6 Reasons Platform Teams Should Adopt Virtual Kubernetes Clusters When Building a Modern Internal Development Platform

Cliff Malmborg
5 Minute Read

Platform engineers must maintain efficiency, boost security, and optimize costs when building apps. Yet traditional tools don't seem to provide solutions to these problems. Virtual Kubernetes clusters are now emerging as an ideal solution.

This is because they have several qualities that developers need. Some examples are effective resource management, reduced costs, and high security.

Teams looking to build modern, scalable internal development platforms (IDPs) should adopt vClusters. This article highlights all the reasons why.

Main Points

  • A virtual cluster is an isolated Kubernetes environment within a single physical cluster. It lets users access cluster resources that traditional tools cannot.
  • There are many reasons why developers should adopt virtual Kubernetes clusters. Some of them include resource efficiency, scalability, and reduced costs.
  • With vClusters, organizations can maintain a competitive edge in a fast-evolving industry.

Why Platform Teams Should Adopt Virtual Kubernetes Clusters

1. Resource Efficiency

Virtual clusters use a host cluster's infrastructure. This allows them to manage cluster resources better. 

Additionally, easy access to resources saves platform teams time. With vClusters, teams can manage many virtual machines from one place.

Adopting virtual clusters can enhance organizations' platform engineering efforts. This provides a competitive edge and reduces financial obligations.

2. Rapid Provisioning and Scalability

Virtual clusters are flexible and can keep up with the rapid changes in the deployment scene. They are easy to scale up to meet increased demand or scale down to save resources. Also, they share the same infrastructure as their host cluster. So they are easy to activate.

Unlike traditional cluster management tools, virtual clusters are more suitable for modern-day development. Teams that use virtual clusters maintain momentum and continuity in their projects.

3. Enhanced Isolation

Isolation between projects and teams can prevent conflicts and security risks. But, separate clusters for each cost more than most teams can afford.

Virtual clusters are better than separate clusters. They provide multi-tenant environments. This ensures that operations in separate clusters do not interfere with one another.

Also, their isolation level meets security standards and policies. This makes them ideal for organizations in regulated industries.

4. Simplified Management

Virtual clusters let you manage many environments and workloads from one place. This simplifies cluster management. Admins can install important updates, like network policies, across clusters at once.

Centralized management is crucial when working with separate Kubernetes clusters. It lowers error risk and boosts efficiency. It also allows platform engineering teams to deploy resources with greater strategic planning.

5. Cost Management

Virtual clusters optimize costs through better cluster resource management. Modern deployment can be costly. It needs many workloads and extra hardware.

Virtual clusters maximize existing infrastructure, such as the API server, worker nodes, etc.

This helps teams avoid wasting money on physical infrastructure. They can then invest in development and innovation.

6. Developer Empowerment

Virtual clusters empower developers to be productive and creative. Developers can create virtual Kubernetes environments with minimal effort to experiment and innovate.

These separate clusters mimic production settings. But, they pose no risk to the main systems. Virtual clusters foster creativity and improvement in development teams.

Embracing Virtual Kubernetes Clusters for a Modern IDP

Virtual clusters reduce the challenges platform teams face when building internal deployment platforms. They are also better than traditional Kubernetes clusters for many reasons. Some are effective resource management, high isolation levels, and proper workload management.

In AI, virtual clusters can balance operations with innovation and growth. They offer a path forward. The organizations that build with virtual clusters will stay ahead of the curve.

vCluster helps platform teams adopt virtual clusters, which boosts their development productivity.

Discover the benefits of vCluster for your modern internal development platform today. Contact us for a personalized consultation now.

What is a virtual cluster?

A virtual cluster is a Kubernetes cluster inside another Kubernetes cluster. It is great for bypassing Kubernetes namespace issues. These include access to cluster-scoped resources.

A virtual cluster splits a physical cluster into many virtual ones. It has many benefits, including optimal resource use and better workload management.

What is the difference between a namespace and virtual clusters in Kubernetes?

A namespace is an isolated space in a Kubernetes cluster. Namespaces are where you would test-run your applications. But, they have several limitations.

Namespaces aren't ideal when an app needs cluster-scoped resources. But virtual clusters are. This is why they are better for platform engineering teams. Unlike namespaces, virtual clusters allow easy access to cluster resources.

What are the best practices for optimizing performance in virtual Kubernetes clusters?

You can adopt the following practices to ensure optimal Kubernetes cluster performance:

  • Proper resource allocation
  • Efficient pod scheduling.
  • Network and storage optimization.
  • Adequate logging and monitoring.
  • Continuous integration and deployment.

What are the cost implications of using virtual Kubernetes clusters?

Virtual clusters are the best way to optimize Kubernetes costs. They are also the most reliable.

They share most resources with their host cluster. These include the API server and worker nodes.

Doing so allows for efficient use of resources, managing workloads, and scaling.

What are the use cases for vClusters?

There are several use cases for vClusters, but some of the most common ones are:

  • CI/CD and testing
  • Cloud-native deployment
  • Artificial intelligence and machine learning experiments

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