Superradiance of Few Driven Two-Level Quantum Dot Emitters in the Bad Cavity Limit

Abstract

The pursuit of an integrated quantum optics system requires the ability to determine the effect of design parameters on the quantum electrodynamics regime. We develop a simple master equation for few, driven, two-level emitters in the bad cavity regime. Comparing the resulting photon-photon correlation function in the steady state with experimental data from InGaAs quantum dots coupled to a photonic crystal waveguide, we validate our model parameters for coupling strength, spontaneous decay rate and incoherent driving rate. Building upon this model, we explore the superradiant regime for InGaAs quantum dots coherently driven within a waveguide, creating a model that captures the collective behavior of two-level emitters in the bad cavity limit.

Document Details

• Document Type: Technical Report
• Publication Date: Jul 12, 2021
• Accession Number: AD1149686

Entities

People

• Joseph B. Wiedemann

Organizations

• United States Naval Academy

Tags

Communities of Interest

• Advanced Electronics

DTIC Thesaurus Topics

• Ceramic Materials
• Detection
• Detectors
• Differential Equations
• Electromagnetic Radiation
• Energy Levels
• Equations
• Ground State
• Hilbert Space
• Magnetic Fields
• Magnetometers
• Measurement
• Nanotechnology
• Physics
• Probability
• Probability Distributions
• Quantum Dots
• Quantum Electrodynamics
• Quantum Mechanics
• Quantum Properties
• Silicon Carbide
• Steady State
• United States
• United States Naval Academy

Fields of Study

• Physics

Readers

• Quantum Dot Semiconductor Device Photonics and Graphene Optoelectronic Materials and THz Physics.
• Quantum spin resonance or Electron Paramagnetic Resonance spectroscopy.
• Regression Analysis.

Technology Areas

• Quantum Computing
• Quantum Science - Quantum Dots