Netofficials delivers Kubernetes cluster setup, Helm chart development, autoscaling, and production monitoring on EKS, AKS, and GKE, container orchestration services built for engineering teams in the US, UK, and Australia moving workloads to production.
Kubernetes, the open-source container orchestration system originally developed at Google, schedules containerised workloads across a cluster of nodes, restarts failed pods through a self-healing control loop, manages service discovery, and controls rolling deployments and rollbacks. Netofficials delivers Kubernetes consulting and deployment services covering cluster architecture, Helm chart development, autoscaling, GitOps integration, and production monitoring on EKS, AKS, and GKE for engineering teams building or migrating applications to containers.
The scope of Netofficials' Kubernetes services spans the full operational surface: provisioning managed control planes on EKS (Amazon Elastic Kubernetes Service), AKS (Azure Kubernetes Service), or GKE (Google Kubernetes Engine); packaging workloads as versioned Helm charts for repeatable deployments; configuring HPA (Horizontal Pod Autoscaler) and VPA (Vertical Pod Autoscaler) policies; implementing ArgoCD GitOps pipelines; and deploying Prometheus, Grafana, and Alertmanager for observability. Infrastructure is codified with Terraform infrastructure-as-code services so clusters are reproducible and auditable.
Kubernetes suits teams running multiple independently deployable services, teams that need per-component scaling under variable load, and teams requiring consistent promotion of workloads across development, staging, and production environments. It is not the right fit for a single-service application with flat, predictable traffic, where a simpler runtime reduces operational overhead. Teams still containerising their applications can start with Docker containerisation services before moving to full orchestration. Netofficials scopes each engagement to the actual complexity of the workload rather than applying a fixed architecture.
A typical engagement begins with a discovery call to assess the existing infrastructure, container maturity, and target cloud platform. Netofficials then delivers cluster design documentation, provisions the environment, migrates or deploys workloads, configures security controls including RBAC (Role-Based Access Control) and network policies, and hands over runbooks alongside a monitored, production-ready cluster. Teams also receive DevOps and CI/CD automation services integration so every code push flows through a tested, auditable pipeline to the cluster.
What We Deliver
Netofficials provisions Kubernetes clusters on EKS, AKS, or GKE, covering VPC subnet design, namespace isolation, ingress controller selection, and RBAC policies that enforce least-privilege access per team and workload. Scope is determined by the number of environments, node pool requirements, and multi-tenancy constraints.
Helm, the package manager for Kubernetes, bundles manifests into versioned charts with environment-specific value files for dev, staging, and production. Netofficials authors and structures charts so upgrades, rollbacks, and dependency updates follow a consistent, auditable process across all microservices in a release.
Netofficials configures HPA (Horizontal Pod Autoscaler) on CPU, memory, or custom metrics and VPA (Vertical Pod Autoscaler) to right-size container resource requests over time. At the node level, Cluster Autoscaler or Karpenter, an open-source node provisioning controller, is selected based on workload burstiness and cloud provider support.
Netofficials deploys Prometheus, an open-source metrics collection tool, to scrape kube-state-metrics and application endpoints, builds Grafana dashboards for cluster health and resource utilisation, and configures Alertmanager to deduplicate and route alerts. Alert thresholds are set against your SLOs and on-call runbooks.
Netofficials installs and configures ArgoCD, a declarative GitOps delivery tool, so every change to Helm chart values or Kubernetes manifests in a Git repository is automatically reconciled to the live cluster. This replaces manual kubectl commands in production and gives teams a single auditable source of truth for cluster state.
Netofficials applies RBAC configurations scoped to individual service accounts, defines Kubernetes network policies to restrict pod-to-pod traffic by namespace and label selector, and integrates Istio, an open-source service mesh, to enforce mutual TLS between services without modifying application code. Security depth scales with compliance requirements and cluster tenancy model.
Engagement Process
Netofficials conducts a structured workload inventory covering container count, traffic patterns, multi-tenancy boundaries, and compliance requirements. Your engineering lead reviews the proposed network topology, node pool strategy, and RBAC namespace model. The step closes with a written architecture decision record.
The agreed architecture is codified in Terraform, HashiCorp's open-source infrastructure-as-code tool, targeting EKS, AKS, or GKE. VPCs, node groups, IAM roles, and RBAC policies are all version-controlled. Your team receives the full Terraform state and module structure so provisioning is independently repeatable.
Netofficials audits existing container images and Docker Compose definitions, authors Kubernetes manifests, and packages each service as a Helm chart with environment-specific values files. Your developers review chart structure during this step, building the ownership needed to manage deployments after handover.
Netofficials connects the cluster to your delivery pipeline using ArgoCD, a declarative GitOps continuous delivery tool, or integrates with your existing CI tooling. Deployment promotion rules, rollback triggers, and image tag strategies are documented. Your DevOps lead signs off the pipeline before it handles production traffic.
Prometheus, an open-source metrics collection tool, and Grafana, an open-source observability dashboard platform, are deployed alongside Alertmanager with pre-built runbooks for common failure scenarios. HPA and VPA autoscaling policies are validated under load. Handover includes full documentation and a live knowledge-transfer session with your team.
Platforms & Tooling
Helm
ArgoCD
Istio
Terraform
Prometheus
GrafanaWho Kubernetes Services Are For
Industry Applications
RBAC policies and Kubernetes network policies enforce workload separation between payment processing, reporting, and customer-facing services, supporting audit requirements without restructuring application code.
Secrets management via Kubernetes-native secret stores combined with pod-level audit logging restricts which services access patient data, supporting compliance documentation for regulated healthcare environments.
HPA (Horizontal Pod Autoscaler) scales checkout and inventory API pods during peak traffic periods, while rolling deployment strategies keep storefronts available throughout each production release.
Istio traffic splitting routes a defined percentage of streaming requests to a canary release, letting engineering teams validate encoding pipeline changes against live traffic before full promotion.
Cost & Timeline
Cost depends on the factors below: cluster count, cloud provider, workload complexity, compliance requirements and ongoing operational scope all influence the total investment. Netofficials provides a scoped estimate after a short brief covering your environment, target platforms and delivery priorities.
Get a scoped estimateEach additional environment (development, staging, production) requires its own cluster configuration, RBAC policies and network rules. Consolidating non-production environments onto shared clusters reduces setup and management effort.
EKS, AKS and GKE each carry different control-plane pricing, node pricing and networking models. Choosing the provider that aligns with existing cloud spend avoids duplicate account setup and cross-provider data transfer costs.
Each application migrated requires containerisation review, Helm chart authoring and integration testing. Services with stateful storage, custom init logic or external dependencies take longer to package and validate than stateless workloads.
Connecting ArgoCD or an existing pipeline to the cluster adds configuration and testing time that scales with the number of repositories and deployment targets. Teams with a single monorepo reach handover faster than those with many independent services.
Deploying Prometheus and Grafana with custom dashboards and Alertmanager routing adds effort proportional to the number of services, alert channels and retention policies. Compliance frameworks such as SOC 2 or PCI DSS add audit-trail and secrets-management work on top.
FAQ
Still deciding? Send a short brief and we reply with questions and a scope.
Ask us directly →Kubernetes, the open-source container orchestration system, becomes necessary when you run multiple services that must scale independently, recover automatically from failure, and deploy across more than one host without downtime. Docker Compose is sufficient for a single-host, single-service workload with predictable traffic. The factors that shift the decision toward Kubernetes include microservice count, the need for per-service autoscaling, multi-environment promotion pipelines, and uptime requirements that demand self-healing pod restarts.
EKS (Amazon Elastic Kubernetes Service), AKS (Azure Kubernetes Service), and GKE (Google Kubernetes Engine) each manage the Kubernetes control plane so your team does not operate master nodes directly. EKS integrates natively with AWS IAM, VPC networking, and services such as RDS and SQS. AKS suits teams using Azure Active Directory, Azure DevOps, or Microsoft 365. GKE offers the most mature Kubernetes feature releases and strong integration with BigQuery and Vertex AI. The right choice depends on where your existing infrastructure lives, your team's current cloud skills, and your data residency obligations.
Helm, the package manager for Kubernetes that bundles resource manifests into versioned, parameterised charts, eliminates the need to maintain separate YAML files for every environment. A single Helm chart accepts different values at install time, so staging and production deployments use the same chart with distinct resource limits, replica counts, or image tags. Charts carry version numbers, which makes rollbacks a single command. Netofficials writes and maintains Helm charts as part of DevOps and CI/CD automation engagements and can extend charts your team already owns.
Kubernetes security is applied in layers rather than as a single control. RBAC (Role-Based Access Control), the Kubernetes authorisation mechanism, restricts which users and service accounts can act on which resources and in which namespaces. Network policies define permitted pod-to-pod traffic, blocking lateral movement by default. Pod security standards prevent privilege escalation at the workload level. Secrets are stored outside container images and injected at runtime, with access scoped by RBAC. The precise configuration depends on your compliance requirements, the number of teams sharing the cluster, and whether workloads process regulated data.
Kubernetes provides three distinct autoscaling mechanisms that operate at different levels. The HPA (Horizontal Pod Autoscaler) adds or removes pod replicas based on CPU, memory, or custom metrics collected by Prometheus, an open-source metrics collection and alerting toolkit. The VPA (Vertical Pod Autoscaler) adjusts resource requests for individual pods rather than changing replica count. Karpenter, an open-source node provisioning controller for AWS, or the standard Cluster Autoscaler adds and removes nodes when scheduling demand changes. The right combination depends on traffic patterns, workload latency tolerance, minimum availability requirements, and the cost profile of your node types.
An engagement begins with a discovery phase where Netofficials reviews your existing workloads, cloud account, and deployment practices to define cluster architecture and a migration or greenfield plan. Cluster provisioning follows, using Terraform infrastructure-as-code to make the environment reproducible. Helm charts, RBAC policies, network policies, and monitoring with Prometheus and Grafana, an open-source observability dashboard platform, are configured next. ArgoCD, a declarative GitOps continuous delivery tool for Kubernetes, is wired to your Git repository for ongoing deployments. Handover includes documentation and, where agreed, a knowledge-transfer session for your internal team.
Cost and timeline depend on several concrete variables: the number of services being containerised or migrated, the target managed platform (EKS, AKS, or GKE), the complexity of networking and security requirements, whether Istio, an open-source service mesh, is needed for mutual TLS and traffic management, the number of environments to configure, and the extent of CI/CD pipeline integration required. Ongoing managed support adds a separate scope. Netofficials provides a scoped estimate after a discovery call where these factors are assessed against your architecture.
Yes. Netofficials integrates Kubernetes deployments with existing CI/CD pipelines including GitHub Actions, GitLab CI, Bitbucket Pipelines, and Jenkins. ArgoCD handles the GitOps reconciliation layer, syncing live cluster state with declarative configuration stored in your Git repository. Helm charts are called from pipeline stages to produce consistent, rollback-capable releases across environments. If your pipeline tooling differs, the integration approach is agreed during discovery. See DevOps and CI/CD automation services for the broader pipeline scope Netofficials covers.
