01 · INTENT
Is this really a new action?
Bind a stable intent identity so exact replays are recognised and materially changed requests cannot silently reuse an earlier action.
AI WORKFLOW RELIABILITY
AI-assisted workflows face retries, stale state, duplicate events, partial execution and downstream uncertainty. SHANX tests whether those failure paths stay controlled, observable and recoverable.
THE RELIABILITY PATH
AI Workflow Reliability examines the operational path around one consequential workflow. It does not replace SRE, platform engineering, observability, ERP, CRM, WMS, MES or accountable business operations. It adds bounded evidence around retry, execution and outcome behaviour where AI-assisted decisions can create real effects.
01 · INTENT
Bind a stable intent identity so exact replays are recognised and materially changed requests cannot silently reuse an earlier action.
02 · STATE
Keep stale state and contradictory source evidence visible rather than allowing retries to promote old assumptions.
03 · QUEUE
Use durable queue state and lease ownership so two workers do not both believe they are entitled to complete the same action.
04 · RETRY
Apply explicit retry budgets and dead-letter behaviour so crash loops do not create infinite or invisible execution attempts.
05 · EXECUTION
Separate decision acceptance from execution records so a queued or approved action is not mistaken for completed work.
06 · OUTCOME
Observe the downstream result independently so success is evidenced rather than inferred from the workflow's own internal state.
SYNTHETIC EXAMPLE
Imagine an AI-assisted workflow submits a customer credit and the downstream API times out. The workflow cannot safely assume failure and simply retry, because the first request may have completed after the timeout. Reliability requires a stable action identity, replay-safe execution, durable queue state and an independent way to determine the actual downstream outcome before another consequential attempt is allowed.
WHAT SHANX HAS ACTUALLY PROVEN
The current SHANX reference and managed-staging work supports bounded synthetic and approved read-only validation of several reliability controls. It is deliberately not presented as proof of unrestricted production-scale reliability or SLA readiness.
| Capability | Status | Evidence boundary |
|---|---|---|
| Intent idempotency and replay conflict handling | PROVEN | Exact replay returns the same decision identity while changed intent conflicts rather than silently reusing the earlier action. |
| Durable queue and lease-token ownership | PROVEN | Managed and reference paths validated per-claim lease ownership and stale-worker rejection. |
| Retry budget and dead-letter behaviour | PROVEN | Crash loops and poison messages were driven to bounded retry exhaustion and dead-letter state instead of infinite retry. |
| Managed 1,000-message claim and ACK path | PROVEN | A rolled-back managed staging probe claimed and ACKed 1,000 of 1,000 queued synthetic messages with zero stranded test messages afterward. |
| Fail-closed connector timeout and network fault handling | PROVEN | DNS failure, missing credential and repaired 500ms timeout path returned failure without accepted evidence receipts. |
| Tamper-evident audit and separated outcome verification | PROVEN | Reference evidence validates audit-chain integrity, corruption detection and downstream outcome observation separate from execution. |
| Distributed multi-service failure handling and production HA | NOT YET PROVEN | No current claim is made for multi-region, multi-service failover, production HA or platform-wide disaster recovery. |
| Production API load, 24×7 SLA and million-user scale | NOT YET PROVEN | Local and managed synthetic probes are not presented as production capacity or SLA evidence. |
For the wider assurance layer, see Enterprise AI Assurance. For the decision path, see AI Decision Assurance. For source evidence, see AI Evidence Integrity. For autonomous action boundaries, see Agentic AI Assurance.
BOUNDED RELIABILITY REVIEW
A first validation should be narrow enough to reconstruct completely: one workflow, one accountable owner, one approved evidence boundary, one execution path and explicit acceptance criteria for retry, replay, failure and outcome.
Typical first boundary: synthetic or explicitly approved read-only evidence, no production credentials by default, no live production writes, and no claim beyond what the resulting evidence establishes.
FAQ
It is the discipline of ensuring that AI-assisted operational workflows behave predictably under retry, replay, stale state, worker failure, partial execution and downstream uncertainty.
Because timeouts and retries can cause the same consequential intent to be delivered more than once. Idempotency helps distinguish a safe replay from a genuinely new or materially changed action.
A lease defines temporary ownership of work. Without ownership checks, two workers can race and both act on the same queue item.
It is a bounded failure state for work that repeatedly cannot complete. It prevents invisible infinite retry and creates an explicit place for investigation or controlled recovery.
No. Current evidence supports bounded reference and managed-staging reliability controls. Production HA, disaster recovery, external penetration testing, production API load and 24×7 SLA remain separate gates.
BRING ONE FAILURE PATH
If an AI-assisted workflow could create a material customer, operational or financial consequence when it retries or partly fails, send us one bounded failure path. We will tell you what is already proven, what remains unproven, and what a useful validation would need to establish.