Fundamental Physics and Applications of Atomic Cooperative Arrays in Bio-inspired Geometries
Abstract
Dense regular arrays of atoms, known as cooperative arrays, are governed by dipole-dipole interactions when the interatomic distance is smaller than the transition wavelength. These arrays possess remarkable properties that make them strong candidates for quantum optical nonlinear systems. Previous studies have demonstrated their efficacy as frequency-selective mirrors and efficient 1D or 2D waveguides, offering a plethora of intriguing effects applicable to metrology and quantum information applications. This project aims to extend the concept of cooperative arrays beyond its known form by exploring alternative geometries. Drawing inspiration from Nature, the idea is to investigate helical-chiral setups that model the homochirality observed in biological systems. Additionally, arrays of rings inspired by photosynthetic arrangements and structured 2D and 3D quantum waveguide setups follow the concepts of photonic bandgap materials will be considered. By subjecting these novel geometries to a nonlinear quantum optics treatment, the research aims to unlock new insights into these fundamental systems and lay the groundwork for practical applications of the underlying quantum mechanical concepts. The anticipated outcomes of this study include a deeper understanding of the behavior of cooperative arrays in different geometries, the identification of novel optical effects, and the development of innovative applications in metrology and quantum information processing, but also in biological and chemical physics. Fundamental physics and applications of atomic cooperative arrays in bio-inspired geometries
Document Details
- Document Type
- DoD Grant Award
- Publication Date
- Feb 06, 2025
- Source ID
- FA95502410311
Entities
People
- Susanne Yelin
Organizations
- Air Force Office of Scientific Research
- President and Fellows of Harvard College
- United States Air Force