Data Materialization over Transmission: Kolmogorov Inverse Mapping via M51 High-Dimensional Lattice Resonance and JM Deterministic Generators

This paper proposes a paradigm shift in data transmission theory by introducing the HSKG V5 "Zero-Transmission, Zero-Storage" architecture. Instead of physically transmitting raw data across networks, the system inverse-maps the original dataset into an ultra-compressed 256-byte Universal Phase Constant (Φc) using the statistical distribution properties of the Riemann Zeta function on an M51/M52 giant prime lattice 2⁸²,589,933 − 1. A localized JM Deterministic Generator then triggers a High-Dimensional Lattice Resonance within the recipient's volatile memory (RAM), enabling lossless, real-time reconstitution of gigabyte-scale data from mere kilobyte coordinates — with zero SSD I/O and zero network payload transmission. Empirical validation was performed on March 3, 2026, successfully reconstituting Doctor.Zhivago.1965.1080p.BluRay.H264.mp4 (3,907.57 MB) from a 256-byte coordinate with a compression ratio of 16,005,403×, SSD Write of Bytes, and a Teleportation Latency of 0.024s. Live video streaming was confirmed from volatile memory only. This work is based on foundational KIPO patents (Jan.–Feb. 2026) and establishes new frontiers in Post-Quantum Cryptography (PQC), Stateless Edge Computing, and information theory beyond Shannon's classical limits. Keywords: Zero-Storage, Data Teleportation, Mersenne Prime Lattice, Riemann Zeta Function, Kolmogorov Inverse Mapping, HSKG, JM Deterministic Generator, Post-Quantum Cryptography, Stateless Computing, RAM Materialization