HARNESSING GENERATIVE AI IN HIGHER EDUCATION: USES AND CONCERNS
JAMES PITARRESI
VICE PROVOST AND DISTINGUISHED TEACHING PROFESSOR
EXECUTIVE DIRECTOR, CENTER FOR LEARNING AND TEACHING
BINGHAMTON UNIVERSITY
JMP@BINGHMATON.EDU
CLT WORKSHOP NOVEMBER 22, 2024
SOMETHING CRAZY HAPPENED
November 2022 ChatGPT 3.5
The Homework Apocalypse
(Ethan Mollick July 2023)
THEN SOMETHING REALLY CRAZY HAPPENED
March 2023 ChatGPT 4
The Llama 3 Herd of Models, Meta, July 2024
Generation 2 LLMs
The Llama 3 Herd of Models, Meta, July 2024
WHERE DO LLMS GET THEIR DATA?
Wikipedia
“We are living in the experiment.”
-Dave Copps
“The key to surviving this new educational landscape is to embrace AI’s potential while being mindful of its limitations and ethical challenges.”
- Ethan Mollick
LLM CHATBOTS
LLM CHATBOTS
Remember, it is a language model – talk to it!
CHALLENGES WITH CHATBOTS IN HIGHER ED
Impact Research and the Walton Family Foundation Survey. (2024, May). AI Chatbots in Schools: Findings from a Poll of K-12 Teachers, Students, Parents, and College Undergraduates
CHALLENGES WITH CHATBOTS IN HIGHER ED
Bastani, H., Bastani, O., Sungu, A., Ge, H., Kabakcı, O., & Mariman, R. (2024). Generative AI Can Harm Learning. Available at SSRN 4895486.
“Learning Loss”
CHALLENGES WITH CHATBOTS IN HIGHER ED
HOW CAN WE USE LLM CHATBOTS?
WHERE DO WE SPEND TIME AS INSTRUCTORS?
LET US SUPPOSE…
You are assigned to teach (or revamp) a course.
About how long would this take?
SIMPLE PROMPT CRAFTING: �TALK TO IT!
https://alchemy.works/
ROLE (Act as) | TASK (Create a) | REQUIREMENTS (Be sure to) | OUTPUT (Turn into) |
• Instructor | • Lesson | • Include | • Plain text |
• Learning Designer | • Summary | • Exclude | • Bulleted list |
• Researcher | • Blog draft | • Number | • Concept map |
• Project Manager | • Book outline | • Length | • Table |
• Committee Chair | • Proposal | • Steps | • Spreadsheet |
• Facilitator | • Video script | • Level | • Graph |
• Presenter | • Letter of rec | • Tone | • Slides |
• Author | • Inclusive | • Code |
DEMO
As a university researcher, please give me a short summary of this article and include a bulleted list of key findings.
As an expert in teaching mechanical engineering to undergraduate students, can you list the typical topics covered in a Strength of Materials course?
But wait, there’s more! When starting a project, I often insert an additional important prompt:
“Before we start, what clarifying questions do you have for me?”
“Acting as a prompt engineer, review the prompt and optimize it; ask me any questions about it.”
BUILDING A COURSE WITH ChatGPT 4o
Wonderful! I plan to use Beer, et al., Mechanics of Materials, latest edition. I'd like a general list of topics that are covered in a 15-week, 3-credit course. What do you suggest for the main topics?
Exclude Shear Force and Bending Moments as well as Energy Methods. My class meets three times per week, every Monday, Wednesday, and Friday, for one hour at each meeting. Can you draft a 15-week schedule for me? And put it into a table.
Week | Monday | Wednesday | Friday | Textbook Chapters/Sections |
1 | Introduction to Mechanics of Materials | Concepts of Stress and Strain | Mechanical Properties of Materials | Ch. 1: Introduction-Concept of Stress (1.1 - 1.7) |
2 | Axial Load: Normal Stress and Strain | Hooke's Law and Young's Modulus | Poisson's Ratio and Thermal Stress | Ch. 2: Stress and Strain - Axial Loading (2.1 - 2.7) |
3 | Torsion: Torsional Deformation of a Circular Shaft | Shear Stress and Strain in Torsion | Power Transmission | Ch. 3: Torsion (3.1 - 3.5) |
4 | Stresses in Beams: Bending Stresses in Beams | Shear Stresses in Beams | Composite Beams | Ch. 4: Pure Bending (4.1 - 4.4) |
5 | Analysis of Stress and Strain: Transformation of Stress | Principal Stresses and Strains | Mohr's Circle for Stress and Strain | Ch. 7: Transformations of Stress and Strain (7.1 - 7.5) |
6 | Deflection of Beams: Differential Equation of the Curve | Methods for Determining Beam Deflections (Integration) | Area-Moment Method | Ch. 9: Deflection of Beams (9.1 - 9.6) |
7 | Superposition Method | Statically Indeterminate Beams: Analysis | Method of Superposition | Ch. 9: Deflection of Beams (9.7 - 9.8) |
8 | Columns: Buckling of Columns | Euler's Formula for Long Columns | Column Design | Ch. 10: Columns (10.1 - 10.6) |
9 | Stress Concentrations: Stress Concentration Factors | Effects of Discontinuities | Application Examples | Ch. 6: Shearing Stresses in Beams and Thin-Walled Members (6.1 - 6.5) |
10 | Thin-Walled Pressure Vessels: Stresses in Cylindrical | Stresses in Spherical Vessels | Application Examples | Ch. 6: Shearing Stresses in Beams and Thin-Walled Members (6.6) |
11 | Failure Theories: Maximum Stress Theory | Maximum Strain Theory | von Mises Criterion | Ch. 8: Principal Stresses Under a Given Loading (8.1 - 8.4) |
12 | Applications in Design: Failure Theories | Combined Loading: Superposition of Loadings | Stress Analysis under Combined Loading Conditions | Ch. 8: Principal Stresses Under a Given Loading (8.5 - 8.7) |
13 | Practical Applications and Examples | Comprehensive Review of Key Concepts | Problem-Solving Session | Various Chapters (review) |
14 | Case Studies and Real-World Applications | Review for Final Exam | Review for Final Exam | Various Chapters (review) |
15 | Final Review and Q&A | Final Review and Q&A | Course Wrap-Up and Feedback | Various Chapters (review) |
Thank you. Now, I have a tricky task for you. Can you match the topics we put in our table to chapters and sections of the textbook I mentioned?
With the correct table of contents in these photos, can you match the topics we put in our table to chapters and sections of the textbook? Put it in a MS Word format I can download.
Week | Monday | Wednesday | Friday | Textbook Chapters/Sections |
1 | Introduction to Mechanics of Materials | Concepts of Stress and Strain | Mechanical Properties of Materials | Ch. 1: Introduction – Concept of Stress (1.1 - 1.5) |
2 | Axial Load: Normal Stress and Strain | Hooke’s Law and Young’s Modulus | Poisson’s Ratio and Thermal Stress | Ch. 2: Stress and Strain - Axial Loading (2.1 - 2.4) |
3 | Torsion: Torsional Deformation of a Circular Shaft | Shear Stress and Strain in Torsion | Power Transmission | Ch. 3: Torsion (3.1 - 3.4) |
4 | Stresses in Beams: Bending Stresses in Beams | Shear Stresses in Beams | Composite Beams | Ch. 4: Pure Bending (4.1 - 4.4) |
5 | Analysis of Stress and Strain: Transformation of Stress | Principal Stresses and Strains | Mohr’s Circle for Stress and Strain | Ch. 7: Transformation of Stress and Strain (7.1 - 7.2) |
6 | Deflection of Beams: Differential Equation of the Curve | Methods for Determining Beam Deflections (Integration) | Area-Moment Method | Ch. 9: Deflection of Beams (9.1 - 9.3) |
7 | Superposition Method | Statically Indeterminate Beams: Analysis | Method of Superposition | Ch. 9: Deflection of Beams (9.4 - 9.5) |
8 | Columns: Buckling of Columns | Euler’s Formula for Long Columns | Column Design | Ch. 10: Columns (10.1 - 10.3) |
9 | Stress Concentrations: Stress Concentration Factors | Effects of Discontinuities | Application Examples | Ch. 6: Shearing Stresses in Beams and Thin-Walled Members (6.1 - 6.5) |
10 | Thin-Walled Pressure Vessels: Stresses in Cylindrical | Stresses in Spherical Vessels | Application Examples | Ch. 6: Shearing Stresses in Thin-Walled Members (6.6) |
11 | Failure Theories: Maximum Stress Theory | Maximum Strain Theory | von Mises Criterion | Ch. 7: Theories of Failure (7.5), Ch. 8: Principal Stresses (8.1 - 8.3) |
12 | Applications in Design: Failure Theories | Combined Loading: Superposition of Loadings | Stress Analysis under Combined Loading Conditions | Ch. 8: Principal Stresses Under a Given Loading (8.4 - 8.7) |
13 | Practical Applications and Examples | Comprehensive Review of Key Concepts | Problem-Solving Session | Various Chapters (review) |
14 | Case Studies and Real-World Applications | Review for Final Exam | Review for Final Exam | Various Chapters (review) |
15 | Final Review and Q&A | Final Review and Q&A | Course Wrap-Up and Feedback | Various Chapters (review) |
BTW, I can also pull in ABET criteria.
FREQUENT FORMATIVE ASSESSMENT
I want to prepare some practice problems for my students. As an expert teacher in Mechanics of Materials, can you give me 10 problems based on Ch. 2: Stress and Strain - Axial Loading in Beer, et al, Mechanics of Materials 8th edition. Before we start, any questions for me?
1) A mix of basic to medium difficulty would be best.2) Basic calculation problems, some real-world problems if possible. No derivations.3) Students can use the book 4) A mix of both 5) A mix from those sections is fine.
Hello, as an expert in mechanical engineering, I would like you to solve the following problem.
A turbine engine produces 7,000 kW at 5,500 RPM. A solid circular shaft of diameter D1 connects the output to a 10:1 reduction gear set. From there, a second solid shaft of diameter D2 connects the electrical generator. Note 10:1 signifies that shaft D2 is rotating at 10 times less than shaft D1 (i.e., its angular velocity (ω) is less).
If the allowable shear stress in the shaft material is 100MPa, what are the diameters of the two solid circular shafts?
Frequent Formative Assessment
This should be 85.2 mm
Your approach is correct. However, you did not calculate the cubed root for both D1 and D2 correctly. Please review your work, take your time, and check your math!
ChatGPT4o1 got it correct on the first try.
In week 10 of my course, I plan to cover pressure vessels. Are there any noteworthy failures of pressure vessels that I could use in my course as a quick active learning exercise?
Can you expand on Case Study 4? I would like you to gather information on the Apollo 13 explosion, use the Internet if needed.
I would like you to gather background information as well as technical information, specifically regarding the failed pressure vessel's design.
I'd like you to outline a slide deck of four to six slides based on what you find.
AI Generated Slide Deck via Gamma
(gamma.app)
As an expert in higher education pedagogy, please review the course table you made and develop a course description including reference to ABET 2024.
By-the-way, I’ve spent less than 15 minutes on this task.
I HAVE A QUESTION…
WHO IS THIS “EXPERT” IN HIGHER EDUCATION PEDAGOGY?
Let’s explore a more intentional prompting approach.
What if I could leverage the knowledge an expert, like Ken Bain of the Best Teacher Institute, and get feedback on my course description?
Using the internet, can you identify up to 8 sources of information on him?
Acting through the “lens” of Ken Bain’s work, can you review the course description and learning objectives above and give me feedback?
How might Ken Bain revise the course description and learning objectives?
I CAN NOW BUILD TEAMS OF EXPERTS
CHEATING
“Students will cheat with AI.
But they also will begin to integrate AI into everything they do, raising new questions for educators. Students will want to understand why they are doing assignments that seem obsolete thanks to AI. They will want to use AI as a learning companion, a co-author, or a teammate.
They will want to accomplish more than they did before, and also want answers about what AI means for their future learning paths.”
-Ethan Mollick The Homework Apocalypse, July 2023
Cheating has been around for a long time, accelerated by the Internet, smartphones, organized “cheating” providers, and now generative AI.
The Unpleasantness of Thinking: A Meta-Analytic Review of the
Association Between Mental Effort and Negative Affect
David, et al. https://doi.org/10.1037/bul0000443
People are good at finding ways of avoiding something they don’t want to do, like mental effort.
ENCOURAGE THINKING, NOT REPLACE IT WITH AI
Other Fun Tools: Google’s Notebook LM
ENT 280A: Innovation Scholars Program Study Guide - Fall 2023
Short Answer Quiz
Instructions: Answer the following questions in 2-3 sentences each.
Short Answer Quiz Answer Key
Essay Questions
Glossary of Key Terms
Google’s Illuminate
https://illuminate.google.com/
arXiv is a free distribution service and an open-access archive for nearly 2.4 million scholarly articles in the fields of physics, mathematics, computer science, quantitative biology, quantitative finance, statistics, electrical engineering and systems science, and economics.
ADMINISTRATIVE TASK: �STUDENT EVALUATION OF TEACHING
Questions 1 - 14 | Questions 15 - 18 |
The instructor is well prepared for class. | Usefulness of homework assignments. |
The instructor demonstrates a thorough knowledge of the subject. | Usefulness of lab assignments. |
The instructor communicates his/her subject well. | Usefulness of examinations. |
The instructor explains complex ideas clearly. | Usefulness of class discussions. |
The instructor stimulates my interest in the core subject. | Year in School. |
The instructor is receptive to questions. | What requirements does this course fulfill? |
The instructor is available to help me outside of class. | Expected Grade. |
The instructor encourages me to think analytically. | In this course, I expect to obtain a grade higher or lower than my current GPA? |
Overall, the instructor is an effective teacher. | What was good about the course? |
My interest in subject before course. | What was bad about the course? |
My interest in subject after course. | How can the course be improved? |
Difficulty (relative to other courses). | What was good about the instructor? |
Workload (relative to other courses). | What was bad about the instructor? |
Usefulness of texts. | How can the instructor improve? |
Goal: develop questions that avoid bias due to gender, ethnicity, and physical attractiveness in evaluations of instructors.
Based on the search results, there are several key researchers and experts who have contributed to developing questions and methods to avoid bias due to gender, ethnicity, and physical attractiveness in evaluations of instructors:
Philip B. Stark - Professor of Statistics at UC Berkeley who has done extensive research on issues with student evaluations of teaching and developing more valid methods.
Anne Boring - Assistant Professor at Erasmus University Rotterdam who has studied gender bias in student evaluations.
Justin Esarey - Associate Professor of Politics at Wake Forest University, who has studied statistical issues with student evaluations.
Bob Uttl - Professor of Psychology at Mount Royal University, who has conducted meta-analyses on the validity of student evaluations.
Now, I would like you to evaluate the questions I provided you, but this time, I want your feedback through the "lens" of the four experts mentioned above. Take your time and give me high-quality feedback and suggested changes to the questions.
USING VIDEO AND PODCAST TRANSCRIPTS
AI ASSISTED GRADING
https://mitsloanedtech.mit.edu/2024/05/09/ai-assisted-grading-a-magic-wand-or-a-pandoras-box/
AI TUTORING
www.cognifytutors.com
www.khanmigo.ai
ETHICAL AND OTHER CONSIDERATIONS
Strategic Action | Description |
Encourage AI Experimentation | Faculty and students should actively experiment with AI in their fields to understand its strengths and limitations. Encourage cross-disciplinary AI projects. |
Integrate AI Training into Curriculum and Professional Development | Embed AI literacy in the curriculum for all students. Provide faculty development workshops on using AI effectively in teaching and research. |
Focus on Ethical and Privacy Guidelines | Develop and enforce privacy and ethical guidelines for AI use to protect data. Integrate AI ethics courses and workshops to promote responsible use. |
Support Active AI Research and Innovation Labs | Establish AI-focused research centers and create “sandbox” environments for safe experimentation without privacy risks. Encourage interdisciplinary AI research. |
Address Academic Integrity in the AI Era | Rethink assessments to focus on critical thinking and creativity, as AI can complete many traditional assignments. Teach students to use AI responsibly. |
Foster an Environment of Urgency and Innovation | Emphasize the importance of actively experimenting with AI, as it’s accessible globally. Promote a culture of continuous learning and adaptability. |
Leverage AI for Operational Efficiency | Use AI to automate administrative tasks, such as enrollment and advising, allowing staff to focus on high-impact work. Apply AI insights to improve university operations. |
Key Strategic Priorities
BU INITIATIVES