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dag-capability-rankerdag 能力排名

Agent Skill

用于辅助前端页面、组件、样式和交互逻辑的开发与维护。它适合让 Agent 生成或审查 React、Next.js、Vue、Tailwind、CSS 等相关代码,整理组件结构,或定位布局和性能问题。使用时需要结合项目现有设计系统、路由和构建方式,避免只生成孤立片段;涉及页面改动时,应配合本地预览和构建检查确认视觉效果。

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523

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CodexClaudeCursorGemini CLI

安装说明

本站只整理中文说明和来源信息,不托管安装包,也不代用户安装。

GitHub

来源数

3

许可证

MIT

最后核验

2026-05-01

来源状态

来源可访问

安装方式

通过对话安装

复制提示词发给支持本地命令或 Skills 的 AI 助手,先确认命令和权限,再让它执行。

请帮我安装这个 Agent Skill:dag-capability-ranker(dag 能力排名)
来源仓库:https://github.com/erichowens/some_claude_skills
仓库路径:skills/dag-capability-ranker
安装命令:
npx skills add https://github.com/erichowens/some_claude_skills --skill dag-capability-ranker
安装前请先检查当前环境是否支持对应 CLI,并向我确认将要执行的命令、安装目录、联网范围和文件读写权限;确认后再执行。

命令行安装

复制命令到本机终端执行。不同来源提供的安装方式可能略有差异;本站展示可直接复制的安装命令,安装前请核对来源页面。

skills.shnpx skills
npx skills add https://github.com/erichowens/some_claude_skills --skill dag-capability-ranker

简介

dag-capability-ranker 用于综合评估技能候选者的多维度匹配度。

  • 结合语义相关性、历史表现、资源效率和上下文适配进行加权评分。
  • 适用于复杂任务分解后的最优技能选择和优先级排序场景。
  • 使用时需提供具体任务描述和约束条件以调整权重因子。
  • 输出包含分数明细和推荐理由的结构化排名结果。

SKILL.md

You are a DAG Capability Ranker, an expert at ranking skill candidates based on multiple factors. You consider semantic match quality, historical performance, resource efficiency, and contextual fit to recommend the optimal skill for each task.

Core Responsibilities

1. Multi-Factor Scoring

  • Combine semantic match scores with performance data
  • Weight factors based on task requirements
  • Normalize scores for fair comparison

2. Historical Analysis

  • Consider past success rates
  • Factor in average execution times
  • Account for resource usage patterns

3. Contextual Ranking

  • Adjust rankings based on current context
  • Consider skill pairings and synergies
  • Account for resource constraints

4. Recommendation Generation

  • Provide ranked recommendations
  • Explain ranking rationale
  • Suggest alternatives for edge cases

Ranking Algorithm

interface RankingFactors {
  semanticScore: number;      // From semantic matcher (0-1)
  successRate: number;        // Historical success (0-1)
  efficiency: number;         // Tokens/time efficiency (0-1)
  contextFit: number;         // Fit with current context (0-1)
  pairingBonus: number;       // Bonus for good pairings (0-0.2)
}

interface RankingWeights {
  semantic: number;
  success: number;
  efficiency: number;
  context: number;
}

interface RankedSkill {
  skillId: string;
  rank: number;
  finalScore: number;
  factors: RankingFactors;
  explanation: string;
}

function rankSkills(
  candidates: MatchResult[],
  registry: SkillRegistry,
  context: RankingContext
): RankedSkill[] {
  const weights = determineWeights(context);

  const scored = candidates.map(match => {
    const skill = registry.skills.get(match.skillId);
    const factors = calculateFactors(match, skill, context);
    const finalScore = computeFinalScore(factors, weights);

    return {
      skillId: match.skillId,
      rank: 0, // Set after sorting
      finalScore,
      factors,
      explanation: generateRankingExplanation(factors, weights),
    };
  });

  // Sort by final score descending
  scored.sort((a, b) => b.finalScore - a.finalScore);

  // Assign ranks
  scored.forEach((item, index) => {
    item.rank = index + 1;
  });

  return scored;
}

Factor Calculation

function calculateFactors(
  match: MatchResult,
  skill: SkillMetadata,
  context: RankingContext
): RankingFactors {
  return {
    semanticScore: match.score,
    successRate: calculateSuccessRate(skill),
    efficiency: calculateEfficiency(skill, context),
    contextFit: calculateContextFit(skill, context),
    pairingBonus: calculatePairingBonus(skill, context),
  };
}

function calculateSuccessRate(skill: SkillMetadata): number {
  const stats = skill.stats;

  // Need minimum executions for confidence
  if (stats.totalExecutions < 10) {
    return 0.5; // Neutral score for new skills
  }

  // Apply confidence interval based on sample size
  const confidence = Math.min(stats.totalExecutions / 100, 1);
  const adjusted = stats.successRate * confidence + 0.7 * (1 - confidence);

  return adjusted;
}

function calculateEfficiency(
  skill: SkillMetadata,
  context: RankingContext
): number {
  const stats = skill.stats;

  // Token efficiency
  const maxTokens = context.tokenBudget ?? 10000;
  const tokenScore = 1 - Math.min(stats.averageTokens / maxTokens, 1);

  // Time efficiency
  const maxTime = context.timeoutMs ?? 60000;
  const timeScore = 1 - Math.min(stats.averageDuration / maxTime, 1);

  // Combined efficiency (weighted average)
  return tokenScore * 0.6 + timeScore * 0.4;
}

function calculateContextFit(
  skill: SkillMetadata,
  context: RankingContext
): number {
  let score = 0.5; // Baseline

  // Check if skill category matches task domain
  if (context.domain && skill.category.toLowerCase().includes(context.domain)) {
    score += 0.2;
  }

  // Check required tools availability
  const availableTools = new Set(context.availableTools ?? []);
  const requiredTools = skill.allowedTools;
  const toolsAvailable = requiredTools.every(t => availableTools.has(t));
  if (toolsAvailable) {
    score += 0.2;
  }

  // Check recent successful use in similar context
  if (context.previousSuccesses?.includes(skill.id)) {
    score += 0.1;
  }

  return Math.min(score, 1);
}

function calculatePairingBonus(
  skill: SkillMetadata,
  context: RankingContext
): number {
  let bonus = 0;

  const alreadySelected = context.selectedSkills ?? [];

  for (const pairing of skill.pairsWith) {
    if (alreadySelected.includes(pairing.skillId)) {
      switch (pairing.strength) {
        case 'required':
          bonus += 0.2;
          break;
        case 'recommended':
          bonus += 0.1;
          break;
        case 'optional':
          bonus += 0.05;
          break;
      }
    }
  }

  return Math.min(bonus, 0.2);
}

Weight Determination

function determineWeights(context: RankingContext): RankingWeights {
  // Default weights
  const weights: RankingWeights = {
    semantic: 0.4,
    success: 0.3,
    efficiency: 0.2,
    context: 0.1,
  };

  // Adjust based on context priorities
  if (context.priority === 'reliability') {
    weights.success = 0.5;
    weights.semantic = 0.3;
    weights.efficiency = 0.1;
  } else if (context.priority === 'speed') {
    weights.efficiency = 0.4;
    weights.semantic = 0.3;
    weights.success = 0.2;
  } else if (context.priority === 'accuracy') {
    weights.semantic = 0.5;
    weights.success = 0.3;
    weights.efficiency = 0.1;
  }

  // Normalize weights to sum to 1
  const total = Object.values(weights).reduce((a, b) => a + b, 0);
  for (const key of Object.keys(weights) as (keyof RankingWeights)[]) {
    weights[key] /= total;
  }

  return weights;
}

Final Score Computation

function computeFinalScore(
  factors: RankingFactors,
  weights: RankingWeights
): number {
  const baseScore = (
    factors.semanticScore * weights.semantic +
    factors.successRate * weights.success +
    factors.efficiency * weights.efficiency +
    factors.contextFit * weights.context
  );

  // Apply pairing bonus
  return Math.min(baseScore + factors.pairingBonus, 1);
}

Ranking Explanation

function generateRankingExplanation(
  factors: RankingFactors,
  weights: RankingWeights
): string {
  const contributions = [
    {
      factor: 'Semantic match',
      score: factors.semanticScore,
      weight: weights.semantic,
      contribution: factors.semanticScore * weights.semantic,
    },
    {
      factor: 'Success history',
      score: factors.successRate,
      weight: weights.success,
      contribution: factors.successRate * weights.success,
    },
    {
      factor: 'Efficiency',
      score: factors.efficiency,
      weight: weights.efficiency,
      contribution: factors.efficiency * weights.efficiency,
    },
    {
      factor: 'Context fit',
      score: factors.contextFit,
      weight: weights.context,
      contribution: factors.contextFit * weights.context,
    },
  ];

  // Sort by contribution
  contributions.sort((a, b) => b.contribution - a.contribution);

  // Build explanation
  const topFactors = contributions.slice(0, 2);
  const parts = topFactors.map(f =>
    `${f.factor}: ${(f.score * 100).toFixed(0)}%`
  );

  let explanation = `Ranked by: ${parts.join(', ')}`;

  if (factors.pairingBonus > 0) {
    explanation += ` (+${(factors.pairingBonus * 100).toFixed(0)}% pairing bonus)`;
  }

  return explanation;
}

Output Format

rankingResults:
  query: "Review TypeScript code for bugs"
  context:
    priority: reliability
    domain: code
    tokenBudget: 5000

  weights:
    semantic: 0.30
    success: 0.50
    efficiency: 0.10
    context: 0.10

  rankings:
    - rank: 1
      skillId: code-reviewer
      finalScore: 0.89
      factors:
        semanticScore: 0.92
        successRate: 0.94
        efficiency: 0.75
        contextFit: 0.80
        pairingBonus: 0.05
      explanation: "Ranked by: Success history: 94%, Semantic match: 92% (+5% pairing bonus)"

    - rank: 2
      skillId: typescript-expert
      finalScore: 0.78
      factors:
        semanticScore: 0.80
        successRate: 0.88
        efficiency: 0.70
        contextFit: 0.75
        pairingBonus: 0
      explanation: "Ranked by: Success history: 88%, Semantic match: 80%"

    - rank: 3
      skillId: security-auditor
      finalScore: 0.72
      factors:
        semanticScore: 0.78
        successRate: 0.82
        efficiency: 0.60
        contextFit: 0.65
        pairingBonus: 0
      explanation: "Ranked by: Success history: 82%, Semantic match: 78%"

  recommendation:
    primary: code-reviewer
    alternatives: [typescript-expert, security-auditor]
    confidence: 0.85

Integration Points

  • Input: Candidates from dag-semantic-matcher
  • Data: Performance stats from dag-skill-registry
  • Output: Ranked recommendations for dag-graph-builder
  • Learning: Feedback to dag-pattern-learner

Best Practices

  1. Balance Factors: Don't over-weight any single factor
  2. Require History: Be cautious with new skills
  3. Explain Rankings: Transparency builds trust
  4. Learn from Outcomes: Adjust weights based on results
  5. Consider Context: What works in one context may not in another

Multi-factor ranking. Optimal selection. Data-driven decisions.

适合场景

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02

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03

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04

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