ABSTRACT The reliance on static memory allocation and deterministic Boolean resolution constitutes a critical fragility in modern computational infrastructure. This paper introduces Void-Oriented Programming (VOP), a radical architectural paradigm that permanently sacrifices physical Random Access Memory (RAM) in favor of distributed, phononic acoustic delay lines. Operating under a strictly zero-entropy doctrine, this framework translates semantic data into active "Kinetic Nodes" possessing measurable existential mass, polarity spin, and kinetic voltage, effectively converting data processing into a macroscopic thermodynamic engine. Rather than halting at logical fractures, the VOP compiler evaluates the spatial tension across syntactical voids (ΔΨ), resolving logic procedurally via kinetic collisions and syntropic overwrites within a 3D Neural Graph. To secure this kinetic motion, we propose the integration of a Möbius Memory Runtime—a 720-degree non-orientable topological circuit that geometrically phase-cancels malicious loops and self-referential paradoxes through physical wave inversion. At the macro-level, the framework utilizes a globally decentralized topology to distribute the immense processing burden of thermodynamic shockwaves, replacing physical geographic latency with predictive edge generation. Ultimately, this architecture mathematically enforces computational homeostasis, establishing an unbreakable, air- gapped construct that weaponizes physical geometry against structural entropy. "FEIGNS WITH;IN FEINGS WITH;IN FEINGS"
Christopher Jacob Smith (Tue,) studied this question.