triz-engineering-solver

Map engineering contradictions to TRIZ parameters and output inventive concepts with ideality scores.

18|8|Updated Apr 23, 2026
One-click install
npx skills add https://github.com/Antropocosmist/triz-engineering-solver --skill triz-engineering-solver
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: triz-engineering-solver
Source: https://github.com/Antropocosmist/triz-engineering-solver/tree/main
Command: npx skills add https://github.com/Antropocosmist/triz-engineering-solver --skill triz-engineering-solver

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

TRIZ Engineering Solver automates structured problem solving for engineering contradictions, replacing guesswork with a deterministic workflow that yields 3–5 inventive concepts with explicit ideality scores.

Core Features & Use Cases

  • Deterministic workflow: deterministic decision points based on canonical TRIZ data (39 parameters, 40 principles, matrix, Su-Field).
  • Comprehensive problem framing: IFR, technical and physical contradictions, Su-Field analysis, and ARIZ deepening when needed.
  • Resource-aware concepts: emphasizes internal/external/temporal resources and minimizes new parts.
  • Output format: machine-readable templates with ideality scores for validation.

Quick Start

Describe a physical or technical contradiction to trigger the TRIZ analysis and let the tool output 3–5 inventive concepts with ideality scores.

Frequently Asked Questions about triz-engineering-solver

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I resolve engineering contradictions using TRIZ?

To resolve engineering contradictions using TRIZ, map your improving and worsening parameters through the 39 Engineering Parameters and the Contradiction Matrix to generate 3 to 5 actionable inventive concepts with ideality scores.

What is the difference between technical and physical contradictions in problem-solving?

Technical contradictions involve trade-offs between two parameters, while physical contradictions require a single parameter to have opposing states. The solver applies separation principles for physical contradictions and the 40 Inventive Principles for technical ones.

How do I use Su-Field analysis and ARIZ for complex engineering problems?

Use Su-Field analysis to model interactions between substances and fields, then apply ARIZ as a deep-dive workflow for complex contradictions. This systematic approach yields resource-aware concepts that minimize new parts.

Can I solve physical and technical contradictions without adding new parts to the system?

Yes, the solver emphasizes resource-aware concepts by leveraging internal, external, and temporal resources to increase ideality. It outputs solutions with explicit ideality scores to validate that new parts are minimized.

What is the best way to generate inventive concepts with ideality scores?

The best way to generate inventive concepts with ideality scores is to frame your problem as an Ideal Final Result and let the deterministic workflow output machine-readable templates. This replaces guesswork with structured TRIZ validation.

When should I not use the Contradiction Matrix for engineering problem-solving?

You should avoid using the Contradiction Matrix when the problem cannot be framed as a trade-off between specific improving and worsening parameters. Instead, shift to Su-Field analysis or the ARIZ deep-dive for unparameterized physical contradictions.