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GAIDE: A Framework for Using Generative AI to Assist in Course Content Development

Project Overview

The document explores the integration of generative AI (GenAI) in education, centered around the GAIDE framework, which supports educators in creating diverse and engaging course content. It highlights the practical applications of GenAI in addressing challenges posed by the proliferation of AI tools among students, thereby facilitating streamlined course development and enhancing instructional design. The framework aims to improve educational outcomes by enabling more effective and innovative teaching methods. Additionally, the document touches upon technical concepts like red-black trees, illustrating the importance of their properties in maintaining balance and efficiency in operations such as insertion and deletion. These insights into both AI applications and data structures demonstrate a comprehensive approach to improving educational practices and outcomes through technology.

Key Applications

GAIDE: Generative AI for Instructional Development and Education

Context: Used by educators for course content development in higher education, targeting higher education instructors.

Implementation: Educators set clear goals and context for Generative AI to generate learning objectives and course content, followed by iterative refinement.

Outcomes: ['Reduced time and effort in content creation', 'Improved quality of educational materials', 'Enhanced academic integrity']

Challenges: ['Potential for inaccurate content generation', 'Need for instructor oversight in the refinement process']

Red-Black Trees

Context: Higher education computer science courses focused on data structures and algorithms, targeting undergraduate students through lectures and practical coding exercises.

Implementation: The properties of red-black trees are taught through lectures and practical coding exercises, where students implement insertion and deletion operations to understand self-balancing trees.

Outcomes: ['Students understand how self-balancing trees work', 'Ability to implement red-black trees', 'Capability to analyze performance']

Challenges: ['Students may struggle with understanding the color properties', 'Difficulty in rotations needed to maintain balance after insertions and deletions']

Implementation Barriers

Technological barrier

Inaccurate or misleading content generated by GenAI models, especially in advanced courses.

Proposed Solutions: Implement iterative refinement processes and instructor oversight to ensure content quality.

Pedagogical barrier

Challenges in adapting traditional teaching methods to incorporate GenAI tools effectively and providing training for educators.

Proposed Solutions: Provide training for educators on integrating GenAI into their teaching methodologies.

Understanding Complexity

Students may find it difficult to grasp the complexity and balance properties of red-black trees compared to simpler data structures.

Proposed Solutions: Provide visual aids and step-by-step examples to illustrate the balance properties and the algorithms for insertion and deletion.

Algorithm Implementation

Implementing the pseudocode for red-black tree operations can be challenging for students due to the complexity of maintaining tree properties.

Proposed Solutions: Encourage pair programming and code reviews to facilitate learning and understanding of the algorithms.

Project Team

Ethan Dickey

Researcher

Andres Bejarano

Researcher

Contact Information

For information about the paper, please contact the authors.

Authors: Ethan Dickey, Andres Bejarano

Source Publication: View Original PaperLink opens in a new window

Project Contact: Dr. Jianhua Yang

LLM Model Version: gpt-4o-mini-2024-07-18

Analysis Provider: Openai

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