Charles Bennett and Gilles Brassard win Turing Award

Charles Bennett and Gilles Brassard have been awarded the Turing Award, computer science's highest honor, for pioneering quantum information theory. Their contributions stemmed from a 1979 conversation in the Atlantic Ocean off Puerto Rico's coast.

The Turing Award recognizes Charles Bennett and Gilles Brassard for their foundational work in quantum information theory. This body of research has helped usher computer science into the quantum age, as noted in a Wired article published on March 18, 2026. The award highlights their role in making quantum computing conceivable, at a time when companies such as Google, Microsoft, IBM, and various startups are actively developing quantum computers and announcing progress toward this technology. In 1979, such developments seemed unimaginable. That summer, the two scientists met during an aquatic encounter off the coast of Puerto Rico. Their discussion sparked the creation of quantum information theory, laying groundwork for today's quantum computing pursuits. The Turing Award is widely regarded as the highest accolade in the field.

相关文章

Experts at the Q2B Silicon Valley conference in December hailed significant advances in quantum computing hardware, describing the progress as spectacular despite remaining challenges. Leaders from science and industry expressed optimism about achieving industrially useful, fault-tolerant devices in the coming years. Applications for health, energy, and scientific discovery are also gaining traction.

由 AI 报道

Researchers have used quantum superposition to help qubits violate a fundamental quantum limit, allowing them to maintain information five times longer. This breakthrough involves a three-qubit system that demonstrates extreme correlations over time. The finding could enhance quantum computing and metrology applications.

2025年壹丹奖公布,两位得主马马杜·阿马杜·利和乌里·威伦斯基分别在教育发展和教育研究领域获奖。他们通过多语教育和计算思维创新教学方法,帮助全球学习者更好地获取和创造知识。

由 AI 报道

潘建伟物理学家及其团队使用单原子在100公里距离上演示了设备独立量子密钥分发,这有助于弥合实验室实验与实际应用之间的差距。该突破通过纠缠原子的量子力学行为增强了安全性,即使设备有缺陷或被篡改也能保护量子通信系统免受现实世界漏洞的影响。

 

 

 

此网站使用 cookie

我们使用 cookie 进行分析以改进我们的网站。阅读我们的 隐私政策 以获取更多信息。
拒绝