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Thinking Patterns
What is Thinking Patterns
Thinking-patterns is a comprehensive Model Context Protocol (MCP) server that integrates systematic thinking, mental models, debugging approaches, and stochastic algorithms to enhance problem-solving capabilities.
Use cases
Use cases include software debugging, decision-making in uncertain environments, collaborative problem-solving in teams, structured argumentation in debates, and visual reasoning for complex data interpretation.
How to use
Users can leverage the various tools provided by the thinking-patterns MCP server, such as sequential thinking, mental models, and stochastic algorithms, to approach complex problems systematically and collaboratively.
Key features
Key features include dynamic multi-step thinking, structured mental models, systematic debugging methodologies, probabilistic decision-making algorithms, collaborative reasoning, structured decision analysis, metacognitive monitoring, formal hypothesis testing, dialectical reasoning, and visual reasoning.
Where to use
Thinking-patterns can be applied in various fields such as software development, data analysis, strategic planning, education, and any domain requiring enhanced problem-solving and decision-making capabilities.
Clients Supporting MCP
The following are the main client software that supports the Model Context Protocol. Click the link to visit the official website for more information.
Overview
What is Thinking Patterns
Thinking-patterns is a comprehensive Model Context Protocol (MCP) server that integrates systematic thinking, mental models, debugging approaches, and stochastic algorithms to enhance problem-solving capabilities.
Use cases
Use cases include software debugging, decision-making in uncertain environments, collaborative problem-solving in teams, structured argumentation in debates, and visual reasoning for complex data interpretation.
How to use
Users can leverage the various tools provided by the thinking-patterns MCP server, such as sequential thinking, mental models, and stochastic algorithms, to approach complex problems systematically and collaboratively.
Key features
Key features include dynamic multi-step thinking, structured mental models, systematic debugging methodologies, probabilistic decision-making algorithms, collaborative reasoning, structured decision analysis, metacognitive monitoring, formal hypothesis testing, dialectical reasoning, and visual reasoning.
Where to use
Thinking-patterns can be applied in various fields such as software development, data analysis, strategic planning, education, and any domain requiring enhanced problem-solving and decision-making capabilities.
Clients Supporting MCP
The following are the main client software that supports the Model Context Protocol. Click the link to visit the official website for more information.
Content
Thinking Patterns MCP Server
TL;DR
A comprehensive MCP server that provides AI systems with structured thinking frameworks that follow existing problem-solving paradigms. Transform abstract cognitive patterns into concrete, invocable tools. Enforces adherence to the paradigms through schema validation.
📚 Documentation
- Quick Start - Get up and running in 2 minutes
- TOOL_REFERENCE.md - Complete tool specifications and parameters
- EXAMPLES.md - Detailed usage examples and patterns
- SUMMARY.md - Executive summary and overview
- SYSTEM_INTENT.md - System purpose and philosophy
- TECHNICAL_ARCHITECTURE.md - Technical implementation details
Problem
LLMs struggle to maintain consistent reasoning patterns throughout extended conversations due to context window limitations and degrading adherence to initial instructions. Traditional approaches like “keep X in mind” or role-based prompting fail when:
- Critical context passes out of the attention window
- Models acknowledge constraints but don’t consistently apply them
- Reasoning structures decay over multi-turn interactions
thinking-patterns enforces structural consistency through interactive schema validation rather than passive instruction-following.
Solution
thinking-patterns works by implicitly encouraging good engineering behaviors and approaches:
- Schema validation ensures reasoning patterns persist beyond context window limits
- Structural requirements live in tool definitions rather than repeated prompt text, reducing token overhead
- Tool interaction success/failure provides objective metrics for reasoning quality
- Indicates to the model that they are not following the pattern appropriately without additional user interaction
- Reusable thinking structures across different problem domains
Reasoning Improvements
- Attention Drift Prevention: Without structural anchors, models experience “goal drift” as new contextual information competes with original objectives. Schema validation creates persistent attention anchors.
- State Crystallization: Explicit articulation of reasoning state (forced by tool parameters) appears to strengthen internal representation compared to implicit state maintenance. Models demonstrate measurably better state consistency when reasoning is externalized.
- Error-Driven Learning: Schema validation errors create immediate, interactive corrective feedback loops within a single response, unlike instruction-based approaches where non-compliance often goes undetected until task completion.
- Cognitive Load Distribution: Externalizing structural requirements to schemas allows models to allocate more processing capacity to problem-solving rather than format compliance, similar to how humans benefit from external memory aids.
- Iterative Reinforcement: Repeated successful tool interactions strengthen adherence patterns through practice, creating compound consistency benefits over conversation length.
🚀 Quick Start
1. Install (Choose One)
Recommended: Smithery (for Cursor users)
npx -y @smithery/cli install @emmahyde/thinking-patterns --client cursor
NPM
npm install @emmahyde/thinking-patterns
NPX (no installation)
npx -y @emmahyde/thinking-patterns
2. Configure MCP Client
Add to your MCP client configuration:
{
"mcpServers": {
"thinking-patterns": {
"command": "npx",
"args": [
"-y",
"@emmahyde/thinking-patterns"
]
}
}
}
3. Try Your First Tool
# Example: Use sequential thinking for planning
{
"tool": "sequential_thinking",
"arguments": {
"thought": "Plan a product launch strategy",
"thoughtNumber": 1,
"totalThoughts": 5
}
}
🧠 Available Thinking Tools
Core Systematic Thinking
- sequential_thinking - Multi-step reasoning with revision support
- problem_decomposition - Break complex problems into manageable parts
- recursive_thinking - Apply recursive strategies to self-similar problems
Mental Models & Frameworks
- mental_model - Apply proven frameworks (First Principles, Inversion, etc.)
- decision_framework - Multi-criteria decision analysis
- domain_modeling - Create conceptual models of problem domains
Scientific & Critical Analysis
- scientific_method - Formal hypothesis testing and experimentation
- critical_thinking - Systematic evaluation of arguments and assumptions
- debugging_approach - Systematic troubleshooting methodologies
Collaborative & Dialectical
- collaborative_reasoning - Multi-perspective problem solving with personas
- structured_argumentation - Dialectical reasoning and argument analysis
Advanced Cognitive Patterns
- metacognitive_monitoring - Self-assessment of reasoning quality
- visual_reasoning - Diagram-based thinking and spatial reasoning
- temporal_thinking - Time-based system analysis with state transitions
Probabilistic & Optimization
- stochastic_algorithm - Decision-making under uncertainty [BETA]
- Markov Decision Processes (MDPs)
- Monte Carlo Tree Search (MCTS)
- Multi-Armed Bandit algorithms
- Bayesian Optimization
- Hidden Markov Models (HMMs)
💡 Recommended Starting Points
- sequential_thinking & problem_decomposition - Perfect for planning and breaking down complex tasks
- debugging_approach - Send error messages directly for systematic troubleshooting
- collaborative_reasoning - Simulate team discussions to uncover blind spots
📋 Prerequisites
- Node.js 18+ (for local installation)
- MCP-compatible client (Claude, Cursor, etc.)
- Optional: Docker for containerized deployment
🔧 Installation Options
Option 1: Smithery (Recommended for Cursor)
Automatically configures MCP client:
npx -y @smithery/cli install @emmahyde/thinking-patterns --client cursor
Option 2: NPM Package
For local development:
npm install @emmahyde/thinking-patterns
Option 3: NPX (Zero Installation)
Run without installing:
npx -y @emmahyde/thinking-patterns
Option 4: Docker
# Build image
docker build -t thinking-patterns .
# Run container
docker run -it thinking-patterns
Option 5: Development Setup
git clone https://github.com/emmahyde/thinking-patterns
cd thinking-patterns
npm install
npm run build
npm start
🎯 Use Cases
Software Development
- Debug production issues systematically
- Decompose complex features into user stories
- Review code with multiple perspectives
- Plan architecture changes step-by-step
Business Strategy
- Make data-driven decisions with frameworks
- Apply mental models to strategic planning
- Model business processes over time
- Optimize resource allocation
Research & Analysis
- Test hypotheses with scientific method
- Evaluate arguments critically
- Model new domains systematically
- Analyze temporal patterns
Creative Problem Solving
- Use visual reasoning for design challenges
- Apply recursive thinking to complex patterns
- Optimize solutions with probabilistic algorithms
- Generate innovative solutions with mental models
🔗 Integration Examples
npx
{
"mcpServers": {
"thinking-patterns": {
"command": "npx",
"args": [
"-y",
"@emmahyde/thinking-patterns"
]
}
}
}
Local Development
{
"mcpServers": {
"thinking-patterns": {
"command": "node",
"args": [
"/path/to/thinking-patterns/dist/index.js"
]
}
}
}
📊 Tool Categories
| Category | Tools | Best For |
|---|---|---|
| Systematic | sequential_thinking, problem_decomposition, recursive_thinking | Planning, breaking down complexity |
| Mental Models | mental_model, decision_framework, domain_modeling | Strategic thinking, decision making |
| Scientific | scientific_method, critical_thinking, debugging_approach | Analysis, troubleshooting, validation |
| Collaborative | collaborative_reasoning, structured_argumentation | Team thinking, debate, consensus |
| Advanced | metacognitive_monitoring, visual_reasoning, temporal_thinking | Self-reflection, design, process modeling |
| Probabilistic | stochastic_algorithm | Optimization, uncertainty, ML/AI |
🤝 Contributing
Contributions welcome! Please see our Contributing Guide for details.
📄 License
MIT License - see LICENSE for details.
🙏 Acknowledgments
- Built on the Model Context Protocol (MCP) by Anthropic
- Mental Models framework inspired by cognitive science research
- Stochastic algorithms based on reinforcement learning and decision theory
📞 Support
- 📖 Tool Reference - Complete API documentation
- 💡 Examples Guide - Usage examples and patterns
- 🐛 Report Issues
- 💬 Discussions
Give an AI thinking patterns, and it can solve any problem systematically.
Dev Tools Supporting MCP
The following are the main code editors that support the Model Context Protocol. Click the link to visit the official website for more information.











