The ARC Zonal Shift architecture orchestrates infrastructure evacuation and traffic routing to bypass reactive health check failures. Achieving high availability in Kubernetes requires moving beyond standard reactive autoscaling. Traditional setups rely on…

Running multi-cluster Kubernetes fleets often degrades into a disjointed experience. Platform engineers find themselves juggling dozens of terminal sessions, switching browser tabs between disconnected dashboards, and running kubectl config use-context just…

As AI agents gain autonomy in development and operations, organizations are rushing to build agentic harnesses. However, these systems often bypass traditional security perimeters, creating massive blind spots for platform engineers.

We are increasingly treating AI-generated code as 'free' output while ignoring the long-term maintenance debt it incurs. This post analyzes the tension between shipping speed and the loss of internal system knowledge.

Running distributed databases across multiple Kubernetes clusters promises regional fault tolerance, but control plane upgrades frequently trigger split-brain states and data corruption. Combining recent etcd v3.7 advancements with managed rollback capabilities like EKS Version Rollback creates a deterministic framework for stateful disaster recovery.

As developers deploy unvetted AI models and LLM integrations into Kubernetes, security teams face growing risks from shadow AI and unmonitored model payloads. Traditional static container scanners fail to detect prompt payloads or dynamically loaded AI dependencies at runtime.

While AI drops code authoring costs to near zero, long-term code ownership and operational governance costs are surging across engineering organizations. Platform engineering teams must evolve beyond self-service developer portals to build defensive, zero-trust execution harnesses that safely sandbox autonomous agent workflows.

Agentic harness has emerged as a crucial component in AI development, enabling developers to create more efficient and effective AI models. However, its role and implications are not yet fully understood.

Serving AI models efficiently is crucial for many applications, and Kubernetes can help. However, optimizing model serving with Kubernetes requires careful consideration of several factors.

As cloud costs continue to rise, optimizing resources has become a top priority for many organizations. Kubernetes and AI can play a crucial role in streamlining cloud operations and reducing expenses. By leveraging AI-powered tools and Kubernetes, companies can automate resource allocation, predict usage patterns, and identify areas for cost savings.