Search and Filter

Repository Feedback

Your feedback helps us improve the repository's content relevance and usability. Please share your thoughts to help us better serve researchers and practitioners.

Submit feedback

Submit a research study

Contribute to the repository:

Add a paper

Enabling Multi-Agent Systems as Learning Designers: Applying Learning Sciences to AI Instructional Design

Authors
Jiayi Wang,
Ruiwei Xiao,
Xinying Hou,
John Stamper
Date
Publisher
arXiv
K-12 educators are increasingly using Large Language Models (LLMs) to create instructional materials. These systems excel at producing fluent, coherent content, but often lack support for high-quality teaching. The reason is twofold: first, commercial LLMs, such as ChatGPT and Gemini which are among the most widely accessible to teachers, do not come preloaded with the depth of pedagogical theory needed to design truly effective activities; second, although sophisticated prompt engineering can bridge this gap, most teachers lack the time or expertise and find it difficult to encode such pedagogical nuance into their requests. This study shifts pedagogical expertise from the user's prompt to the LLM's internal architecture. We embed the well-established Knowledge-Learning-Instruction (KLI) framework into a Multi-Agent System (MAS) to act as a sophisticated instructional designer. We tested three systems for generating secondary Math and Science learning activities: a Single-Agent baseline simulating typical teacher prompts; a role-based MAS where agents work sequentially; and a collaborative MAS-CMD where agents co-construct activities through conquer and merge discussion. The generated materials were evaluated by 20 practicing teachers and a complementary LLM-as-a-judge system using the Quality Matters (QM) K-12 standards. While the rubric scores showed only small, often statistically insignificant differences between the systems, the qualitative feedback from educators painted a clear and compelling picture. Teachers strongly preferred the activities from the collaborative MAS-CMD, describing them as significantly more creative, contextually relevant, and classroom-ready. Our findings show that embedding pedagogical principles into LLM systems offers a scalable path for creating high-quality educational content.
Study at a glance
  • Question: Can AI systems with built-in teaching principles create better learning activities for secondary math and science?
  • Setting and data: AI-generated secondary math and science learning activities evaluated by 20 practicing teachers.
  • Method: Compares materials from three AI systems using rubric scoring by teachers and an AI judge, plus teacher feedback.
Why it matters

Commercial LLMs lack the depth of pedagogical theory needed to design effective learning activities. Meanwhile, most teachers lack the time or expertise to encode such pedagogical nuance into their prompts.

Key findings
  • In secondary math and science, 20 teachers strongly preferred activities from a collaborative multi-agent AI system over baseline single-agent prompts.
  • Teachers described the collaborative AI-generated activities as significantly more creative, contextually relevant, and classroom-ready.
  • Standardized rubric scores from educators and an AI evaluator showed only small, often statistically insignificant differences across the tested AI systems.

Summary drafted with AI from the paper’s abstract and may contain errors. See the full paper for details.

What is the application?
Who is the user?