论文标题
与无法区分的单光子发射器的超级波多州光的出现
Emergence of super-Poissonian light from indistinguishable single-photon emitters
论文作者
论文摘要
光学干扰构成现代物理学中的最高资源。在单个原子和光子的规模上,这是一个多样化的概念,会导致不同的相干现象。我们介绍了从捕获离子的集合中发出的光的相干和统计特性的实验表征,这些光子随着许多贡献的相位成分独立的独立原子粒子的增加,范围从单个到几百多个。它最终证明了超级波斯顿量子统计是如何在单个检测模式的极限下纯粹来自非平整数量不可区分的单光子发射器的有限数量。实现的新的光发射制度,在该方案中,这些独立的原子对超级波斯顿统计的一致贡献提供了关于原子量表的光学相干性出现的新观点,并且构成了在最显微镜水平上产生和控制的独特工具箱。
The optical interference constitutes a paramount resource in modern physics. At the scale of individual atoms and photons, it is a diverse concept that causes different coherent phenomena. We present the experimental characterization of both coherent and statistical properties of light emitted from ensembles of trapped ions increasing with a number of contributing phase-incoherent independent atomic particles ranging from a single to up to several hundreds. It conclusively demonstrates how super-Poissonian quantum statistics non-trivially arises purely from the finite number of indistinguishable single-photon emitters in the limit of a single detection mode. The achieved new optical emission regime in which these independent atoms contribute coherently to the super-Poissonian statistics provides a new perspective on the emergence of optical coherence at the atomic scale and constitutes a unique toolbox for its generation and control at the most microscopic level.