The third project takes you into the world of large-scale data, which we saw in Chapter 29. While previous projects built applications (a blog, an API), this one builds a data platform: a system to store, process, and analyze large amounts of information. You will combine Glue, Athena, and Redshift to create a platform capable of extracting value from data. It is a more advanced project that consolidates a highly sought-after specialty: data engineering.
What you build: a platform to analyze data
The goal is to set up a system where you can gather data from different sources, prepare it, and analyze it to draw useful conclusions. Remember Chapter 29: a data platform allows a company to turn its scattered data into valuable information for decision-making.
What you will build: raw data → prepared → analyzed → useful conclusions (a "data lake" + analytics, everything from Chapter 29)
The pieces and how they fit together
The project combines the data services from Chapter 29, each with its role:
S3: the data lake (store everything)
S3 (Chapter 5) is the data lake (subchapter 29.1): the central, cheap, and unlimited storage where you keep all raw data, in any format. It is the heart of the platform: the place where all data "lands."
Glue: catalog and prepare the data
AWS Glue (subchapter 29.1) catalogs the data in the data lake (creates an inventory of what is there and where) and processes/transforms it (cleans and prepares it for analysis). It is the "librarian" that organizes the lake and gets the data ready.
Athena: query the data lake with SQL
Amazon Athena (subchapter 29.1) lets you query the data directly in S3 with SQL, without moving it, in a serverless way. It is for flexible and ad-hoc analysis: you ask questions of your lake data and get answers.
Redshift: the data warehouse (intensive analysis)
Amazon Redshift (subchapter 29.3) is the data warehouse: for complex and recurring analyses on the most important structured data, which it loads from the data lake. This is where business reports are generated that are consulted often and must be answered very quickly.
The complete architecture
This is how the pieces fit together, following the pattern from Chapter 29:
Data sources (sales, logs, etc.)
│ (are dumped)
▼
S3 (DATA LAKE: all raw data)
│
Glue catalogs and prepares the data
│
├──► Athena (flexible SQL queries on the lake)
│
└──► Redshift (DATA WAREHOUSE: complex and recurring analysis)
→ business reports, BI dashboardsData arrives in S3 (the lake); Glue catalogs and prepares it; from there, you can query it flexibly with Athena, or load the most important data into Redshift for intensive and recurring analysis. Remember that the data lake and the data warehouse complement each other (subchapter 29.3): the lake stores everything, the warehouse powers frequent analysis.
Key concepts you consolidate
This project strengthens your mastery of data in AWS, a highly valued specialty:
Book concepts you consolidate: - Data lake with S3 (Chaps. 5, 29.1) - Glue: catalog and ETL (Chap. 29.1) - Athena: serverless queries on S3 (Chap. 29.1) - Redshift: data warehouse (Chap. 29.3) - The difference and complementarity of lake vs warehouse (Chap. 29.3) - Data governance (who accesses what, with Lake Formation, Chap. 29.4) - All with Terraform! (Parts II-V)
💡 Expand if you want: you can enrich the project by adding Kinesis (subchapter 29.2) to ingest real-time data into the data lake, and Lake Formation (subchapter 29.4) to govern who accesses which data. This way you cover the entire Chapter 29.
Real-world example: someone interested in data engineering (a highly sought-after field) wants to consolidate what they learned in Chapter 29 with a real project. They build a platform to analyze sales data: dump sales data (from various sources, in different formats) into a data lake in S3; use Glue to catalog and prepare it; analyze it in an exploratory way with Athena ("which products sell best by region?"); and load the key data into Redshift for the monthly reports that management consults. Everything is deployed with Terraform. By building it, they truly understand how data flows through an analytical platform and the practical difference between a data lake and a data warehouse. They end up with a functional data platform and a strong profile in a highly sought-after area. The theory from Chapter 29 becomes a real skill.
What you should remember
- The data platform project takes you into the world of large-scale data (Chap. 29): a system to store, process, and analyze information and extract value. Build a data lake + analytics.
- Combine the pieces from Chap. 29: S3 (the data lake: all raw data, Chap. 29.1), Glue (catalogs and prepares the data, Chap. 29.1), Athena (flexible SQL queries on S3, serverless, Chap. 29.1) and Redshift (the data warehouse for complex and recurring analysis, Chap. 29.3).
- Architecture: data → S3 (lake) → Glue (catalog/prepare) → Athena (flexible queries) and/or Redshift (intensive analysis). Lake and warehouse complement each other (Chap. 29.3).
- Consolidate a highly sought-after specialty (data engineering); 💡 expand it with Kinesis (real-time, Chap. 29.2) and Lake Formation (governance, Chap. 29.4). All with Terraform.
In the last subchapter of the chapter, we will see the most ambitious project, which ties together many advanced concepts: a multi-account landing zone with Terraform and Control Tower.
Cloud, AWS & Terraform — From Zero to Expert
Chapter 1 · What is cloud computing
- 1.1 The traditional client-server model
- 1.2 Problems the cloud came to solve
- 1.3 On-premise vs cloud vs hybrid
- 1.4 The three service models: IaaS, PaaS, SaaS
- 1.5 The five pillars of cloud (according to NIST)
- 1.6 Real advantages: elasticity, pay-as-you-go, global availability
Chapter 2 · The cloud market and major providers
- 2.1 AWS, Azure and GCP: differences and market share
- 2.2 Why learn AWS first
- 2.3 Concepts that are universal among providers
Chapter 3 · Regions, availability zones and edge
- 3.1 What is an AWS region and how to choose it
- 3.2 Availability Zones: high availability by design
- 3.3 Edge locations and CloudFront
- 3.4 Latency, resilience and data sovereignty
Chapter 4 · Compute: EC2
- 4.1 Instances: types, families and when to choose each
- 4.2 AMIs, key pairs and Security Groups
- 4.3 Instance lifecycle
- 4.4 Elastic IPs and Placement Groups
- 4.5 Savings Plans vs Reserved vs On-Demand vs Spot
Chapter 5 · Storage: S3
- 5.1 Buckets, objects and keys
- 5.2 Storage classes (Standard, IA, Glacier…)
- 5.3 Versioning and object lifecycle
- 5.4 Bucket policies and ACLs
- 5.5 Static website hosting
Chapter 6 · Networking: VPC
- 6.1 What is a VPC and why you need it
- 6.2 Public and private subnets
- 6.3 Internet Gateway and NAT Gateway
- 6.4 Route Tables and Network ACLs
- 6.5 VPC Peering and endpoints
Chapter 7 · Identity and access: IAM
- 7.1 Users, groups, roles and policies
- 7.2 The principle of least privilege
- 7.3 Identity-based vs resource-based policies
- 7.4 MFA and temporary credentials (STS)
- 7.5 IAM security best practices
Chapter 8 · Managed databases
- 8.1 RDS: engines, Multi-AZ and read replicas
- 8.2 Aurora and its advantages over vanilla RDS
- 8.3 DynamoDB: key-value / document model
- 8.4 ElastiCache for in-memory cache
- 8.5 When to use each type of database
Chapter 9 · Why Infrastructure as Code
- 9.1 Problems with manual provisioning
- 9.2 Declarative vs imperative IaC
- 9.3 Terraform vs CloudFormation vs Pulumi vs CDK
- 9.4 The plan → apply → destroy cycle
Chapter 10 · HCL: the Terraform language
- 10.1 Resource, variable, output, locals blocks
- 10.2 Data types: string, number, bool, list, map, object
- 10.3 Expressions, references and built-in functions
- 10.4 Conditionals and loops (count, for_each, for)
Chapter 11 · Providers and state
- 11.1 How the AWS provider works
- 11.2 The terraform.tfstate file and its importance
- 11.3 Local state vs remote state (S3 + DynamoDB)
- 11.4 Essential commands: init, plan, apply, destroy, fmt, validate
Chapter 12 · Your first real infrastructure in Terraform
- 12.1 Create a VPC with subnets from scratch
- 12.2 Launch a public EC2 instance
- 12.3 Associate a Security Group and an Elastic IP
- 12.4 Outputs and references between resources
- 12.5 Team workflow: PR review of plans
Chapter 13 · Load balancing and auto scaling
- 13.1 Application Load Balancer vs Network Load Balancer
- 13.2 Target Groups, listeners and rules
- 13.3 Auto Scaling Groups: policies and metrics
- 13.4 Warm pools and lifecycle hooks
Chapter 14 · Serverless with Lambda
- 14.1 The Lambda execution model
- 14.2 Triggers: API Gateway, S3, DynamoDB Streams, SQS
- 14.3 Dependency management and layers
- 14.4 Cold starts and strategies to reduce them
- 14.5 Limits and anti-patterns
Chapter 15 · Messaging and events
- 15.1 SQS: standard vs FIFO queues, DLQ
- 15.2 SNS: topics, subscriptions, fan-out
- 15.3 EventBridge: event buses and rules
- 15.4 Patterns: pub/sub, decoupling, saga
Chapter 16 · Content delivery and DNS
- 16.1 Route 53: record types and routing policies
- 16.2 CloudFront: distributions, caches and origins
- 16.3 ACM: free SSL/TLS certificates
- 16.4 WAF integrated with CloudFront
Chapter 17 · Containers on AWS
- 17.1 Docker: quick review of key concepts
- 17.2 ECR: private image registry
- 17.3 ECS: task definitions, services, Fargate vs EC2
- 17.4 EKS: when Kubernetes and when not
Chapter 18 · Modules: reuse and composition
- 18.1 Anatomy of a Terraform module
- 18.2 Input variables, outputs and dependencies
- 18.3 Local modules vs Terraform Registry modules
- 18.4 Module versioning with Git tags
- 18.5 Design of generic vs domain-specific modules
Chapter 19 · Workspaces and environment management
- 19.1 Terraform workspaces: use cases and limitations
- 19.2 Directory strategy per environment (dev/stg/prod)
- 19.3 Terragrunt: DRY for environment configurations
- 19.4 Environment variables and .tfvars files
Chapter 20 · Remote backends and locking
- 20.1 Configure S3 + DynamoDB as backend
- 20.2 State locking: avoiding team corruption
- 20.3 State migration between backends
- 20.4 terraform import: bring existing resources into state
Chapter 21 · Infrastructure testing
- 21.1 Terraform validate and fmt in CI
- 21.2 Checkov and tfsec: static security analysis
- 21.3 Terratest: integration tests in Go
- 21.4 Contract testing between modules
Chapter 22 · Terraform in CI/CD
- 22.1 Basic pipeline: lint → plan → apply in GitHub Actions
- 22.2 Atlantis: GitOps for Terraform
- 22.3 Terraform Cloud / HCP Terraform
- 22.4 Drift detection and automatic reconciliation
Chapter 23 · Defense in depth
- 23.1 AWS Organizations and Service Control Policies
- 23.2 AWS Config: continuous compliance
- 23.3 GuardDuty: threat detection
- 23.4 Security Hub: centralized view
- 23.5 KMS: key management and rotation
- 23.6 Secrets Manager vs Parameter Store
Chapter 24 · Observability: logs, metrics and traces
- 24.1 CloudWatch Logs, metrics and alarms
- 24.2 CloudWatch Dashboards and Contributor Insights
- 24.3 X-Ray: distributed tracing
- 24.4 OpenTelemetry on AWS
- 24.5 Managed Grafana and Managed Prometheus
Chapter 25 · Cost optimization
- 25.1 AWS Cost Explorer and budgets with alerts
- 25.2 Trusted Advisor and Compute Optimizer
- 25.3 Rightsizing: how to detect overprovisioning
- 25.4 Savings Plans vs Reserved Instances: strategic decision
- 25.5 FinOps: culture and processes to control spending
Chapter 26 · High availability and disaster recovery
- 26.1 RTO and RPO: defining objectives
- 26.2 Strategies: backup/restore, pilot light, warm standby, multi-site
- 26.3 Route 53 health checks and automatic failover
- 26.4 AWS Backup: centralized backup policy
Chapter 27 · AWS Well-Architected Framework
- 27.1 The six pillars: operational excellence, security, reliability, performance efficiency, cost optimization, sustainability
- 27.2 Well-Architected Tool: formal reviews
- 27.3 How to apply the framework in design decisions
Chapter 28 · Serverless architectures at scale
- 28.1 Event-driven architecture with Lambda + EventBridge
- 28.2 Saga pattern for distributed transactions
- 28.3 Step Functions: orchestration of complex workflows
- 28.4 Lambda@Edge and CloudFront Functions
Chapter 29 · Data platforms on AWS
- 29.1 Data Lake with S3, Glue and Athena
- 29.2 Kinesis Data Streams and Firehose for streaming
- 29.3 Redshift: data warehousing at scale
- 29.4 Lake Formation: data governance
Chapter 30 · Multi-account and landing zones
- 30.1 Why separate workloads into different accounts
- 30.2 AWS Control Tower and Account Factory
- 30.3 Centralized log and security management
- 30.4 Terraform at multi-account scale with shared modules
Chapter 31 · Platform Engineering and Internal Developer Platform
- 31.1 Golden paths and abstractions over Terraform
- 31.2 AWS Service Catalog
- 31.3 Backstage as a developer portal
- 31.4 Terraform modules as internal product
Chapter 32 · Relevant AWS certifications
- 32.1 Cloud Practitioner: is it worth it?
- 32.2 Solutions Architect Associate → Professional
- 32.3 DevOps Engineer Professional
- 32.4 Specialty: Security, Database, Networking
- 32.5 HashiCorp Terraform Associate
Chapter 33 · Projects to consolidate what you've learned
- 33.1 Project 1: serverless blog (S3 + CloudFront + Lambda + DynamoDB)
- 33.2 Project 2: REST API with ECS Fargate + RDS + ALB
- 33.3 Project 3: data platform with Glue + Athena + Redshift
- 33.4 Project 4: multi-account landing zone with Terraform and Control Tower
