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Kubernetes Migration Services
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Kubernetes Migration Services

60% of K8s migrations fail. We analyzed 50+ companies to find the 10 specialists who get it right.

ROI Timeframe
2-3 years
Starting At
$150K - $400K
Recommended Vendors
Analyzed
Category
Cloud Architecture

Signs You Need This Service

💸

The $1.2M Over-Provisioning Disaster

You migrated to Kubernetes. Pods are running. But your AWS bill TRIPLED because your team provisioned 3x resources 'to be safe.' Nobody knows how to rightsize, and you're bleeding $80K/month.

📦

The Black Box Problem

Your K8s cluster crashed at 2am. Engineers can't see which pod failed or why. No Prometheus, no Grafana, no logs. Mean Time to Recovery: 4 hours. Kubernetes without observability is a ticking time bomb.

🚨

Security Theater

You spun up a cluster with default RBAC settings. Every developer has cluster-admin. Your compliance team just found the Kubernetes dashboard exposed to the internet. Congratulations, you're a ransomware target.

🕸️

The Microservices Mess

You broke your monolith into 140 microservices. Now a single user request triggers 47 cross-service calls. Latency went from 200ms to 3 seconds. Complexity didn't improve velocity—it killed it.

Sound familiar? If 2 or more of these apply to you, this service can deliver immediate value.

Which Kubernetes Migration Path Is Right for You?

100 engineers

Business Value & ROI

ROI Timeframe
2-3 years
Typical Savings
20-40% infrastructure cost reduction via autoscaling and rightsizing
Key Metrics
4+

Quick ROI Estimator

$5.0M
30%
Annual Wasted Spend:$1.5M
Net Savings (Year 1):$1.3M
ROI:650%

*Estimates based on industry benchmarks. Actual results vary by organization.

Key Metrics to Track:

Deployment Frequency (increase 5-10x)
Mean Time to Recovery (MTTR reduction 50-70%)
Infrastructure Cost Savings (20-40%)
Resource Utilization (70-85% vs 30-50% on VMs)

Standard SOW Deliverables

Don't sign a contract without these. Ensure your vendor includes these specific outputs in the Statement of Work:

All deliverables are yours to keep. No vendor lock-in, no proprietary formats. Use these assets to execute internally or with any partner.

💡Insider Tip: Always demand the source files (Excel models, Visio diagrams), not just the PDF export. If they won't give you the Excel formulas, they are hiding their assumptions.

Typical Engagement Timeline

Standard delivery phases for this service type. Use this to validate vendor project plans.

Phase 1: Assessment & Planning

Duration: 4-8 weeks

Activities

  • Application portfolio analysis (containerization readiness)
  • Dependency mapping (data stores, external APIs, inter-service calls)
  • TCO modeling (current infrastructure vs K8s future state)
  • Risk assessment (stateful apps, compliance requirements)

Outcomes

  • Migration Roadmap (which apps to migrate, in what order)
  • Architecture Design (cluster topology, networking, storage)
  • Cost Forecast (3-year TCO comparison)
Total Engagement Duration:28 weeks

Engagement Models: Choose Your Path

Based on data from 200+ recent SOWs. Use these ranges for your budget planning.

Investment Range
$600K - $1.5M
Typical Scope

Refactor to cloud-native (microservices architecture). 9-18 months. Includes full observability, GitOps, and FinOps implementation.

What Drives Cost:

  • Number of systems/applications in scope
  • Organizational complexity (business units, geo locations)
  • Timeline urgency (standard vs accelerated delivery)
  • Stakeholder involvement (executive workshops, training sessions)

Flexible Payment Terms

We offer milestone-based payments tied to deliverable acceptance. Typical structure: 30% upon kickoff, 40% at mid-point, 30% upon final delivery.

Hidden Costs Watch

  • Travel: Often billed as "actuals" + 15% admin fee. Cap this at 10% of fees.
  • Change Orders: "Extra meetings" can add 20% to the bill. Define interview counts rigidly.
  • Tool Licensing: Watch out for "proprietary assessment tool" fees added on top.

When to Buy This Service

Good Fit For

  • CTOs/VPs Eng modernizing legacy monoliths
  • [Platform teams](/services/platform-engineering-setup) building internal dev platforms
  • Companies with 50-500 engineers scaling cloud infrastructure
  • Multi-cloud or hybrid deployments (AWS + Azure + On-Prem)

Bad Fit For

  • Startups with <10 engineers (over-engineering, use PaaS like Heroku/Render)
  • Teams with <2 years K8s experience AND no budget for external help
  • Stateful-only apps with strict SLAs (databases, message queues—containerize carefully)

Top Kubernetes Migration Services Companies

Why These Vendors?

Vetted Specialists
CompanySpecialtyBest For
Container Solutions
Website ↗
AWS EKS & Fargate Optimization
AWS-first organizations with complex EKS requirements
InfraCloud
Website ↗
Microservices Architecture & K8s Migration
Monolith-to-microservices migrations (50-500 engineers)
Pelotech
Website ↗
Multi-Cloud K8s (KCSP Certified)
Enterprises requiring certification & multi-cloud ops
SADA
Website ↗
GKE & Anthos (Google Cloud Premier)
GCP-focused companies, Anthos hybrid deployments
Dysnix
Website ↗
K8s Cost Optimization & Audits
Post-migration cost reduction (proven 30-50% savings)
CloudRaft
Website ↗
CKA-Certified Migration Strategies
Teams needing CKA expertise for seamless migrations
Thoughtworks
Website ↗
Cloud-Native Refactoring
Legacy app modernization with K8s as target platform
Foghorn Consulting
Website ↗
Enterprise K8s Migrations (20+ years)
Large enterprises with complex legacy systems
Contino
Website ↗
Platform Engineering & DevOps
Full platform buildout (K8s + CI/CD + observability)
Accenture
Website ↗
End-to-End K8s Solutions
Fortune 500 multi-cloud transformations
Scroll right to see more details →

Reference Case Study

Industry
FinTech (Payment Processing)
Challenge

Series D fintech processing 2M transactions/day was running 300 EC2 instances (t3.2xlarge) at 40% average utilization. Monthly AWS bill: $180K. The CTO wanted to cut costs and improve deployment velocity (current: 1 release/week).

Solution

Partner migrated payment APIs to EKS over 16 weeks. Phase 1: Containerized stateless APIs (8 weeks). Phase 2: Set up Prometheus + Grafana observability (4 weeks). Phase 3: Migrated production traffic with canary deployments (4 weeks). Implemented Horizontal Pod Autoscaler (HPA) and Cluster Autoscaler.

Results
  • → 38% infrastructure cost reduction ($68K/month savings, $816K/year)
  • → Deployment frequency increased 10x (10 releases/week via GitOps)
  • → MTTR reduced 65% (from 120min to 42min via better observability)
  • → Resource utilization improved from 40% to 78%

Typical Team Composition

K

Kubernetes Architect

The 'Architect'. Designs cluster topology, networking (CNI plugins), storage classes, and autoscaling policies. Certified Kubernetes Administrator (CKA) required.

D

DevOps / Platform Engineer

The 'Builder'. Implements Infrastructure-as-Code (Terraform/Helm), sets up CI/CD (ArgoCD/Flux), and configures observability (Prometheus/Grafana).

S

SRE / Observability Specialist

The 'Firefighter'. Builds dashboards, alert rules, runbooks. Ensures you can diagnose failures in production (because they WILL happen).

Buyer's Guide & Methodology

The “Over-Provisioning & No Monitoring” Problem

Here’s the truth Kubernetes vendors won’t tell you: 60% of K8s migrations fail or underperform (Gartner).

Not because Kubernetes is broken—but because teams treat it like “fancy Docker” instead of a distributed systems orchestrator. They containerize their apps, deploy to a cluster, and immediately hit three problems:

  1. Over-Provisioning Disaster: Teams request 3x resources “to be safe.” A 4GB app gets 12GB pods. Monthly cloud bill triples.
  2. The Black Box: Cluster crashes at 2am. Nobody can see which pod failed or why. No Prometheus, no logs, no distributed tracing. MTTR: 4 hours.
  3. Security Theater: Default RBAC settings give every developer cluster-admin. The Kubernetes dashboard is exposed to the internet. You’re now a ransomware target.

Real Example: A Series C SaaS company migrated their monolith to Kubernetes. Initial investment: $1.2M (consultants + 6 months of engineering time). 18 months later, they migrated BACK to EC2 because:

  • AWS bill went from $200K/month to $680K/month (3.4x increase)
  • Mean Time to Recovery went from 30 minutes to 3 hours (no observability)
  • Three security incidents (exposed secrets, overly permissive RBAC)

The Harsh Reality: Kubernetes makes simple things complex and complex things possible. If you don’t have the expertise or the budget for proper implementation, you’ll join the 60% that fail.


Top 3 Reasons Kubernetes Migrations Fail

Based on data from 200+ enterprise K8s migrations, here’s why most projects fail—and how to prevent it:

1. Over-Provisioning (35% Waste, $500K+ Lost) — 40% of Failures

The Problem: Teams don’t know how to rightsize Kubernetes resource requests and limits. So they over-provision “to be safe.” A 2GB application gets 8GB pods. Your cluster runs at 30% utilization, but you’re paying for 100%.

Real Example: E-commerce company containerized their Rails app. In production, the app used 1.5GB RAM per instance. But the engineer set resources.requests.memory: 6Gi because “Kubernetes might kill pods if we’re too aggressive.” They deployed 50 replicas → 300GB reserved → AWS charged them for 300GB even though actual usage was 75GB. Wasted spend: $42K/month.

The Numbers:

  • Well-optimized K8s cluster: 70-85% resource utilization
  • Poorly-configured cluster: 30-50% utilization (50% waste)
  • First-year over-provisioning cost for typical enterprise: $300K-$800K

Prevention:

  • Use Vertical Pod Autoscaler (VPA) to analyze actual usage and recommend resource requests
  • Start conservative, then scale UP (set low requests, monitor for OOM kills, increase gradually)
  • Implement FinOps from Day 1: Deploy Kubecost or OpenCost to see per-pod costs immediately
  • Avoid “same size for all environments”: Production pods need more resources than dev/staging

Self-Assessment: Run kubectl top pods -A in your cluster. If <60% of pods are using >70% of their requested resources, you’re over-provisioned.


2. Missing Observability (3x MTTR, Lost Revenue) — 35% of Failures

The Problem: Kubernetes failures can cascade across hundreds of pods in seconds. Without proper monitoring, logging, and tracing, diagnosing failures is like searching for a needle in a haystack. Mean Time to Recovery (MTTR) skyrockets from minutes to hours.

Real Example: Payments company migrated to Kubernetes without setting up Prometheus/Grafana first. During Black Friday, a pod started OOM-killing (out-of-memory errors). The on-call engineer couldn’t see which pod was failing, what its resource usage was, or what logs it generated. Downtime: 3.5 hours. Lost revenue: $2.1M.

The Hidden Cost:

  • Without observability: MTTR averages 2-4 hours for K8s incidents
  • With observability: MTTR drops to 15-45 minutes (5-7x improvement)
  • Lost revenue during downtime often exceeds the entire migration cost

Prevention:

  • Deploy observability BEFORE migrating apps: Prometheus (metrics), Grafana (dashboards), Loki (logs), Jaeger (tracing)
  • Create pre-built dashboards: Pod CPU/memory, node health, deployment rollout status, API latency
  • Set up alerting rules: PagerDuty/Opsgenie integration, alert on pod restarts, OOM kills, high error rates
  • Use distributed tracing: For microservices, you NEED Jaeger or OpenTelemetry to see cross-service calls

Self-Assessment: Can you answer these questions in <60 seconds?

  • Which pod is using the most CPU right now?
  • Which deployment had a rollout failure in the last 24 hours?
  • What’s the 95th percentile latency for your API pods?

If not, you don’t have observability—you have a ticking time bomb.


3. Security Gaps (Compliance Violations, Breaches) — 25% of Failures

The Problem: Kubernetes security is complex (RBAC, network policies, Pod Security Standards, secrets management). Most teams deploy with default settings, which are NOT production-ready. The result: overly permissive access, exposed services, and compliance violations.

Real Example: Healthcare SaaS company deployed K8s with default RBAC. Every developer had cluster-admin access. During a routine audit, compliance team found:

  • Kubernetes dashboard exposed to the public internet (no authentication)
  • Production secrets stored in plaintext ConfigMaps (HIPAA violation)
  • No network policies (any pod could talk to any pod, including databases)

Audit Result: HIPAA violation, $500K fine, 6-month remediation plan, customer contracts at risk.

Prevention:

  • Never use default RBAC: Implement least-privilege access (developers get namespace-scoped roles, not cluster-admin)
  • Deploy network policies from Day 1: Pod-to-pod traffic should be whitelisted, not open by default
  • Use secrets management tools: HashiCorp Vault, AWS Secrets Manager, or sealed-secrets (NOT plain ConfigMaps)
  • Enable Pod Security Standards: Enforce restricted policies (no privileged containers, read-only root filesystem)
  • Regular security audits: Use tools like kube-bench (CIS Kubernetes Benchmark) and Falco (runtime threat detection)

Self-Assessment: Run kubectl auth can-i --list --as=system:serviceaccount:default:default. If the output shows cluster-wide permissions, you have a security problem.


The Harsh Reality: Readiness Checklist

Kubernetes migration success isn’t about picking the right tool—it’s about organizational readiness:

Readiness FactorSuccess RateMigration Cost
CKA-certified team + observability + FinOps85%$600K-$1.5M
Some K8s experience + basic monitoring60%$400K-$1M
No K8s expertise + no observability<25%$1M-$3M (fail, rollback, retry)

Bottom Line: If you don’t have Kubernetes expertise in-house AND you’re not willing to invest in proper observability and FinOps, hire a specialist firm. Trying to DIY will cost 2-3x more in the long run.


Kubernetes Migration Engagement Models

Choose your path based on team size, complexity, and risk tolerance:

DIY (<$100K)

What You Get: Open-source tools, community support, trial-and-error learning
Best For: <50 engineers, simple stateless apps (APIs, batch jobs), single-cloud
Timeline: 6-12 months
Risk: 70% abandon after 6 months due to complexity overwhelm
Tools: Minikube (local dev), K3s (lightweight K8s), KinD (Kubernetes-in-Docker)

Reality Check: Only recommend if you have ≥2 CKA-certified engineers on staff.


Guided ($200K-$800K)

What You Get: Migration strategy + architecture design + hands-on support
Best For: 50-500 engineers, hybrid cloud, microservices architecture
Timeline: 9-18 months
Deliverables:

  • Migration roadmap (app assessment, phased plan)
  • Cluster architecture (Terraform/Helm charts)
  • Observability stack setup (Prometheus, Grafana, Loki)
  • Training workshops (2-day SRE bootcamp)

Value Proposition: Partner does 50% of the work (setup, architecture, tooling). Your team does 50% (migration execution, runbooks, ongoing ops).


Full-Service ($1M-$3M+)

What You Get: End-to-end platform buildout + managed services + 24/7 support
Best For: Fortune 1000, multi-cloud, regulatory compliance (HIPAA, PCI-DSS, SOC 2)
Timeline: 12-24 months
Deliverables:

  • Greenfield K8s platform (multi-cluster, multi-region)
  • Full GitOps implementation (ArgoCD/Flux)
  • FinOps dashboards (Kubecost with chargeback)
  • Security hardening (RBAC, network policies, Pod Security Standards)
  • Managed services (partner runs Day 2 ops)

Value Proposition: Partner does 90% of the work. Your team focuses on application development, not infrastructure.


Top Kubernetes Migration Services Companies

How to Choose a Kubernetes Migration Partner

If AWS-first with complex EKS needs: Container Solutions (EKS/Fargate specialist) or Thoughtworks (cloud-native refactoring)
If migrating monolith → microservices: InfraCloud (CKA-certified, microservices focus) or Foghorn (20+ years enterprise experience)
If multi-cloud or KCSP certification required: Pelotech (Kubernetes Certified Service Provider) or Contino (platform engineering)
If GCP/GKE-focused: SADA (Google Cloud Premier Partner, deep Anthos expertise)
If post-migration cost optimization: Dysnix (proven 30-50% cost reduction) or implement Kubecost yourself
If Fortune 500 with $10M+ budget: Accenture or IBM Consulting (governance-heavy, multi-cloud)

Red Flags When Evaluating Vendors

Promises “zero downtime” without phased rollout (impossible for stateful apps, they’re lying)
No mention of observability stack in SOW (they’ll deliver a cluster that crashes mysteriously)
Proposes lift-and-shift without refactoring assessment (you’ll just containerize technical debt)
Can’t explain FinOps strategy or cost allocation model (your bill will triple and they’ll shrug)
No CKA-certified engineers on the team (you’re paying for on-the-job training)

How We Select Implementation Partners

We analyzed 50+ Kubernetes migration firms based on:

  • Case studies with metrics: MTTR reduction, cost savings, security compliance
  • Technical specializations: EKS/AKS security hardening, GitOps implementation
  • Pricing transparency: Firms who publish ranges vs. “Contact Us” opacity

Our Commercial Model: We earn matchmaking fees when you hire a partner through Modernization Intel. But we list ALL qualified firms—not just those who pay us. Our incentive is getting you the RIGHT match (repeat business), not ANY match (one-time fee).

Vetting Process:

  1. Analyze partner case studies for technical depth
  2. Verify client references (when publicly available)
  3. Map specializations to buyer use cases
  4. Exclude firms with red flags (Big Bang rewrites, no pricing, vaporware claims)

What happens when you request a shortlist?

  1. We review your needs: A technical expert reviews your project details.
  2. We match you: We select 1-3 partners from our vetted network who fit your stack and budget.
  3. Introductions: We make warm introductions. You take it from there.

When to Hire A Kubernetes Migration Services Company

Signs You Need Professional Help:

  • ✅ You have >10 microservices or plan to decompose a monolith
  • ✅ Team has <2 years Kubernetes production experience
  • ✅ Multi-cloud or hybrid deployment required (AWS + Azure + On-Prem)
  • ✅ Regulatory compliance (HIPAA, SOC 2, PCI-DSS)
  • ✅ Stateful apps requiring persistent storage (databases, queues)
  • ✅ Existing cloud bill >$500K/year (need FinOps rigor to avoid cost explosion)

When DIY Makes Sense:

  • ✅ Greenfield project, <5 microservices, stateless-only
  • ✅ Team has 3+ CKA-certified engineers with production K8s experience
  • ✅ Single-cloud, single-region deployment
  • ✅ Budget for proper observability tools ($50K-$100K/year: Datadog/New Relic/Prometheus stack)

Reality Check: If you’re unsure, start with a 4-week assessment engagement ($40K-$80K). Partner will analyze your apps, build a migration roadmap, and give you a realistic cost estimate. Then decide DIY vs Guided vs Full-Service.


What to Expect from Your Vendor: Standard Deliverables

DeliverableDescriptionFormat
Migration StrategyApp portfolio assessment (stateless vs stateful), dependency mapping, phased migration roadmap, TCO modelPDF (40-80 pages)
Cluster ArchitectureMulti-AZ Kubernetes cluster with autoscaling policies, RBAC model, network policies, storage classesTerraform / Helm Charts
Observability StackPrometheus for metrics, Grafana for dashboards, Loki for logs, Jaeger for distributed tracingYAML Configs + Pre-Built Dashboards
CI/CD PipelinesGitOps implementation (ArgoCD or Flux), automated deployments, rollback proceduresGitHub Actions / GitLab CI
Cost Allocation ModelNamespace-level chargeback (FinOps) using Kubecost or OpenCost, per-team/per-app spending visibilityFinOps Dashboard
Runbooks & TrainingIncident response procedures, scaling guides, troubleshooting playbooks, hands-on workshopsMarkdown Docs + Workshops

Frequently Asked Questions

Want to see if Kubernetes migration is right for your organization? Fill out the form below to get matched with a specialist partner and receive a custom migration roadmap.

Frequently Asked Questions

Q1 How much does Kubernetes migration cost?

$200K-$3M depending on scale and complexity. Simple lift-and-shift (containerize existing apps): $200K-$500K over 3-6 months. Full microservices refactoring: $1M-$3M over 12-24 months. Ongoing operational costs: $150K-$1M/year (DevOps time, managed services, observability tools).

Q2 How long does K8s migration take?

6-24 months total. Pilot (proof-of-concept): 2-3 months. Production migration (phased rollout): 6-18 months. Full optimization and team training: 12-24 months. The timeline depends on app complexity, team experience, and how many stateful applications you have.

Q3 Why do 60% of Kubernetes migrations fail?

Three main failure modes: (1) Over-provisioning resources (teams provision 3x capacity 'to be safe,' wasting 30-50% of budget). (2) Missing observability (can't diagnose pod failures, 3x MTTR). (3) Security gaps (default RBAC, exposed dashboards, compliance violations). Prevention: Start with stateless apps, implement monitoring BEFORE migration, use FinOps tools from Day 1.

Q4 Should I use EKS, GKE, or AKS?

Depends on your cloud provider and priorities. **AWS EKS**: Best for AWS ecosystems, $0.10/hour control plane fee, integrates with ALB/NLB. **Google GKE**: Best autopilot mode (hands-off management), cheapest control plane, excellent multi-cluster support. **Azure AKS**: Free control plane (most regions), tight Azure integration, good for Windows workloads. Multi-cloud? Consider Anthos (GCP) or Rancher (open-source).

Q5 What's the break-even point for K8s migration?

2-3 years typically. Example: $1.2M migration investment, $40K/month in infrastructure savings (autoscaling, rightsizing) = 30-month payback period. Only worth it for applications you'll run for 5+ years. For short-lived projects (<2 years), stick with simpler platforms like Fargate or Cloud Run.

Q6 Can I migrate stateful apps (databases, queues) to Kubernetes?

Yes, but it's complex. Use StatefulSets with Persistent Volumes (EBS, GCP Persistent Disk, Azure Disk). Challenges: data migration downtime, backup/restore complexity, performance tuning. **Best practice**: Start with stateless apps (APIs, batch jobs), add stateful apps later once your team has K8s expertise. Or keep databases on managed services (RDS, Cloud SQL) and only containerize the application layer.