This work investigates the topological structure of multipartite entanglement in symmetric Dicke states \(|D_n^{(k)}\rangle \) . By viewing qubits as topological loops, we establish a direct correspondence between the recursive measurement dynamics of Dicke states and the stability of n-Hopf links. We utilize the Schmidt rank to quantify bipartite entanglement resilience and introduce the \(l_1\) -norm of quantum coherence as a measure of link fluidity. We demonstrate that unlike fragile states such as \( \left| GHZ \right\rangle \) (analogous to Borromean rings), Dicke states exhibit a robust, self-similar topology, where local measurements preserve the global linking structure through non-vanishing residual coherence.