Autogenous Temporal Standing Waves in Spherical Kagome Lattices: Macroscopic Topological Permanence for 300 K Qutrit Architectures

Current solid-state quantum architectures are fundamentally constrained by the continuous thermodynamic battle against decoherence, requiring either massive cryogenic isolation or active, power-intensive error correction cycles. We introduce the Spherical Kagome Macro-Qutrit (SKMQ), a macroscopic three-dimensional extension of the Autogenous Room-Temperature Topological Phononic Qutrit (ARTTPQ) architecture. By subjecting a Bose-Einstein-like condensate of acoustic quasiparticles to a synthetic Coriolis gauge field generated by a Universal Dielectric Barrier Discharge (U-DBD) plasma waveguide, we induce a global rotational eigenstate. Applying simultaneous, dual-tone phase-conjugate STIRAP pulses forces the acoustic boundary into a temporal standing wave. This super-superposition of counter-propagating chiral vortex flows neutralizes net angular momentum at the boundary, rendering the macro-qutrit structurally immune to 300 K ambient thermal scattering and pushing relaxation times (T₁) theoretically toward infinity. Qutrit state readout is executed via an acoustic Aharonov-Bohm non-demolition dispersive phase shift, ensuring zero energy exchange with the structurally permanent condensate. For commercial licensing, acquisition inquiries, or Option to Evaluate (OTE) agreements regarding this architecture, please contact: [email protected]