Automatic Optical Wavelength Path Provisioning and Control refers to software-driven management of optical network resources that establishes and optimizes wavelength connections without manual intervention. It leverages algorithms that analyze network topology, traffic demand, and physical constraints to automate routing and switching. This technology increases agility, reduces downtime, and enhances spectrum utilization. NEC Laboratories America integrates such control frameworks into research on open and disaggregated optical networks. The goal is to create resilient, high-capacity communication systems for telecom and data center applications.

Posts

Leveraging digital twin technologies: all-photonics networks-as-a-service for Data Center Xchange in the era of AI

This tutorial paper presents a data center exchange (Data Center Xchange, DCX) architecture for all-photonics networks-as-a-service in distributed data center infrastructures, enabling the creation of a virtual large-scale data center by directly interconnecting geographically distributed data centers in metropolitan areas. In contrast to existing vendor-driven optical networking approaches, the proposed architecture adopts an operator-driven and open digital twin paradigm, leveraging cloud-native transponder architectures and open tools/interfaces such as GNPy and CMIS/TAI, and a user–carrier collaborative control framework. In particular, the cloud-native architecture enables operators to flexibly develop, deploy, and manage their own control and automation functions across transponders and controllers using container-based software components. Key requirements for such an architecture in the era of AI are identified: support for low-latency operations, scalability, reliability, and flexibility within a single network architecture; the ability to add new operator-driven automation functionalities based on an open networking approach; and the ability to control and manage remotely deployed transponders connected via access links with unknown physical parameters. We propose a set of technologies that enable digital twin operations for optical networks, including a cloud-native architecture for coherent transceivers, remote transponder control, fast end-to-end optical path provisioning, transceiver-based physical-parameter estimation incorporating digital longitudinal monitoring, and optical line system calibration, demonstrating their feasibility through field validations.

Leveraging Digital Twins for AII-Photonics Networks-as-a-Ser­vice: Enabling Innovation and Efficiency

This tutorial presents an architecture and methods for all-photonics networks-as-a-service in distributed Al data center infrastructures. We discuss server-based coherent transceiver architectures, remote transponder control, rapid end-to-end lightpath provisioning, digital longitudinal monitoring, and line-system calibration, demonstrating their feasibility through field validations.