
Self Healing Agents
Design production agents that classify failures, mutate retry strategy, validate outputs, and recover without human intervention.
Install
npx skills add https://github.com/itallstartedwithaidea/agent-skills --skill self-healing-agentsWhat is this skill?
- Detect-diagnose-repair cycle beyond naive retry loops
- Error classification and strategy mutation (retry with a different approach)
- Fallback model selection when primary model or tool path fails
- Output validation with automatic structural repair
- Production-minded patterns from autonomous Google Ads analysis workloads
Adoption & trust: 1 installs on skills.sh; 18 GitHub stars; 3/3 security scanners passed (skills.sh audits); trending (+100% hot-view momentum).
Recommended Skills
Journey fit
Self-healing matters most once agents run against real APIs and models, where failures are expected; operate/errors is the canonical shelf for runtime recovery patterns. errors fits because the skill centers on detect-diagnose-repair for timeouts, schema drift, rate limits, and invalid tool outputs—not greenfield UI or marketing work.
Common Questions / FAQ
Is Self Healing Agents safe to install?
skills.sh reports 3 of 3 security scanners passed. Review the Security Audits panel on this page before installing in production.
SKILL.md
READMESKILL.md - Self Healing Agents
# Self-Healing Agents Part of [Agent Skills™](https://github.com/itallstartedwithaidea/agent-skills) by [googleadsagent.ai™](https://googleadsagent.ai) ## Description Self-Healing Agents are autonomous systems that detect their own failure modes and self-correct without human intervention. In production environments, agent failures are not exceptional — they are expected. Network calls timeout, APIs return unexpected schemas, models hallucinate confidently, and tool outputs violate assumptions. The difference between a prototype and a production agent is the ability to recover gracefully from every category of failure. This skill encodes the self-healing patterns developed for the Buddy™ agent at [googleadsagent.ai™](https://googleadsagent.ai), where autonomous Google Ads analysis must complete reliably even when upstream APIs change, rate limits are hit, or model outputs contain structural errors. The system operates on a detect-diagnose-repair cycle that mirrors biological immune responses: identify the pathogen, classify the threat, and deploy the appropriate countermeasure. Self-healing is not merely retry logic. It encompasses error classification, strategy mutation (retrying with a different approach rather than the same one), fallback model selection, output validation with automatic repair, and graceful degradation when full recovery is impossible. Agents built with these patterns achieve 99%+ task completion rates in production. ## Use When - Building agents that must operate autonomously without human oversight - Tool calls or API integrations are unreliable or subject to rate limits - Model outputs must conform to strict schemas and occasionally don't - Long-running workflows cannot afford to fail mid-execution - You need to maintain SLA commitments for agent-powered features - The agent must handle novel error types it hasn't encountered before ## How It Works ```mermaid graph TD A[Agent Action] --> B[Output Validation] B -->|Valid| C[Continue Execution] B -->|Invalid| D[Error Classifier] D --> E{Error Type} E -->|Transient| F[Retry with Backoff] E -->|Structural| G[Mutate Strategy] E -->|Model Error| H[Fallback Model] E -->|Unrecoverable| I[Graceful Degradation] F --> J{Retry Budget Remaining?} J -->|Yes| A J -->|No| G G --> K[Modified Prompt/Approach] K --> A H --> L[Alternative Model Execution] L --> B I --> M[Partial Result + Error Report] ``` The self-healing cycle activates whenever output validation detects an anomaly. The error classifier categorizes the failure into one of four types: transient errors (network timeouts, rate limits) are retried with exponential backoff; structural errors (schema violations, missing fields) trigger strategy mutation where the agent modifies its approach; model errors (hallucinations, refusals) invoke fallback model selection; and unrecoverable errors trigger graceful degradation that returns the best partial result with a clear error report. ## Implementation **Error Classification Engine:** ```typescript enum ErrorType { Transient = "transient", Structural = "structural", ModelError = "model_error", Unrecoverable = "unrecoverable", } interface ClassifiedError { type: ErrorType; message: string; retryable: boolean; suggestedStrategy: string; } function classifyError(error: unknown, context: ExecutionContext): ClassifiedError { if (error instanceof NetworkError || error instanceof RateLimitError) { return { type: ErrorType.Transient, message: String(error), retryable: true, suggestedStrategy: "exponential_backoff", }; } if (error instanceof SchemaValidationError) { return { type: ErrorType.Structural, message: `Schema violation: ${error.path} — ${error.me