Robust quantum computational advantage with programmable 3050-photon Gaussian boson sampling

Fuente: arXiv
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Autori principali: Liu, Hua-Liang, Su, Hao, Gong, Si-Qiu, Gu, Yi-Chao, Tang, Hao-Yang, Jia, Meng-Hao, Wei, Qian, Song, Yukun, Wang, Dongzhou, Zheng, Mingyang, Chen, Faxi, Li, Libo, Ren, Siyu, Zhu, Xuezhi, Wang, Meihong, Chen, Yaojian, Liu, Yanfei, Song, Longsheng, Yang, Pengyu, Chen, Junshi, An, Hong, Zhang, Lei, Gan, Lin, Yang, Guangwen, Xu, Jia-Min, He, Yu-Ming, Wang, Hui, Zhong, Han-Sen, Chen, Ming-Cheng, Jiang, Xiao, Li, Li, Liu, Nai-Le, Deng, Yu-Hao, Su, Xiao-Long, Zhang, Qiang, Lu, Chao-Yang, Pan, Jian-Wei
Natura: Preprint
Pubblicazione: 2025
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author Liu, Hua-Liang
Su, Hao
Gong, Si-Qiu
Gu, Yi-Chao
Tang, Hao-Yang
Jia, Meng-Hao
Wei, Qian
Song, Yukun
Wang, Dongzhou
Zheng, Mingyang
Chen, Faxi
Li, Libo
Ren, Siyu
Zhu, Xuezhi
Wang, Meihong
Chen, Yaojian
Liu, Yanfei
Song, Longsheng
Yang, Pengyu
Chen, Junshi
An, Hong
Zhang, Lei
Gan, Lin
Yang, Guangwen
Xu, Jia-Min
He, Yu-Ming
Wang, Hui
Zhong, Han-Sen
Chen, Ming-Cheng
Jiang, Xiao
Li, Li
Liu, Nai-Le
Deng, Yu-Hao
Su, Xiao-Long
Zhang, Qiang
Lu, Chao-Yang
Pan, Jian-Wei
author_facet Liu, Hua-Liang
Su, Hao
Gong, Si-Qiu
Gu, Yi-Chao
Tang, Hao-Yang
Jia, Meng-Hao
Wei, Qian
Song, Yukun
Wang, Dongzhou
Zheng, Mingyang
Chen, Faxi
Li, Libo
Ren, Siyu
Zhu, Xuezhi
Wang, Meihong
Chen, Yaojian
Liu, Yanfei
Song, Longsheng
Yang, Pengyu
Chen, Junshi
An, Hong
Zhang, Lei
Gan, Lin
Yang, Guangwen
Xu, Jia-Min
He, Yu-Ming
Wang, Hui
Zhong, Han-Sen
Chen, Ming-Cheng
Jiang, Xiao
Li, Li
Liu, Nai-Le
Deng, Yu-Hao
Su, Xiao-Long
Zhang, Qiang
Lu, Chao-Yang
Pan, Jian-Wei
contents The creation of large-scale, high-fidelity quantum computers is not only a fundamental scientific endeavour in itself, but also provides increasingly robust proofs of quantum computational advantage (QCA) in the presence of unavoidable noise and the dynamic competition with classical algorithm improvements. To overcome the biggest challenge of photon-based QCA experiments, photon loss, we report new Gaussian boson sampling (GBS) experiments with 1024 high-efficiency squeezed states injected into a hybrid spatial-temporal encoded, 8176-mode, programmable photonic quantum processor, Jiuzhang 4.0, which produces up to 3050 photon detection events. Our experimental results outperform all classical spoofing algorithms, particularly the matrix product state (MPS) method, which was recently proposed to utilise photon loss to reduce the classical simulation complexity of GBS. Using the state-of-the-art MPS algorithm on the most powerful supercomputer EI Capitan, it would take > $10^{42}$ years to construct the required tensor network for simulation, while our Jiuzhang 4.0 quantum computer takes 25.6 $μ$s to produce a sample. This work establishes a new frontier of QCA and paves the way to fault-tolerant photonic quantum computing hardware.
format Preprint
id arxiv_https___arxiv_org_abs_2508_09092
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Robust quantum computational advantage with programmable 3050-photon Gaussian boson sampling
Liu, Hua-Liang
Su, Hao
Gong, Si-Qiu
Gu, Yi-Chao
Tang, Hao-Yang
Jia, Meng-Hao
Wei, Qian
Song, Yukun
Wang, Dongzhou
Zheng, Mingyang
Chen, Faxi
Li, Libo
Ren, Siyu
Zhu, Xuezhi
Wang, Meihong
Chen, Yaojian
Liu, Yanfei
Song, Longsheng
Yang, Pengyu
Chen, Junshi
An, Hong
Zhang, Lei
Gan, Lin
Yang, Guangwen
Xu, Jia-Min
He, Yu-Ming
Wang, Hui
Zhong, Han-Sen
Chen, Ming-Cheng
Jiang, Xiao
Li, Li
Liu, Nai-Le
Deng, Yu-Hao
Su, Xiao-Long
Zhang, Qiang
Lu, Chao-Yang
Pan, Jian-Wei
Quantum Physics
The creation of large-scale, high-fidelity quantum computers is not only a fundamental scientific endeavour in itself, but also provides increasingly robust proofs of quantum computational advantage (QCA) in the presence of unavoidable noise and the dynamic competition with classical algorithm improvements. To overcome the biggest challenge of photon-based QCA experiments, photon loss, we report new Gaussian boson sampling (GBS) experiments with 1024 high-efficiency squeezed states injected into a hybrid spatial-temporal encoded, 8176-mode, programmable photonic quantum processor, Jiuzhang 4.0, which produces up to 3050 photon detection events. Our experimental results outperform all classical spoofing algorithms, particularly the matrix product state (MPS) method, which was recently proposed to utilise photon loss to reduce the classical simulation complexity of GBS. Using the state-of-the-art MPS algorithm on the most powerful supercomputer EI Capitan, it would take > $10^{42}$ years to construct the required tensor network for simulation, while our Jiuzhang 4.0 quantum computer takes 25.6 $μ$s to produce a sample. This work establishes a new frontier of QCA and paves the way to fault-tolerant photonic quantum computing hardware.
title Robust quantum computational advantage with programmable 3050-photon Gaussian boson sampling
topic Quantum Physics
url https://arxiv.org/abs/2508.09092