Prompt
Specify a webhook-driven task for OpenClaw
Describe event inputs, validation, deduplication, and intended actions before integration work.
OpenClawDevelopment & Engineering
Dave AI
Rust Async Patterns
Master Rust async programming with Tokio, async traits, error handling, and concurrent patterns. Use when building async Rust applications, implementing concurrent systems, or debugging async code.
instructions.md
--- name: rust-async-patterns-6c812f759203 description: "Master Rust async programming with Tokio, async traits, error handling, and concurrent patterns. Use when building async Rust applications, implementing concurrent systems, or debugging async code." risk: unknown source: community date_added: "2026-02-27" --- # Rust Async Patterns Production patterns for async Rust programming with Tokio runtime, including tasks, channels, streams, and error handling. ## Use this skill when - Building async Rust applications - Implementing concurrent network services - Using Tokio for async I/O - Handling async errors properly - Debugging async code issues - Optimizing async performance ## Do not use this skill when - The task is unrelated to rust async patterns - You need a different domain or tool outside this scope ## Instructions - Clarify goals, constraints, and required inputs. - Apply relevant best practices and validate outcomes. - Provide actionable steps and verification. - If detailed examples are required, open `resources/implementation-playbook.md`. ## Resources - `resources/implementation-playbook.md` for detailed patterns and examples. --- <!-- AGI-INTEGRATION-START --> ## AGI Framework Integration > **Adapted for [@techwavedev/agi-agent-kit](https://www.npmjs.com/package/@techwavedev/agi-agent-kit)** > Original source: [antigravity-awesome-skills](https://github.com/sickn33/antigravity-awesome-skills) ### Memory-First Protocol Retrieve prior Architecture Decision Records (ADRs), trade-off analyses, and system design rationale. Critical for maintaining consistency across long-running projects. ```bash # Check for prior architecture/design context before starting python3 execution/memory_manager.py auto --query "architecture decisions and trade-off analysis for Rust Async Patterns" ``` ### Storing Results After completing work, store architecture/design decisions for future sessions: ```bash python3 execution/memory_manager.py store \ --content "Architecture: event-driven microservices with CQRS, Pulsar for messaging, Qdrant for semantic search" \ --type decision --project <project> \ --tags rust-async-patterns architecture ``` ### Multi-Agent Collaboration Broadcast architecture decisions to ALL agents so implementation stays aligned with the chosen patterns. ```bash python3 execution/cross_agent_context.py store \ --agent "<your-agent>" \ --action "Completed architecture review — ADR documented, trade-offs analyzed, team aligned" \ --project <project> ``` ### Control Tower Coordination Register architecture tasks in the Control Tower so all agents across machines know the current system design and constraints. <!-- AGI-INTEGRATION-END -->--- name: rust-async-patterns-6c812f759203 description: "Master Rust async programming with Tokio, async traits, error handling, and concurrent patterns. Use when building async Rust applications, implementing concurrent systems, or debugging async code." risk: unknown source: community date_added: "2026-02-27" --- # Rust Async Patterns Production patterns for async Rust programming with Tokio runtime, including tasks, channels, streams, and error handling. ## Use this skill when - Building async Rust applications - Implementing concurrent network services - Using Tokio for async I/O - Handling async errors properly - Debugging async code issues - Optimizing async performance ## Do not use this skill when - The task is unrelated to rust async patterns - You need a different domain or tool outside this scope ## Instructions - Clarify goals, constraints, and required inputs. - Apply relevant best practices and validate outcomes. - Provide actionable steps and verification. - If detailed examples are required, open `resources/implementation-playbook.md`. ## Resources - `resources/implementation-playbook.md` for detailed patterns and examples. --- <!-- AGI-INTEGRATION-START --> ## AGI Framework Integration > **Adapted for [@techwavedev/agi-agent-kit](https://www.npmjs.com/package/@techwavedev/agi-agent-kit)** > Original source: [antigravity-awesome-skills](https://github.com/sickn33/antigravity-awesome-skills) ### Memory-First Protocol Retrieve prior Architecture Decision Records (ADRs), trade-off analyses, and system design rationale. Critical for maintaining consistency across long-running projects. ```bash # Check for prior architecture/design context before starting python3 execution/memory_manager.py auto --query "architecture decisions and trade-off analysis for Rust Async Patterns" ``` ### Storing Results After completing work, store architecture/design decisions for future sessions: ```bash python3 execution/memory_manager.py store \ --content "Architecture: event-driven microservices with CQRS, Pulsar for messaging, Qdrant for semantic search" \ --type decision --project <project> \ --tags rust-async-patterns architecture ``` ### Multi-Agent Collaboration Broadcast architecture decisions to ALL agents so implementation stays aligned with the chosen patterns. ```bash python3 execution/cross_agent_context.py store \ --agent "<your-agent>" \ --action "Completed architecture review — ADR documented, trade-offs analyzed, team aligned" \ --project <project> ``` ### Control Tower Coordination Register architecture tasks in the Control Tower so all agents across machines know the current system design and constraints. <!-- AGI-INTEGRATION-END -->
Platform guidance
Imported from the listed AgentSkill.sh category. Complete supplied package files and notices are retained. Required external tools and credentials are not installed. No bundled code was executed during import. Individual agent task behavior has not been tested.