TITLE: Indecomposable, non-simple, modules of quantum groups at roots of unity
QUESTION [5 upvotes]: Let us consider the quantum group $U_q(\mathfrak{sl}_2)$ (as defined in Kassel's book on quantum groups), for $q$ being a root of unity of order $d$ (i.e., $d$ is the smallest positive integer for which $q^d=1$). If $n$ is the dimension of an irreducible, finite-dimensional representation of $U_q(\mathfrak{sl}_2)$ (over a complex vector space), then it is known that $n$ is bounded above by 
$$
e=\begin{cases}
d,   & \text{$d$: odd} \\ 
d/2, & \text{$d$: even.}
\end{cases}
$$
As far as I know, there are indecomposable, non-simple modules of dimension higher than $e$. I have made some small search on the structure of such modules, but I have not found anything substantial apart from Chari and Premet - Indecomposable restricted representations of quantum $sl_2$ (pdf abstract MSN), which however refers to the restricted case. So my questions are: 


Is there some reference on the structure of indecomposable, non-simple modules of quantum groups at roots of unity? 
Are there infinite dimensional, indecomposable, non-irreducibles? 
How can the limits of such representations (either fin or inf dimensional) at $q\to 1$, be computed? 


I would be interested either on references or on some short—if possible-—description of such modules, mainly for the case of $U_q(\mathfrak{sl}_2)$ and more generally for $U_q(\mathfrak{g})$, where $\mathfrak{g}$ is a finite-dimensional, simple, complex Lie algebra. 
Related:

Indecomposable modules for the big quantum group
What are the indecomposable $U_q\mathfrak{sl}(2)$-modules?

REPLY [3 votes]: I apologize for self-citation, however in an old paper of mine, together with R. Giachetti The two-dimensional Euclidean quantum algebra at roots of unity, in the process of describing decomposition of tensor products of irreps at roots of unity we listed some explicit indecomposable modules for $E_q(2)$. 
Let me mention that this is a way in which irreps at roots of unity behave like infinite-dimensional ones: in that he tensor products of irreps are not completely reducible any more (and this happens each time the dimension exceeds the roots of unity degree, which then, in a way, plays the role of $\infty$).
I think you may find something of this kind also in papers referring to tensor product decompositions for $SL_q(2)$ at roots of unity.