机器学习超导和半导体量子设备的脱凝性属性从图形连接性
Quan Fu1,2,3, Jie Liu2,4, Xin Wang2,3
1School of Physics and Technology, Wuhan University, Wuhan 430072, China.
Entropy (Basel, Switzerland)
|January 28, 2026
概括
机器学习从量子比特连接图表中预测量子计算脱凝的寿命. 这种方法通过分析超导和半导体平台的拓特征来指导噪声优化的量子处理器设计.
科学领域:
- 量子计算是一种量子计算.
- 机器学习 机器学习
- 材料科学 材料科学 材料科学
背景情况:
- 量子计算面临着不连贯性和噪音挑战,限制了实际算法实现.
- 了解集体量子比特行为及其与连接架构的关系至关重要,但在计算上是复杂的.
- 现有的方法很难系统地描述量子架构与噪声敏感性之间的联系.
研究的目的:
- 开发一种机器学习框架,直接从连接模式中预测量子设备脱凝生命周期.
- 为了将图形理论特征与量子设备特征与噪声优化的量子处理器设计相结合.
- 确定拓特征和脱凝机制之间的平台特定关系.
主要方法:
- 以14个拓特征的连接图形来表示量子架构.
- 利用监督学习模型从图形特征预测脱凝生命周期.
- 分析对全球连接 (超导) 和系统规模 (半导体) 的敏感性.
主要成果:
- 使用图形特征实现了超导和半导体平台的精确寿命预测 (R2>0.96).
- 识别了不同的脱凝敏感性:对全球连接敏感的超导量子比特,对系统规模的半导体量子比特.
- 证明跨平台模型转移的完全失败,突出了平台特定的设计需求.
结论:
- 机器学习可以准确地从量子架构连接中预测脱凝的寿命.
- 针对噪声优化的连接设计是特定于平台的,需要为超导和半导体量子位量身定制的方法.
- 这个框架提供了对量子架构的快速评估,指导了实际的量子处理器开发.
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