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Thanks for the reference. I could be muddling things up, but isn't the conditions of no incompressible tori/annuli a condition on the manifold rather than anything to do with the hierarchy? To put it another way, suppose I have two explicitly given hierarchies $\mathcal{H}_1$ and $\mathcal{H}_2$ for a manifold $M$ that satisfies all conditions for being a hyperbolic $3$--manifold. If I cut up and re-glued each of these in turn, can it happen I end up with a hyperbolic structure on $(M,\mathcal{H}_1)$ but not on $(M,\mathcal{H}_2)$.
Yes, Having an angle structure is good enough for me. The motivation for the question is that I can construct a class of hierarchies for the manifold in question and was hoping to construct an angle structure using this (or at least to get some condition when this is possible).
(continued)...I guess the question is whether in this case the boundary pattern carries enough information for re-gluing. Thanks again....was just curious whether this could be done...you have more than adequately answered the original question btw:)
Thanks Ian, yes this makes sense. Just wondering whether the obstruction you mention is the only known obstruction. For instance if I have a decomposition along hierarchy surfaces that are non-separating (I can do this for example by assumptions on the first homology of the manifold) and postpone cuts by compressing disks till the end, then I think I have a construction where each hierarchy surface is non-separating. I tried this out on closed Haken $3$--manifolds with infinite homology and it seems to work. Thus I end up with a single $3$--ball and all cuts would be visible...(continued)