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Kubernetes & Platform Engineering

Kubernetes platforms your developers can ship on without filing a ticket

We build Kubernetes clusters, container workflows and internal developer platforms that turn a new service into a template, a pull request and a monitored deployment. Developers get golden paths. Operators get one consistent, reviewable way to run everything.

Cloud & DevOps

What is platform engineering?

Kubernetes and platform engineering is the practice of running containerised applications on Kubernetes clusters and packaging the tooling around them, such as service templates, deployment pipelines, secrets, observability and access rules, into an internal developer platform. Developers follow supported golden paths to build, deploy and operate services, while a platform team keeps the clusters secure, patched and consistent.

Kubernetes handles scheduling, scaling and self-healing for containers. It does not, on its own, tell a developer how to get a new service into production. Without a platform layer, every team writes its own manifests, picks its own logging approach and queues up for the same two or three people who understand networking and secrets. The cluster works, yet shipping still feels slow.

Platform engineering treats that gap as a product. We find the steps developers repeat most, such as creating a service, adding a database, exposing an endpoint or rolling back a release, and turn each one into a supported golden path with sensible defaults, guardrails and documentation that lives next to the code.

We will also tell you when Kubernetes is the wrong answer. A product with two or three services often runs more cheaply and calmly on managed containers or a well-configured virtual machine. When Kubernetes is justified, we build it with infrastructure as code, GitOps delivery, autoscaling and monitoring, so the platform is reviewable and recoverable from the first day it carries traffic.

Challenges

The problems we are usually brought in to solve

  • Clusters only one person understands

    A cluster built through console clicks and ad hoc kubectl commands becomes hard to rebuild, upgrade or audit the moment that engineer is unavailable.

  • Manifest sprawl across repositories

    Each team copies and edits its own YAML, so resource limits, probes, labels and security settings drift apart and nobody knows which version is correct.

  • Developers queuing for platform tickets

    A new service, database or DNS record means waiting on a small operations team, which turns routine work into a backlog.

  • Version upgrades that keep slipping

    Kubernetes releases move quickly. Clusters left on old versions lose patches and provider support, and the eventual upgrade becomes a risky project of its own.

  • Node bills with no clear owner

    Inflated resource requests, idle environments and missing autoscaling push cluster costs up, but nobody can attribute the spend to a team or service.

  • Weak isolation between workloads

    Shared namespaces, broad service accounts and open network paths mean one compromised or misbehaving workload can affect everything else on the cluster.

Capabilities

What the service covers

  • Cluster design and build

    Managed clusters on Amazon EKS, Azure AKS or Google GKE, or self-managed where you need it, with node pools, networking, ingress and storage defined in Terraform.

  • Containerisation with Docker

    Production Dockerfiles with multi-stage builds, slim base images, non-root users and image scanning, so containers are quick to build and safer to run.

  • Internal developer platforms

    A self-service layer, usually a service catalogue or portal plus templates and pipelines, that lets engineers create and manage services without raw cluster access.

  • Golden path templates

    Opinionated starting points for common service types, such as a Node.js API, a Python worker or a Next.js front end, with health checks, logging, metrics and CI already wired in.

  • GitOps delivery

    Helm charts or Kustomize overlays reconciled by Argo CD, so the state of every environment is visible in Git and every change has a reviewer and a rollback point.

  • Autoscaling and capacity tuning

    Horizontal pod autoscaling, cluster autoscaling and right-sized requests and limits, tuned against measured traffic rather than guesswork.

  • Tenancy and workload isolation

    Namespaces and resource quotas per team, default-deny network policies, and a separate service account per workload mapped to cloud IAM, so one team's mistake stays inside its own boundary.

  • Observability by default

    Metrics, logs and traces collected for every workload with Prometheus and Grafana or your cloud's native tools, plus dashboards and alerts each new service inherits.

  • Cluster lifecycle management

    Planned version upgrades, node image rotation and add-on updates, rehearsed on a non-production cluster before they reach production.

Our process

How an engagement runs

Every engagement has a named lead, a written scope and working software to review every one to two weeks.

  1. 01

    Developer and cluster review

    We interview developers and operators, review current clusters, pipelines and recent incidents, and list the tasks that cost your teams the most waiting time.

  2. 02

    Paved-road design

    We agree cluster topology, tenancy model, networking, delivery approach and the first two or three golden paths worth building, and record the decisions in writing.

  3. 03

    Cluster baseline and rebuild test

    Clusters, networking, identity and core add-ons are provisioned with Terraform and GitOps, then proven by rebuilding a non-production cluster from scratch.

  4. 04

    Pilot service onboarding

    One real service moves onto the platform through the new golden path, and we fix the friction its developers report before inviting other teams.

  5. 05

    Onboard teams in waves

    Further services move onto the platform team by team while we write runbooks, train your engineers and agree who owns upgrades and platform support afterwards.

Technology

Technology we use

Chosen per project for fit, maintainability and your team's ability to own it.

Containers and orchestration

  • Docker
  • Kubernetes
  • Helm

Delivery

  • GitHub Actions
  • Argo CD
  • GitLab CI

Infrastructure

  • Terraform
  • AWS
  • Microsoft Azure
  • Google Cloud

Observability and edge

  • Prometheus
  • Grafana
  • Nginx
  • Linux

Use cases

Where it makes the biggest difference

  • Cron jobs and workers off a single server

    Moving scheduled scripts and background workers from one fragile server onto Kubernetes CronJobs and queue-driven deployments with retries, run history and alerts.

  • Per-branch namespaces on a shared cluster

    Giving each feature branch its own namespace with the full service set, a quota and its own hostname on the shared ingress, created by the pipeline and deleted after merge.

  • Consolidating inconsistent clusters

    Bringing several clusters built at different times under one Terraform and GitOps model with shared standards for security, logging and upgrades.

  • AI and data workloads beside applications

    Scheduling model-serving APIs, batch jobs and GPU node pools alongside application services, with quotas so experiments cannot starve production.

  • Dedicated capacity for enterprise SaaS tenants

    Giving larger customers their own namespace or cluster with network policies and resource quotas, while smaller tenants share pooled nodes on the same platform.

Why Softweb Planet

Why teams choose us for this work

  • Cluster choices made by Kubernetes engineers

    Kubernetes, AWS, Google Cloud and CI/CD are the core skills of our DevOps and SRE engineers, so node pool sizing, upgrade plans and alert rules are set by people who handle those details as routine work.

  • Golden paths designed from the developer's side

    We also build APIs, web apps and AI services, so we know which platform defaults save developers time and which simply get in their way.

  • The simplest platform that fits

    We recommend managed containers or a single cluster when that is enough, and add platform layers only when the number of teams and services justifies them.

  • Platform progress you can inspect

    Every one to two weeks you review a working piece of the platform, such as a rebuilt cluster, a new template or a pipeline run, against a written scope owned by one named lead.

What you can expect

  • New services reach production through one supported, documented path
  • Clusters that can be rebuilt, upgraded and audited from code
  • Developers self-serve routine changes instead of waiting in a ticket queue
  • Cluster spend attributed to teams and services, with scaling that follows demand

Kubernetes & Platform Engineering FAQ

Frequently asked questions

Not always, and we will say so if you do not. Kubernetes pays off when you run many services, several teams deploy independently, or you need fine-grained scaling and isolation. A single application with modest traffic is often simpler and cheaper on managed container services such as Amazon ECS with AWS Fargate, Azure Container Apps or Google Cloud Run. We compare the options against your team size, traffic pattern and operating budget before recommending one.

Start your project

Tell us what you're building.

Share the problem, the systems involved and where you want to be. A senior engineer replies with honest advice on scope, architecture and the fastest safe path to production.