G3 OR 987 Retro-Industrial Scalability: Repurposing Legacy Optical Disc Replication Infrastructure for Mass Production of Room-Temperature Topological Quantum Processors

Following the recent global release of the foundational G3 OR 987 Enclosed Mechanical Quantum Computing framework, this treatise establishes the blueprint for the immediate, high-volume, and low-cost mass production of topological quantum time crystals. We demonstrate that the specialized hardware constraints required to sustain room-temperature quantum localization can be mapped onto standard optical disc replication infrastructures from the late 1980s and 1990s. By eliminating the standard spiral tracking grooves (Track Pitch) and audio/video modulation tables, we configure the legacy mastering and injection molding machinery to produce a perfectly smooth polycarbonate plane embedded with a subtractive 987-node aperiodic Vogel spiral of micro-cavities. Using classic industrial replication systems—specifically Singulus Technologies vacuum metallizers, Netstal Synergy injection molding machines, and ODME mastering systems—we outline a manufacturing process that minimizes development and asset costs. The resulting field-free, room-temperature topological quantum die achieves a unit manufacturing cost of $0.37 USD. We provide complete ab initio numerical validations confirming that this adapted subtractive architecture sustains Many-Body Localization (MBL) and topological phase-locking identically to additive configurations.