谷歌利用柳树处理器展示了“可验证的量子优势”。
Willow quantum chip demonstrates verifiable quantum advantage on hardware

原始链接: https://blog.google/technology/research/quantum-echoes-willow-verifiable-quantum-advantage/

## 量子计算与分子建模:一项突破 量子计算机有望彻底改变我们建模分子的能力,这对于化学、生物学和材料科学的进步至关重要。目前,科学家依赖核磁共振(NMR)——类似于MRI技术——来理解分子结构。 最近,研究人员与加州大学伯克利分校合作的实验,展示了一种有前景的新方法。他们使用Willow芯片和量子回声算法,成功地模拟了两个分子(15个和28个原子),结果与传统的核磁共振*匹配*,甚至揭示了*额外*信息。 这验证了量子计算作为“量子显微镜”的潜力,观察以前无法观察到的现象。这种增强的核磁共振能力可以显著加速药物发现,通过改善对药物-靶标相互作用的理解,并推进材料科学,通过表征用于电池等应用的新材料,甚至改进自身量子比特。

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原文

Towards real world application

Quantum computers will be instrumental in modeling quantum mechanical phenomena, such as the interactions of atoms and particles and the structure (or shape) of molecules. One of the tools scientists use to understand chemical structure is Nuclear Magnetic Resonance (NMR), the same science behind MRI technology. NMR acts as a molecular microscope, powerful enough to let us see the relative position of atoms, which helps us understand a molecule’s structure. Modeling molecules’ shape and dynamics is foundational in chemistry, biology and materials science, and advances that help us do this better underpin progress in fields ranging from biotechnology to solar energy to nuclear fusion.

In a proof-of-principle experiment in partnership with The University of California, Berkeley, we ran the Quantum Echoes algorithm on our Willow chip to study two molecules, one with 15 atoms and another with 28 atoms, to verify this approach. The results on our quantum computer matched those of traditional NMR, and revealed information not usually available from NMR, which is a crucial validation of our approach.

Just as the telescope and the microscope opened up new, unseen worlds, this experiment is a step toward a ‘quantum-scope’ capable of measuring previously unobservable natural phenomena. Quantum computing-enhanced NMR could become a powerful tool in drug discovery, helping determine how potential medicines bind to their targets, or in materials science for characterizing the molecular structure of new materials like polymers, battery components or even the materials that comprise our quantum bits (qubits).

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