Kubernetes onboarding for developers joining your teams

We offer private, instructor-led Kubernetes training for developers preparing to make their first supported workload changes within an existing engineering team.

New colleagues can bring substantial software experience with different levels of container and Kubernetes knowledge. Their starting point needs to connect to the task they will actually perform.

LearnKube follows a sample service from a guided deployment to a change the learner can explain with less prompting. Practice and reference material support the next learning step.

Hands-on learning and the skills engineers take back to work.

Preview: course-wide figures are not yet available.

  • Hands-on learning
    Of instruction time spent on labs and challenges.
  • Troubleshooting confidence
    Of respondents report greater confidence diagnosing Kubernetes problems.
  • Relevant to your work
    Of respondents say the course addressed their engineering responsibilities.
  • Skills put into practice
    Of respondents applied their new skills at work within 90 days.
  • Orient to workload behavior by connecting familiar application concepts to Kubernetes resources, so the learner understands what a deployment requests and which components act on it.
  • Practice a supported deployment with guided configuration and observation, so the learner can explain the actions and results rather than only reproduce commands.
  • Demonstrate a bounded change through a modified release and an explanation of its status, so the learner and team can identify remaining gaps and escalation needs.
  • Retain a repeatable practice path through reference material and personal notes about the exercise, so the learner can revisit the relevant concepts before later work.

Developers can understand application code without knowing how Kubernetes turns desired state into observed status. Before a supported release, they need to connect the workload definition to controllers, Pods, and readiness. The course follows one service through a guided change, then asks learners to explain the evidence that distinguishes a submitted update from usable application behavior.

I ask a new colleague what they expect to observe after a deployment command. A correct prediction and an explanation of the actual result reveal more about the next learning step than a copied command that succeeds.

— Daniele Polencic, LearnKube founder and Kubernetes instructor

Role milestoneRequired knowledgePractice/check
Read a workload definitionDesired state and controllersExplain the requested change
Complete a guided releasePods and readinessCompare expected and observed
Investigate a simple mismatchEvents and workload statusExplain the next check
Revisit the task laterPrerequisites and referencesRepeat with less prompting

LearnKube delivered repeated Kubernetes workshops for Titansoft. Further requests linked continued learning to newer team members and, later, new developers joining the work.

Bacon described the progression and teaching in a completed course:

The course content ranges from simple to difficult, from shallow to deep. The teacher is very patient in teaching and provides a lot of relevant resources

— Bacon, Titansoft.

This proposed agenda starts from what the group can already explain. Familiar material can be shortened, while missing foundations receive guided practice before the next task.

Day 1

We connect images, Pods, Deployments, Services, and probes to the sample application. Learners complete a guided release and distinguish the requested state from the response the application provides.

  • Deploy the service with guidance and identify the resources created for it.
  • Change its image or readiness setting, then explain the resulting rollout evidence.

Day 2

We use Helm and compare Kustomize to make environment settings explicit. Learners connect generated resources to the control plane, controllers, and nodes before repeating a small configuration task.

  • Adapt a supplied release for a second environment and explain the differences.
  • Trace a replacement Pod to its controller and describe which part of the workload definition it follows.

Day 3

We trace DNS, Services, ingress, and network policy through the same application. Scheduling and service mesh examples show where an application learner needs a different check or platform assistance.

  • Investigate a supplied selector or port mismatch and explain the evidence for the correction.
  • Compare a connectivity problem with an unavailable placement and state the next action for each.

Day 4

We connect configuration, state, autoscaling signals, and permissions to the learner's workload. Each participant completes a bounded role exercise and identifies the parts that still require guidance.

  • Make a permitted application change and explain its configuration, data, and access requirements.
  • Repeat a selected earlier task with fewer prompts and record the references needed for continued practice.

Your learners' starting knowledge, first responsibilities, and plans for later practice can shape the agenda. Get in touch to tailor the learning path to your team.

When a learner treats a successful apply command as proof that the service works, the instructor can compare the declared resources with readiness and a request. That explanation establishes what to inspect before the learner attempts a similar change with less support.

Tell us who is joining the work, what they already know, and which Kubernetes task they need to perform next. We will recommend the starting depth, practice, and references for a repeatable learning path.