Kubernetes
Kubernetes without the operational chaos.
Kubernetes offers flexibility at the cost of real operational complexity. We design clusters and platforms that are secure, observable and boring to operate.
- 01Ingress / Gateway
- 02Services
- 03Workloads
- 04Control Plane
- 05Node Pools
- 06Cloud Infrastructure
The problem
What's actually going wrong.
Clusters nobody fully understands
Years of add-ons, Helm charts and exceptions with unclear ownership.
Upgrade anxiety
Version upgrades are postponed because they're risky and manual.
Overprovisioned workloads
Requests and limits are guessed, and nodes run mostly empty.
Security gaps
Broad RBAC, unrestricted network traffic and unscanned images.
What we do
Kubernetes capabilities.
Cluster architecture
Topology, tenancy, networking and multi-cluster strategy.
Production readiness
Reviews and remediation for reliability, security and operability.
Security
RBAC, network policy, admission control, secrets and supply-chain security.
Scaling
HPA, KEDA and node autoscaling with Karpenter or cluster autoscaler.
Observability
Cluster and workload telemetry that supports real debugging.
Workload optimization
Right-sizing requests and limits, bin-packing and cost visibility.
GitOps
Declarative cluster and application management.
Technical capabilities
Technologies and practices.
Examples of tools we work with. Listed as capabilities, not certifications or partnerships.
- EKS
- GKE
- AKS
- Karpenter
- KEDA
- Cilium
- Istio
- Argo CD
- Kyverno
- Helm
- Prometheus
Outcomes
What changes.
Predictable operations
Routine upgrades and well-understood cluster behavior.
Efficient capacity
Workloads sized from data, nodes used efficiently.
Secure defaults
Policy enforced at admission rather than discovered in audits.
How we engage
Assessment → Architecture → Implementation → Enablement.
- 01
Discover
Understand the architecture, constraints and engineering bottlenecks.
- 02
Architect
Define the target architecture and implementation roadmap.
- 03
Build
Implement infrastructure, automation, platforms and reliability improvements.
- 04
Enable
Transfer knowledge and create sustainable engineering practices.
FAQ
Common questions.
Related insights
Further reading.
Kubernetes Cost Optimization
Requests, limits, bin-packing and autoscaling: where Kubernetes cost actually hides.
ReadGitOps for Production Kubernetes
Declarative delivery, drift detection and auditable change for production clusters.
ReadKubernetes for AI and ML Workloads
When Kubernetes is the right substrate for AI workloads, and what you need to add to make it work.
ReadRelated services
Often combined with.
Platform Engineering
Build a platform developers actually want to use.
Internal developer platforms, Kubernetes platforms, self-service infrastructure, Terraform and GitOps.
Explore Platform EngineeringAI Infrastructure
Build infrastructure your AI workloads can actually scale on.
GPU infrastructure, AI workloads on Kubernetes, model serving, inference, scheduling and optimization.
Explore AI InfrastructureCloud Cost Optimization & FinOps
Make cloud costs visible, measurable and actionable.
Cloud cost analysis, Kubernetes and AI cost optimization, architecture optimization and governance.
Explore Cloud Cost Optimization & FinOpsTalk to an Infrastructure Expert.
Tell us what you're building and where infrastructure is getting in the way. You'll talk directly to a senior engineer.