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Experimental Certification of Ensembles of High-Dimensional Quantum States with Independent Quantum Devices
Yong-Nan Sun1, Meng-Yun Ma1, Qi-Ping Su1
1Hangzhou Normal University, School of Physics, 311121 Hangzhou, Zhejiang, China.
Abstract:
When increasing the dimensionality of quantum systems, high-dimensional quantum state certification becomes important in quantum information science and technology. However, how to certify ensembles of high-dimensional quantum states in a black-box scenario remains a challenging task. In this Letter, we report an experimental test of certifying ensembles of high-dimensional quantum states based on prepare-and-measure experiments with independent devices, where the state preparation device and the measurement device have no shared randomness. In our experiment, the prepared quantum states are high-dimensional orbital angular momentum states of single photons, and both the preparation fidelity and the measurement fidelity are about 99.0% for the six-dimensional quantum states. We also measure the crosstalk matrices and calculate the similarity parameter for up to ten dimensions. We not only experimentally certify the ensemble of high-dimensional quantum states in a semi-device-independent manner, but also experimentally investigate the effect of atmospheric turbulent noise on high-dimensional quantum state certification. Our experimental results clearly show that the certification of high-dimensional quantum states can still be achieved even under the influence of atmospheric turbulent noise. Our findings have potential implications in quantum certification and quantum random number generation.
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