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We employ a matrix-based solver for the linear rheology of fluid-immerseddisordered spring networks to reveal four distinct dynamic response regimes.One regime - completely absent in the known vacuum response - exhibits coupledfluid flow and network deformation, with both components respondingnon-affinely. This regime contains an additional plateau (peak) in thefrequency-dependent storage (loss) modulus - features which vanish without fullhydrodynamic interactions. The mechanical response of immersed networks such asbiopolymers and hydrogels is thus richer than previously established, andoffers additional modalities for design and control through fluid interactions.

Non-affinity and fluid-coupled viscoelastic plateau for immersed fiber networks