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langgraph-routing

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LangGraph Routing Skill

Capabilities

  • Design conditional edge routing in LangGraph
  • Implement state-based transition logic
  • Create dynamic routing functions
  • Handle multi-path workflow branches
  • Implement router nodes for complex decisions
  • Design fallback and error routing paths

Target Processes

  • langgraph-workflow-design
  • plan-and-execute-agent

Implementation Details

Routing Patterns

  1. Conditional Edges: add_conditional_edges with routing functions
  2. Router Nodes: Dedicated nodes for routing decisions
  3. State-Based Routing: Routing based on state values
  4. LLM-Based Routing: Using LLM to determine next node

Configuration Options

  • Routing function definitions
  • Path mapping configurations
  • Default/fallback routes
  • Cycle detection settings
  • Max iteration limits

Best Practices

  • Clear routing logic documentation
  • Handle all possible states
  • Implement fallback paths
  • Avoid infinite cycles
  • Use descriptive edge names

Dependencies

  • langgraph

Source

git clone https://github.com/a5c-ai/babysitter/blob/main/plugins/babysitter/skills/babysit/process/specializations/ai-agents-conversational/skills/langgraph-routing/SKILL.mdView on GitHub

Overview

LangGraph Routing Skill enables designing conditional edges and state-driven transitions within LangGraph workflows. It supports multi-path branches, router nodes, and robust fallback routes to ensure predictable agent behavior.

How This Skill Works

The skill defines routing patterns such as conditional edges via add_conditional_edges, dedicated router nodes for decisions, and state-based routing that reads state values to select the next node. It also supports optional LLM-based routing to determine the next node when decisions are ambiguous. Configuration options control routing function definitions, path mappings, defaults, cycle detection, and max iteration limits.

When to Use It

  • Designing a LangGraph workflow with multiple outcomes
  • Implementing state-driven transitions in plan-and-execute-agent processes
  • Handling fallback and error routing paths in complex workflows
  • Creating dynamic routing functions for multi-path branches
  • Enforcing cycle limits and avoiding infinite loops

Quick Start

  1. Step 1: Define routing functions and the state schema for your LangGraph workflow
  2. Step 2: Add conditional edges and router nodes to represent decision points
  3. Step 3: Configure default/fallback routes and enable cycle- and iteration-limit safeguards, then test with representative scenarios

Best Practices

  • Document clear routing logic with edge names and conditions
  • Handle all possible states to prevent dead-ends
  • Implement explicit fallback paths for failures
  • Avoid infinite cycles with cycle detection and limits
  • Use descriptive edge names to improve maintainability

Example Use Cases

  • Routing a customer-support flow based on issue type and priority
  • Order processing with routing depending on stock, region, and delivery method
  • Error handling that retries or escalates via router nodes
  • LLM-assisted routing to decide next node in ambiguous user intents
  • Cycle-detection configuration to prevent infinite loops in long-running workflows

Frequently Asked Questions

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