Highly connected non-formal Milnor fibers via polyhedral products

We show that the realization theorem of Fern\'andez de Bobadilla, which identifies the Milnor fiber of a weighted-homogeneous polynomial with the complement of a germ of analytic set, can be combined with the systematic Massey product constructions of Grbi\'c-Linton for moment-angle complexes $\mathcal{Z}_K = \mathcal{Z}_K(D^2, S^1)$ to produce weighted-homogeneous polynomials whose Milnor fibers are arbitrarily highly connected and non-formal. The original application of this strategy, due to Fern\'andez de Bobadilla, used the Denham-Suciu classification of lowest-degree triple Massey products and yielded only $2$-connected non-formal Milnor fibers. The Grbi\'c-Linton framework, which constructs non-trivial $n$-fold Massey products in $H^*(\mathcal{Z}_K;\mathbb{Z})$ for arbitrary $n$ and in arbitrary cohomological degrees, removes this connectivity restriction entirely.