DOI

https://doi.org/10.25772/3PZA-7460

Author ORCID Identifier

https://orcid.org/0000-0002-7211-0175

Defense Date

2025

Document Type

Dissertation

Degree Name

Doctor of Philosophy

Department

Electrical & Computer Engineering

First Advisor

Dr. Nathaniel Kinsey

Abstract

In recent decades, quantum theory has sparked a revolutionary outlook on our long-standing perception of information processing and communication technologies. Photon-based quantum systems, relying on single photons governed by quantum mechanics, hold immense promise for quantum networks due to their resilience against decoherence and fast propagation speeds. However, challenges persist in realizing practical quantum networks, including the need for scalable, robust, and cost-effective quantum light. To address these challenges with classical photonic concepts, this thesis focuses on a plasmon-assisted approach for on-chip integration of single-photon sources. The study aims to develop a scalable solution for integrating quantum emitters on-chip, leveraging plasmonic enhancement to improve photon production rates and enable on-demand photon generation. Through computational analysis, this research sheds light on the unique challenges and tradeoffs associated with various design strategies and paves the way for advancing the effort in realizing a scalable approach in nonclassical light source integration techniques for the realization of practical quantum networks.

Rights

© The Author

Is Part Of

VCU University Archives

Is Part Of

VCU Theses and Dissertations

Date of Submission

8-8-2025

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