Foundational platform engineering knowledge from key references -- Continuous Delivery, SRE, Accelerate, Team Topologies, Chaos Engineering, and Secure Delivery. Load when contextual grounding in platform engineering theory is needed.
Scanned 9/5/2026
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---
name: nw-platform-engineering-foundations
description: Foundational platform engineering knowledge from key references -- Continuous Delivery, SRE, Accelerate, Team Topologies, Chaos Engineering, and Secure Delivery. Load when contextual grounding in platform engineering theory is needed.
user-invocable: false
disable-model-invocation: true
---
# Platform Engineering Foundations
## Continuous Delivery (Humble and Farley)
Key principles: Build quality in | Work in small batches | Automate almost everything | Pursue continuous improvement | Everyone is responsible (shared ownership).
Pipeline progression: Commit -> Acceptance -> Capacity -> Production stages. For detailed stage definitions and quality gates, see `cicd-and-deployment` skill.
## Site Reliability Engineering (Google -- Beyer et al.)
Key principles: SLOs over SLAs (internal targets stricter than external) | Error budgets (balance reliability and velocity) | Toil elimination (automate repetitive manual work) | Embrace risk (calculate risk, do not eliminate it).
Observability: Four Golden Signals (latency, traffic, errors, saturation) | SLI -> SLO -> Error Budget -> Alerting chain | Dashboards for investigation, not monitoring.
## Accelerate (Forsgren, Humble, Kim)
### DORA Metrics
- **Deployment frequency**: how often code deploys to production
- **Lead time for changes**: time from commit to production
- **Change failure rate**: % of deployments causing failure
- **Time to restore**: time to recover from production failure
### Performance Levels
| Metric | Elite | High |
|--------|-------|------|
| Deployment frequency | Multiple times/day | Daily to weekly |
| Lead time | < 1 hour | 1 day to 1 week |
| Change failure rate | 0-15% | 16-30% |
| Time to restore | < 1 hour | < 1 day |
Use DORA metrics as baselines when assessing current state and setting improvement targets.
## Team Topologies (Skelton and Pais)
### Team Types
- **Stream-aligned**: delivers value to customer, owns full lifecycle
- **Platform**: provides self-service capabilities, reduces cognitive load
- **Enabling**: helps teams adopt new practices, temporary engagement
- **Complicated subsystem**: owns complex technical domain
### Platform Principles
Platform as a product (internal developer platform) | Self-service with guardrails | Reduce cognitive load on stream-aligned teams | Thinnest viable platform.
Use when designing platform team structures and determining which capabilities to centralize vs delegate.
## Chaos Engineering (Rosenthal et al.)
Principles: Build hypothesis about steady state | Vary real-world events | Run experiments in production | Automate experiments continuously.
Practices: GameDays (scheduled chaos experiments) | Fault injection (network latency, failures) | Chaos monkey (random instance termination).
## Secure Delivery (Building Secure and Reliable Systems)
Principles: Least privilege (minimal permissions) | Defense in depth (multiple security layers) | Zero trust (verify explicitly, assume breach).
Pipeline security: SAST in CI | DAST pre-production | SCA for dependency vulnerabilities | Secrets scanning | SBOM for supply chain transparency.
## GitOps (GitOps and Kubernetes)
Principles: Declarative desired state in Git | Automated reconciliation | Drift detection and correction | Pull-based deployments.
Tools: ArgoCD (Kubernetes-native GitOps CD) | Flux (GitOps toolkit for Kubernetes).
Patterns: App of Apps for multi-environment management | Helm with GitOps for parameterization | Kustomize overlays for environment differences.
## Constraint Impact Analysis Template
Use when assessing platform constraints before designing infrastructure.
```markdown
## Platform Constraint Impact Analysis
| Constraint | Source | % Delivery Affected | Priority |
|------------|--------|---------------------|----------|
| {constraint} | {architecture/ops/security} | {X}% | {HIGH/MEDIUM/LOW} |
### Constraint-Free Baseline
- Maximum theoretical deployment frequency: ___
- Components that can proceed without constraints: ___ ({X}%)
- Quick wins available now: ___
### Decision Rules
- Constraint affects > 50% of delivery: address as primary focus
- Constraint affects < 50% of delivery: address as secondary
- Constraint affects < 20% of delivery: consider deferring
### Recommendation
Primary focus should be: {constraint-free opportunities or primary constraint}
```
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