This curriculum spans the technical and operational scope of a multi-quarter platform modernization initiative, covering the same depth of architectural decision-making, tool integration, and cross-team coordination seen in large-scale internal developer platform rollouts.
Module 1: Modern Application Architectures and Design Patterns
- Selecting between monolithic, microservices, and serverless architectures based on team size, deployment frequency, and domain complexity.
- Implementing service boundaries using domain-driven design (DDD) to minimize coupling in distributed systems.
- Deciding when to adopt event-driven communication over request-response patterns in inter-service communication.
- Designing for graceful degradation and circuit breaking in high-latency downstream service scenarios.
- Managing schema evolution in shared message contracts across independently deployed services.
- Integrating legacy systems using anti-corruption layers without introducing performance bottlenecks.
Module 2: Infrastructure as Code and Cloud-Native Deployment
- Choosing between Terraform and cloud-native tools (e.g., AWS CloudFormation, Azure Bicep) for multi-cloud consistency vs. feature parity.
- Structuring IaC modules to support environment parity while isolating secrets and region-specific configurations.
- Implementing blue-green deployments with automated traffic shifting and rollback triggers in Kubernetes environments.
- Managing state file locking and collaboration in shared Terraform configurations across multiple teams.
- Enforcing cloud security baselines through policy-as-code tools like Open Policy Agent or HashiCorp Sentinel.
- Optimizing container image build pipelines to reduce attack surface and improve pull times in CI/CD.
Module 3: Continuous Integration and Delivery at Scale
- Designing parallelized test stages to reduce feedback loop duration in large monorepos.
- Implementing canary analysis using metrics (latency, error rates) to gate production promotions.
- Managing dependency versioning across shared libraries in a multi-repo environment with semantic release.
- Securing CI/CD pipelines against credential leakage through ephemeral tokens and scoped permissions.
- Integrating static analysis and SAST tools without introducing false positives that erode developer trust.
- Orchestrating cross-environment configuration drift detection using GitOps principles and reconciliation loops.
Module 4: Observability and Runtime Intelligence
- Instrumenting distributed systems with correlated trace IDs across service boundaries for root cause analysis.
- Configuring log sampling strategies to balance cost and diagnostic completeness in high-volume systems.
- Defining service-level objectives (SLOs) and error budgets that align with business availability requirements.
- Integrating business metrics (e.g., transaction completion rate) into observability dashboards for operational context.
- Selecting between open-source (e.g., Prometheus, OpenTelemetry) and vendor-managed telemetry backends.
- Managing retention policies for logs, metrics, and traces under data sovereignty and compliance constraints.
Module 5: Security and Compliance in Development Workflows
- Embedding security scanning (SCA, SAST, DAST) into pull request pipelines without blocking legitimate changes.
- Implementing just-in-time access controls for production environments using identity brokers.
- Managing secrets rotation in containers using external secret managers (e.g., HashiCorp Vault, AWS Secrets Manager).
- Enforcing regulatory compliance (e.g., GDPR, HIPAA) through automated policy checks in CI/CD gates.
- Auditing developer actions across infrastructure and code repositories for forensic readiness.
- Hardening container runtimes with minimal base images and non-root execution policies.
Module 6: Data Management in Distributed Systems
- Choosing between synchronous database transactions and eventual consistency based on user experience tolerance.
- Implementing change data capture (CDC) to propagate data updates across services without tight coupling.
- Partitioning databases by tenant or region to meet data residency requirements in global deployments.
- Migrating schema in production databases with zero-downtime using dual-write and verification patterns.
- Securing access to data stores using attribute-based access control (ABAC) instead of role-based models.
- Designing offline-first capabilities in client applications using local data synchronization strategies.
Module 7: Platform Engineering and Internal Developer Platforms
- Defining self-service interfaces for common provisioning tasks (e.g., databases, queues) using UI or CLI.
- Measuring platform adoption through developer onboarding time and ticket reduction metrics.
- Integrating third-party tools (e.g., monitoring, logging) into a unified developer console.
- Managing API gateway configurations and rate limiting policies across multiple teams.
- Standardizing application scaffolding templates that include security and observability defaults.
- Balancing platform standardization with team autonomy in technology selection for specialized workloads.
Module 8: Evolutionary Practices and Technical Debt Management
- Tracking technical debt using issue tagging and backlog prioritization in sprint planning.
- Refactoring legacy components incrementally using the strangler pattern without disrupting business flows.
- Allocating time for maintenance work in product roadmaps without diluting feature delivery commitments.
- Measuring code health using metrics like cyclomatic complexity and test coverage trends over time.
- Conducting architecture decision record (ADR) reviews to ensure alignment and traceability of key choices.
- Establishing cross-functional guilds to share knowledge on emerging tools and patterns across engineering teams.