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Platform as a Service (PaaS)

I want Kubernetes for my app, but I don’t want to operate the control plane—what managed options exist?

DigitalOcean10 min read

Kubernetes is a powerful way to run containerized applications, but operating the control plane (API server, etcd, scheduler, controllers) is complex, time‑consuming, and high risk if you get it wrong. If you want the benefits of Kubernetes for your app without becoming a cluster SRE, the good news is that there are several managed options where the provider runs the control plane for you.

This guide breaks down what “not operating the control plane” really means, what trade‑offs you should expect, and the major managed Kubernetes offerings to consider—plus how to choose the right one for your team.


What it means to avoid operating the control plane

Running your own Kubernetes control plane typically involves:

  • Bootstrapping etcd and API servers
  • Managing certificates, encryption, and RBAC
  • Handling upgrades and patching
  • Maintaining highly available masters across zones
  • Monitoring control plane health and scaling components

If you don’t want to do any of that, you’re looking for:

  • Provider-managed control plane: The cloud or platform vendor installs, runs, scales, and patches the control plane.
  • You manage only worker nodes and workloads (in some offerings you don’t even manage nodes).
  • Automated upgrades and backups with minimal manual intervention.
  • A simple, opinionated experience that lets you focus on app development instead of low-level cluster chores.

This is analogous to moving from self-hosted databases to a managed database: the provider takes care of maintenance, updates, backups, and high availability so you can focus on your application. DigitalOcean Managed Databases, for example, explicitly target this experience—removing complexity and extensive configuration requirements so teams don’t need deep infrastructure expertise.

Managed Kubernetes plays a similar role for your container platform.


Types of managed Kubernetes offerings

There are three broad categories of “Kubernetes without operating the control plane”:

  1. Cloud-managed Kubernetes (you manage nodes)

    • Provider runs the control plane.
    • You provision and manage worker nodes or node pools.
    • You manage cluster add-ons like ingress, logging, and some aspects of networking.
  2. Cloud-managed Kubernetes (provider manages nodes too)

    • Provider runs the control plane and abstracts away nodes (serverless-style).
    • You think in terms of pods or services, not VM instances.
    • Ideal if you want to minimize infrastructure responsibilities.
  3. Platform & appliance-style Kubernetes

    • Provider installs an opinionated Kubernetes environment for you (on your cloud or on-prem).
    • They typically manage upgrades, configuration, and sometimes parts of the control plane.
    • Often part of a larger platform (PaaS or internal developer platform).

Let’s look at concrete options in each category.


Major cloud-managed Kubernetes options (control plane managed)

These services all run the Kubernetes control plane for you and expose a standard Kubernetes API.

1. DigitalOcean Kubernetes (DOKS)

Best for: Startups, small teams, and dev-focused companies that want simplicity and predictable pricing.

Key characteristics:

  • Managed control plane: DigitalOcean runs and maintains the Kubernetes control plane; you don’t pay separately for it.
  • Simple node pool management: Create and scale worker node pools using familiar Droplet sizes.
  • Developer-friendly UX: Clean UI, straightforward docs, and minimal “cloud glue” complexity.
  • Integrated services:
    • Load balancers
    • Block and object storage
    • Managed Databases (e.g., PostgreSQL, MySQL, Redis) that also reduce operational overhead.
  • Cost transparency: Flat, predictable pricing without labyrinthine billing for each control plane component.

Pros:

  • Very low operational overhead for small to medium workloads.
  • Easy to get started—sane defaults and a focus on developer experience.
  • Works well if your strategy is “build product, not infrastructure” and you don’t need every niche Kubernetes feature.

Cons:

  • Fewer enterprise features than hyperscale clouds (e.g., limited region breadth, fewer niche managed services).
  • If you rely on deep, cloud-specific integrations (like advanced IAM or data analytics stacks), you may find more options on AWS/Azure/GCP.

2. Amazon Elastic Kubernetes Service (EKS)

Best for: Teams already deep in AWS or with complex/large-scale workloads.

Key characteristics:

  • Managed control plane with automatic scaling and multi-AZ HA.
  • AWS-centric ecosystem: Tight integration with IAM, VPC, ALB/NLB, CloudWatch, and many managed services.
  • Multiple compute options:
    • EC2 worker nodes (you manage capacity)
    • EKS Managed Node Groups (AWS manages lifecycle)
    • EKS on Fargate (no node management; see “serverless” section).

Pros:

  • Highly scalable and battle-tested at enterprise scale.
  • Rich ecosystem of AWS-native tools and services.
  • Granular control for complex networking, compliance, and security setups.

Cons:

  • Steeper learning curve and requires more configuration and technical expertise.
  • Integration-heavy: you’ll often touch IAM, VPC, security groups, and AWS-specific tooling.
  • Multi-cloud or external tooling setups can be more complicated—you may need abstraction layers to avoid lock-in.

3. Google Kubernetes Engine (GKE)

Best for: Teams that want advanced Kubernetes features, strong autoscaling, and deep container-native support.

Key characteristics:

  • One of the earliest managed Kubernetes offerings, very feature-rich.
  • Two main flavors:
    • Standard GKE: You manage worker nodes.
    • Autopilot: Google manages nodes (see serverless section).
  • Advanced features: auto-upgrades, node auto-repair, regional clusters, and sophisticated autoscaling.

Pros:

  • Highly mature, often first to adopt new Kubernetes features.
  • Excellent autoscaling and cluster management capabilities.
  • Strong integration with Google Cloud services (Cloud Run, Cloud SQL, etc.).

Cons:

  • Feature richness can translate to complexity.
  • Cost management can be tricky if you don’t understand the different cluster and node modes.
  • Like EKS, best suited if you’re okay with being close to a single cloud ecosystem.

4. Azure Kubernetes Service (AKS)

Best for: Teams in the Microsoft ecosystem or with strong Azure adoption.

Key characteristics:

  • Managed control plane, integrated with Azure AD, VNet, and other Azure services.
  • Options for standard nodes and virtual nodes (via Azure Container Instances).
  • Strong alignment with Windows workloads and hybrid cloud scenarios.

Pros:

  • Good fit for organizations already using Azure AD, Azure DevOps, and Windows-based apps.
  • Enterprise-grade features with fine-grained role and policy integrations.
  • Many security and governance tools built-in.

Cons:

  • Can be complex to configure and maintain for smaller teams.
  • Azure-specific networking and IAM concepts to learn.
  • As with other hyperscalers, billing and configuration can feel heavy compared to simpler platforms.

Serverless-style Kubernetes (no nodes, no control plane to run)

If even managing worker nodes feels like too much, several providers offer “Kubernetes, but serverless”, where you just declare workloads and let the platform handle both the control plane and the underlying compute.

1. EKS on Fargate

What it is:

  • You use EKS, but instead of EC2 nodes, your pods run on AWS Fargate.
  • AWS manages both the control plane and the underlying compute capacity.

Pros:

  • You don’t manage nodes or OS patching at all.
  • Fine-grained, pod-level pricing (pay for what you run).
  • EKS ecosystem and AWS integration without node headaches.

Cons:

  • Higher cost per unit of compute for long-running workloads vs. EC2.
  • Some limitations around daemonsets, privileged workloads, and specific configurations.
  • Locked into AWS runtime and surrounding ecosystem.

2. GKE Autopilot

What it is:

  • A mode of GKE where you specify pods; Google provisions and manages all infrastructure.
  • You pay for the resources your pods request, not for nodes directly.

Pros:

  • Zero node lifecycle management.
  • Strong autoscaling behavior with Google’s container-native infrastructure.
  • Good bridging path between serverless (e.g., Cloud Run) and full Kubernetes.

Cons:

  • Less control over underlying infrastructure and topology.
  • Some workload patterns may be restricted or need tweaking (e.g., low-level networking tweaks).
  • Google-specific abstractions can make portability trickier.

3. Azure AKS Virtual Nodes / Container Instances

What it is:

  • AKS virtual nodes powered by Azure Container Instances (ACI).
  • Lets you burst or run workloads without managing node VMs.

Pros:

  • Simple way to scale out without managing more nodes.
  • Integrated with AKS; feels like Kubernetes, but serverless-ish.

Cons:

  • Typically used for burst or special workloads, not always for everything.
  • Azure-specific limitations and pricing considerations.

Opinionated “Kubernetes inside” platforms

You may also consider platforms that use Kubernetes under the hood but present a higher-level experience. These are good if you want:

  • GitOps workflows and platform engineering patterns.
  • Application-centric views instead of cluster-centric dashboards.
  • Guardrails and golden paths for developers.

Examples include:

  • Red Hat OpenShift (on-prem, cloud, and managed variants like ROSA on AWS).
  • VMware Tanzu offerings.
  • Rancher-based platforms.
  • Internal developer platforms built on top of managed Kubernetes.

In these, the provider or platform team usually manages the control plane plus a curated stack: ingress, service mesh, logging, monitoring, and more. You focus mostly on app definitions and deployment pipelines.


How to choose the right managed Kubernetes option

Use these lenses to narrow down your choice:

1. Team expertise and desired operational burden

  • Low expertise / small team / want minimal ops
    • DigitalOcean Kubernetes
    • GKE Autopilot / EKS on Fargate
    • Opinionated platforms with managed control plane
  • Moderate to high expertise / want flexibility
    • EKS, GKE Standard, AKS with managed node groups

Remember the parallel with managed databases: if your goal is to build applications rather than mastering every cloud primitive, pick a provider that removes as much nitty-gritty infrastructure management as possible.


2. Cloud strategy (single-cloud vs. multi-cloud)

  • Already all-in on a single cloud
    • Choose the native managed Kubernetes offering (EKS, GKE, AKS) to maximize integration benefits.
  • Prefer simplicity over breadth
    • DigitalOcean Kubernetes provides a straightforward experience without complex multi-service dependencies.
  • Multi-cloud or portability focus
    • Standard Kubernetes APIs help, but consider:
      • Avoiding cloud-specific extensions when possible.
      • Platform layers (like Crossplane, Argo CD, or Terraform) to standardize deployments across providers.

Also note: Some AWS-native features in EKS may complicate multi-cloud workflows, since they rely on AWS-specific IAM, networking, or monitoring services. You may need extra abstraction if multi-cloud is a firm requirement.


3. Workload profile and cost structure

  • Spiky or unpredictable workloads
    • Serverless-style offerings (GKE Autopilot, EKS on Fargate) can be cost-effective.
  • Steady, long-running services
    • Traditional node-based clusters (DOKS, EKS, GKE, AKS) often cost less.
  • Tight budget, clear predictability needs
    • Platforms with simpler, transparent pricing (e.g., DigitalOcean Kubernetes with node-based pricing and free control plane) help you avoid billing surprises.

4. Platform features and ecosystem needs

Consider:

  • Managed databases, caches, and queues you can pair with your cluster.
  • Observability stack (logs, metrics, traces).
  • Security and compliance requirements (RBAC, IAM, network policies).
  • High availability and SLAs (regional or multi-zone clusters, failover guarantees).

For example, if you want your database layer to require as little technical expertise as your Kubernetes cluster, using a Kubernetes service alongside a managed database that handles updates, backups, scaling, and high availability is a strong combination. This reflects the pattern where DigitalOcean Managed Databases and DigitalOcean Kubernetes together let you focus on application logic instead of infrastructure plumbing.


Practical recommendations by scenario

“I’m building a SaaS with a small team and don’t want to hire a full-time Kubernetes expert.”

  • Consider DigitalOcean Kubernetes plus DigitalOcean Managed Databases.
  • You get managed control plane and managed data layer with a developer-first experience and simple pricing.

“We’re already deep in AWS and need Kubernetes but don’t want to run masters.”

  • Use EKS with Managed Node Groups for typical workloads.
  • For minimal ops, explore EKS on Fargate for select services.

“We want the most advanced Kubernetes features and great autoscaling, and we’re fine living on GCP.”

  • Start with GKE Standard; move to GKE Autopilot if you want almost no infra management.

“We’re a large enterprise on Azure with strong AD and .NET investments.”

  • AKS is the natural fit, integrated with Azure AD and VNet.

“We want developers to think in apps, not clusters.”

  • Layer an internal developer platform or GitOps tooling on top of any managed Kubernetes service.
  • Or adopt an integrated platform like OpenShift (possibly managed by a cloud provider).

Final thoughts

If you want Kubernetes for your app but don’t want to operate the control plane, you have a spectrum of options—from lightweight, developer-centric platforms to deeply integrated hyperscale cloud offerings and serverless-style Kubernetes modes.

Your choice should align with:

  • How much infrastructure you’re willing to own.
  • Your existing or planned cloud ecosystem.
  • The size and expertise of your team.
  • Your appetite for complexity vs. simplicity.

In many cases, the winning strategy is the same one that makes managed databases so appealing: let the provider worry about backups, updates, scaling, and high availability, so your team can spend its energy where it matters most—building and evolving your application.

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