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A topological space X is homologically locally connected (based on definition in EH Spanier's "Algebraic Topology") if for every $x \in X$ and neighbourhood $U$ of $x$ there exists a neighbourhood $V$ of $x$, $V \subset U$ such that $U$ and $V$ are homotopy equivalent. Spanier mentions that locally contractible implies homologically locally connected but I'm wondering whether contractible implies homologically locally connected?

Spanier mentions that locally contractible implies homologically locally connected but I'm wondering whether contractible implies homologically locally connected?

Definition of homologically locally connected: "A space $X$ is said to be homologically locally connected in dimension $n$ if for every $x \in X$ and neighborhood $U$ of $x$ there exists a neighborhood $V$ of $x$ in $U$ such that $\tilde{H}_q(V) \to \tilde{H}_q(U)$ is trivial for $q \leq n$. It is said to be homologically locally connected if it is homologically locally connected in dimension $n$ for all $n$."

A topological space X is homologically locally connected (based on definition in EH Spanier's "Algebraic Topology") if for every $x \in X$ and neighbourhood $U$ of $x$ there exists a neighbourhood $V$ of $x$ in $U$ such that $U$ and $V$ are homotopy equivalent. Spanier mentions that locally contractible implies homologically locally connected but I'm wondering whether contractible implies homologically locally connected?

A topological space X is homologically locally connected (based on definition in EH Spanier's "Algebraic Topology") if for every $x \in X$ and neighbourhood $U$ of $x$ there exists a neighbourhood $V$ of $x$, $V \subset U$ such that $U$ and $V$ are homotopy equivalent. Spanier mentions that locally contractible implies homologically locally connected but I'm wondering whether contractible implies homologically locally connected?

A topological space X is homologically locally connected (based on definition in EH Spanier's "Algebraic Topology") if for every $x \in X$ and neighbourhood $U$ of $x$ there exists a neighbourhood $V$ of $x$ in $U$ such that $U$ and $V$ are homotopic. Spanier mentions that locally contractible implies homologically locally connected but I'm wondering whether contractible implies homologically locally connected?

A topological space X is homologically locally connected (based on definition in EH Spanier's "Algebraic Topology") if for every $x \in X$ and neighbourhood $U$ of $x$ there exists a neighbourhood $V$ of $x$ in $U$ such that $U$ and $V$ are homotopy equivalent. Spanier mentions that locally contractible implies homologically locally connected but I'm wondering whether contractible implies homologically locally connected?