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Quantum computing breakthrough slows information loss - Digital Watch Observatory

Google News – Quantum Computing
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⚡ Quantum Brief
Chinese researchers achieved a breakthrough by controlling a rare quantum intermediate state, slowing information loss in quantum processors. Using the 78-qubit Chuang Tzu 2.0 superconducting chip, they manipulated a "prethermalisation plateau" to extend coherence. The team adjusted control sequences to tune quantum decoherence rates, delaying the system’s descent into chaos. Published in Nature, the findings create a window to preserve fragile quantum data, critical for error correction. Longer coherence times could drastically improve quantum computing reliability, enabling more stable calculations. This advance supports complex simulations beyond classical supercomputers’ capabilities. Potential applications span drug discovery, materials science, and secure communications. Mastering these transitional states is key to unlocking quantum technology’s full potential. Researchers are now developing larger, more powerful quantum chips to build on this discovery, aiming to scale the technique for practical quantum computing solutions.
Quantum computing breakthrough slows information loss - Digital Watch Observatory

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Digital Governance in 50+ issues, 500+ actors, 5+ processes Home | Updates | Quantum computing breakthrough slows information loss Quantum researchers in China have demonstrated control over a fleeting stable phase that could help preserve information inside powerful quantum processors. Chinese scientists have observed and controlled a rare intermediate state in a quantum system, effectively slowing quantum chaos. Using the 78-qubit Chuang Tzu 2.0 superconducting processor, researchers demonstrated how a temporary stable phase can be extended or shortened.

The team identified a prethermalisation plateau, a brief period during which the system resists disorder before rapidly descending into full complexity. Careful adjustment of control sequences enabled scientists to tune the rate of quantum decoherence and control how information spreads. Findings, published in Nature, offer a potential window for preserving fragile quantum information. Longer coherence times could significantly improve the reliability of quantum computing and error correction methods. Researchers say the work also highlights the advantage of quantum processors in simulating phenomena too complex for classical supercomputers. Applications may range from drug discovery and advanced materials research to next-generation secure communications. Continued development of larger and more powerful quantum chips is now underway. Mastering such transitional states will be crucial to unlocking the full potential of quantum technologies. Would you like to learn more about AI, tech, and digital diplomacy? If so, ask our Diplo chatbot!

The Digital Watch is an initiative of the Geneva Internet Platform, supported by the Swiss Confederation and the Republic and Canton of Geneva. The GIP is operated by DiploFoundation. The GIP Digital Watch observatory reflects on a wide variety of themes and actors involved in global digital policy, curated by a dedicated team of experts from around the world. To submit updates about your organisation, or to join our team of curators, or to enquire about partnerships, write to us at digitalwatch@diplomacy.edu. We look forward to hearing from you.

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Source: Google News – Quantum Computing