programmatic

Docker & Kubernetes Containerization

Docker & Kubernetes Containerization

Package and operate applications in containers where portability, deployment consistency or workload orchestration justifies the added platform responsibility.

Inside the delivery

From application dependencies to an operable workload

Separate stateless processes from persistent data and identify network, storage and startup dependencies. The flow below shows the main delivery stages and the evidence produced at each step.

Reference approachAdapted during discovery
  1. 01

    Runtime assessment

    Separate stateless processes from persistent data and identify network, storage and startup dependencies.

    Output

    Workload and dependency map

  2. 02

    Image and registry

    Build versioned images with external configuration, a defined base-image update policy and registry access controls.

    Output

    Dockerfiles and image build instructions

  3. 03

    Workload configuration

    Define probes, resource requests, secrets access and rollout settings for the chosen runtime.

    Output

    Deployment manifests and configuration notes

  4. 04

    Recovery rehearsal

    Exercise failed probes, restarts and rollback; document backup and restore responsibilities for persistent data.

    Output

    Recovery evidence and cluster ownership runbook

Controls across the workflow

  • Image provenance
  • Runtime permissions
  • Resource limits
  • Upgrade ownership

Decisions that shape the scope

Do we need Kubernetes to use containers?
No. A managed container runtime may be sufficient. Kubernetes is justified when scheduling, networking or platform requirements outweigh its upgrade and operational overhead.
What needs to be available before delivery?
Application dependencies, persistent stores, traffic patterns, registry access and the team responsible for cluster operations.

Before you commit

Is this the right engagement?

What we need from you
Application dependencies, runtime requirements, stateful services, traffic profiles and existing platform ownership.
How you accept the work
Build a reproducible image and test probes, resource limits, restarts, configuration and rollback under representative load.
Scope & alternatives
No. A managed container runtime may be sufficient. Kubernetes is justified when scheduling, networking or platform requirements outweigh its upgrade and operational overhead.

Capabilities

Engineering scope and deliverables

Select the work that addresses your constraint. Responsibilities and acceptance criteria are agreed before delivery.

01

Container packaging

Define reproducible images, non-root execution where practical, dependency handling and externalized configuration.

02

Workload orchestration

Configure scheduling, health probes and resource requests with clear treatment of persistent state and service dependencies.

03

Platform handover

Document deployment, diagnostic and recovery procedures alongside responsibility for cluster upgrades and security maintenance.

Integrations

Selected for your environment

Tools are chosen around your existing systems, access requirements and operating constraints.

Microsoft Azure
AWS
Docker
Kubernetes
GitHub Actions
Terraform and infrastructure tooling

Frequently asked questions

Questions to resolve before starting

01

Do we need Kubernetes to use containers?

No. A managed container runtime may be sufficient. Kubernetes is justified when scheduling, networking or platform requirements outweigh its upgrade and operational overhead.

02

What should we prepare for the first technical discussion?

Application dependencies, persistent stores, traffic patterns, registry access and the team responsible for cluster operations.

03

What evidence is available at handover?

The agreed delivery includes recovery evidence and cluster ownership runbook. Exercise failed probes, restarts and rollback; document backup and restore responsibilities for persistent data.

04

How is the engagement estimated?

We review the available inputs before estimating: Application dependencies, persistent stores, traffic patterns, registry access and the team responsible for cluster operations. The proposal identifies dependencies, review milestones and excluded work; the scope determines the schedule.

Start a conversation

Discuss your next technical step

Share your current situation and the constraint you need to resolve. We will use the discovery inputs above to define a practical scope for Docker & Kubernetes Containerization.