A perturbative homogenization theorem for viscous Hamilton-Jacobi equations with u/epsilon-dependent Hamiltonians, proved via periodic-parabolic correctors constructed by Fredholm theory and a fixed point argument.
Quantitative homogenization of first-order ODEs
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abstract
This paper investigates the quantitative homogenization of first-order ODEs. For single-scale scalar ODEs, we obtain a sharp $O(\varepsilon)$ convergence rate and characterize the effective constant. In the multi-scale setting, our results match those of \cite{IM} for long times but improve the short-time error to $O(\varepsilon)$. We also initiate the study of quasi-periodic homogenization in this context. The scalar framework is further extended to higher dimensions under a boundedness assumption on trajectories. For weakly coupled systems with fast switching rates, we obtain for the first time a convergence rate of order $O(\varepsilon)$. These results have applications to linear transport equations and broader connections to PDEs and gradient systems.
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Homogenization of Viscous Sublinear Hamilton--Jacobi Equations with $u/\epsilon$-Dependence
A perturbative homogenization theorem for viscous Hamilton-Jacobi equations with u/epsilon-dependent Hamiltonians, proved via periodic-parabolic correctors constructed by Fredholm theory and a fixed point argument.