Published Date: June 30, 2026
If you are working in the telecommunications industry or operating networks with a massive number of edge nodes (such as home routers, modems, or broadband gateways) reaching millions of devices, rolling out configuration updates or upgrading firmware simultaneously without causing system congestion is always an extremely challenging problem.
Today, I would like to share a very interesting architecture, adapted and detailed from the AWS Architecture Blog, which solves this ultra-large-scale challenge by combining Managed Red Hat Ansible Automation Platform (AAP) on AWS and Red Hat OpenShift Service on AWS (ROSA).
Traditional management systems often bundle the control plane (user interface, API) and the execution plane (running automation jobs) on the same server infrastructure. When you send updates to hundreds of thousands of devices at once, the sudden spike in CPU and memory usage can crash the entire management portal.
This modern architecture solves that by separating the two:

When a peak workload occurs, the execution plane can scale out dynamically to connect with edge gateways via IPv4/IPv6, while the control plane user interface remains fully responsive.
For disaster recovery, the control plane is deployed in an active-passive or active-active multi-region setup. The Ansible Playbooks, inventory details, and job execution logs are stored as stateless objects in Amazon S3, ensuring data durability and low-latency retrieval across regions.
