This curriculum spans the technical decision-making and implementation practices found in multi-workshop architecture advisory programs and internal engineering capability builds across distributed systems, data governance, security integration, and operational resilience.
Module 1: Architecture Design and System Modularity
- Selecting between monolithic and microservices architectures based on team size, deployment frequency, and domain complexity.
- Defining bounded contexts in domain-driven design to align service boundaries with business capabilities.
- Implementing API gateways to manage routing, authentication, and rate limiting across distributed services.
- Choosing synchronous (REST, gRPC) versus asynchronous (message queues) communication patterns for inter-service interaction.
- Evaluating the trade-offs of shared libraries versus duplicated code across services for common functionality.
- Enforcing architectural consistency using architecture decision records (ADRs) and automated conformance checks in CI pipelines.
Module 2: Development Practices and Code Quality
- Configuring static analysis tools (e.g., SonarQube, ESLint) with organization-specific rules and severity thresholds.
- Implementing peer review standards, including mandatory checklist items and minimum reviewer counts per pull request.
- Integrating automated code formatting (e.g., Prettier, Black) into pre-commit hooks to eliminate style debates.
- Managing technical debt through quantified tracking and inclusion in sprint planning cycles.
- Establishing branch strategies (e.g., trunk-based development vs. GitFlow) based on release cadence and team coordination needs.
- Enforcing test coverage thresholds as part of merge-blocking CI gates without incentivizing low-value test inflation.
Module 3: Data Management and Persistence Strategy
- Selecting relational, document, or columnar databases based on query patterns, consistency requirements, and scalability needs.
- Designing schema evolution strategies for backward and forward compatibility in production systems.
- Implementing connection pooling and query optimization to prevent database bottlenecks under load.
- Managing data retention and archival policies in compliance with regulatory requirements and storage costs.
- Choosing between application-level and database-level encryption for sensitive fields.
- Coordinating distributed transactions using sagas when two-phase commit is not feasible across services.
Module 4: Security and Compliance Integration
- Integrating secret management (e.g., HashiCorp Vault, AWS Secrets Manager) into deployment workflows.
- Enforcing role-based access control (RBAC) at both API and data layers with least-privilege principles.
- Conducting threat modeling during design phases using STRIDE or similar frameworks for high-risk features.
- Embedding security scanning tools (SAST, DAST) into CI/CD pipelines with defined response protocols for findings.
- Documenting data flows and processing activities to support GDPR, CCPA, or HIPAA compliance audits.
- Managing third-party library risks through SBOM generation and vulnerability monitoring with automated alerts.
Module 5: CI/CD and Deployment Automation
- Designing immutable deployment artifacts to ensure environment parity and reproducible builds.
- Implementing blue-green or canary deployments with health checks and automated rollback triggers.
- Managing infrastructure as code (IaC) using Terraform or CloudFormation with state locking and peer review.
- Orchestrating multi-environment promotion with manual approval gates for production releases.
- Versioning APIs and managing backward compatibility during concurrent deployment windows.
- Isolating staging environments with production-like data while masking personally identifiable information (PII).
Module 6: Observability and Runtime Governance
- Instrumenting applications with structured logging, metrics, and distributed tracing using OpenTelemetry.
- Defining service-level objectives (SLOs) and error budgets to guide incident response and feature pacing.
- Configuring alerting rules to minimize noise while ensuring critical system degradation is detected.
- Correlating logs and traces across service boundaries using shared context identifiers (e.g., trace IDs).
- Managing log retention periods based on operational needs, cost, and compliance requirements.
- Conducting post-incident reviews with blameless analysis and tracking remediation actions to closure.
Module 7: Scalability and Performance Engineering
- Designing stateless services to enable horizontal scaling behind load balancers.
- Implementing caching strategies (e.g., Redis, CDN) with appropriate TTLs and cache-invalidation mechanisms.
- Conducting load testing using production-like scenarios to identify bottlenecks before peak traffic events.
- Optimizing database indexing and query plans based on actual execution patterns.
- Evaluating the cost-performance trade-offs of vertical versus horizontal scaling for specific workloads.
- Using feature flags to gradually enable resource-intensive functionality and monitor system impact.
Module 8: Dependency and Third-Party Service Management
- Establishing service-level agreements (SLAs) and fallback strategies for critical third-party APIs.
- Monitoring external service health and latency through synthetic transaction checks.
- Managing API version dependencies and deprecation timelines in vendor integration points.
- Isolating third-party integrations behind anti-corruption layers to reduce coupling.
- Conducting vendor risk assessments for data residency, uptime history, and support responsiveness.
- Implementing circuit breakers and retry logic with exponential backoff for resilient external calls.