/distributed-task-orchestrator
Decompose complex tasks into parallel sub-agents. Use for multi-step operations, batch processing, or when user mentions "parallel", "agents", or "orchestrate".
$ npx -y skills add shuyu-labs/WebCode --skill distributed-task-orchestrator --agent claude-codeHow it fires
How this skill gets triggered: by you, by Claude, or both.
- Fires itselfAuto-invocation. Claude auto-loads it when your prompt matches the work.Auto-invocation is when the right skill fires by itself at the right moment, driven by a FLOW.md router and a hook, instead of you invoking it by name. It is the difference between a skill being installed and a skill actually getting used.Read the full definition →
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- Slash command
/distributed-task-orchestrator
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Decompose complex tasks into parallel sub-agents. Use for multi-step operations, batch processing, or when user mentions "parallel", "agents", or "orchestrate".
SKILL.md
distributed-task-orchestrator.SKILL.mdname: distributed-task-orchestrator
description: Decompose complex tasks into parallel sub-agents. Use for multi-step operations, batch processing, or when user mentions "parallel", "agents", or "orchestrate".
Distributed Task Orchestrator
You are an advanced distributed task orchestration system. Decompose complex requests into independent atomic tasks, manage parallel execution, and aggregate results.
Quick Decision
Is task complex? (3+ independent steps, multiple files, parallel benefit)
├── NO → Execute directly, skip orchestration
└── YES → Use orchestration
├── Simulated mode (default) → Present as parallel batches
└── CLI mode (user requests) → Launch real Claude CLI sub-agents**Skip orchestration for:** single-file ops, simple queries, < 3 steps, purely sequential tasks.
Core Workflow
Phase 1: Decompose
Analyze request → Break into atomic tasks → Map dependencies → Create `.orchestrator/master_plan.md`
# Task Plan
## Request
> [Original request]
## Tasks
| ID | Task | Deps | Status |
|----|------|------|--------|
| T-01 | [Description] | None | 🟡 |
| T-02 | [Description] | T-01 | ⏸️ |
**Status:** 🟡 Pending · 🔵 Running · ✅ Done · ❌ Failed · ⏸️ Waiting
Phase 2: Assign Agents
Create `.orchestrator/agent_tasks/agent-XX.md` for each task:
# Agent-XX: [Task Name]
**Input:** [parameters]
**Do:** [specific instructions]
**Output:** [expected format]
Phase 3: Execute
**Simulated Mode (Default):**
═══ Batch #1 (No Dependencies) ═══
🤖 Agent-01 [T-01: Task Name]
⚙️ [Execution steps...]
✅ Completed
═══ Batch #2 (After Batch #1) ═══
🤖 Agent-02 [T-02: Task Name]
⚙️ [Execution steps...]
✅ Completed
**CLI Mode (When Requested):**
# Windows - Parallel execution
$jobs = Get-ChildItem ".orchestrator/agent_tasks/*.md" | ForEach-Object {
Start-Job -ScriptBlock {
param($path, $out)
claude --print (Get-Content $path -Raw) | Out-File $out
} -ArgumentList $_.FullName, ".orchestrator/results/$($_.BaseName)-result.md"
}
$jobs | Wait-Job | Receive-Job; $jobs | Remove-Job# Linux/Mac - Using GNU parallel
parallel claude --print "$(cat {})" ">" .orchestrator/results/{/.}-result.md ::: .orchestrator/agent_tasks/*.mdPhase 4: Aggregate
Collect results → Merge by dependency order → Generate `.orchestrator/final_output.md`
# Execution Report
- Tasks: N total, X succeeded, Y failed
- Duration: Zs
## Results
[Integrated findings organized logically]
## Key Takeaways
1. [Finding 1]
2. [Finding 2]
Dependency Patterns
- **Parallel:** T-01, T-02, T-03 → T-04 (first three run together)
- **Serial:** T-01 → T-02 → T-03 (each waits for previous)
- **DAG:** Complex graphs use topological sort
Error Handling
| Strategy | When to Use | |----------|-------------| | Retry (3x, exponential backoff) | Timeouts, transient failures | | Skip and continue | Non-critical tasks | | Fail-fast | Critical dependencies |
Best Practices
1. **Granularity:** Target 1-5 min per task; split large, merge trivial 2. **Parallelism:** Minimize dependencies; use file-based data passing 3. **State:** Update `master_plan.md` on every status change
Trigger Conditions
**USE when:**
- 3+ independent steps possible
- User mentions: "parallel", "concurrent", "subtasks", "agents"
- Batch processing needed
- Claude CLI sub-agents requested
**SKIP when:**
- Single-step task
- Quick query/explanation
- Purely sequential with no parallel benefit
Related Files
- [workflow.md](workflow.md) - Detailed workflow spec
- [templates.md](templates.md) - Complete templates
- [cli-integration.md](cli-integration.md) - CLI deep dive
- [examples.md](examples.md) - Practical examples
Read more
name: distributed-task-orchestrator description: Decompose complex tasks into parallel sub-agents. Use for multi-step operations, batch processing, or when user mentions "parallel", "agents", or "orchestrate".
Distributed Task Orchestrator
You are an advanced distributed task orchestration system. Decompose complex requests into independent atomic tasks, manage parallel execution, and aggregate results.
Quick Decision
Is task complex? (3+ independent steps, multiple files, parallel benefit)
├── NO → Execute directly, skip orchestration
└── YES → Use orchestration
├── Simulated mode (default) → Present as parallel batches
└── CLI mode (user requests) → Launch real Claude CLI sub-agents**Skip orchestration for:** single-file ops, simple queries, < 3 steps, purely sequential tasks.
Core Workflow
Phase 1: Decompose
Analyze request → Break into atomic tasks → Map dependencies → Create `.orchestrator/master_plan.md`
# Task Plan ## Request > [Original request] ## Tasks | ID | Task | Deps | Status | |----|------|------|--------| | T-01 | [Description] | None | 🟡 | | T-02 | [Description] | T-01 | ⏸️ |
**Status:** 🟡 Pending · 🔵 Running · ✅ Done · ❌ Failed · ⏸️ Waiting
Phase 2: Assign Agents
Create `.orchestrator/agent_tasks/agent-XX.md` for each task:
# Agent-XX: [Task Name] **Input:** [parameters] **Do:** [specific instructions] **Output:** [expected format]
Phase 3: Execute
**Simulated Mode (Default):**
═══ Batch #1 (No Dependencies) ═══ 🤖 Agent-01 [T-01: Task Name] ⚙️ [Execution steps...] ✅ Completed ═══ Batch #2 (After Batch #1) ═══ 🤖 Agent-02 [T-02: Task Name] ⚙️ [Execution steps...] ✅ Completed
**CLI Mode (When Requested):**
# Windows - Parallel execution
$jobs = Get-ChildItem ".orchestrator/agent_tasks/*.md" | ForEach-Object {
Start-Job -ScriptBlock {
param($path, $out)
claude --print (Get-Content $path -Raw) | Out-File $out
} -ArgumentList $_.FullName, ".orchestrator/results/$($_.BaseName)-result.md"
}
$jobs | Wait-Job | Receive-Job; $jobs | Remove-Job# Linux/Mac - Using GNU parallel
parallel claude --print "$(cat {})" ">" .orchestrator/results/{/.}-result.md ::: .orchestrator/agent_tasks/*.mdPhase 4: Aggregate
Collect results → Merge by dependency order → Generate `.orchestrator/final_output.md`
# Execution Report - Tasks: N total, X succeeded, Y failed - Duration: Zs ## Results [Integrated findings organized logically] ## Key Takeaways 1. [Finding 1] 2. [Finding 2]
Dependency Patterns
- **Parallel:** T-01, T-02, T-03 → T-04 (first three run together)
- **Serial:** T-01 → T-02 → T-03 (each waits for previous)
- **DAG:** Complex graphs use topological sort
Error Handling
| Strategy | When to Use | |----------|-------------| | Retry (3x, exponential backoff) | Timeouts, transient failures | | Skip and continue | Non-critical tasks | | Fail-fast | Critical dependencies |
Best Practices
1. **Granularity:** Target 1-5 min per task; split large, merge trivial 2. **Parallelism:** Minimize dependencies; use file-based data passing 3. **State:** Update `master_plan.md` on every status change
Trigger Conditions
**USE when:**
- 3+ independent steps possible
- User mentions: "parallel", "concurrent", "subtasks", "agents"
- Batch processing needed
- Claude CLI sub-agents requested
**SKIP when:**
- Single-step task
- Quick query/explanation
- Purely sequential with no parallel benefit
Related Files
- [workflow.md](workflow.md) - Detailed workflow spec
- [templates.md](templates.md) - Complete templates
- [cli-integration.md](cli-integration.md) - CLI deep dive
- [examples.md](examples.md) - Practical examples
WebCode is a browser-based AI coding platform that lets you remotely run CLI assistants like Claude Code and Codex. Code anywhere with just a web browser. We’re also adding an office-assistant mode for planning, research/summaries, meeting notes, and drafting docs/emails—connected to your project context.
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