Capability · Kubernetes & platform
Kubernetes & platform engineering
Container platforms that scale under real load — and stay affordable.
120,000+
concurrent-user load-test capacity
42%
faster average API response
65%
fewer manual production interventions
99.97%
peak-event availability
Measured on one engagement — CricRadio, verified with the owner.
Sound familiar?
Two or more of these means this page is for you.
- 1Latency climbs the moment traffic spikes — and stays high until someone intervenes
- 2The cluster bill grows faster than traffic does
- 3Scaling still means resizing nodes by hand, usually mid-incident
- 4One noisy workload starves the others sharing its node
- 5Every team deploys to Kubernetes a slightly different way
- 6Nobody can say what a given pod is actually allowed to consume
The transformation
How this discipline behaves when it's done right
The target is a platform where capacity follows demand automatically and predictably: workloads separated by responsibility, horizontal autoscaling calibrated against real load rather than defaults, node autoscaling and bin-packing to keep utilisation honest, health and disruption policies treated as production requirements, and a paved path so product teams ship without re-inventing deployment each time.
- 1
Workload separation
Split high-demand APIs from background and low-volume services so each scales on its own signal instead of dragging the others with it.
- 2
Autoscaling calibration
Configure horizontal scaling on CPU, memory and selected application metrics, with thresholds tuned through staged load tests — not defaults.
- 3
Node efficiency
Node autoscaling, right-sized requests and limits, and bin-packing keep utilisation high and the bill proportional to traffic.
- 4
Production-readiness
Health probes, resource governance, disruption budgets and rolling deployment with rollback — made mandatory, not optional configuration.
- 5
Paved path
A standard golden deployment workflow so product teams ship to the platform safely without bespoke pipelines.
Decisions
The calls we make — and why
Kubernetes, or just bigger machines?
Bigger machines add capacity but can't let components scale independently. Kubernetes gives workload-level elasticity, standardised deployment and automatic replacement of unhealthy services — the leverage is in the operating model, not the box size.
How aggressive should autoscaling be?
Calibrated, not maximal. Aggressive default scaling amplifies abnormal behaviour and cost; we tune thresholds against measured load so capacity tracks real demand.
Where does cost control live?
In the platform, not a spreadsheet. Right-sized requests, node autoscaling and bin-packing keep utilisation honest continuously, so spend stays proportional to traffic.
Artifacts
What you hold at the end
- Report
Production-readiness assessment with prioritised remediation
- Code
Autoscaling and resource-governance configuration
- Path
Golden deployment path for product teams
- Dashboard
Latency, saturation, scaling and cost dashboards
- Runbook
Scaling and recovery runbooks
Evidence
What it did on a real system
Situation
A real-time platform with sharp, event-driven traffic spikes around live moments.
Intervention
Workload separation on Kubernetes, calibrated autoscaling and a cache layer protecting the database.
Measured result
Validated through a 120,000+ concurrent-user load scenario; average API response improved 42% and manual production intervention fell 65%.
Verified with the engagement owner · CricRadio.
Read the full engagementStart here
Most start as a fixed-scope Kubernetes Production-Readiness Review or a platform build, then continue as managed operations where we run and improve the cluster as an extension of your team.
Delivery & ongoing
- GKE, EKS and AKS architecture
- Autoscaling and resource governance
- Bin-packing and cost-aware scheduling
- Internal developer platforms and golden paths
Delivered as code with handover — or run ongoing as managed operations.
Before you engage
Do we have to re-architect our applications?
Usually not. Most workloads gain the operational benefits of containers and autoscaling without redesigning business logic; we sequence the few that genuinely need state externalised.
Which cloud's Kubernetes?
We work across GKE, EKS and AKS. The operating model — separation, calibrated scaling, governance, a paved path — is the same; the managed-service specifics differ and we handle them.
Can you cut our Kubernetes bill without hurting reliability?
Yes. Most savings come from right-sized requests, node autoscaling and bin-packing, which raise utilisation without touching the headroom real demand needs.
Not in scope
- Application business-logic rewrites
- Clusters we have no visibility into or access to
- One-off 'fix it and leave' work with no handover
How we think about this problem
All field notesKubernetes cost optimisation: a utilisation problem, not a price problem
The average cluster uses about 10% of its CPU — fix sizing before touching pricing.
21 min read
Kubernetes & platformAutoscaling for traffic spikes: beyond a single HPA
Layer pod, node and event-driven scaling — a lone HPA won't survive launch day.
21 min read
Kubernetes & platformKubernetes multi-tenancy: namespace isolation vs cluster isolation
Namespace or cluster isolation, decided by your actual trust boundaries.
19 min read
Review your cluster's scaling and reliability risks
Bring a Kubernetes platform that's under load, cost or reliability pressure. We'll map where the risk actually sits.