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Installs to .agents/skills, used by Codex, Amp, Warp, Cursor, OpenCode, and more.

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Warp
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Available across projects.

$npx skills-installer add @majiayu000/claude-skill-registry/skill-orchestrator --client shared
Project

Writes to .agents/skills.

$npx skills-installer add @majiayu000/claude-skill-registry/skill-orchestrator -p --client shared
Note: Review the skill instructions before using it.

SKILL.md

name skill-orchestrator
version 1.0.0
author claude-command-control
created Sat Nov 22 2025 00:00:00 GMT+0000 (Coordinated Universal Time)
status active
complexity complex

Skill Orchestrator

Description

Coordinates execution of multiple specialized skills in complex workflows, managing dependencies, parallel execution, and result synthesis.

When to Use This Skill

  • When workflow requires 3+ different specialized skills
  • When skills have dependencies on each other's outputs
  • When parallel skill execution would improve performance
  • When complex multi-phase workflow needs coordination

When NOT to Use This Skill

  • For simple single-skill workflows
  • For agent-only workflows (use MULTI_AGENT_PLAN.md)
  • For simple sequential skill calls (just call them directly)

Prerequisites

  • All required skills available and tested
  • Understanding of skill dependencies
  • Clear workflow requirements
  • Performance targets defined

Workflow

Phase 1: Workflow Analysis

Step 1.1: Decompose Requirements

Create workflow specification:



## Workflow Spec: [Workflow Name]

**Goal**: [High-level objective]

**Skills Involved:**

1. 
2. 
3. 
4. 

**Dependency Graph:**

skill-1 (start) ↓ skill-2 (depends on skill-1) ├→ skill-3 (parallel A, depends on skill-2) └→ skill-4 (parallel B, depends on skill-2) ↓ skill-5 (depends on skill-3 AND skill-4) ↓ skill-6 (finalization)


**Success Criteria:**

- [Criterion 1]
- [Criterion 2]

Step 1.2: Identify Parallelization Opportunities

Analyze dependency graph for:

  • Independent skills that can run parallel
  • Blocking dependencies
  • Resource constraints

Parallelization Plan:


**Parallel Groups:**

- Group 1: [skill-3, skill-4] (both depend only on skill-2)
- Group 2: [skill-7, skill-8] (independent of each other)

**Sequential Constraints:**

- skill-5 MUST wait for Group 1 completion
- skill-6 MUST wait for skill-5

Phase 2: Execution Planning

Step 2.1: Create Execution Plan



## Execution Plan

### Phase 1: Initialization

**Skills**: [skill-1](%5BPurpose%5D)
**Estimated Duration**: [X min]
**Output**: [Description]

### Phase 2: Parallel Processing

**Skills**: [skill-3, skill-4] (parallel)
**Dependencies**: Phase 1 complete
**Estimated Duration**: max([skill-3 duration], [skill-4 duration])
**Outputs**:

- skill-3: [output]
- skill-4: [output]


### Phase 3: Synthesis

**Skills**: [skill-5]
**Dependencies**: Phase 2 complete
**Inputs**: Outputs from skill-3 AND skill-4
**Estimated Duration**: [Y min]
**Output**: [Description]

### Phase 4: Finalization

**Skills**: [skill-6]
**Dependencies**: Phase 3 complete
**Estimated Duration**: [Z min]
**Output**: [Final deliverable]

**Total Estimated Duration**: [X + max(skill-3,skill-4) + Y + Z] min

Step 2.2: Resource Allocation



## Resource Budget

**Token Budget**: [Total tokens]

- skill-1: [tokens]
- skill-2: [tokens]
- ...
- Orchestration overhead: [tokens]

**Time Budget**: [Total time]

- Sequential time: [sum of sequential]
- Parallelization savings: [time saved]
- Net time: [actual estimated time]

**External Resources:**

- MCP Server calls: [count]
- Agent invocations: [count]

Phase 3: Orchestrated Execution

Step 3.1: Execute Sequential Skills

For each sequential skill:



### Execute: [skill-name]

1. **Prepare Input:**

```json
{
  "parameter1": "value from previous skill or requirement",
  "parameter2": "value",
  "context": {
    // Context from previous steps
  }
}
  1. Invoke Skill: "Use [skill-name] skill with the input above"
  2. Capture Output:
{
  "execution_id": "[skill-exec-id]",
  "status": "success | failure",
  "output": {
    // Skill output
  },
  "metadata": {
    "duration": "[X min]",
    "tokens_used": "[Y]"
  }
}
  1. Validate Output:
    • Status = success
    • Output format matches expected
    • Quality criteria met
  2. Store for Next Phase: Save output to orchestration context:
{
  "workflow_context": {
    "[skill-name]_output": {
      // Output data
    }
  }
}

#### Step 3.2: Execute Parallel Skills

For parallel skill groups:

Execute Parallel Group: [group-name]

Skills in Group: [skill-A, skill-B, skill-C]

Launch All:

  1. Prepare inputs for each skill
  2. Invoke all skills concurrently:
    • "Use skill-A with input-A"
    • "Use skill-B with input-B"
    • "Use skill-C with input-C"

Track Completion:

{
  "parallel_group_status": {
    "skill-A": "running",
    "skill-B": "running",
    "skill-C": "running"
  }
}

Wait for All Completions: Monitor each skill until all complete

Collect Results:

{
  "parallel_group_results": {
    "skill-A": {
      "status": "success",
      "output": {},
      "duration": "X min"
    },
    "skill-B": {
      "status": "success",
      "output": {},
      "duration": "Y min"
    },
    "skill-C": {
      "status": "success",
      "output": {},
      "duration": "Z min"
    }
  },
  "group_duration": "max(X,Y,Z) min"
}

Validate All Outputs:

  • All skills completed successfully
  • All outputs valid
  • Ready for next phase

#### Step 3.3: Handle Errors and Recovery

Error Handling

IF any skill fails:

  1. Assess Impact:
    • Critical skill? (blocks entire workflow)
    • Optional skill? (can proceed without)
  2. Attempt Recovery:
IF retryable error:
    Retry skill (max 2 retries)
    IF retry succeeds:
        Continue workflow
    ELSE:
        Proceed to Step 3
  1. Decide Path Forward:
IF critical skill failed:
    - Use fallback approach if available
    - Request human intervention
    - Abort workflow with detailed error report

IF optional skill failed:
    - Log warning
    - Continue with partial results
    - Note limitation in final output
  1. Document Failure:
{
  "workflow_errors": [
    {
      "skill": "skill-name",
      "phase": "phase-N",
      "error": "error message",
      "recovery_attempted": true,
      "recovery_successful": false,
      "impact": "critical | degraded | minimal"
    }
  ]
}

### Phase 4: Result Synthesis

#### Step 4.1: Aggregate Outputs

Synthesize Results

Collect all skill outputs:

{
  "workflow_results": {
    "skill-1": { "output": {} },
    "skill-2": { "output": {} },
    "skill-3": { "output": {} },
    "skill-4": { "output": {} },
    "skill-5": { "output": {} }
  }
}

Synthesize into final deliverable:

  1. Extract key components from each skill
  2. Combine according to workflow spec
  3. Resolve any conflicts or overlaps
  4. Format per requirements

#### Step 4.2: Quality Validation

Validate Final Output

Run validation checks:

Completeness:

  • All required components present
  • No missing data from any skill

Consistency:

  • Outputs from different skills align
  • No contradictions
  • Unified format

Quality:

  • Meets acceptance criteria
  • Performance within targets
  • No errors or warnings

IF validation fails:

  • Identify which skill output is problematic
  • Re-run that skill with adjustments
  • Re-synthesize
  • Re-validate

### Phase 5: Reporting and Handoff

Orchestration Summary Report

Workflow: [Workflow Name] Execution ID: [unique-id] Timestamp: [ISO 8601] Total Duration: [X min] Total Tokens: [Y tokens]

Execution Trace:

Phase Skills Status Duration Tokens
1 skill-1 ✅ Success X min Y tokens
2 skill-3, skill-4 ✅ Success Z min W tokens
3 skill-5 ✅ Success A min B tokens
4 skill-6 ✅ Success C min D tokens

Parallelization Savings: [Time saved by parallel execution]

Quality Metrics:

  • Success Rate: [100%]
  • Average Quality Score: [95%]
  • Performance: [Within targets]

Outputs:

  • Primary Deliverable: [Location/description]
  • Supporting Artifacts: [List]

Issues Encountered:

Recommendations:

  • [Recommendation for future runs]
  • [Optimization opportunity]

## Examples

### Example 1: Multi-Skill Content Generation Workflow

**Workflow**: Generate technical blog post with code examples, diagrams, and SEO optimization

**Skills Involved:**
1. `research-skill`: Gather technical information
2. `code-example-generator`: Create code snippets
3. `diagram-generator`: Create architecture diagrams
4. `content-writer`: Write blog post content
5. `seo-optimizer`: Optimize for search engines
6. `proofreader`: Final quality check

**Execution:**

Phase 1: Research (Sequential)

Execute: research-skill Input: "Gather information on microservices architecture patterns" Output: research-notes.md (3500 words of research)

Phase 2: Parallel Content Creation

Execute in parallel:

  • code-example-generator (uses research output) Output: code-examples/ (5 code snippets)
  • diagram-generator (uses research output) Output: diagrams/ (3 architecture diagrams)

Wait for both to complete Duration: max(code gen: 8min, diagrams: 12min) = 12min

Phase 3: Content Writing (Sequential)

Execute: content-writer Inputs:

  • research-notes.md
  • code-examples/
  • diagrams/ Output: blog-draft.md (2000 word article)

Phase 4: Parallel Optimization (Parallel)

Execute in parallel:

  • seo-optimizer (optimize blog-draft.md) Output: blog-seo-optimized.md
  • proofreader (review blog-draft.md) Output: proofreading-notes.md

Wait for both Duration: max(SEO: 5min, proof: 7min) = 7min

Phase 5: Finalization (Sequential)

Synthesize:

  • Merge SEO optimizations
  • Apply proofreading corrections
  • Generate metadata

Final Output: published-blog-post.md

  • 2000 words
  • 5 code examples
  • 3 diagrams
  • SEO optimized
  • Proofread

Total Duration:

  • Sequential: research(10) + writing(15) + synthesis(3) = 28min
  • Parallel savings: Would be 40min without parallelization
  • Actual: 28 + max(12,7) = 40min vs 55min = 15min saved

### Example 2: Code Review Orchestration

**Workflow**: Comprehensive PR review using multiple specialized skills

**Skills:**
1. `pr-analyzer`: Extract PR metadata
2. `security-scanner`: Security vulnerability scan
3. `performance-profiler`: Performance analysis
4. `test-coverage-checker`: Test coverage validation
5. `code-quality-checker`: Code quality metrics
6. `review-synthesizer`: Compile final review

**Orchestration:**

Phase 1: Analysis

skill-1 (pr-analyzer) Output: PR metadata, changed files, commit history

Phase 2: Parallel Checks (All independent)

Parallel execution: ├─ skill-2 (security-scanner) ├─ skill-3 (performance-profiler) ├─ skill-4 (test-coverage-checker) └─ skill-5 (code-quality-checker)

All use PR metadata from Phase 1 Wait for all 4 to complete

Phase 3: Synthesis

skill-6 (review-synthesizer) Inputs: All 4 reports from Phase 2 Output: Comprehensive review document

Result:

PR Review Summary

Security: ⚠️ 1 medium vulnerability found

  • CVE-2024-XXXX in dependency X
  • Recommendation: Upgrade to v2.3.1

Performance: ✅ No issues

  • No N+1 queries
  • Response times within targets

Test Coverage: ✅ 94%

  • Exceeds 90% requirement
  • All critical paths covered

Code Quality: ✅ High

  • Complexity within limits
  • No code smells
  • Follows style guide

Overall: APPROVED WITH COMMENTS Merge after addressing security finding


## Quality Standards

- All skill invocations must include unique execution_id
- Parallel skills must be truly independent (no hidden dependencies)
- Token budget must account for orchestration overhead (+20%)
- Error recovery must be implemented for each skill
- Final synthesis must resolve conflicts between skill outputs

## Common Pitfalls

### Pitfall 1: Hidden Dependencies in "Parallel" Skills
**Issue**: Skills marked as parallel actually depend on each other
**Example**: skill-A modifies file that skill-B reads
**Solution**: Carefully analyze data dependencies before parallelizing

### Pitfall 2: No Timeout for Long-Running Skills
**Issue**: Workflow hangs waiting for stuck skill
**Solution**: Implement timeout for each skill with fallback

Execute with Timeout

timeout = 15 minutes start_time = now()

invoke skill-X

while skill-X not complete: if (now() - start_time) > timeout: log error attempt graceful degradation break


### Pitfall 3: Poor Error Aggregation
**Issue**: One skill failure causes unclear error
**Solution**: Aggregate errors with context

{ "workflow_status": "partial_failure", "successful_skills": ["skill-1", "skill-3", "skill-5"], "failed_skills": [ { "skill": "skill-4", "error": "API timeout", "impact": "missing performance analysis in final report", "workaround": "manual performance review recommended" } ], "final_output": "available with noted limitations" }


## Version History
- 1.0.0 (2025-11-22): Initial release