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graph-thinking skill

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This skill helps you visualize complex dependencies and architectures using graph-thinking to map relationships and non-linear problem solving for clearer

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---
name: graph-thinking
description:
  Apply graph-based thinking to visualize complex relationships and solve
  problems non-linearly. Use when mapping dependencies, analyzing systems,
  exploring interconnected concepts, or designing architectures.
---

# Graph Thinking - Non-Linear Problem Solving

Mental model for visualizing complex relationships and connections between
ideas, concepts, or data points. Evolved from Graph-of-Thought (GoT) reasoning
that mirrors human cognition.

## When to Use This Skill

- Mapping feature dependencies in product development
- Analyzing stakeholder relationships
- Understanding system architectures
- Exploring interconnected concepts
- Designing recommendation systems or knowledge graphs
- Identifying opportunity areas through network analysis

## Core Concepts

### Graph Elements

| Element        | Description                                |
| -------------- | ------------------------------------------ |
| **Nodes**      | Individual elements or concepts            |
| **Edges**      | Relationships or connections between nodes |
| **Clusters**   | Groups of highly connected nodes           |
| **Pathways**   | Routes through the network                 |
| **Centrality** | Measures identifying most important nodes  |
| **Topology**   | Structural arrangement of connections      |

### Graph-of-Thought (GoT) Reasoning

```
Traditional (Chain-of-Thought):
A → B → C → D → Conclusion

Graph-of-Thought:
    ┌─── B ───┐
    │         │
A ──┼─── C ───┼──→ Synthesis → Conclusion
    │         │
    └─── D ───┘
         ↑
    Feedback Loop
```

GoT enables:

- Combining arbitrary thoughts into synergistic outcomes
- Distilling networks of thoughts for clarity
- Enhancing ideas using feedback loops
- Non-linear exploration of solution spaces

## Fundamental Principles

### First Principles Thinking

Break down complex problems into fundamental truths:

```
Surface Level:
"We need more marketing"
    ↓
Why?
    ↓
"Not enough customers"
    ↓
Why?
    ↓
Root Truth:
"Value proposition unclear to target audience"
```

### Second-Order Thinking

Demand deeper analysis by asking "And then what?":

```
Decision: Reduce prices by 20%

First-order:  More sales
Second-order: Lower margins → Less R&D budget
Third-order:  Competitors catch up → Price war
Fourth-order: Race to bottom → Industry commoditization
```

### Non-Linear Processing

Unlike sequential thinking:

| Sequential              | Graph-Based                               |
| ----------------------- | ----------------------------------------- |
| One path at a time      | Multiple paths simultaneously             |
| Linear information flow | Multi-directional exploration             |
| Fixed order             | Iterative refinement through loops        |
| Single conclusion       | Synthesized insights from multiple angles |

## Analysis Framework

### Double Diamond Model

Apply divergent and convergent thinking cycles:

```
    DISCOVER          DEFINE          DEVELOP          DELIVER
   (Diverge)        (Converge)       (Diverge)       (Converge)
       /\              \/              /\              \/
      /  \            /  \            /  \            /  \
     /    \          /    \          /    \          /    \
    /      \        /      \        /      \        /      \
   /        \      /        \      /        \      /        \

   Explore         Focus on         Generate         Focus on
   problem         specific         diverse          optimal
   space           challenges       solutions        implementation
```

### Step 1: Map the Nodes

Identify all relevant elements:

```
Product Launch Analysis:

Nodes:
├── Stakeholders
│   ├── Customers
│   ├── Engineering
│   ├── Marketing
│   └── Leadership
├── Features
│   ├── Core functionality
│   ├── Nice-to-haves
│   └── Technical debt
├── Constraints
│   ├── Timeline
│   ├── Budget
│   └── Resources
└── Dependencies
    ├── External APIs
    ├── Infrastructure
    └── Regulatory
```

### Step 2: Define Relationships (Edges)

Document connections between nodes:

```
Edge Types:
├── Dependency:    A requires B
├── Influence:     A affects B
├── Correlation:   A and B move together
├── Conflict:      A competes with B
└── Synergy:       A enhances B
```

### Step 3: Identify Clusters and Patterns

Find highly connected groups:

```
High Centrality (Critical Nodes):
├── Authentication service → 12 dependencies
├── Database layer → 8 dependencies
└── API gateway → 6 dependencies

Clusters:
├── User-facing features (tightly coupled)
├── Backend services (loosely coupled)
└── Third-party integrations (isolated)
```

### Step 4: Analyze Pathways

Trace routes through the network:

```
User Journey Graph:

Landing Page
    ↓
[Sign Up] ←→ [Social Login]
    ↓
Onboarding
    ↓           ↓
Quick Start   Full Setup
    ↓           ↓
    └─────┬─────┘
          ↓
    First Value
          ↓
    ↙    ↓    ↘
Churn  Retain  Upgrade
```

## Output Template

After completing analysis, document as:

```markdown
## Graph Thinking Analysis

**Subject:** [What you're analyzing]

**Analysis Date:** [Date]

### Node Map

| Category | Nodes   | Centrality     |
| -------- | ------- | -------------- |
| [Cat 1]  | [Nodes] | [High/Med/Low] |
| [Cat 2]  | [Nodes] | [High/Med/Low] |

### Relationship Matrix

| From | To  | Relationship | Strength |
| ---- | --- | ------------ | -------- |
| [A]  | [B] | [Type]       | [1-5]    |

### Key Insights

1. **Clusters identified:** [Description]
2. **Critical paths:** [Description]
3. **Bottlenecks:** [Description]
4. **Opportunities:** [Description]

### Recommendations

| Priority | Action   | Rationale |
| -------- | -------- | --------- |
| High     | [Action] | [Why]     |
| Medium   | [Action] | [Why]     |
```

## Application Examples

### Feature Dependency Mapping

```
Feature: Real-time Collaboration

Dependencies:
├── WebSocket infrastructure
│   ├── Connection management
│   └── Message queuing
├── Conflict resolution
│   ├── Operational transforms
│   └── CRDT implementation
├── Presence indicators
│   └── User state sync
└── Permissions
    ├── Document access
    └── Cursor visibility
```

### Stakeholder Analysis

```
                    HIGH INFLUENCE
                          │
    Keep Satisfied        │        Manage Closely
    ┌─────────────────────┼─────────────────────┐
    │                     │                     │
    │   Executives        │    Product Owner    │
    │   Compliance        │    Key Customers    │
    │                     │                     │
LOW ──────────────────────┼────────────────────── HIGH
INTEREST                  │                      INTEREST
    │                     │                     │
    │   General Users     │    Power Users      │
    │   IT Support        │    Dev Team         │
    │                     │                     │
    └─────────────────────┼─────────────────────┘
    Monitor               │        Keep Informed
                          │
                   LOW INFLUENCE
```

### System Architecture Analysis

```
Microservice Graph:

API Gateway [Centrality: 0.95]
    │
    ├── Auth Service [0.82]
    │   └── User DB
    │
    ├── Product Service [0.71]
    │   ├── Catalog DB
    │   └── Search Index
    │
    ├── Order Service [0.68]
    │   ├── Order DB
    │   └── Payment Gateway (external)
    │
    └── Notification Service [0.45]
        └── Email Provider (external)

Critical Path: Gateway → Auth → Product → Order
Bottleneck: Auth Service (single point of failure)
```

## Best Practices

### Do

- **Visualize relationships** - Draw the graph, don't just describe it
- **Iterate continuously** - Graphs evolve as understanding deepens
- **Measure centrality** - Identify the most critical nodes
- **Look for clusters** - Natural groupings reveal system structure
- **Trace pathways** - Understand how information/value flows

### Avoid

- **Over-connecting** - Not everything relates to everything
- **Ignoring edge types** - Different relationships have different meanings
- **Static thinking** - Graphs change over time
- **Missing feedback loops** - Circular dependencies are significant
- **Forgetting weights** - Some relationships are stronger than others

## Integration with Other Methods

| Method              | Combined Use                                   |
| ------------------- | ---------------------------------------------- |
| **Five Whys**       | Trace causal chains through the graph          |
| **Business Canvas** | Map relationships between canvas elements      |
| **Jobs-to-be-Done** | Connect user needs to feature nodes            |
| **Hypothesis Tree** | Structure experiments as branching graphs      |
| **Stakeholder Map** | Visualize influence and interest relationships |

## Tools

### Visualization

- **Mermaid** - Code-based diagrams in markdown
- **Graphviz** - Programmatic graph generation
- **Excalidraw** - Hand-drawn style diagrams
- **Miro/FigJam** - Collaborative whiteboarding

### Analysis

- **Gephi** - Network analysis and visualization
- **Neo4j** - Graph database for complex queries
- **NetworkX** - Python library for graph algorithms

## Resources

- [Graph of Thoughts: ArXiv Paper](https://arxiv.org/abs/2308.09687)
- [Neo4j Graph Database Use Cases](https://neo4j.com/use-cases/)
- [Network Science by Albert-László Barabási](http://networksciencebook.com/)

Overview

This skill applies graph-based thinking to visualize complex relationships and solve problems non-linearly. It helps map nodes, define relationship types, identify clusters and critical pathways, and produce actionable recommendations. Use it to reveal dependencies, bottlenecks, and opportunities across products, systems, and organizations.

How this skill works

I guide you to map relevant elements as nodes, label edges by relationship type and strength, and compute or eyeball centrality and clusters. Then we trace pathways and feedback loops to surface critical paths, bottlenecks, and leverage points. The output is a concise node map, relationship matrix, key insights, and prioritized recommendations you can iterate on.

When to use it

  • Mapping feature dependencies during product planning
  • Analyzing system architecture and single points of failure
  • Exploring stakeholder influence and communication gaps
  • Designing recommendation systems or knowledge graphs
  • Identifying strategic opportunities through network patterns

Best practices

  • Draw the graph — visual maps reveal patterns faster than prose
  • Differentiate edge types (dependency, influence, conflict, synergy) and assign weights
  • Measure centrality to prioritize remediation or investment
  • Iterate the graph as new data or constraints appear
  • Avoid over-connecting: keep relationships meaningful and evidence-based

Example use cases

  • Feature dependency mapping for a launch to spot blockers and parallelize work
  • System architecture review to locate single points of failure and reduce coupling
  • Stakeholder analysis to tailor communication and escalation plans
  • Designing a recommendation or knowledge graph by mapping entities and relation strengths
  • Evaluating customer journeys as network pathways to identify churn and upgrade triggers

FAQ

How granular should nodes be?

Start coarse and refine. Model high-level categories first, then split nodes where complexity or decision impact demands detail.

Which tools do you recommend?

Use simple whiteboards or Mermaid for sketches; use NetworkX, Gephi, or Neo4j for analysis and larger datasets.