The Magic Scroll protocol uses biased noise and two-qubit registers to reduce the cost of producing high-fidelity magic T states by about 3x, reaching error rates near 1e-15 when combined with distillation.
Scalable Fault-Tolerant Quantum Technologies with Silicon Colour Centres
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abstract
The scaling barriers currently faced by both quantum networking and quantum computing technologies ultimately amount to the same core challenge of distributing high-quality entanglement at scale. In this Perspective, a novel quantum information processing architecture based on optically active spins in silicon is proposed that offers a combined single technological platform for scalable fault-tolerant quantum computing and networking. The architecture is optimized for overall entanglement distribution and leverages colour centre spins in silicon (T centres) for their manufacturability, photonic interface, and high fidelity information processing properties. Silicon nanophotonic optical circuits allow for photonic links between T centres, which are networked via telecom-band optical photons in a highly-connected graph. This high connectivity unlocks the use of low-overhead quantum error correction codes, significantly accelerating the timeline for modular, scalable fault-tolerant quantum repeaters and quantum processors.
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The Magic Scroll: Leveraging biased noise to improve magic state cultivation in register-based architectures
The Magic Scroll protocol uses biased noise and two-qubit registers to reduce the cost of producing high-fidelity magic T states by about 3x, reaching error rates near 1e-15 when combined with distillation.