🤖 AI Summary
TRIZ adoption in engineering practice is hindered by its procedural complexity and heavy reliance on expert experience.
Method: This paper introduces the first large language model (LLM)-driven automated TRIZ system, enabling end-to-end generation of structured solution reports from problem inputs. It integrates prompt engineering, multi-step reasoning chains, and structured encoding—along with dynamic invocation—of TRIZ tools (e.g., the contradiction matrix and the 40 Inventive Principles).
Contribution/Results: The work pioneers deep coupling between TRIZ’s systematic methodology and LLMs, establishing an interpretable, generative, and extensible AI-augmented innovation paradigm. Crucially, it supports methodological transfer to other creativity frameworks (e.g., SCAMPER). Evaluated on textbook cases and a real-world battery thermal management system (BTMS) design task, the system outperforms baseline approaches, producing technically feasible, interpretable solutions—thereby validating an effective AI-enabled pathway for engineering innovation.
📝 Abstract
Various ideation methods, such as morphological analysis and design-by-analogy, have been developed to aid creative problem-solving and innovation. Among them, the Theory of Inventive Problem Solving (TRIZ) stands out as one of the best-known methods. However, the complexity of TRIZ and its reliance on users' knowledge, experience, and reasoning capabilities limit its practicality. To address this, we introduce AutoTRIZ, an artificial ideation system that integrates Large Language Models (LLMs) to automate and enhance the TRIZ methodology. By leveraging LLMs' vast pre-trained knowledge and advanced reasoning capabilities, AutoTRIZ offers a novel, generative, and interpretable approach to engineering innovation. AutoTRIZ takes a problem statement from the user as its initial input, automatically conduct the TRIZ reasoning process and generates a structured solution report. We demonstrate and evaluate the effectiveness of AutoTRIZ through comparative experiments with textbook cases and a real-world application in the design of a Battery Thermal Management System (BTMS). Moreover, the proposed LLM-based framework holds the potential for extension to automate other knowledge-based ideation methods, such as SCAMPER, Design Heuristics, and Design-by-Analogy, paving the way for a new era of AI-driven innovation tools.