We study the limit as n goes to +∞ of the renormalized solutions u
n
to the nonlinear elliptic problems
-div(an(x Ñun))=m,inW, un = 0on¶W, -\textrm{div}(a_n({x \nabla{u_n}}))=\mu,\ \textrm{in}\Omega, \quad {u_n} = 0\,\ \textrm{on}\partial\Omega,where Ω is a bounded open set of ℝ
N
, N≥ 2, and μ is a Radon measure with bounded variation in Ω. Under the assumption of G-convergence of the operators
... [Show full abstract] An(v)=-div(an(x,Ñv))\mathcal{A}_n(v)=-\mathrm{div}(a_n({x,\ {\nabla_v}})), defined for $ v\in W^{1,p}_0(\Omega), p>1 $ v\in W^{1,p}_0(\Omega), p>1 , to the operator A0(v)=-div(a0(x,Ñv))\mathcal{A}_0(v)=-\mathrm{div}(a_0({x,\ {\nabla_v}})), we shall prove that the sequence (u
n
) admits a subsequence converging almost everywhere in Ω to a function u which is a renormalized solution to the problem
-div(a0(x,Ñu)) = m,inW, u=0on ¶W. -\textrm{div}(a_0(x,\ {\nabla_u})) = \mu,\ \textrm{in}\ \Omega,\quad u=0\,\ \textrm{on} \partial\Omega.