Digital Transformation in Quantum Computing: Advancing Through Emerging Materials and Technologies
A comparative research evaluation of next-generation crystalline materials—Kagome lattices, Perovskites, and Miassite—to overcome the thermal instability, decoherence, and cryogenic scaling bottlenecks of conventional Niobium and Aluminium qubits.
Superconducting quantum processors are currently constrained by extreme cryogenic requirements (mK dilution refrigerators) and brief coherence lifetimes. Exploring unconventional superconductors points a realistic path toward topologically protected, higher-temperature quantum architectures.