This paper provides a transparent, empirical handbook for constructing a continuous-operation topological quantum computer in a standard laboratory environment. By leveraging a Fibonacci aperiodic lattice (G3 DS 987), macroscopic acoustic Floquet drives, and the Topological Anderson Insulator (TAI) effect, this architecture operates in complete darkness at liquid nitrogen temperatures (77K). The processor achieves optimal coherence with an engineered 8% structural defect rate. This includes a dual-placement strategy: deterministic voiding of the central nodes to form a macroscopic Topological Cavity (housing a "Holographic Qubit" for global radial addressing), and pseudo-random bulk vacancies to trap thermal phonons. This defect-immune design renders modern nanometric fabrication obsolete, enabling immediate manufacturing via legacy 0.5–1.0µm lithography. The manuscript includes a complete commercial-off-the-shelf (COTS) Bill of Materials, physical assembly protocols for a Dark-Space environment, and rigorous exact diagonalization ab initio validation demonstrating graceful degradation and resilient chiral edge states.
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Yaron Admon Hefetz (2026) studied this question.
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