Quantum Lockdown: A Relational Framework for Wave Function Collapse and Emergent Spacetime from Pixel-Time and Mode-Locked Fields

Quantum Lockdown: A Relational Framework for Wave Function Collapse and Emergent Spacetime from Pixel-Time and Mode-Locked FieldsAuthor: ZARKAMAffiliation: Independent ResearcherKeywords: Horizon-Locked Unification, Quantum Pixel-Time, Relational Quantum Mechanics, Mode-Locked Scalar Field, Quantum Causal Traps, Locked Universal Wave Function, Emergent Classicality, Quantum Gravity, QCD Confinement, Wave Function Collapse, Relational UncertaintyAbstractThis paper extends the classical Horizon-Locked Unification (HLU) Model into the quantum regime, demonstrating how the discrete Pixel-Time structure and mode-locked scalar field naturally yield a relational quantum mechanics framework. Relational time is quantized as an operator on configuration states, resulting in a non-stationary quantum theory without a continuous time parameter. The mode-locked scalar field acts as a quantum bath inducing objective wave function collapse through confinement pressure interactions, distinct from stochastic or gravitational collapse models. Quantum Causal Mode Trapping Surfaces (QCMTS) suppress entanglement propagation in high-density regimes.We derive a relational uncertainty principle between accessible past configurations and future generation rates, and formulate a locked universal wave function via a modified Wheeler-DeWitt equation (restricted to minisuperspace; full superspace extension left for future work). This unifies quantum decoherence, emergent classicality, and effective gravitational fluctuations from QCD confinement at quantum scales. Testable predictions include modified entanglement decay in high-pressure environments (neutron stars, τ_collapse ∼ 10^{-12} s as upper bound), reduced primordial B-modes (r ≈ 0.005, testable with LITEBIRD), and entanglement suppression in laboratory high-density setups (effective confinement pressure equivalent to nuclear densities, γ ∼ 10^{-10} s^{-1} order-of-magnitude). The model offers a bottom-up, relational approach without new dimensionful fundamental constants.This framework provides a testable relational collapse model with concrete experimental discriminators and cosmological implications