We employ an enriched microscopic heat conduction model that can account for size effects in heterogeneous media. Through, physically, relevant scaling arguments we improve the regularity of the corrector in the classical problem of periodic homogenization in the three-dimensional setting and, in doing so, we clarify the intimate role correctors play in measuring the difference between the heterogeneous solution (microscopic) and the homogenized solution (macroscopic). Moreover, if the data are of the form $f = div F$ with $F \in L^3 (Ω, R^3)$, then we can prove the classical corrector convergence theorem as well
The present work deals with the derivation of corrector estimates for the two-scale homogenization o...
The present work deals with the derivation of corrector estimates for the two-scale homogenization o...
The present work deals with the derivation of corrector estimates for the two-scale homogenization o...
We employ an enriched microscopic heat conduction model that can account for size effects in heterog...
We employ an enriched microscopic heat conduction model that can account for size effects in heterog...
We employ an enriched microscopic heat conduction model that can account for size effects in heterog...
We propose an enriched microscopic heat conduction model that can account for size effects in hetero...
We prove an upper bound for the convergence rate of the homogenization limit e ¿ 0 for a linear tran...
We prove an upper bound for the convergence rate of the homogenization limit e ¿ 0 for a linear tran...
We prove an upper bound for the convergence rate of the homogenization limit e ¿ 0 for a linear tran...
We prove an upper bound for the convergence rate of the homogenization limit e ¿ 0 for a linear tran...
We prove an upper bound for the convergence rate of the homogenization limit e ¿ 0 for a linear tran...
The present work deals with the derivation of corrector estimates for the two-scale homogenization o...
We prove an upper bound for the convergence rate of the homogenization limit e --> 0 for a linear...
We prove an upper bound for the convergence rate of the homogenization limit ε → 0 for a linear tran...
The present work deals with the derivation of corrector estimates for the two-scale homogenization o...
The present work deals with the derivation of corrector estimates for the two-scale homogenization o...
The present work deals with the derivation of corrector estimates for the two-scale homogenization o...
We employ an enriched microscopic heat conduction model that can account for size effects in heterog...
We employ an enriched microscopic heat conduction model that can account for size effects in heterog...
We employ an enriched microscopic heat conduction model that can account for size effects in heterog...
We propose an enriched microscopic heat conduction model that can account for size effects in hetero...
We prove an upper bound for the convergence rate of the homogenization limit e ¿ 0 for a linear tran...
We prove an upper bound for the convergence rate of the homogenization limit e ¿ 0 for a linear tran...
We prove an upper bound for the convergence rate of the homogenization limit e ¿ 0 for a linear tran...
We prove an upper bound for the convergence rate of the homogenization limit e ¿ 0 for a linear tran...
We prove an upper bound for the convergence rate of the homogenization limit e ¿ 0 for a linear tran...
The present work deals with the derivation of corrector estimates for the two-scale homogenization o...
We prove an upper bound for the convergence rate of the homogenization limit e --> 0 for a linear...
We prove an upper bound for the convergence rate of the homogenization limit ε → 0 for a linear tran...
The present work deals with the derivation of corrector estimates for the two-scale homogenization o...
The present work deals with the derivation of corrector estimates for the two-scale homogenization o...
The present work deals with the derivation of corrector estimates for the two-scale homogenization o...