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AWS DevOps Consulting

AWS DevOps Consulting

Streamline development and deployment with secure, production-ready CI/CD pipelines and infrastructure as code — designed, built, and delivered by FactualMinds certified DevOps engineers.

  1. A workload or account brief arrives.
  2. The AWS practice designs how it will run.
  3. Design covers the landing zone, IAM, and boundaries.
  4. Build covers the pipelines and services that carry the work.
  5. Production changes wait for a named owner.
  6. The workload runs on AWS with that roster still attached.

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What is AWS DevOps?

AWS DevOps is the practice of using AWS services to automate the full software delivery lifecycle — source control, build, test, deploy, monitor — through CI/CD pipelines and infrastructure as code. Core AWS DevOps services include AWS CodePipeline (or GitHub Actions / GitLab CI integration), AWS CodeBuild, AWS CodeDeploy, Amazon ECS / EKS for container orchestration, AWS CloudFormation or Terraform for IaC, and Amazon CloudWatch for observability — composed into deployment pipelines that turn releases into a non-event.

Why DevOps on AWS?

Is your team still pushing code manually, running deployments during off-hours, or dealing with unpredictable release cycles? These are signs that your development process is holding your business back. Manual deployments are slow, error-prone, and do not scale — every deployment becomes a high-stakes event that teams dread.

AWS provides a comprehensive suite of DevOps tools that automate the entire software delivery lifecycle: from code commit to production deployment, with built-in testing, security scanning, and rollback capabilities. At FactualMinds, our certified AWS DevOps professionals design and implement CI/CD pipelines that make deployments boring — in the best possible way.

We have helped teams go from deploying once a month to deploying multiple times per day, with zero downtime and full confidence in every release.

AWS CodePipeline vs GitHub Actions vs GitLab CI

CapabilityAWS CodePipeline + CodeBuildGitHub ActionsGitLab CI/CD
Native AWS integration (IAM, ECR, ECS, Lambda)First-class — IAM roles, no long-lived secretsOIDC + role assumption (well-supported)OIDC + role assumption
Pricing modelPer active pipeline + CodeBuild compute minutesPer Action minute (free tier on public repos)Per CI minute
Hosted runnersAWS-managed (CodeBuild)GitHub-hosted or self-hostedGitLab-hosted or self-hosted
Approvals + manual gatesNative (CodePipeline manual approval)Environments + required reviewersManual jobs + protected envs
Artifact storeS3 (account-controlled)GitHub PackagesGitLab Registry
Cross-account deploysNative via CodePipeline + IAM — see cross-account patternsVia OIDC role chainingVia OIDC role chaining
Best forAWS-only deployments needing in-account audit trailTeams already on GitHubTeams on GitLab or needing built-in DevSecOps

We work with all three — selection depends on where your source already lives and your audit/compliance posture. For a deeper comparison, see AWS CodePipeline vs GitHub Actions.

AWS DevOps Architecture Overview

A well-designed DevOps pipeline on AWS consists of interconnected services that automate each stage of the software delivery process.

Source Stage

Every pipeline starts with a source trigger. We configure pipelines to respond to:

  • AWS CodeCommit — Fully managed Git repositories within your AWS account, with IAM-based access control and encryption at rest
  • GitHub / GitHub Enterprise — Via CodeStar Connections for secure, OAuth-based integration
  • Bitbucket — Direct integration through CodePipeline source actions

Branch-based triggers ensure that pushes to main deploy to production, pushes to develop deploy to staging, and pull requests trigger build-and-test pipelines without deployment.

Build Stage (AWS CodeBuild)

CodeBuild compiles source code, runs tests, builds container images, and produces deployment artifacts. We configure build environments with:

  • Custom build images — Pre-built Docker images with your language runtime, tools, and dependencies cached for fast builds
  • Build caching — S3-based caching of dependencies (node_modules, .m2, pip cache) to reduce build times by 40-60%
  • Parallel builds — Run unit tests, integration tests, linting, and security scanning concurrently using CodeBuild batch builds
  • Build reports — Test results, code coverage, and static analysis findings published directly in the CodeBuild console

Test Stage

Automated testing is the backbone of deployment confidence. We integrate multiple testing layers:

  • Unit tests — Run as part of the CodeBuild build phase with test result reporting
  • Integration tests — Deployed test suites that validate API contracts, database interactions, and service communication
  • Security scanning — Amazon Inspector for container image vulnerabilities, CodeGuru for code quality, and Trivy or Snyk integration for dependency scanning
  • Performance tests — Load testing with Artillery or k6 as a pipeline stage for performance regression detection

Deploy Stage

Deployment strategies depend on your application architecture and risk tolerance:

  • Rolling deployments — ECS rolling updates that replace tasks gradually with health check validation
  • Blue/green deployments — CodeDeploy shifts traffic from the old task set to the new one after health checks pass, with automatic rollback on failure
  • Canary deployments — Route a small percentage of traffic to the new version, monitor for errors, then gradually increase
  • Lambda traffic shifting — Deploy new function versions with weighted aliases for gradual rollout

CI/CD Pipeline Patterns

Pattern 1: Containerized Application Pipeline

For applications deployed to Amazon ECS or EKS:

GitHub Push → CodePipeline → CodeBuild (build + test + Docker build) → ECR (push image) → CodeDeploy (blue/green to ECS) → CloudWatch (monitor)

This pattern provides:

  • Immutable deployments via Docker images
  • Zero-downtime blue/green deployments
  • Automatic rollback on health check failures
  • Full container image scanning with Amazon Inspector

We used this exact pattern when we modernized a monolithic API into scalable microservices on Amazon ECS — achieving zero-downtime deployments, independent scaling per service, and reduced compute costs with Spot Instances.

Pattern 2: Serverless Application Pipeline

For Lambda-based applications:

GitHub Push → CodePipeline → CodeBuild (SAM build + test) → CloudFormation (deploy via SAM) → Lambda (traffic shifting) → CloudWatch (monitor)

AWS SAM or AWS CDK define the entire serverless infrastructure (Lambda functions, API Gateway, DynamoDB tables, Step Functions) as code. Deployments use CloudFormation changesets with automatic rollback.

Pattern 3: Static Site / Frontend Pipeline

For React, Next.js, or other frontend applications:

GitHub Push → CodePipeline → CodeBuild (npm build + test) → S3 (deploy artifacts) → CloudFront (invalidate cache)

We have helped clients migrate frontends from ECS to AWS Amplify — eliminating persistent compute, reducing costs, and delivering content from the global edge for lower latency and zero single points of failure.

Pattern 4: Multi-Environment Pipeline

For organizations with dev, staging, and production environments:

Feature Branch → Build + Test → Dev Deploy (auto)
Main Branch → Build + Test → Staging Deploy (auto) → Manual Approval → Production Deploy (blue/green)

Each environment runs in its own AWS account for isolation. Cross-account deployments use IAM roles with the principle of least privilege.

Infrastructure as Code

Manual infrastructure provisioning is the antithesis of DevOps. We implement infrastructure-as-code (IaC) so every environment is reproducible, version-controlled, and auditable.

AWS CloudFormation

CloudFormation is AWS’s native IaC service. We use it for:

  • Nested stacks — Modular templates for networking, compute, databases, and monitoring
  • Change sets — Preview infrastructure changes before applying them
  • Stack policies — Protect critical resources from accidental updates or deletion
  • Drift detection — Identify manual changes that deviate from the template

AWS CDK (Cloud Development Kit)

CDK lets you define infrastructure in TypeScript, Python, or other programming languages instead of YAML/JSON. We recommend CDK for teams that want:

  • Type-safe infrastructure — Catch configuration errors at compile time
  • Reusable constructs — Share infrastructure patterns across projects as libraries
  • Higher-level abstractions — CDK constructs like ApplicationLoadBalancedFargateService provision dozens of resources with sensible defaults in a few lines of code
  • Integration with application code — Define infrastructure alongside the application it supports

Terraform

For organizations that are multi-cloud or have existing Terraform investments, we build and maintain Terraform modules for AWS infrastructure with remote state management, workspaces for environment isolation, and Terraform Cloud or Atlantis for collaborative workflows.

Container Orchestration: ECS vs. EKS

Containerized applications need an orchestration platform. AWS offers two options, and the right choice depends on your team and requirements.

Amazon ECS (Elastic Container Service)

ECS is AWS-native, simpler, and deeply integrated with the AWS ecosystem:

  • Launch types — EC2 for full control over hosts, Fargate for serverless containers
  • Service Connect — Built-in service mesh for service-to-service communication
  • Task definitions — JSON-based configuration for container resources, networking, and logging
  • Integration — Native integration with ALB/NLB, CloudWatch, Application Signals (ADOT), Secrets Manager, and CodeDeploy

Best for: Teams standardized on AWS, applications with straightforward orchestration needs, organizations that want simplicity over ecosystem breadth.

Amazon EKS (Elastic Kubernetes Service)

EKS runs managed Kubernetes for organizations that need K8s compatibility:

  • Managed control plane — AWS manages the Kubernetes API server and etcd cluster
  • Node groups — Managed node groups, Fargate profiles, or self-managed nodes
  • Ecosystem — Access to the full Kubernetes ecosystem: Helm charts, Istio, ArgoCD, Prometheus, Grafana
  • Portability — Workloads can move between EKS, GKE, AKS, or on-premises Kubernetes

Best for: Teams with existing Kubernetes expertise, multi-cloud strategies, complex microservice architectures, or specific tooling requirements from the Kubernetes ecosystem.

Monitoring and Observability

A DevOps pipeline is only as good as its monitoring. We implement comprehensive observability so your team can detect, diagnose, and resolve issues before they impact users.

Amazon CloudWatch

  • Custom dashboards — Visualize application and infrastructure metrics in real-time
  • Alarms — Alert on CPU utilization, error rates, latency percentiles, and custom application metrics
  • Logs Insights — Query and analyze log data across all services with a SQL-like query language
  • Container Insights — Cluster-level, service-level, and task-level metrics for ECS and EKS

CloudWatch Application Signals + ADOT

  • Distributed tracing — Instrument with AWS Distro for OpenTelemetry (ADOT); traces land in the X-Ray backend. Do not start net-new work on the X-Ray SDKs (maintenance mode since February 25, 2026).
  • Service map and SLOs — Application Signals auto-discovers services and dependencies, tracks RED metrics and SLOs, and correlates spans when Transaction Search is enabled
  • Service Events — Exception/latency snapshots and deployment events without extra code (Java, Python, JavaScript) once Application Signals is on
  • Trace analysis — Drill from an SLO breach to the offending span; add business attributes via OpenTelemetry resource/span attributes

Centralized Logging

  • CloudWatch Logs with structured JSON logging for machine-parseable log data
  • Log retention policies — Automated lifecycle management to control storage costs
  • Cross-account log aggregation — Centralize logs from all environments into a single observability account
  • Metric filters — Extract custom metrics from log data (error counts, business events) without code changes

Security in the Pipeline

Every pipeline we build follows security best practices:

Secrets Management

  • AWS Secrets Manager for database credentials, API keys, and third-party tokens with automatic rotation
  • Systems Manager Parameter Store for configuration values and non-rotating secrets
  • No secrets in source code — Pipeline stages retrieve secrets at runtime through IAM roles

IAM and Access Control

  • Least-privilege pipeline roles — Each pipeline stage has its own IAM role with only the permissions it needs
  • Cross-account deployment roles — Production deployments use assume-role into the production account with narrowly scoped permissions
  • MFA for approvals — Manual approval stages require MFA confirmation for production deployments

Audit and Compliance

  • CloudTrail — Every API call in the pipeline is logged for auditability
  • CodeBuild build logs — Complete build output stored in CloudWatch Logs and optionally S3
  • Deployment history — CodeDeploy maintains a full history of deployments with rollback capability

For organizations with strict security and compliance requirements, we ensure pipelines meet SOC 2, HIPAA, PCI DSS, and other framework requirements.

Common DevOps Challenges We Solve

Slow Build Times

Builds taking 15-30+ minutes destroy developer productivity. We reduce build times through Docker layer caching, dependency caching in S3, parallel build stages, and optimized build images. Most builds can be reduced to under 5 minutes.

Flaky Deployments

Deployments that sometimes fail for no clear reason erode confidence in the pipeline. We implement deterministic deployments using immutable artifacts (Docker images), health check validation before traffic shifting, and automatic rollback on failure.

Environment Drift

When staging does not match production, bugs slip through testing. We eliminate drift through infrastructure-as-code for all environments, identical deployment processes across environments, and automated drift detection with AWS Config.

Manual Approval Bottlenecks

When every deployment requires manual approval, the pipeline becomes a bottleneck. We implement risk-based approval gates — automated deployments for low-risk changes (config updates, minor patches) and manual approval only for high-risk changes (database migrations, breaking API changes).

Cost Control

DevOps infrastructure costs can grow quickly with always-on build servers and test environments. We implement cost optimization strategies including on-demand build compute (CodeBuild charges only for build minutes), scheduled scaling for non-production environments, and Spot Instances for build and test workloads.

Getting Started

For a deep dive into AWS-native CI/CD, see our CodePipeline CI/CD patterns guide. For infrastructure-as-code comparison, read Terraform vs CDK.

Whether you are building your first CI/CD pipeline, modernizing a legacy deployment process, or scaling your DevOps practices across multiple teams and applications, our certified AWS DevOps engineers are ready to help.

For teams modernizing legacy applications alongside their DevOps pipelines, see our AWS Application Modernization service. For serverless-specific deployment patterns, see AWS Serverless Architecture.

Book a Free DevOps Review →

Key Features

CI/CD Pipeline Setup

Using AWS CodePipeline, CodeBuild, and CodeDeploy for automated, reliable deployments.

Container Support

Amazon ECR, ECS, and EKS for containerized application deployment and orchestration.

Infrastructure Automation

Infrastructure-as-code using CloudFormation or AWS CDK for repeatable, consistent environments.

Secrets Management

Secure secrets management with AWS Secrets Manager for safe credential handling.

Monitoring & Observability

CloudWatch, ADOT (OpenTelemetry), Application Signals SLOs, and AMP/AMG when teams need Grafana-native dashboards without losing AWS-native correlation.

Testing Automation

Integrated testing and quality gates in each deployment stage.

Why Choose FactualMinds?

Faster, Safer Deployments

Production-grade automation that reduces deployment risk and speeds up releases.

Scalable Infrastructure as Code

Repeatable, version-controlled infrastructure that scales with your business.

Certified AWS DevOps Professionals

Expert engineers who build pipelines aligned with AWS best practices.

Compliance Ready

Pipelines built with encryption, audit logging, and role-based access controls.

Industry-Specific Solutions

Verticalized engagements aligned to industry threat models, compliance, and reference architectures.

Step-by-Step Guides

Implementation guides for this service from our team of AWS experts.

The 10 AWS Announcements That Matter for Enterprise Teams (Q2 2026)

Q2 2026 ranked: AgentCore Harness GA (Jun 17), FinOps Agent preview (Jun 9), Graviton5 GA (Jun 10), OpenAI on Bedrock (Apr 28). Adoption matrix + verified TCO signals for CTOs.

Read guide

Amazon ECS Express Mode: Three Inputs, One HTTPS URL, and No Platform Team

AWS shipped ECS Express Mode on November 21, 2025 — three inputs (image + two IAM roles) and Express Mode provisions Fargate, ALB, HTTPS, auto scaling, and a *.ecs.*.on.aws URL. Up to 25 services can share one ALB. No Express Mode surcharge.

Read guide

Amazon EKS Pricing: Control Plane, Extended Support, Auto Mode

EKS control planes are $73/month per cluster. Stay on a Kubernetes version beyond its 14-month standard support and Extended Support bills $0.60/cluster-hour — $438/month per cluster, a 6× multiplier vs standard. EKS Auto Mode adds a ~12% markup over standard EC2 + EBS for managed compute simplicity. The compute side (Karpenter, Spot, Graviton) is where most of the bill lives.

Read guide

Amazon ECR Pricing: When $0.10/GB Becomes the Most Expensive Storage in Your Account

ECR storage is $0.10/GB-month — twice S3 Standard. Cross-region replication doubles or triples that. Enhanced scanning bills $0.09 per image scanned, on every push. Pull-through caches for Docker Hub and ECR Public add storage plus data-transfer-in. A 200-service organization with 10 environments and 3 regions can spend more on ECR than on the EKS clusters pulling from it.

Read guide

How to Build Cost-Aware CI/CD Pipelines on AWS

CI/CD infrastructure is invisible until your DevOps bill hits $15,000/month. Build minutes, artifact storage, and ephemeral environments accumulate costs that few teams track. Here is how to measure and control them.

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How to Debug Production Issues Across Distributed AWS Systems

A 500ms latency spike in a distributed system could be a slow RDS query, a Lambda cold start, a downstream API timeout, or a CloudWatch Logs ingestion delay. Finding the cause requires correlated logs, traces, and metrics — not grep.

Read guide

How to Implement Blue/Green Deployments on ECS with CodeDeploy

ECS blue/green without downtime: CodeDeploy canary/linear still works — and native ECS BLUE_GREEN (2025+) is now a first-class path. July 2026 checklist: hooks, alarms, dual-run cost.

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GitOps on Amazon EKS (2026): Argo CD vs Flux, App-of-Apps, and the Decisions That Actually Bite

AWS Prescriptive Guidance says Argo CD and Flux both handle most GitOps scenarios capably — so picking one is a fit decision, not a winner. The decisions that actually cause incidents are the ones underneath: plaintext secrets in the GitOps repo, CI running kubectl apply and reintroducing drift, no App-of-Apps so onboarding is click-ops, and repo topology you can't change later. Here is the Argo CD vs Flux matrix, an App-of-Apps example, and the five traps independent of tool.

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Observability Beyond CloudWatch (2026): When to Add Application Signals, ADOT, Managed Prometheus, and Grafana — and When Not To

The reflex to bolt Amazon Managed Prometheus + Grafana onto every workload is how observability bills quietly double. CloudWatch Application Signals now gives you an auto-discovered service map, SLOs, and traces with near-zero setup; AMP only earns its keep when you are PromQL-native or drowning in high-cardinality metrics — where ingestion (not retention) is the cost driver. Here is the decision matrix, an ADOT dual-export config, and the three levers that actually cut the AMP bill.

Read guide

From One FIS Experiment to a Resilience Program (2026): AWS Fault Injection Service, Stop Conditions, and GameDays That Actually Change Behavior

Running one AWS FIS experiment in a demo account is not chaos engineering — it is a screenshot. A program ties experiments to SLOs, scopes blast radius with tags, halts on CloudWatch alarm stop conditions, schedules via EventBridge, and closes the loop by re-testing the fix. FIS now ships AZ Power Interruption and cross-Region connectivity scenarios in its Scenario Library. Here is the L0→L3 maturity matrix, a GameDay runbook, and a stop-condition-wired experiment skeleton.

Read guide

AWS CodePipeline: CI/CD Pipeline Patterns for Production

CodePipeline isn't the most loved CI/CD tool — but it's the one that talks to every other AWS service natively. Pipeline architecture, CodeBuild configuration, cross-account deploys, and the patterns that ship code safely without bolting on a third-party runner.

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10 AWS DevOps Practices We Actually Use in Production in 2026

Real AWS DevOps practices from production: GitOps on EKS, OpenTelemetry, supply chain security, chaos engineering with FIS, and AI-assisted DevOps with Amazon Q.

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AWS DevOps & Platform Maturity Model (2026): A 4-Level Scorecard Anchored to Real Services

Generic DevOps maturity models score you on culture slides — this one maps L1–L4 to AWS gates you can verify: IaC in Git, GitOps or gated CD, ADOT on EKS, FIS with stop conditions, and cost-aware CI. A composite 85-engineer SaaS moved from L2 to L3 in one quarter by fixing the CI/GitOps boundary alone, cutting deploy-related incidents from ~6/month to 2.

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SageMaker Production MLOps on AWS (2026): Inference Components, Capacity Pools, and Promotion Gates

On a fraud-scoring team (~450 RPS peak, ml.g5.2xlarge), inference components plus April 2026 capacity-aware instance pools cut endpoint provisioning failures from 6 retries to 0 — p99 held at 68 ms through a g5→g6 fallback event.

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Managed EKS on AWS (2026): Auto Mode vs Self-Managed Karpenter vs Partner MSP

For a product SaaS (~12 production nodes, 3 clusters), EKS Auto Mode cut internal K8s ops from 80 to 35 hours/month at similar compute spend — partner MSP quote was $6,500/mo on top for 24/7 paging alone.

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Terraform vs CloudFormation on AWS (2026): Enterprise IaC Decision Guide

On a 40-account AWS Organization, platform baseline via CloudFormation StackSets (Hooks, GuardDuty enroll) plus app teams on Terraform/OpenTofu cut org-wide guardrail rollout from 9 weeks to 3 — without forcing one tool for everything.

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AWS CDK vs CloudFormation vs AWS Blocks: Enterprise IaC Decision Guide (2026)

On a 120-stack AWS Organization, CloudFormation StackSets for platform baseline plus CDK for app teams cut org-wide guardrail rollout from 6 weeks to 2 — with Application Composer for spikes and Blocks for greenfield TypeScript only at preview.

Read guide

Engineering Guides

Systems fundamentals connected to AWS architecture decisions — from our learning paths library.

Observability Beyond CloudWatch (2026): When to Add Application Signals, ADOT, Managed Prometheus, and Grafana — and When Not To

The reflex to bolt Amazon Managed Prometheus + Grafana onto every workload is how observability bills quietly double. CloudWatch Application Signals now gives you an auto-discovered service map, SLOs, and traces with near-zero setup; AMP only earns its keep when you are PromQL-native or drowning in high-cardinality metrics — where ingestion (not retention) is the cost driver. Here is the decision matrix, an ADOT dual-export config, and the three levers that actually cut the AMP bill.

Read engineering guide

Prometheus Cardinality Explosion on AWS: AMP, EMF, and Cost-Aware Metrics

That `user_id` label on every HTTP metric turns Amazon Managed Prometheus into a five-figure line item. This guide explains cardinality mechanics, EMF vs remote write, and Application Signals defaults worth disabling.

Read engineering guide

Kubernetes Pod Disruption Budgets on EKS: Zero-Downtime Upgrades

Cluster upgrades and Karpenter consolidation look healthy in the console while PDB-blocked evictions freeze your node drain for 45 minutes. This guide wires minAvailable, maxUnavailable, and EKS managed node group semantics.

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Service Mesh Traffic Shifting: VPC Lattice, Istio on EKS, and App Mesh EOL

App Mesh is legacy path—new meshes should start with VPC Lattice for AWS-native east-west or Istio on EKS when you need full L7 policy. Traffic shifting without duplicating load balancers per service.

Read engineering guide

From One FIS Experiment to a Resilience Program (2026): AWS Fault Injection Service, Stop Conditions, and GameDays That Actually Change Behavior

Running one AWS FIS experiment in a demo account is not chaos engineering — it is a screenshot. A program ties experiments to SLOs, scopes blast radius with tags, halts on CloudWatch alarm stop conditions, schedules via EventBridge, and closes the loop by re-testing the fix. FIS now ships AZ Power Interruption and cross-Region connectivity scenarios in its Scenario Library. Here is the L0→L3 maturity matrix, a GameDay runbook, and a stop-condition-wired experiment skeleton.

Read engineering guide

Kafka on MSK: Partition Rebalancing and Exactly-Once Semantics

Consumer group rebalance storms stall processing longer than broker outages. This guide covers cooperative rebalancing, idempotent producers, and transactional reads on Amazon MSK—with when SQS FIFO is simpler.

Read engineering guide

From Our Blog

In-depth guides and best practices from our certified AWS architects.

Delivered in Practice

Real engagements where FactualMinds implemented this service for clients.

Frequently Asked Questions

Should we use AWS CodePipeline or GitHub Actions for CI/CD?
It depends on your workflow and team preferences. AWS CodePipeline integrates deeply with other AWS services (CodeBuild, CodeDeploy, ECS, Lambda) and provides native IAM-based access control, making it ideal for organizations standardized on AWS. GitHub Actions is more flexible for multi-cloud or hybrid workflows and has a larger ecosystem of community-built actions. Many of our clients use GitHub Actions for build and test stages and AWS CodeDeploy for the deployment stage, combining the strengths of both.
How long does it take to set up a CI/CD pipeline?
A basic CI/CD pipeline for a single application can be set up in 1-2 weeks. A comprehensive enterprise pipeline with multiple environments (dev, staging, production), automated testing, approval gates, infrastructure-as-code, container orchestration, and observability typically takes 4-8 weeks. The timeline depends on the number of applications, deployment targets, and compliance requirements.
What is the difference between ECS and EKS?
Amazon ECS is AWS-native container orchestration — simpler to set up and manage, with deep integration into IAM, CloudWatch, and other AWS services. EKS runs managed Kubernetes, offering portability across cloud providers and access to the broader Kubernetes ecosystem of tools. EKS Auto Mode added enhanced logging in February 2026 — it now exports control-plane and node-lifecycle events for the components AWS manages on your behalf, which removes a long-standing observability gap when running fully managed Kubernetes. We recommend ECS for teams that are AWS-focused and want simplicity, and EKS (often with Auto Mode and Karpenter) for teams that need Kubernetes compatibility or are running multi-cloud workloads.
Can you set up CI/CD for serverless applications?
Yes. We build pipelines for serverless applications using AWS SAM (Serverless Application Model) or AWS CDK with CodePipeline. These pipelines automate Lambda function deployments — including SnapStart configuration for Java, Python 3.12+, and .NET 8+ targets where sub-second startup matters — API Gateway configuration, DynamoDB table provisioning, and Step Functions state machine updates, with staged rollouts using Lambda aliases and traffic shifting for safe deployments. New functions default to Node.js 22/24 (Node.js 24 is now available and supported through April 2028) and Python 3.13; we audit existing runtimes against the AL2 end-of-life on June 30, 2026.
How do you handle secrets and sensitive configuration in pipelines?
We use AWS Secrets Manager and AWS Systems Manager Parameter Store for all secrets and sensitive configuration. Secrets are never hardcoded in source code, build scripts, or environment variables. Pipeline stages retrieve secrets at runtime through IAM role-based access, and all access is logged in CloudTrail for auditability.
Do you support blue/green and canary deployments?
Yes. We implement blue/green deployments for ECS services using CodeDeploy, where traffic shifts from the old version to the new version after health checks pass. For canary deployments, we configure weighted target groups that route a small percentage of traffic to the new version before full rollout. For Lambda, we use traffic shifting with aliases to gradually route traffic to new function versions.

Streamline Your AWS DevOps Pipeline

We design and implement CI/CD systems with automated testing, infrastructure as code, security gates, and zero-downtime deployments.