Given a closed $n$-manifold $M$, Poincare duality equips us with an isomorphism: $$H_k(M)\cong H^{n-k}(M)$$ Here I'm speaking of singular homology with coeffecient in $\mathbb{Z}_2$.
Suppose now $M$ has a triangulation $K$. Then clearly, we have a similar Poincare isomorphism as above for $K$ as well. In fact, even more can be said: there exists a polyhedral dual structure $K^{\vee}$ of $K$ which gives an isomorphism already at the level of (co)chain complexes: $$C_k(K^{\vee})\cong C^{n-k}(K)$$ (in order to be safe let's further assume we are considering smooth manifolds so stuff as https://mathoverflow.net/questions/194297/dual-cell-structures-on-manifolds do not occur)
My question is:
Is there an isomorphism of the form $C_k(K^{\vee})\cong C^{n-k}(K)$ even when $K$ is not necessarily a triangulation of $M$, but instead only homotopy equivalent $M$
I'll remark, that I'm in fact interested in Poincare-Lefschetz duality (i.e for manifolds with boundary) but thought it is better to start from here. Furthermore, I'm in particular interested in the case where $K$ is the nerve of some "good cover" of $M$ (and thus homotopy equivalent from the nerve lemma)