Platform
Datastores
How BootCtrl stores configuration, versions, and operational state reliably, supporting auditability and reproducibility.
Design intent
Use this lens when implementing Datastores across a fleet: define clear boundaries, make change snapshot-based, and keep operational signals observable.
- Authoritative state + immutable history enables audits and rollback
- Stable identifiers make fleet status and timelines joinable
- Optimize hot queries early (fleet status, rollout views)
What it is
Persistence is the durable storage layer for models, snapshots, deployment state, and metadata that the UI and backend rely on.
Data categories (conceptual)
- Configuration state: devices/resources, mappings, environment metadata
- Versioned artifacts: snapshots/releases, change history, approvals
- Operational state: deployments, health signals, incident timelines
Design constraints
- Authoritative state + immutable history enables audits and rollback
- Stable identifiers make fleet status and timelines joinable
- Optimize hot queries early (fleet status, rollout views)
Architecture at a glance
- Define a stable artifact boundary (what you deploy) and a stable signal boundary (what you observe)
- Treat changes as versioned, testable, rollbackable units
- Use health + telemetry gates to scale safely
Typical workflow
- Define scope and success criteria (what should change, what must stay stable)
- Create or update a snapshot, then validate against a canary environment/site
- Deploy progressively with health/telemetry gates and explicit rollback criteria
- Confirm acceptance tests and operational dashboards before expanding
System boundary
Treat Datastores as a repeatable interface between engineering intent (design) and runtime reality (deployments + signals). Keep site-specific details configurable so the same design scales across sites.
Example artifact
Implementation notes (conceptual)
topic: Datastores
plan: define -> snapshot -> canary -> expand
signals: health + telemetry + events tied to version
rollback: select known-good snapshotWhy it matters
- Enables reproducible deployments and rollback
- Supports audit trails and incident timelines
- Provides a stable backbone for multi-tenant SaaS growth
Engineering outcomes
- Authoritative state + immutable history enables audits and rollback
- Stable identifiers make fleet status and timelines joinable
- Optimize hot queries early (fleet status, rollout views)
Quick acceptance checks
- Separate transactional config from large immutable artifacts
- Model audit trails as first-class (who/what/when) not an afterthought
Common failure modes
- Drift between desired and actual running configuration
- Changes without clear rollback criteria
- Insufficient monitoring for acceptance after rollout
Acceptance tests
- Verify the deployed snapshot/version matches intent (no drift)
- Run a canary validation: behavior, health, and telemetry align with expectations
- Verify rollback works and restores known-good behavior
In the platform
- Versioned snapshots and deployment history
- Device/resource registry and configuration state
- Operational metadata used by dashboards and workflows
Failure modes
- Inconsistent writes that create drift between UI and deployed state
- Slow queries on hot paths (e.g., fleet views) as the dataset grows
- Weak audit modeling that can’t answer “who changed what?”
Implementation checklist
- Separate transactional config from large immutable artifacts
- Model audit trails as first-class (who/what/when) not an afterthought
- Optimize hot queries (fleet views, status dashboards) as data grows
- Ensure consistency between UI state and deployed state via reconciliation
Rollout guidance
- Start with a canary site that matches real conditions
- Use health + telemetry gates; stop expansion on regressions
- Keep rollback to a known-good snapshot fast and rehearsed
Acceptance tests
- Verify the deployed snapshot/version matches intent (no drift)
- Run a canary validation: behavior, health, and telemetry align with expectations
- Verify rollback works and restores known-good behavior
Deep dive
Practical next steps
How teams typically apply this in real deployments.
Key takeaways
- Authoritative state + immutable history enables audits and rollback
- Stable identifiers make fleet status and timelines joinable
- Optimize hot queries early (fleet status, rollout views)
Checklist
- Separate transactional config from large immutable artifacts
- Model audit trails as first-class (who/what/when) not an afterthought
- Optimize hot queries (fleet views, status dashboards) as data grows
- Ensure consistency between UI state and deployed state via reconciliation
Next steps
Related topics
Deep dive
Common questions
Quick answers that help during commissioning and operations.
What is the most important persistence invariant?
The system must be able to reconstruct “what is intended” and “what happened” (versions, deployments, timelines) reliably and durably.
What tends to fail as the fleet grows?
Hot-path queries and weak identifiers that prevent correlation. Invest early in stable IDs and query-friendly models.
How do we keep audits trustworthy?
Immutable history for critical actions, clear diffs, and consistent linkage between snapshots, deployments, and telemetry.