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Chalmers University researchers have achieved a thousandfold increase in the speed of advanced quantum operations using bosonic codes, directly addressing the critical bottleneck of error accumulation in superconducting circuits. By completing operations within a single driving cycle, this breakthrough significantly minimizes the window for environmental disturbances to corrupt data, bringing fault-tolerant quantum computing closer to reality. This advancement offers substantial potential for scaling reliable quantum systems required for complex applications like drug discovery and AI acceleration.
Source coveringQuantum Zeitgeist
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Chalmers speeds quantum operations 1,000x, nearing fault tolerance

Quantum Zeitgeist6 min read

Chalmers University researchers sped up advanced quantum operations by 1,000x, tackling a key bottleneck.

Chalmers University of Technology researchers have achieved a thousandfold increase in the speed of advanced quantum operations, addressing a critical hurdle in building reliable quantum computers. The breakthrough tackles the problem of error accumulation caused by even the slightest environmental disturbances, electrical noise, cosmic radiation, or overheating, that disrupt fragile qubits. This advance, published in Physical Review Letters, enables fault-tolerant quantum computing and offers potential in fields from drug discovery to artificial intelligence. Bosonic quantum codes offer inherent advantages in protecting quantum information because they encode it within microwave fields in superconducting circuits, rather than relying solely on individual qubits. This fundamental shift in storage methodology provides stronger resistance to specific error types, according to Tangyou Huang, a researcher in Quantum Technology at…

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