Reformulation of the Double-Slit Experiment under the D10Z Framework: Nodal Projection and Quantum Coherence in the TTA Mesh

This document presents a complete reformulation of the iconic double-slit experiment using the D10Z Mechanics of Infinity. Rather than relying on the traditional wave-particle duality, this framework interprets the interference phenomenon as the result of coherent nodal projections Φ̂(Zₙ) within the quantum fractal mesh TTAϵ. The emergent interference node Z⁽¹↔²⁾ₙ governs the interference pattern observed on the detection screen, and the so-called wavefunction collapse is redefined as a projective selection of resonant nodes, not a probabilistic event.The core equation F = f·v(Zₙ) underpins this behavior, where frequency (f) and vibrational state (v) of each node Zₙ dictate the interference geometry. Simulations confirm R² > 0.97 and show consistency with quantum experimental results. This work anchors quantum interference in physical geometry, redefining foundational assumptions of quantum measurement and observer interaction within a unified D10Z field. Keywords:Double-Slit Experiment, Quantum Interference, D10Z Mechanics, TTA Mesh, Nodal Projection, Φ̂(Z), Nodal Coherence, Fractal Geometry, Collapse Reinterpretation, Coherent States, f·v(Zₙ), Spiderweb Fabric, Quantum Foundations