A New Kind of Quantum Computer: Room-Temperature, Error-Resistant, and Scalable

We propose a new class of quantum computer built from room-temperature, error-resistant qubits stabilized by structural phase-locking in crystalline materials. Thisarchitecture departs from conventional probabilistic superposition and instead encodesquantum states through deterministic angular coherence. Unlike superconducting orion-based systems, the proposed approach requires no cryogenics, heavy error correc-tion, or complex shielding. As a first demonstration, we outline a prototype designusing nitrogen-vacancy (NV) centers in single-crystal diamond to test angular coher-ence stabilization, phase re-locking, and directional information transfer. The diamondplatform supports optical initialization and readout of spin states at ambient conditionsand provides an ideal environment for verifying the predicted coherence mechanisms.Once validated, the architecture may scale to silicon carbide and other substrates, sup-porting millions of coherence-stabilized qubits. This framework offers a practical andscalable path to building quantum systems grounded in geometric coherence ratherthan quantum fragility.