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Title: Topological Quantum Entanglement Network (TQEN)

Jincheng Zhang

Published Aug 29, 2026• 0 citations
Publisher

Abstract

This paper introduces the Topological Quantum Entanglement Network (TQEN) as a fundamentally new framework for constructing and manipulating quantum entanglement networks. Traditional qubit architectures face significant challenges related to scalability and decoherence, limiting their applicability in complex systems. The TQEN proposes a novel approach utilizing continuous topological phases, allowing for dynamic network topology and entanglement state manipulation. This architecture offers superior scalability and resilience compared to existing methods, potentially unlocking new possibilities in quantum information processing. The core mechanism centers around self-organizing topological phases that adapt to network changes, employing sophisticated algorithms for entanglement generation and stabilization. We detail the architecture, explore the underlying principles, and present preliminary results demonstrating the TQEN's potential for advanced quantum network design.

DOI
10.5281/zenodo.22156656

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This paper introduces the Topological Quantum Entanglement Network (TQEN) as a fundamentally new framework for constructing and manipulating quantum entanglement networks. Traditional qubit architectures face significant challenges related to scalability and decoherence, limiting their applicability in complex systems. The TQEN proposes a novel approach utilizing continuous topological phases, allowing for dynamic network topology and entanglement state manipulation. This architecture offers superior scalability and resilience compared to existing methods, potentially unlocking new possibilities in quantum information processing. The core mechanism centers around self-organizing topological phases that adapt to network changes, employing sophisticated algorithms for entanglement generation and stabilization. We detail the architecture, explore the underlying principles, and present preliminary results demonstrating the TQEN's potential for advanced quantum network design.
This paper explores the design and implementation of Topological Quantum Entanglement Networks (TQEN) – a novel framework for constructing and manipulating entanglement across complex topological networks. The core claim is that entanglement, treated as a fundamental resource, can be strategically leveraged to create robust and scalable quantum information processing systems. We introduce a dynamically adjustable topology based on graph theory and fractal geometry, enabling the formation of entanglement pathways with enhanced resilience and scalability. This approach departs from traditional entanglement protocols, focusing on the *structure* of entanglement rather than simply manipulating its properties. The resulting TQEN architecture promises significant advancements in quantum computation and data storage, offering a fundamentally new paradigm for leveraging entanglement as a crucial resource.
Quantum entanglement remains a cornerstone of quantum computing and communication, yet its practical implementation faces significant challenges related to decoherence and entanglement distribution. This research proposes a novel framework, Topological Resonance Networks (TRNs), which leverages dynamically evolving topological networks to achieve enhanced entanglement generation and manipulation. TRNs introduce a self-organizing topology driven by continuous, non-linear feedback, creating a persistent resonance effect that transcends traditional entanglement protocols. This approach offers the potential for scalability beyond classical limitations, significantly advancing the field of quantum information processing.
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