performance of the scheme.

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