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.摘要 我们提出两种实验方案，可通过操控初始质量扭转场$mathcal{M}_mu$——即扭曲时间广义质量（Generalized Mass as Twisted Time，G-MaTT）中的基本实体——对双缝类实验装置中的量子干涉与波函数坍缩实现确定性调控。在G-MaTT框架下，粒子是$mathcal{M}_mu$场中稳定的拓扑激发（扭结），量子分支源于其本征相位结构。当各分支处于相位相干状态时，便会产生量子干涉；而当分支通过扭解扭（Twist–UnTwist，TUT）机制发生失同步时，量子波函数便会坍缩。通过在$mathcal{M}_mu$场中调控粒子与探测器间的相对相位，我们可按需实现100%量子干涉或100%波函数坍缩——仅需在初始质量扭转场中进行可控相位对齐，无需引入本征随机性或依赖外部观测者。本研究首次为可设计量子拓扑构建了工程化框架。