A programmable dipolar square spin-ice model is demonstrated using a superconducting-qubit quantum annealer by Krzysztof Giergiel and Piotr Surówka at the Institute of Theoretical Physics. The model achieves access to previously unattainable quantum-coherent dynamics. Effective dipolar interactions on frustrated lattices containing over 400 vertices are realised through a direct mapping of lattice spins to physical qubits and engineered extended couplings. Observation of super-diffusive monopole transport and dynamics beyond classical stochastic relaxation provides a scalable platform for exploring fractionalised excitations and emergent gauge dynamics within engineered quantum matter. Quantum spin ice exhibits super-diffusion of magnetic monopoles via engineered qubit couplings Super-diffusive monopole transport has occurred within a quantum spin ice model, a behaviour previously unseen and unattainable in artificial spin ice systems. Realising effective dipolar interactions on frustrated lattices comprising over 400 vertices enabled this breakthrough, exceeding previous limitations reliant on short-range couplings and lacking dipolar interactions. By directly mapping lattice spins to superconducting qubits and engineering extended couplings, researchers gained access to a previously unexplored quantum-coherent regime, allowing observation of monopole dynamics beyond classical stochastic relaxation. The significance of this lies in the potential to study emergent phenomena arising from frustrated magnetism, a field crucial for understanding complex materials and potentially developing novel quantum technologies. The resulting platform allows detailed investigation of fractionalized excitations and emergent gauge dynamics, potentially paving the way for novel quantum technologies and a deeper understanding of complex magnetic systems. This scalable system offers a new avenue for exploring fundamental concepts in engineered quantum matter, while analysis of individual defect motion revealed coherent propagation within an emergent gauge manifold. Confirming dynamics beyond simple random movement, these findings suggest a new pathway to investigate fractionalized excitations and emergent gauge dynamics. The team precisely mapped each lattice spin to a physical qubit, enabling engineered extended couplings and the