Engineering Quantum Behavior via the Primordial Mass Torsional Field: A G-MaTT Protocol

Abstract We present two experimental protocols to deterministically control quantum interference and wavefunction collapse in double-slit-type setups by manipulating the primordial mass torsional field \(\mathcal{M}_\mu\)—the fundamental entity in Generalized Mass as Twisted Time (G-MaTT). In G-MaTT, particles are stable topological excitations (knots) in \(\mathcal{M}_\mu\), and quantum branching arises from its intrinsic phase structure. Interference occurs when branches are phase-coherent; collapse occurs when they desynchronize via the Twist–UnTwist (TUT). By engineering the relative phase between particle and detector within the \(\mathcal{M}_\mu\) field, we achieve 100% interference or 100% collapse on demand—via controlled phase alignment in the primordial mass torsional field, without invoking fundamental randomness or external observers. This work provides the first engineering framework for designable quantum topology.