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P2 HAMMER: boosting fidelity of noisy Quantum circuits by exploiting Hamming behavior of erroneous outcomes

HAMMER:利用错误结果的汉明行为提升含噪量子电路的保真度
ASPLOS Proceedings of the 27th ACM International Conference on Architectural Support for Programming Languages and Operating Systems2022匹配度 1/10 · 该论文研究量子电路噪声后处理与汉明空间误差结构,属于量子计算领域,与用户关注的静态分析、LLM/Agent、浮点程序分析及贝叶斯程序分析均无直接关联。虽然标签含“量子与概率编程”,但核心内容并非贝叶斯程序分析或 PL 与 LLM 的交叉。引用 38 inbox
Swamit Tannu, Poulami Das, Ramin Ayanzadeh, Moinuddin Qureshi
crossref: 2026-09-12dblp: 2026-09-12arxiv: 2026-09-12

AI 速览

一句话:提出后处理技术 HAMMER,利用错误结果的汉明空间结构重建含噪量子输出分布,平均提升解质量 1.37 倍。

近中期量子计算机受高错误率制约,程序执行产生的正确与错误结果混杂在噪声输出分布中难以区分。作者发现,错误结果并非任意,而是在汉明空间中呈现明确结构:在 IBM 与 Google 量子计算机上的实验表明,出现频率最高的错误结果往往在汉明距离上更接近正确结果。基于这一观察,论文提出 HAMMER(Hamming Reconstruction),一种对输出分布进行后处理的重建技术,使结果分布的保真度更高,从而更准确地推断正确结果。作者在 Google 和 IBM 平台上超过 500 个不同量子电路的实验数据上评估 HAMMER,平均获得 1.37 倍的解质量提升;在 Google 公开的 QAOA 数据集上,HAMMER 还能锐化代价函数景观中的梯度。

问题
含噪量子设备的输出分布过于嘈杂,正确结果与错误结果难以区分,限制了近中期量子系统的实际可用性。
方法
观察到高频错误结果在汉明空间上更接近正确结果,据此提出后处理技术 HAMMER,对含噪输出分布进行重建以提高保真度。
评估
在 IBM 与 Google 量子计算机的 500 多个不同量子电路的实验数据上评估解质量提升,并在 Google 公开 QAOA 数据集上检验梯度锐化效果。
原文摘要(Abstract)

Quantum computers with hundreds of qubits will be available soon. Unfortunately, high device error-rates pose a significant challenge in using these near-term quantum systems to power real-world applications. Executing a program on existing quantum systems generates both correct and incorrect outcomes, but often, the output distribution is too noisy to distinguish between them. In this paper, we show that erroneous outcomes are not arbitrary but exhibit a well-defined structure when represented in the Hamming space. Our experiments on IBM and Google quantum computers show that the most frequent erroneous outcomes are more likely to be close in the Hamming space to the correct outcome. We exploit this behavior to improve the ability to infer the correct outcome. We propose Hamming Reconstruction (HAMMER), a post-processing technique that leverages the observation of Hamming behavior to reconstruct the noisy output distribution, such that the resulting distribution has higher fidelity. We evaluate HAMMER using experimental data from Google and IBM quantum computers with more than 500 unique quantum circuits and obtain an average improvement of 1.37x in the quality of solution. On Google’s publicly available QAOA datasets, we show that HAMMER sharpens the gradients on the cost function landscape.

链接与引用

DOI 原文 · arXiv · PDF(开放获取) · DBLP

BibTeX
@inproceedings{Tannu0AQ22,
  title = {HAMMER: boosting fidelity of noisy Quantum circuits by exploiting Hamming behavior of erroneous outcomes},
  author = {Swamit Tannu and Poulami Das and Ramin Ayanzadeh and Moinuddin Qureshi},
  booktitle = {ASPLOS},
  year = {2022},
  doi = {10.1145/3503222.3507703}
}