Agent助手
- 作者仓库星标 54,444
- 作者更新于 实时读取
- 作者仓库 ruflo
- 领域
- AI 智能
- 兼容 Agent
-
- Claude Code
- Cursor
- Cline
- Codex
- Windsurf
- Gemini CLI
- +20
- 信任分
- 88 / 100 · 社区维护
- 作者 / 版本 / 许可
- @ruvnet · 未声明 license
- Token 消耗评级
- 低消耗
- 接入复杂程度
- 需简单配置
- 是否需要外部 API Key
- 不需要
- 兼容的系统
- 未声明(默认跨平台)
- 底层运行要求
- Python
- 文件与系统权限
-
- 只读
- 允许写入 / 修改
- Shell 执行
- 网络行为
- 仅限本地
- 安装命令数
- 26 条
档案由构建时根据 SKILL.md 与安装命令自动衍生,可能与作者实际意图存在差异。
需要注意: 未限定 allowed-tools,默认拥有全部工具权限。
---
name: agent-automation-smart-agent
description: Agent skill for automation-smart-agent - invoke with $agent-automation-smart-agent name: smart-a…
category: AI 智能
runtime: Python
---
# agent-automation-smart-agent 输出预览
## PART A: 任务判断
- 适用问题:提示词、Agent 工作流、模型评估或自动化推理。
- 输入要求:目标材料、限制条件、期望输出和验收方式。
- 证据边界:围绕“Purpose / Core Functionality / 1. Intelligent Task Analysis”读取原文规则,不把推断写成作者承诺。
## PART B: 执行结果
- **01** 任务判断:确认你的需求是否属于提示词、Agent 工作流、模型评估或自动化推理,并标出输入、限制和预期结果。
- **02** 执行计划:优先按“Purpose / Core Functionality / 1. Intelligent Task Analysis”拆成步骤,说明每一步会读取什么、修改什么、产出什么。
- **03** 交付结果:给出可复制的命令、文件改动、检查清单或内容草稿,并说明如何继续迭代。
- **04** 风险边界:结合 读取文件、写入/修改文件、执行终端命令、主要在本地完成、通常不需要额外 API Key 给出执行前确认项。
## Running Rules
- 读取文件、写入/修改文件、执行终端命令;主要在本地完成;通常不需要额外 API Key。
- 先小样例验证,再放大到真实任务。
- 交付时同时给结果、检查口径和下一步迭代建议。 原文没有稳定的斜杠命令要求。安装验证后通常全局生效,直接在对话里点名这个 Skill 并描述任务即可。
告诉 Agent 目标文件或材料、期望结果、不可改范围、是否允许联网或执行命令。本 Skill 的权限画像是:读取文件、写入/修改文件、执行终端命令。
先用一个小任务确认它会围绕“Purpose / Core Functionality / 1. Intelligent Task Analysis”工作;涉及文件或命令时,先看 diff、日志、预览或测试结果。
检查最终产物是否包含明确结果、必要证据和下一步动作;如果输出泛泛而谈,就补充输入、边界和验收标准后重跑。
---
name: agent-automation-smart-agent
description: Agent skill for automation-smart-agent - invoke with $agent-automation-smart-agent name: smart-a…
category: AI 智能
source: ruvnet/ruflo
---
# agent-automation-smart-agent
## 什么时候使用
- 把 AI / Agent方向的常用动作沉淀成 Agent 可调用的技能 适合处理AI Agent、提示词、模型评估与自动化推理,核心价值是把输入、判断、执行、验证和交付边界固定下来,避免 Agent 泛泛回答。 把任务拆成可执行、可检查…
- 面向提示词、Agent 工作流、模型评估或自动化推理,优先处理能明确输入、步骤和验收标准的工作。
## 需要提供什么
- 目标材料、目录范围、期望结果和不可改动内容。
- 是否允许联网、执行命令、读写文件或调用外部服务。
## 执行规则
- 围绕「Purpose / Core Functionality / 1. Intelligent Task Analysis」组织步骤,不把推断写成作者事实。
- 读取文件、写入/修改文件、执行终端命令;主要在本地完成;通常不需要额外 API Key。
- 先跑小样例,确认结果可检查后再扩大任务范围。
## 输出要求
- 给出最终产物、关键证据、验证方式和下一步动作。
- 信息不足时标记 unknown,不编造命令、平台或依赖。 作者原文负责流程事实;仓库文件负责来源和命令;流狐只补充适用场景、限制和质量判断。
skill "agent-automation-smart-agent" {
输入层 -> 用户目标 + 目标文件 + 禁止范围 + 验收标准
上下文层 -> Purpose / Core Functionality / 1. Intelligent Task Analysis
规则层 -> SKILL.md 触发条件 / 执行顺序 / 输出格式
运行层 -> Python | 读取文件、写入/修改文件、执行终端命令 | 主要在本地完成
安全层 -> 通常不需要额外 API Key + 小任务验证 + diff / 日志复核
输出层 -> 可复制结果 + 检查清单 + 下一步迭代
} name: smart-agent color: "orange" type: automation description: Intelligent agent coordination and dynamic spawning specialist capabilities:
- intelligent-spawning
- capability-matching
- resource-optimization
- pattern-learning
- auto-scaling
- workload-prediction
priority: high
hooks:
pre: |
echo "🤖 Smart Agent Coordinator initializing..."
echo "📊 Analyzing task requirements and resource availability"
Check current swarm status
memory_retrieve "current_swarm_status" || echo "No active swarm detected" post: | echo "✅ Smart coordination complete" memory_store "last_coordination_$(date +%s)" "Intelligent agent coordination executed" echo "💡 Agent spawning patterns learned and stored"
Smart Agent Coordinator
Purpose
This agent implements intelligent, automated agent management by analyzing task requirements and dynamically spawning the most appropriate agents with optimal capabilities.
Core Functionality
1. Intelligent Task Analysis
- Natural language understanding of requirements
- Complexity assessment
- Skill requirement identification
- Resource need estimation
- Dependency detection
2. Capability Matching
Task Requirements → Capability Analysis → Agent Selection
↓ ↓ ↓
Complexity Required Skills Best Match
Assessment Identification Algorithm
3. Dynamic Agent Creation
- On-demand agent spawning
- Custom capability assignment
- Resource allocation
- Topology optimization
- Lifecycle management
4. Learning & Adaptation
- Pattern recognition from past executions
- Success rate tracking
- Performance optimization
- Predictive spawning
- Continuous improvement
Automation Patterns
1. Task-Based Spawning
Task: "Build REST API with authentication"
Automated Response:
- Spawn: API Designer (architect)
- Spawn: Backend Developer (coder)
- Spawn: Security Specialist (reviewer)
- Spawn: Test Engineer (tester)
- Configure: Mesh topology for collaboration
2. Workload-Based Scaling
Detected: High parallel test load
Automated Response:
- Scale: Testing agents from 2 to 6
- Distribute: Test suites across agents
- Monitor: Resource utilization
- Adjust: Scale down when complete
3. Skill-Based Matching
Required: Database optimization
Automated Response:
- Search: Agents with SQL expertise
- Match: Performance tuning capability
- Spawn: DB Optimization Specialist
- Assign: Specific optimization tasks
Intelligence Features
1. Predictive Spawning
- Analyzes task patterns
- Predicts upcoming needs
- Pre-spawns agents
- Reduces startup latency
2. Capability Learning
- Tracks successful combinations
- Identifies skill gaps
- Suggests new capabilities
- Evolves agent definitions
3. Resource Optimization
- Monitors utilization
- Predicts resource needs
- Implements just-in-time spawning
- Manages agent lifecycle
Usage Examples
Automatic Team Assembly
"I need to refactor the payment system for better performance" Automatically spawns: Architect, Refactoring Specialist, Performance Analyst, Test Engineer
Dynamic Scaling
"Process these 1000 data files" Automatically scales processing agents based on workload
Intelligent Matching
"Debug this WebSocket connection issue" Finds and spawns agents with networking and real-time communication expertise
Integration Points
With Task Orchestrator
- Receives task breakdowns
- Provides agent recommendations
- Handles dynamic allocation
- Reports capability gaps
With Performance Analyzer
- Monitors agent efficiency
- Identifies optimization opportunities
- Adjusts spawning strategies
- Learns from performance data
With Memory Coordinator
- Stores successful patterns
- Retrieves historical data
- Learns from past executions
- Maintains agent profiles
Machine Learning Integration
1. Task Classification
Input: Task description
Model: Multi-label classifier
Output: Required capabilities
2. Agent Performance Prediction
Input: Agent profile + Task features
Model: Regression model
Output: Expected performance score
3. Workload Forecasting
Input: Historical patterns
Model: Time series analysis
Output: Resource predictions
Best Practices
Effective Automation
- Start Conservative: Begin with known patterns
- Monitor Closely: Track automation decisions
- Learn Iteratively: Improve based on outcomes
- Maintain Override: Allow manual intervention
- Document Decisions: Log automation reasoning
Common Pitfalls
- Over-spawning agents for simple tasks
- Under-estimating resource needs
- Ignoring task dependencies
- Poor capability matching
Advanced Features
1. Multi-Objective Optimization
- Balance speed vs. resource usage
- Optimize cost vs. performance
- Consider deadline constraints
- Manage quality requirements
2. Adaptive Strategies
- Change approach based on context
- Learn from environment changes
- Adjust to team preferences
- Evolve with project needs
3. Failure Recovery
- Detect struggling agents
- Automatic reinforcement
- Strategy adjustment
- Graceful degradation
先判断是否适合
作者设计意图
作者的方法与取舍
边界和复核