Kubernetes Platform Engineering

Production Kubernetes platforms, engineered and operated properly.

CirOps builds and operates Kubernetes platforms across EKS, GKE, AKS, and hybrid environments. Cluster architecture, GitOps, security, observability, cost control, upgrades, and day-2 operations are delivered as one platform discipline.

EKS

Managed Kubernetes

GKE

Managed Kubernetes

AKS

Managed Kubernetes

Cluster foundations as code
GitOps delivery model
RBAC, identity, and network policies
Observability, SLOs, and runbooks
Upgrade, backup, and recovery discipline

Platform Scope

Everything Kubernetes needs after the cluster exists.

Kubernetes becomes expensive when every team invents its own way to deploy, secure, observe, and scale workloads. CirOps turns the cluster into a platform with clear defaults, enforced controls, and repeatable operations.

Cluster architecture

EKS, GKE, AKS, and hybrid cluster foundations engineered with node pool strategy, autoscaling boundaries, private networking, ingress design, and environment separation.

GitOps and release automation

Argo CD or Flux delivery models, Helm/Kustomize structure, progressive rollout patterns, policy gates, and auditable promotion between environments.

Security hardening

RBAC, Pod Security Standards, network policies, workload identity, image scanning, secrets handling, admission controls, and runtime visibility.

Observability and SLOs

Cluster, workload, ingress, and service-level signals connected to dashboards, alerts, runbooks, and reliability targets that teams can operate from.

Cost and capacity control

Node rightsizing, bin-packing, resource requests and limits, autoscaler tuning, spot usage where appropriate, and namespace-level cost visibility.

Day-2 operations

Upgrade plans, backup and recovery, incident response, vulnerability remediation, drift control, and ongoing platform operations with clear ownership.

Environments

One Kubernetes practice across cloud providers.

The service is cloud-aware, not cloud-confused. Each provider has a different identity, network, observability, and autoscaling model; the platform standard stays consistent while the implementation adapts.

Amazon EKS

AWS-native clusters with IAM Roles for Service Accounts, private endpoints, managed node groups, Karpenter where suitable, and AWS observability and security integrations.

Google Kubernetes Engine

GKE clusters with Workload Identity, node pool strategy, network policies, Cloud Operations integration, and project/folder governance alignment.

Azure Kubernetes Service

AKS clusters with Azure AD Workload Identity, private networking, managed identities, Azure Monitor, and secure delivery pipelines.

Hybrid and self-managed Kubernetes

Operational hardening for existing clusters where managed Kubernetes is not yet possible, with a migration path toward a cleaner platform model.

Process

How Kubernetes platform work runs.

1

Platform assessment

We review cluster topology, workloads, deployment flow, network model, access patterns, observability coverage, cost posture, and upgrade risk.

2

Reference architecture

We design the target Kubernetes platform: cluster boundaries, node strategy, GitOps model, policy controls, security baseline, and operations model.

3

Engineering delivery

We implement the platform as code, migrate workloads safely, wire CI/CD and GitOps, harden security controls, and validate rollback and recovery paths.

4

Operate and improve

We run upgrade cycles, tune capacity, refine alerts, close vulnerabilities, and keep the platform aligned as workloads and teams evolve.

Credentials

All five Kubernetes certifications in the delivery bench.

KCNA, KCSA, CKA, CKAD, and CKS coverage gives this service the full Kubernetes view: cloud-native fundamentals, security, administration, application delivery, and production hardening.

Kubernetes and Cloud Native Associate
Kubernetes and Cloud Native Security Associate
Certified Kubernetes Administrator
Certified Kubernetes Application Developer
Certified Kubernetes Security Specialist

AI-Augmented Operations

AI-assisted Kubernetes operations.

CirOps uses AI-assisted workflows to accelerate manifest reviews, incident diagnosis, runbook generation, policy drift detection, and capacity analysis. Engineers remain accountable for every platform decision and production change.

Faster incident context

Signals across pods, nodes, ingress, events, logs, and traces are correlated into an operator-ready view.

Policy and manifest review

AI-assisted checks surface risky workload patterns before they reach production pipelines.

Runbooks from live state

Operational procedures stay aligned with the platform that actually exists, not last quarter's diagram.

Common questions

Ready to make Kubernetes a platform, not a maintenance burden?

Start with the free Architecture Review. CirOps will map your current cluster posture, surface platform risks, and identify the highest-leverage next steps across security, reliability, cost, and operations.