Advances in data processing and learning algorithms are paving a road that will transform our society through improvements in technologies such as artificial intelligence. In parallel, scientists are exploiting the far-reaching implications of quantum mechanics to dramatically improve the capabilities of computers and telecommunication networks. At the heart of quantum computing and quantum telecommunications networks is a purely quantum feature called entanglement, in which unique states of matter and radiation are created. The research team will explore new methods for efficiently and effectively creating such entanglement. To do so they will use optical fields to create arrays of atoms which interact with quantum radiation fields. By creating controllable environments of atom arrays using optical trapping fields, the research team will study the underlying mechanisms responsible for atom-atom and atom-field entanglement. The team will also employ different theoretical models to help explain the experimental observations. As a result this project will lead to a deeper understanding of the interaction between atoms and quantum fields that can serve as a springboard for the development of novel methods for achieving scalable generation and distribution of entanglement. During this project students will be trained in state-of-the-art techniques in experimental physics, optics, electronics, and computer-based data acquisition. The PIs will investigate two types of atomic sys