10x faster deployments, 50-70% cloud cost reduction, 99.9% uptime. Automated CI/CD, Kubernetes, multi-cloud expertise (AWS/Azure/GCP), Infrastructure as Code.
Manual deployments, cloud waste, downtime, and security risks cost millions
The Pain: Deployments require 5-10 person-hours: manual server provisioning, database migrations, dependency hell, configuration drift, rollback nightmares. Release every 2-4 weeks (competitors ship daily). DevOps engineer spends 80% time on toil (manual tasks), 20% on innovation. One bad deployment = 3-hour outage + customer trust lost.
The Solution: Fully Automated CI/CD Pipelines: Zero-Touch Deployments. Code push β automated tests β build β deploy to staging β automated QA β production deploy in 15 minutes. GitHub Actions/GitLab CI pipelines with Docker, Kubernetes auto-scaling. Infrastructure as Code (Terraform): spin up identical environments in 10 minutes (dev/staging/prod). Blue-green deployments: zero downtime, instant rollback.
The Pain: AWS/Azure/GCP bills increasing 30-50% year-over-year with no traffic growth. Over-provisioned resources (99% of EC2 instances idle during off-peak). Engineers pick expensive instance types by default (no cost visibility). Reserved instances unused, spot instances underutilized. No cost monitoring = no accountability. $50K/month bill for workload that should cost $5K with proper optimization.
The Solution: Cloud Cost Optimization + FinOps Culture. Rightsize instances (automated recommendations via AWS Cost Explorer/Azure Advisor). Auto-scaling based on load (scale down to 20% capacity at night, weekends). Spot/preemptible instances for 70% workloads (70% cost savings). Reserved instances for predictable baseline (40% savings). Real-time cost dashboards (per team/service) + budgets/alerts. Typically achieve 50-70% cost reduction in first 3 months.
The Pain: Production outages every 2-3 months: database crashes (no replicas), server failures (single point of failure), network issues (no redundancy), human errors (manual changes). Each outage: 2-6 hours downtime, $10K-$100K lost revenue, angry customers, team working overnight. No disaster recovery plan (data loss risk). No monitoring/alerting (find out from customers, not systems).
The Solution: High-Availability Architecture + Proactive Monitoring. Multi-AZ/multi-region deployment (AWS: 3 AZs, auto-failover). Database replicas (read replicas, automated backups, point-in-time recovery). Load balancers with health checks (auto-remove unhealthy instances). Kubernetes self-healing (auto-restart failed pods). Monitoring stack (Prometheus + Grafana): track 100+ metrics, alert before failures. Incident response: PagerDuty integration, 15-minute response SLA. Disaster recovery: tested quarterly, <1 hour RTO (Recovery Time Objective).
The Pain: Infrastructure security is an afterthought: SSH keys committed to Git, databases publicly accessible, no encryption at rest, IAM overpermissioned (everyone has admin access), unpatched servers (months behind on security updates). Compliance audit failures (SOC2, HIPAA, PCI-DSS). One breach = $2M-$10M in fines + lawsuits + reputation damage.
The Solution: Security-First DevOps: Defense in Depth. Infrastructure as Code with security scanning (tfsec, Checkov: catch misconfigurations before deploy). Least-privilege IAM (RBAC, no root access). Secrets management (HashiCorp Vault, AWS Secrets Manager: rotate every 90 days). Network security (private subnets, VPCs, security groups: zero-trust architecture). Automated patching (weekly OS updates, zero-day vulnerability response). Compliance automation (SOC2/HIPAA controls as code). Continuous security scanning (Trivy, Snyk: scan every Docker image). Audit logging (CloudTrail, Stackdriver: full trail for compliance).
Modern tools for automated, scalable, secure infrastructure
| Tool/Platform | Use Case | Details |
|---|---|---|
| GitHub Actions | Cloud-native CI/CD, tight GitHub integration, free for open source | GitHub-hosted or self-hosted runners |
| GitLab CI/CD | Complete DevOps platform, built-in container registry, security scanning | GitLab.com or self-hosted |
| Jenkins | Most flexible, 1,500+ plugins, on-premise friendly | Self-hosted |
| CircleCI | Fast builds, excellent Docker support, cloud-native | Cloud or self-hosted |
| ArgoCD | GitOps for Kubernetes, declarative continuous deployment | Kubernetes-native |
| Tool/Platform | Use Case | Details |
|---|---|---|
| Docker | Containerization standard, multi-stage builds, BuildKit caching | Any OS |
| Kubernetes (K8s) | Production orchestration, auto-scaling, self-healing, service mesh | EKS, GKE, AKS, or self-hosted |
| Docker Swarm | Simpler than K8s, built into Docker, good for small teams | Any Docker host |
| Nomad (HashiCorp) | Multi-workload (containers, VMs, binaries), simpler than K8s | Cloud or on-prem |
| AWS ECS/Fargate | Serverless containers on AWS, no K8s complexity | AWS-native |
| Tool/Platform | Use Case | Details |
|---|---|---|
| Terraform | Multi-cloud IaC, 1,000+ providers (AWS, Azure, GCP, GitHub) | CLI + state backend (S3, Terraform Cloud) |
| Pulumi | IaC in real programming languages (Python, TypeScript, Go) | CLI + Pulumi Cloud |
| AWS CloudFormation | Native AWS IaC, deep AWS integration | AWS-only |
| Ansible | Configuration management + provisioning, agentless | SSH-based (any OS) |
| Helm | Kubernetes package manager, reusable charts | K8s-only |
How we solve complex infrastructure challenges
Pre-DevOps: Deploy to production = 2 engineers Γ 4 hours (testing, manual server updates, database migrations, prayer). One mistake = 3-hour rollback. Ship once/month (customers complain about slow feature delivery). Competitors ship 10x faster, winning customers. Engineering velocity bottlenecked by deployment fear.
Fully Automated CI/CD + Kubernetes + GitOps Workflow
GitHub Actions (CI/CD) + Docker (containerization) + Kubernetes (AWS EKS) + ArgoCD (GitOps deployments) + Terraform (infrastructure) + Datadog (monitoring)
AWS: Multi-AZ EKS cluster (3 node groups: on-demand + spot), RDS PostgreSQL (Multi-AZ), CloudFront CDN, Route53 DNS
Deployment time: 4 hours β 15 minutes (16x faster). Deploy frequency: 1/month β 50/week (200x increase). Zero-downtime deployments (blue-green). Rollback in 2 minutes (vs 3 hours). Developer productivity: +40% (less time on operations). Revenue impact: shipped AI chatbot 3 months faster, $500K ARR.
8-10 weeks (infrastructure + CI/CD + K8s + team training)
Engineers spin up m5.2xlarge instances by default ($300/month each) when t3.medium ($30/month) sufficient. 40 EC2 instances running 24/7 but traffic drops 90% at night (no auto-scaling). Reserved instances bought but unused (different regions). S3 storage: 50 TB of old data never accessed (should be Glacier). EBS volumes left attached to terminated instances. No cost visibility = no accountability.
Cloud Cost Optimization + FinOps + Auto-Scaling Architecture
Terraform (rightsize instances) + AWS Auto Scaling Groups (scale 5-40 instances based on load) + Reserved Instances (30% baseline capacity) + Spot Instances (70% capacity, 70% cheaper) + S3 Lifecycle Policies (archive to Glacier) + Cost monitoring (CloudWatch + Grafana dashboards)
AWS: Auto-scaling groups (t3.medium spot instances, scale 5-40 based on CPU/requests), Application Load Balancer, RDS read replicas (auto-scale), CloudFront caching (reduce origin load 80%)
AWS bill: $80K β $18K/month (77% reduction, $744K annual savings). Same performance (actually better: auto-scaling handles traffic spikes). Cost visibility: every team sees their spend, allocated budgets. Spot instances: 70% of compute (never had interruption with proper fallback). ROI: $18K DevOps investment paid back in <1 month.
4-6 weeks (cost analysis + optimization + migration + monitoring)
Single database server (no replicas): database crashed at 2am Saturday β 6 hours to restore from backup β $500K revenue lost (payment processing down) β 200 customer complaints β 15 customers switched to competitors β CEO furious. Post-mortem: single point of failure everywhere (1 app server, 1 database, 1 availability zone). No monitoring/alerting (found out from angry customers, not systems). No disaster recovery plan.
High-Availability Multi-AZ Architecture + Disaster Recovery + 24/7 Monitoring
Kubernetes (self-healing, 3+ replicas per service) + AWS Multi-AZ (3 AZs in us-east-1) + RDS Multi-AZ (auto-failover) + Aurora Global Database (cross-region DR) + Application Load Balancer (health checks) + Prometheus + Grafana (monitoring) + PagerDuty (alerting)
AWS: EKS cluster across 3 AZs (each AZ: 2-5 nodes), RDS PostgreSQL Multi-AZ (synchronous replication, auto-failover <2 min), Aurora read replicas (scale reads), ElastiCache Redis (session/cache, Multi-AZ), S3 cross-region replication (disaster recovery)
Uptime: 95% β 99.95% (8 hours/year downtime β <30 min/year). Disaster recovery tested quarterly (1-hour RTO). Next AWS AZ outage (6 months later): zero customer impact (traffic auto-routed). Monitoring catches issues before customers (response time spike alert β fix before outage). Revenue protected: $500K outage never happened again. Customer trust restored.
10-12 weeks (architecture redesign + migration + DR testing + monitoring)
SOC2 audit failed on 15 controls: database publicly accessible, no encryption at rest, SSH keys in Git, IAM overpermissioned (every engineer has admin), no audit logging, manual changes to production (no IaC), servers not patched (6 months behind on security updates). Lost 3 enterprise deals ($2M ARR) because "not SOC2 compliant." 6-month remediation needed before re-audit.
Security-First DevOps + Compliance Automation + Infrastructure Hardening
Terraform (IaC with security scanning: tfsec, Checkov) + AWS: private subnets, VPC, Security Groups (zero-trust) + Vault (secrets management, auto-rotation) + CloudTrail + AWS Config (audit logging) + AWS Systems Manager (automated patching) + Trivy (container scanning)
AWS: Private subnets (no public IPs), NAT Gateway (outbound only), bastion host (SSH via SSM Session Manager, no keys), RDS in private subnet (encryption at rest + in transit), S3 bucket policies (encrypted, no public access), CloudTrail to immutable S3 bucket (audit log), AWS Config rules (detect compliance drift)
SOC2 audit: passed all 15 controls (was 0/15). Security posture: 95% automated controls (was 0%). Database breach risk: eliminated (private subnets + encryption). Secrets exposure: eliminated (Vault). Unpatched vulnerabilities: 0 (was 50+). Re-audit: passed in 3 months (vs 6 months estimated). Business impact: closed $2M enterprise deals (SOC2 required). Customer trust: enterprise customers demand SOC2, now a competitive advantage.
12-14 weeks (infrastructure hardening + compliance automation + audit prep + re-audit)
3 DevOps engineers drowning in Kubernetes complexity: YAML hell (1,000s of lines), networking issues (service mesh debugging), storage (persistent volumes), security (RBAC, network policies), monitoring (which metrics matter?), upgrades (K8s 1.21 β 1.27 = weeks of work). Considering hiring 5 more K8s experts ($150K/year each = $750K), but can't find talent. Deployments breaking weekly. Engineers spending 90% time on K8s, 10% on product.
Managed Kubernetes (EKS/GKE) + Simplified Architecture + Automation
AWS EKS (managed control plane, auto-upgrades) + Fargate (serverless pods, no node management) + Helm charts (package K8s configs) + ArgoCD (GitOps, declarative) + AWS Load Balancer Controller + Prometheus Operator (simplified monitoring)
AWS EKS: managed control plane (AWS patches/upgrades automatically), Fargate for stateless workloads (no EC2 management), EC2 node groups for stateful (databases, caches), Application Load Balancer (managed by K8s Ingress), EBS CSI driver (persistent storage, managed)
DevOps team productivity: 10% product work β 70% product work (K8s complexity offloaded to AWS). No new hires needed (saved $750K/year). K8s upgrades: weeks β hours (EKS auto-upgrades, Fargate zero-downtime). Deployment reliability: breaking weekly β <1 issue/month. Cost: slightly higher ($5K/month for managed services) but saved $750K in hiring. Engineer happiness: quit rate 0% (was planning to lose 2 engineers to burnout).
8-10 weeks (EKS migration + Fargate + Helm + ArgoCD + team training)
All infrastructure in us-east-1 (Virginia). Customers in Asia/Europe complain about slow page loads (500-800ms latency vs <100ms for US customers). Lost 3 Asian enterprise customers to local competitors. Sales team: "we can't sell in Asia with this latency." Need multi-region deployment but terrified of complexity (database replication, traffic routing, cost 3x?).
Multi-Region Global Architecture + CDN + Edge Caching
AWS: Multi-region (us-east-1, eu-west-1, ap-southeast-1) + Aurora Global Database (cross-region replication, <1 sec lag) + CloudFront CDN (edge caching 30 locations worldwide) + Route53 (geolocation routing) + DynamoDB Global Tables (multi-region NoSQL)
Primary region (us-east-1): EKS, Aurora PostgreSQL (primary). Secondary regions (eu-west-1, ap-southeast-1): EKS read replicas, Aurora read replicas (auto-sync from primary). CloudFront: cache static assets + API responses at 30 edge locations worldwide. Route53: route users to nearest region (latency-based routing).
Latency: Asia/EU: 500-800ms β 50-100ms (6-8x improvement). Customer satisfaction: complaints β praise ("finally usable"). Business: closed 5 Asian enterprise deals ($1.5M ARR) within 3 months. Cost: infrastructure cost +80% ($50K β $90K/month) but revenue +$1.5M/year = 20x ROI. Reliability: if us-east-1 fails, traffic auto-routes to eu-west-1/ap-southeast-1 (disaster recovery built-in).
12-16 weeks (multi-region infrastructure + database replication + traffic routing + testing)
Tailored solutions for every industry
Fast release cycles, high availability, global users, cost optimization
Kubernetes for microservices, multi-region deployment, CI/CD automation (50+ deploys/week), cost optimization (spot instances, auto-scaling)
Deploy frequency: 1/month β 50/week (200x). Uptime: 99.5% β 99.95%. Latency: 500ms (global) β 50ms (CDN + multi-region). Cloud costs: -60% via rightsizing + spot instances. 8-12 week implementation.
Traffic spikes (Black Friday 10x normal), seasonal scaling, payment security, 24/7 uptime
Auto-scaling (handle 10x spikes), high-availability (multi-AZ), PCI-DSS compliance, disaster recovery, cost optimization (scale down off-season)
Black Friday: no crashes (auto-scaled 10x). Uptime: 99.9% (vs 98% with outages). PCI-DSS compliance achieved. Costs: -40% off-season (auto-scale down). Disaster recovery: <1 hour RTO. 10-14 week implementation.
Zero downtime, regulatory compliance (SOC2, PCI), audit trails, security, disaster recovery
Multi-AZ high availability, encryption everywhere, comprehensive audit logging (CloudTrail), SOC2/PCI automation, tested disaster recovery (quarterly drills)
Uptime: 99.99% (5 min/month downtime). SOC2 Type II + PCI-DSS compliant. Zero security incidents. Disaster recovery: tested quarterly, <1 hour RTO. Audit logs: 100% API calls tracked. 12-16 week implementation.
HIPAA compliance, PHI data security, on-premise + cloud hybrid, legacy system integration
HIPAA-compliant infrastructure (encryption, audit logs, access controls), hybrid cloud (VPN to on-prem), BAA with AWS/Azure, security hardening, compliance automation
HIPAA compliant (passed audit). PHI encrypted at rest + in transit. Hybrid cloud: seamless on-prem integration. Security: zero breaches. Compliance automation: 90% controls automated. 14-18 week implementation (includes compliance prep).
Large file storage (TB-PB scale), video transcoding, CDN delivery, traffic spikes (viral content)
Object storage (S3/GCS) with lifecycle policies, video transcoding pipelines (AWS MediaConvert), global CDN (CloudFront), auto-scaling for viral spikes, cost optimization (Glacier for archives)
Storage: 500 TB on S3 with Glacier archival (80% cost savings vs hot storage). Video transcoding: automated pipelines (5 min/video). CDN: global delivery <100ms. Viral spike handling: auto-scaled 20x. Cost: -50% via archival + spot instances. 8-12 week implementation.
Edge computing, on-premise infrastructure, data pipeline to cloud, predictive maintenance, legacy OT systems
Hybrid cloud (on-prem edge + cloud analytics), IoT data pipelines (Kafka, Kinesis), edge computing (K3s on Raspberry Pi), VPN/Direct Connect, legacy system integration
IoT data pipeline: 10K devices β cloud analytics in real-time. Edge computing: low-latency processing (<50ms) at factory. Hybrid cloud: seamless data sync. Predictive maintenance: reduced downtime 40%. OT integration: legacy PLCs β cloud dashboards. 12-16 week implementation.
Transparent pricing for every infrastructure need
4-6 weeks
8-10 weeks
12-16 weeks
16-24 weeks
Everything you need for production-ready infrastructure
Everything you need to know about DevOps & Cloud services
Depends on team size, scale, and complexity. Use simpler solutions when: (1) Team <5 engineers: K8s operational overhead not worth it. ECS Fargate (AWS) or Cloud Run (GCP) = serverless containers, zero ops. (2) Monolith or <10 microservices: Don't need K8s orchestration power. Docker Swarm or ECS simpler. (3) Budget <$10K/month: Managed K8s (EKS/GKE/AKS) adds cost, simpler solutions cheaper. Use Kubernetes when: (1) >10 microservices: K8s shines at orchestrating many services (auto-scaling, service discovery, health checks). (2) Multi-cloud: K8s = portability (run on AWS, Azure, GCP, or on-prem with minimal changes). (3) Advanced features needed: Service mesh (Istio), progressive delivery (canary, blue-green), multi-tenancy. (4) Team >10 engineers: Can dedicate 1-2 engineers to K8s ops. Our recommendation: Start simple (ECS/Cloud Run), migrate to K8s when you outgrow it (typically at 10+ services or 50K+ users). We can implement either path or migration strategy.
Multi-pronged approach: (1) Rightsizing: Analyze 90 days usage β 80% of instances over-provisioned. Example: m5.2xlarge ($300/month) β t3.medium ($30/month) for low-CPU workloads = 90% savings. Tool: AWS Compute Optimizer, Azure Advisor. (2) Auto-Scaling: Scale to workload (not peak 24/7). Example: 40 instances peak, 5 off-peak β average 15 instances vs 40 = 63% savings. (3) Spot Instances: 70% cheaper than on-demand for interruptible workloads (batch jobs, stateless web servers with proper fallback). We use Spot for 60-80% of compute. (4) Reserved Instances: 40% discount for 1-year commit on predictable baseline (e.g., 5 instances always running). (5) Storage Optimization: S3 lifecycle policies β Glacier for archives (95% cheaper). Delete unused EBS volumes, snapshots. (6) Data Transfer: Use CloudFront CDN β reduce origin bandwidth 80% (CloudFront cheaper than EC2 egress). (7) Database: Use read replicas + caching (Redis) β reduce database instance size 50%. Real example: Client went from $80K β $18K/month (77% reduction) with ZERO performance degradation (actually improved via CDN + auto-scaling). Payback in <1 month.
Cost & Speed Comparison: Full-time DevOps Engineer: $120K-$180K/year salary + benefits + equity = $150K-$220K total. Takes 2-3 months to hire (if you find someone). 3-6 months to ramp up on your stack. Works on one thing at a time (serial). Our DevOps Service: $22K-$55K one-time (3-12 months of an engineer's salary). Starts immediately (no hiring delay). Team of 2-4 engineers (parallel work). 8-16 weeks to production-ready infrastructure. When to Hire vs Outsource: Hire full-time when: (1) >$10M ARR, need ongoing platform work. (2) Complex custom infrastructure requiring deep domain knowledge. (3) Want to build internal platform team (3+ DevOps engineers). Outsource (us) when: (1) <$10M ARR, can't afford $150K+ salary. (2) Need one-time infrastructure build (then maintain in-house). (3) Need expertise fast (2-3 month hiring delay unacceptable). (4) Want to try before committing to full-time hire. Hybrid Model (common): We build initial infrastructure ($22K-$55K, 8-16 weeks) β you hire junior DevOps engineer ($80K-$100K) to maintain (vs $150K senior needed for greenfield build). We provide 90-180 days support + training β smooth handoff. Best of both worlds: expert build, affordable maintenance.
Disaster Recovery (DR) is tier-dependent: Starter Tier ($8K): Basic DR (automated backups, manual restore). RTO: 4-8 hours (manual restore from backup). Use case: small teams, can tolerate hours of downtime. Production Tier ($22K): Automated DR (multi-AZ, automated failover). RTO: <1 hour (mostly automated restore). Database: Multi-AZ RDS (auto-failover in <2 min). Application: EKS across 3 AZs (if 1 AZ fails, traffic auto-routes to 2 healthy AZs). Enterprise Tier ($55K): Advanced DR (multi-region, tested quarterly). RTO: <15 minutes (hot standby, near-instant failover). Multi-region: Primary (us-east-1), standby (us-west-2) with continuous replication. Route53 health checks β auto-failover if primary region down. Database: Aurora Global Database (cross-region replication, <1 sec lag). Tested quarterly with actual failover drills (not just theory). Transformation Tier ($95K): Business Continuity Plan (BC/DR). RTO: <5 minutes, RPO (data loss) <1 minute. Active-active multi-region (traffic in both regions, instant failover). Continuous compliance testing, automated runbooks. Real Example: FinTech client (Enterprise tier) had AWS us-east-1 outage (6-hour AWS-wide failure). Their traffic auto-failed to us-west-2 in 12 minutes. Total customer-facing downtime: 12 minutes (vs 6 hours for single-region competitors). Zero data loss. We test DR quarterly with actual failover (not just backups), so we know it works when needed.
We specialize in incremental migration (not rip-and-replace): Assessment (Week 1): Audit existing infra (servers, databases, networking, apps). Identify: what's working (keep), what's broken (migrate first), what's legacy (migrate last). Phased Migration Strategy: Phase 1 (Weeks 2-4): New services on modern stack (Kubernetes, IaC). Co-exist with legacy (hybrid). Phase 2 (Weeks 5-8): Migrate low-risk services (internal tools, staging environments). Learn lessons before touching production. Phase 3 (Weeks 9-12): Migrate critical services one-by-one (blue-green: run both old and new in parallel, gradual traffic shift, instant rollback if issues). Phase 4 (Weeks 13-16): Decommission legacy infrastructure (only after new stack proven in production). Integration Patterns: Database: Start with read replicas (new stack reads from replicas, legacy writes to primary). Then migrate writes via dual-write pattern (write to both old + new, reconcile differences). Networking: VPN between legacy data center and cloud VPC (seamless communication). APIs: API gateway routes traffic to old vs new services (gradual cutover). Real Example: E-commerce client had 10-year-old legacy infrastructure (bare metal servers in data center). We didn't rebuild from scratch. Instead: (1) New features on Kubernetes in AWS (faster iteration). (2) Migrated checkout service (10% of traffic β 50% β 100% over 3 weeks, zero downtime). (3) Migrated remaining services over 6 months (one-by-one, low risk). (4) Kept legacy database for 1 year (replicated to AWS RDS, then cutover). Result: Zero downtime, zero data loss, gradual migration de-risked. Our approach: respect your existing infrastructure, migrate incrementally, de-risk with parallel running.
Comprehensive monitoring stack (varies by tier): Metrics (Prometheus + Grafana or Datadog): Infrastructure: CPU, memory, disk, network per server/container. Application: Request rate, latency (p50, p95, p99), error rate, throughput. Database: Connections, query time, replication lag. Custom: Business metrics (signups, payments, active users). Logs (ELK Stack, Loki, or CloudWatch): Centralized logging: all application logs searchable in one place. Structured logging: JSON format for easy parsing/filtering. Retention: 30-90 days (compliance requirements). Alerting (PagerDuty, Opsgenie, or Slack): Severity-based: P0 (production down, wake up on-call 3am), P1 (degraded, alert during business hours), P2 (warning, Slack notification). Smart alerting: Avoid alert fatigue (only alert on actionable issues, not noise). Escalation: If on-call doesn't respond in 15 min, escalate to manager. Dashboards: Executive dashboard: uptime, revenue-impacting metrics (payment success rate). Engineering dashboard: latency, error rate, deployment status. On-call rotation (Enterprise+ tiers): We set up PagerDuty rotation (your team or us as fallback). Runbooks: "Pod crashing? Check logs here, restart here, escalate if X." Post-mortems: After incidents, we write blameless post-mortems (what happened, why, how to prevent). Real Example: SaaS client had monitoring but no alerts (found outages from customers). We set up: (1) Alert when error rate >1% (was 0.1% baseline). (2) Alert when latency p95 >500ms (was 200ms baseline). (3) Alert when payment success rate <98% (revenue-impacting). Result: Caught database issue 5 minutes after it started (before customers noticed). Fixed in 10 minutes, zero customer complaints. Monitoring pays for itself in first prevented outage.
We offer multiple support models: Included Support (all tiers): Starter ($8K): 30 days post-deployment (email/Slack, business hours, 24-hour response SLA). Production ($22K): 90 days support + handoff training (2 days hands-on with your team). Enterprise ($55K): 120 days support + weekly check-ins + runbooks + on-call setup. Transformation ($95K): 180 days support + dedicated Slack channel + monthly optimization reviews. Extended Support (optional add-on after included period): Retainer Support: $3K-$8K/month (8-40 hours/month, rollover unused). Use cases: architecture reviews, new feature infra, cost optimization, incident response. On-Call Support: $5K-$10K/month (24/7 coverage, 15-min response SLA for P0 incidents). We join your PagerDuty rotation. Managed Services: $10K-$30K/month (we run your infrastructure, you focus on product). Includes monitoring, patching, scaling, incident response. Ad-Hoc Support: $200/hour (no commitment, pay-as-you-go). Most Common Path: We build infrastructure ($22K-$55K, 8-16 weeks) β 90-120 days included support (smooth handoff) β you maintain in-house with junior DevOps hire ($80K-$100K) β we provide retainer ($3K-$5K/month, 8-16 hours) for architecture reviews, optimization, advanced issues. This hybrid model = best of both worlds: expert infrastructure build + affordable maintenance + available for complex issues. Real Example: Client hired us for $22K Production DevOps β 90 days support (trained their junior DevOps engineer) β $3K/month retainer (8 hours: monthly infra review, answer questions, help with new features) β cost-effective vs hiring senior DevOps full-time ($150K/year).
Timeline varies by tier (detailed breakdown): Starter Tier ($8K, 4-6 weeks): Week 1: Requirements gathering, cloud account setup, Terraform repo. Week 2-3: Infrastructure as Code (VPC, subnets, EC2/ECS, RDS). Week 4: CI/CD pipeline (GitHub Actions, Docker build, deploy). Week 5: Monitoring, alerting, documentation. Week 6: Handoff training, knowledge transfer. Production Tier ($22K, 8-10 weeks): Week 1-2: Architecture design (multi-AZ, Kubernetes, databases). Week 3-4: IaC implementation (Terraform modules, reusable). Week 5-6: Kubernetes setup (EKS/GKE, Helm charts, ArgoCD). Week 7: CI/CD advanced (blue-green, automated testing). Week 8: Monitoring stack (Prometheus, Grafana, custom dashboards). Week 9: Security hardening, cost optimization. Week 10: Documentation, 2-day training, handoff. Enterprise Tier ($55K, 12-16 weeks): Week 1-3: Architecture design (multi-region, disaster recovery, compliance). Week 4-7: Infrastructure build (Terraform, Kubernetes multi-cluster). Week 8-10: CI/CD enterprise (canary, feature flags, progressive delivery). Week 11-12: Monitoring/observability (metrics, logs, traces). Week 13-14: Security & compliance (SOC2, encryption, audit logs). Week 14-15: Disaster recovery testing, runbooks, on-call setup. Week 16: 1-week intensive team training, handoff. Process (all tiers): (1) Kickoff meeting: understand requirements, constraints, timeline. (2) Weekly sync (Fridays): show progress, demo, get feedback. (3) Incremental delivery: working infrastructure by Week 4 (not big-bang at end). (4) Final handoff: 1-2 day training (hands-on, your team deploys under our guidance). (5) Support period: 30-180 days (answer questions, help with issues). Real Example: Production tier client ($22K, 10 weeks). Week 4: staging environment live (team testing). Week 7: production Kubernetes cluster live (migrating services one-by-one). Week 10: full cutover, team trained, we provide 90-day support. On-time delivery (10 weeks as promised), zero production incidents during migration.
Let's build scalable, secure, cost-optimized cloud infrastructure that accelerates your business.