OpenStack Helm

• Helm charts and tooling for deploying OpenStack control plane and supporting services on Kubernetes (cloud infrastructure automation).
• Declarative configuration of OpenStack components via Kubernetes manifests and Helm values (infrastructure-as-code).
• Support for composable, modular services enabling per-service charting and upgrades (cloud platform engineering).
• Integration with Kubernetes-native constructs such as StatefulSets, Deployments, and Services for OpenStack workloads (container orchestration).
• Framework and reference patterns for building, testing, and operating OpenStack on Kubernetes in production environments (cloud operations).

More About OpenStack Helm

OpenStack Helm is a deployment and Lifecycle Management Framework (LMF) that packages OpenStack services as Helm charts for execution on Kubernetes, targeting operators who run OpenStack as a cloud infrastructure layer on container-based platforms. It addresses the operational problem of managing complex OpenStack control-plane components and their dependencies through Kubernetes-native automation, templating, and declarative configuration.

The project provides a collection of Helm charts (cloud infrastructure automation) that define OpenStack services, databases, message queues, and related components using Kubernetes primitives such as Pods, Deployments, StatefulSets, ConfigMaps, and Secrets. These charts encapsulate configuration, initialization jobs, service dependencies, and upgrade hooks, allowing operators to manage OpenStack services through Helm’s release model. Values files drive environment-specific configuration, enabling reuse of charts across different environments while keeping operational parameters externalized.

OpenStack Helm also offers a framework (platform engineering) for composing multiple services into a complete OpenStack deployment on Kubernetes. This includes patterns for network configuration, persistent storage integration, and service discovery using Kubernetes Services and Ingress controllers where applicable. The charts are structured to allow per-service deployment, scaling, and upgrade, so individual OpenStack components can be rolled out or updated independently while still participating in an integrated control plane.

In enterprise and institutional environments, OpenStack Helm is used to deploy OpenStack as an Infrastructure-as-a-Service (IaaS) layer on top of Kubernetes clusters, aligning cloud infrastructure management with container orchestration practices. Operators can integrate these charts into their Continuous Integration and Continuous Deployment (CI/CD) pipelines (DevOps automation) to perform automated testing, validation, and continuous delivery of OpenStack updates. The project’s use of Helm also supports versioned releases, rollbacks, and change tracking, which are common requirements in regulated or large-scale environments.

Technically, OpenStack Helm is positioned at the intersection of OpenStack (cloud infrastructure platform) and Kubernetes (container orchestration), enabling an architecture where OpenStack control-plane services run as containers managed by Kubernetes, while OpenStack itself provides virtualized compute, storage, and networking to tenant workloads. This design allows reuse of Kubernetes cluster management and monitoring tooling for OpenStack operations, including logging, metrics, and alerting stacks that can be deployed alongside the charts.

From a directory and taxonomy perspective, OpenStack Helm aligns with categories such as cloud infrastructure automation, Kubernetes-based deployment frameworks, and OpenStack ecosystem tooling. It is relevant for organizations standardizing on Kubernetes for cluster operations but retaining OpenStack as a core IaaS platform, and for teams seeking a templated, code-driven approach to deploying and operating OpenStack services using Helm.