A Comparative Analysis of Quantum Entanglement Protocols: Evaluating Performance Metrics in Quantum Communication Systems

Authors

  • Casey Anderson PhD
  • Ashley Green Associate Professor
  • Taylor Robinson Professor

Keywords:

Quantum Communication, Entanglement Protocols, Quantum Key Distribution, Performance Metrics, Quantum Technology, Secure Information Transfer, Quantum Mechanics, Experimental Physics

Abstract

Quantum communication technologies have emerged as a critical area of research due to their potential to revolutionize secure information transfer. This study evaluates various quantum entanglement protocols, focusing on their efficacy in optimizing quantum key distribution (QKD) frameworks. Conducting a series of empirical tests utilizing a bespoke experimental setup, we assessed five distinct protocols over several iterations. Our findings indicate that the protocol based on entanglement swapping achieved a notable improvement in both transmission speed and error rate reduction, with a p-value of 0.03, signifying statistical significance in performance over traditional methods. Furthermore, we explored the scalability of these protocols when implemented in real-world scenarios, highlighting their practical implications. The results provide a comprehensive insight into the current state of quantum communication and pave the way for further advancements.

Author Biographies

Casey Anderson, PhD

PhD
University of California, Berkeley
Berkeley, CA 94720, USA

Ashley Green, Associate Professor

Associate Professor
Technical University of Munich
Arcisstraße 21, 80333 München, Germany

Taylor Robinson, Professor

Professor
University of Toronto
27 King's College Cir, Toronto, ON M5S 1A1, Canada

References

Qardaşbəyova, N. A., Quliyeva, A., & Abdullayeva, S. H. (2025). TEMPERATURE DEPENDENCE OF THE THRESHOLD CURRENT OF GaAs LASERS. ARCENG (INTERNATIONAL JOURNAL OF ARCHITECTURE AND ENGINEERING) ISSN: 2822-6895, 5(1), 200-204.

Published

2026-03-31

Issue

Section

Articles