Abstract
In Part I we construct an upper bound, in the spirit of Γ- limsup, achieved by multidimensional profiles, for some general classes of singular perturbation problems, with or without the prescribed differential constraint, taking the form
Eε(v):=∫Ω1εF(εn∇nv,…,ε∇v,v)dx∀v:Ω⊂RN→Rks.t.A⋅∇v=0,
where the function F≥0 and A:Rk×N→Rm is a prescribed linear operator (for example, A:≡0, A⋅∇v:=curlv, and A⋅∇v=div v) which includes, in particular, the problems considered in [17]. This bound is in general sharper then the one obtained in [17]. v$) which includes, in particular, the problems considered in [17]. This bound is in general sharper then the one obtained in [17].
Eε(v):=∫Ω1εF(εn∇nv,…,ε∇v,v)dx∀v:Ω⊂RN→Rks.t.A⋅∇v=0,
where the function F≥0 and A:Rk×N→Rm is a prescribed linear operator (for example, A:≡0, A⋅∇v:=curlv, and A⋅∇v=div v) which includes, in particular, the problems considered in [17]. This bound is in general sharper then the one obtained in [17]. v$) which includes, in particular, the problems considered in [17]. This bound is in general sharper then the one obtained in [17].
| Original language | English |
|---|---|
| Pages (from-to) | 1179-1234 |
| Journal | Differential and Integral Equations |
| Volume | 26 |
| Issue number | 9-10 |
| DOIs | |
| State | Published - Oct 2013 |
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