An Enhanced Virtualized Control and Key Management Model for QKD Networks

The advent of softwarization and disaggregated architectures has transformed modern communication networks, sparking innovation by separating network functionalities from the underlying hardware. Following this trend, in future quantum networks, the virtualization and softwarization of critical components will be essential to achieve global interoperability and enhance adaptability. Virtualization allows for the abstraction of hardware resources, making it easier to manage and scale networks dynamically, while softwarization promotes flexibility, reconfigurability, and interoperability by enabling the use of standardized, software-defined protocols that can be easily updated and modified to work across diverse and evolving network environments. In this paper, we introduce and examine an operational model for QKD networks that leverages the virtualization of control and key management functionalities. We detail its elements and procedures to optimize QKD services. The design paves the way for the integration of quantum network with functions already established in modern mobile networks while adhering to established QKD network standards. The proposed operational model has been validated at the 5G Telefonica Open Network Innovation Centre (5TONIC) using an environment that deploys digital twins of QKD networks.

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Publication Details

Journal
IEEE Network
Published
2025-02-04
DOI
https://doi.org/10.1109/mnet.2025.3538752
Citations
4
Primary Topic
Wireless Body Area Networks
Type
article
Field-Weighted Citation Impact
2.70

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article

An Enhanced Virtualized Control and Key Management Model for QKD Networks

Iván Vidal, Francisco Valera, Diego López, Blanca López
4 citations
IEEE Network
Wireless Body Area Networks
2.70
article

An Enhanced Virtualized Control and Key Management Model for QKD Networks

Iván Vidal, Francisco Valera, Diego López, Blanca López
article en
4 citations

Abstract

The advent of softwarization and disaggregated architectures has transformed modern communication networks, sparking innovation by separating network functionalities from the underlying hardware. Following this trend, in future quantum networks, the virtualization and softwarization of critical components will be essential to achieve global interoperability and enhance adaptability. Virtualization allows for the abstraction of hardware resources, making it easier to manage and scale networks dynamically, while softwarization promotes flexibility, reconfigurability, and interoperability by enabling the use of standardized, software-defined protocols that can be easily updated and modified to work across diverse and evolving network environments. In this paper, we introduce and examine an operational model for QKD networks that leverages the virtualization of control and key management functionalities. We detail its elements and procedures to optimize QKD services. The design paves the way for the integration of quantum network with functions already established in modern mobile networks while adhering to established QKD network standards. The proposed operational model has been validated at the 5G Telefonica Open Network Innovation Centre (5TONIC) using an environment that deploys digital twins of QKD networks.

IEEE NetworkVol. 39(3)
IMDEA Networks (ES), Telefonica Research and Development (ES), Universidad Carlos III de Madrid (ES)
Comunidad de Madrid, European Commission
Openalex Percentile: Top 12%
Wireless Body Area Networks
2.70
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