Photon Conversion and Interaction on Chip

Jia-yang Chen, Zhan Li, Zhaohui Ma, Chao Tang, H. Fan, Y. Sua, Yu-Ping Huang
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引用次数: 8

Abstract

The conversion and interaction between quantum signals at a single-photon level are essential for scalable quantum photonic information technology. Using a fully-optimized, periodically-poled lithium niobate microring, we demonstrate ultra-efficient sum-frequency generation on chip. The external quantum efficiency reaches (65±3)% with only (104±4) uW pump power, improving the state-of-the-art by over one order of magnitude. At the peak conversion, 3×10-5 noise photon is created during the cavity lifetime, which meets the requirement of quantum applications using single-photon pulses. Using pump and signal in single-photon coherent states, we directly measure the conversion probability produced by a single pump photon to be 10-5---breaking the record by 100 times---and the photon-photon coupling strength to be 9.1 MHz. Our results mark a new milestone toward quantum nonlinear optics at the ultimate single photon limit, creating new background in highly integrated photonics and quantum optical computing.
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芯片上的光子转换与相互作用
量子信号在单光子水平上的转换和相互作用是可扩展量子光子信息技术的基础。利用完全优化的周期性极化铌酸锂微环,我们展示了芯片上超高效的和频生成。外部量子效率达到(65±3)%,仅(104±4)uW的泵浦功率,提高了一个数量级以上。在峰值转换时,在腔寿命期间产生3×10-5噪声光子,满足单光子脉冲量子应用的要求。利用单光子相干态的泵浦和信号,我们直接测量到单泵浦光子产生的转换概率为10-5,打破了100倍的记录,光子-光子耦合强度为9.1 MHz。我们的结果标志着量子非线性光学在最终单光子极限上的一个新的里程碑,为高度集成光子学和量子光学计算创造了新的背景。
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