Trapped-ion quantum hardware developer Quantum Art has released comprehensive numerical simulations verifying that its proprietary multi-qubit (MQ) gate architecture is fully compatible with large-scale quantum error correction (QEC). Historically, the quantum computing sector has targeted fault-tolerant pathways constructed almost exclusively from dense sequences of isolated single- and two-qubit operations, leaving open questions regarding whether simultaneous, broad entangling operations would cause catastrophic, long-range error propagation. Quantum Art’s validation bridges device-level atomic physics and macroscopic code performance, demonstrating a stable fault-tolerance threshold at the practical 1% level when evaluated against standard rotated surface code topologies. To model physical hardware imperfections accurately, researchers constructed [...]

Searching for optimal Quantum Error Correction (QEC) codes is an incredibly time-consuming and computationally demanding bottleneck due to the vast space of potential algebraic…

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Digital quantum hardware developer SEEQC, Inc. has announced its participation as a subcontractor in the multi-year Microelectronics Commons Northeast Regional Defense Technology…

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Trapped-ion quantum hardware developer Quantum Art has released comprehensive numerical simulations verifying that its proprietary multi-qubit (MQ) gate architecture is fully…