Orchestration Clause Samples
Orchestration. Req.O1: MUST provide an ETSI MANO compliant abstraction to media service providers. This aligns the provisioning of media services with emerging platform concepts and standards in the relevant infrastructure segment, i.e. the ETSI work on NFV. (linked to all use cases in Section 4) • Req.O2: MUST support placement of computational and/or storage capacity based on different parameters (e.g., quality, location). This requirement addresses the multi-POP nature of the infrastructure, i.e. the exposure of resources in several/many locations of the infrastructure, not just in a centralized single location. In such case, placement is linked to specific locality and capability of the POP. (linked to all use cases in Section 4.1)
Orchestration. In order to fully realize the potential benefits of the novel DCN architecture, it must be integrated into the data centre orchestration layers, to build complex tailored cloud services dynamically and on demand. In COSIGN, interfaces and controls will be defined for integration with available orchestration mechanisms, exemplified by the integration with cloud management stack, e.g. OpenStack. As part of the COSIGN work, specific flows will be defined and realized demonstrating the advantage of orchestrated management of the networking resources as part of the overall data centre resource management. One example of such flow is presented in Figure 7-2.
Orchestration. During a FIWARE service request, the plugin returns the information from two different sources. First form the FIWARE broker and second form the orchestrator, translating also the orchestrator response to a FIWARE response.
Orchestration. Kubernetes stands as a open-source container orchestration platform, meticulously designed to opti- ▇▇▇▇ the deployment, scaling, and administration of containerized applications. Kubernetes offers a sophisticated solution for automating the orchestration, load balancing, and self-healing aspects of containerized workloads. Its capabilities, including declarative configuration and automated scaling, empower developers to concentrate on application development, alleviating concerns associated with the intricacies of managing distributed systems. The general architecture of Kubernetes is shown in Figure 5: Figure 5: Kubernetes architecture [Ops] The Kubernetes environment has been deployed on OpenStack. Comprising a bastion node for secure access, a master node for overseeing the cluster’s state, and a worker node for executing application workloads, this deployment utilizes OpenStack’s capabilities for fast deployment and testing of the environment on virtual machines. The Figure 6 shows the test architecture of Kubernetes on OpenStack: The deployment process was orchestrated seamlessly through the use of Terraform and Kubespray. Terraform, with its infrastructure-as-code approach, enabled the definition and creation of virtual machines, network configurations, and the establishment of port permissions. This allowed for a systematic and repeatable deployment, adhering to best practices in infrastructure management. This ensured a solid foundation for the Kubernetes cluster. The orchestration of the Kubernetes cluster was executed by using Kubespray. This tool, designed for deployment at scale, automated the installation and configuration of the cluster components. Through Kubespray, the bastion node, master node, and worker node were seamlessly integrated into a cohesive and functional Kubernetes environment on the OpenStack infrastructure.