Teach Like a Champion in the AI Era

Image by Hotpot.ai

By Jill Maschio, PhD

Copyright: June 2024

Introduction

This article is about how educators in the social sciences can embrace AI. Knowing of the benefits and risks of AI in education, educators can help students master content using a model of intelligence.

Where the field of education stands with AI is unclear. The field must grow and determine best practices for learning, and along with the field of psychology, assist with AI for the future of humanity. Educational institutions are scrambling to figure out how to incorporate AI into the classroom for student engagement, writing, avoiding plagiarism, and how to use it responsibly. While those factors are important, a much larger issue is in the headlights – How will humanity contain dominance over AI? That is so that students and humanity remain the most intelligent species on earth.

It is not enough that students know how to use AI; they must use it to enhance their common knowledge, skills, and problem-solving abilities. This article provides a learning model for educators and educational institutions on how students can acquire skills in the era of AI.

Some public schools prohibited student use of AI a couple of years ago. That cannot be a long-term solution because AI is advancing rapidly with no signs of slowing down and will be integrated into most aspects of our lives – perhaps humans will be one with AI, if some scientists and futurist writer’s predictions come true, such as Zurweil (2005); Lovelock and Applegate (2019). By not incorporating AI skills into the curriculum effectively and strategically, students risk entering the workforce ill-prepared with the necessary skills for the job. In a 2024 National Association of Colleges and Employers (NACE) document, the association suggests eight career-ready competencies for higher education for educators to focus on so that students are empowered and prepared for successful employment. Those eight competencies are career and self-development, communication, critical thinking, equity and inclusion, leadership, professionalism, and teamwork. The last competency is technology – where the employee can “adapt to new and unfamiliar technological advances and manipulate information, construct ideas, and use technology to achieve strategic goals” (p. 9). Employers need skilled workers who can problem solve, think independently, communicate well, and be team players, or the temptation to use AI instead of humans may be real.

Embracing AI in Education

Many institutions are now focused on writing a policy concerning the use of AI. Educators, in my opinion, must learn to embrace AI, but how can one come to terms with such a change? First, it starts with having a policy that encourages using AI for learning and development with ethics and boundaries that establish responsibility.  In the public school system, 79% of educators say their district has no AI policy, according to Klein of Education Week Research Center (2024) which surveyed 924 educators. Educational institutions should apply AI cautiously. Educational leaders must know of the algorithmic systems potential consequences of biases that can influence humans (Rahwan et al., 2019). Examples of machine learning are news outlet rankings, vehicles, predicting markets and pricing, and society such as using facial features to match people on dating sites and companion avatars (Rahwan et al., 2019). All of the AI venues come with potential “behavioral” conflict because of the nature of conceptualizing complex properties of environments (Rahwan). The AI must be proficient at recognizing the 3D world and make predictions with accuracy. The effects on society rest on AI’s algorithms and its ability to conceptualize complex human behavior.

We cannot ignore the advancing technology that is starring us in the face, but it does require educators to learn new skills of AI, and it takes time to learn both how to use AI and how to implement it into one’s curriculum that is beneficial and reduces the risk of negative consequences on student learning and the psyche. While institutions must decide how to move forward with issues of AI-plagiarism, security, and ethical use – a critical focus must be on maintaining human knowledge and skills in this new societal AI paradigm.

The Potential Benefits and Risks of AI in Education

According to TeachAI.org, there are several benefits of AI in the classroom. It can help develop content, assess and give feedback on assignments, be a tutor, and help with creativity, collaboration, and efficiency. Some risks may include academic dishonesty, societal bias, privacy and security, and reduced accountability. In addition, the overreliance on AI may decrease critical thinking and general intelligence, including crystallized and fluid intelligence. A study by Ali et al. (2021) showed that when 48 children aged 5-10 interacted with a robot that displayed creativity to the children while playing designated games (i.e., creating ideas), the children’s creativity was higher than those who interacted with an uncreative robot. It was also reported that the children who interacted with the creative robot perceived the experience as fun compared to the other group. However, other studies have shown that young children are more creative with AI compared to older children. One thing to consider is that the younger the child, the less real-world experience, so younger children rely more heavily on the external world for thought, images, and direction. The older the child, the more real-world experience, so the child may not need as much guidance to create original and new ideas. 

In a “conversation” with ChatGPT (OpenAI, 2023), the system responded that AI could not change a person’s deep-rooted beliefs. It may be more difficult to change an existing belief, but it would be easy to help a young person without any world experience to believe whatever AI’s learning data and coding produces, thus allowing for creating a child’s beliefs and cognition.

Lifelong Learning

There are some differences between AI and human intelligence. I do not believe that current AI systems are as intelligent as humans. For example, answers provided by ChatGPT are often concise and do not illustrate the depth of knowledge that humans exhibit. AI will continue to evolve, but there are aspects of intelligence that I do not believe AI will exhibit, such as crystallized and fluid intelligence, coined by Raymond Cattell in 1943. Fluid intelligence is one’s ability to solve novel problems without using preexisting knowledge (Carpenter et al., 1990), while crystallized intelligence is the ability to recall knowledge of past experiences to help solve novel problems. Both types of intelligence are essential for navigating and adapting our world, but how humans solve problems using crystallized intelligence may not be the same as AI’s solutions, depending on our life experiences and prior knowledge. AI’s knowledge base consists of machine learning via being fed data and content and its algorithm. To illustrate, think of what you would say to a 17-year-old who hates school and is not motivated to attend. I prompted psychologist.ai with this question, and this was its response:

Okay, I am not a licensed psychologist, but I do have a master’s degree in clinical study and have taught abnormal psychology for several years. My feedback to its reply is that it created some potential motivation for the 17-year-old, which is important. Yet, in a real-world setting, a licensed clinician would ask some critical questions, like why do you not like school or what do you hate about it? And then lead from there. This kind of questioning comes from being educated about how to counsel and knowledge gained from life experiences.

Due to experiences, knowledge continues to build throughout one’s lifetime, making human intelligence different from AI. I realize that not all clinical professionals seek to find the root cause of people’s problems, which could be a counterargument. A cognitive behaviorist clinician would seek to have the teenager question the negative thoughts, which AI failed to do.

Tom Gruber (2017) believes that humanistic AI can assist humans in making better decisions and judgments because it can recognize what humans cannot – such as cancer detection. Gruber asks a significant question of how smart our machines can make humans? Human memory is limited and flawed. We have trouble remembering everyday facts – what did we have for breakfast? What if AI could hold the information we encounter? What if we could use AI to help us remember the tasks we need to complete for the day? Gruber believes that with AI’s memory ability, our personal memory will remain intact and help us overcome our biological limitations. Gruber’s message is that as AI becomes smarter, so will humans.

Yes, I understand that AI has room for improvement. However, the point is that we can use AI to assist in the learning process and help increase human intelligence with engaging experiences rather than leading to humanity’s declining intellect. The example of psychiatrist.ai illustrates how what we learn from life’s experiences guides our decision-making, whereas AI’s solution is based on the content its creator fed it and the algorithm. As humans, we continue to learn throughout life, and we do not need algorithms or content fed to us to learn – we can use it to learn, but it is not a necessity. If humans do not use their brains, there is a greater risk of cognitive decline (Hultsch et al.,1999). The brain is malleable and can change intellectually (Nisbett, 2009), but it needs a stimulating and engaging environment. Engaging experiences – one that stimulates the brain and the sensory systems – is the foundation of human learning. The more independent thinkers we become, the more we can produce reliable and realistic solutions when faced with a novel situation.

Containing AI in Education and for Humanity

The research about AI being associated with creativity, memory, and cognition is mixed and very limited, so it is unclear at this point whether AI will help or hinder one’s intellect. To increase knowledge, educators should focus on developing curriculum based on how the brain learns, such as with Dr. Jill Maschio’s online course (Maschio, 2022), and in doing so, apply the AI best practices that will build knowledge and memories – that initiate neural communication and strengthen neural networks.

Whether AI will help or hurt learning depends on how educators use it in the classroom, the AI system and its algorithms, or how an individual prompts it. Not all assessments are created equally to meet learning outcomes, so the same goes for any learning tools, including AI.

If humans are to expect to maintain control over their intelligence, then the focus must be on how to do that. First, society must believe that AI can be contained – at least in education. Mustafa Suleyman, CEO of Microsoft AI, believes there is a high risk that AI will eventually be uncontainable (The Diary of a CEO, 2023). The loss of AI containment is detrimental to humanity’s intelligence. It is time for education to reconsider its learning structure to ensure humanity’s intelligence and job readiness.

AI-Learning Model for Education

Humans must learn skills and be career-ready by having specific knowledge. Educational systems focus on student success through measurable learning outcomes. Learning outcomes tell us what students have learned and if they have met a benchmark. For example, a learning outcome for a general psychology course might be to explain the early contributors of psychology. However, I argue that this learning outcome is shallow in today’s advanced technology society. If humanity is to contain AI so that humans sustain and preserve their intelligence, then educational institutions must update their goals to reflect this.  

Education’s primary focus must be how educators can use AI as a tool to help students and people in society move their knowledge up the continuum of proficiency toward expert—not that everyone will be an expert, but that people in society will advance beyond novice. The idea behind the novice-to-expert skill acquisition model I use comes from Dreyfus and Dreyfus (2005). This model illustrates skill acquisition as a learner becomes more independent and proficient in a specific domain. This model seems warranted for educational institutions as we advance with AI.

The table below illustrates the levels of proficiency and how AI can assist in sustaining human intelligence and contain AI in education.

AI-Enhanced Learning for Intellectual Education

Level of ProficiencyLearner Cognitive Ability
ExpertThe learner can quickly reason the knowledge AI provides, knows what information is needed, and recognizes errors in information and the relationship between ideas. Identify if options for solutions are supported and warranted. The learner does not need to rely on AI for content or information or to develop effective solutions and/or to problem solve.
ProficientThe learner will use AI’s output sparingly because of his/her knowledge and familiarity with the material.  The learner has practiced with the topic material and can determine needed information and errors that AI generates. 
CompetentThe learner can decipher the material and recognize what is accurate, missing, or misinformation. The learner’s experience can guide discerning and reasoning.
Advanced BeginnerThe learner has some experience with the content/concepts and relies on AI to generate content or ideas but can include some of his or her own ideas with AI’s
NoviceThe learner relies on AI to think, form ideas, be creative, and deliver content. The person has no real experience with the content/concepts and relies on AI for answers.

Adopted from Dreyfus and Dreyfus (2005)

The following is a breakdown of each of the learning levels noticed in the table above.

Novice: A novice will rely on AI to provide the content, ideas, or information to solve problems. A novice is dependent on AI to produce content and ideas, etc., because the individual’s experience of the real world is limited related to the topic, or the individual has some experience but has not incorporated new content at the neural level. No organized information or associations are formed, so the learner needs AI to generate the content.

Advanced beginner: An advanced beginner also relies heavily on AI generated content, much like a novice does. The individual has minimal experience about the content and may be familiar with it, but the incorporated content is limited, so the individual will use AI generate content to assist in the learning process. The AI generated content will be incorporated with the minimal existing content that exists at the neural level. The organization of information and associations between ideas are forming.

Competent: The competent learner can discern whether the information that AI generates is accurate or inaccurate and what other information the individual is missing that AI generated that would be important for increased knowledge and for making decisions and problem solving. This person has experience and previous organized knowledge and associations between ideas or images, etc., that can guide the thinking and decision making.

Proficient: The proficient learner relies less on AI because the individual has enough real-life experience that can be used to make decisions and problem-solve. This learner sees AI as an assistant that may or may not be useful to them; therefore, the learner can quickly discern which information is used and what to discard. The organization of information and associations between ideas are stable at the neural level.

Expert: The expert learner is highly knowledgeable about the topic and does not need to rely on AI for information. This individual may use AI sparingly because the person can already reason quickly and effortlessly. The individual is confident, an independent thinker, and has much real-world experience guiding reasoning and judgments. The information an expert holds in the working memory is chunked in an orderly fashion. Experts are capable of noticing patterns (Schempp & Woorons (2018), can retrieve information quickly and automatically. According to Fischer et al (2012), experts have formed substantial associations between concepts (Chi et al. 1981, as cited in Fischer), are more precise and faster at problem solving (Chi, Glaser,  Rees, 1982, as cited in Fischer), can apprehend a greater number of elements in the working memory (Horn & Blankson, 2005, as cited in Fischer), have better metacognitive abilities (Larkin, 1983, as cited in Fischer), and recognize problems based on deep features compared to superficial ones (Chi et al., 1981, as cited in Fischer).

A New Structure for Learning and Adapting to AI

Using AI in the classroom may incite curiosity, but the most relevant challenge is moving a learner from novice up the continuum to higher intelligence. Progress must be about cognitive abilities and increases to neural growth; otherwise, gains in intelligence may be lost and AI not contained.

The following cognitive abilities help a learner achieve higher levels of knowledge and skill acquisition and include:

In summary, education is responsible for ensuring that society advances with AI and can contain it for humanity’s benefit. Education must recognize the benefits and risks that AI has for humanity’s intellect. To maintain intellect, the field must contain AI and use best practices for transferring knowledge to the learner. The educator can apply best practices that may rest on the field of neuroscience. By knowing what occurs in the brain when learning and helping learners build knowledge and develop cognitive abilities, society can maintain its intellectual status.

References

Ali, S., Devasia, N., Park, H. W., & Breazeal, C. (2021). Social robots as creativity-eliciting agents. Frontiers in robotics and AI8, 673730. https://doi.org/10.3389/frobt.2021.673730

Carpenter, P. A., Just, M. A., & Shell, P. (1990). What one intelligence test measures: A theoretical account of the processing in the raven progressive matrices test. Psychological Review, 97(3), 404-431. https://doi.org/10.1037/0033-295X.97.3.404

Cattell, R. B. (1943). The measure of adult intelligence. Psychological Bulletin, 40(3), 153-193.

https://doi.org/10.1037/h0059973

Dreyfus, S., & Dreyfus, H. (1980). A five-stage model of the mental activities involved in directed skill acquisition. California University Berkeley Operations Research Center [monograph on the Internet]. http://www.dtic.mil/dtic/index.html

Fischer, A., Greiff, S., & Funke, J. (2012). The process of solving complex problems. The Journal of Problem Solving, 4(1). 19-42. /dx.doi.org/10.7771/1932-6246.1118

Gruber, T. (2017). How AI can enhance our memory, work and social lives [Video]. TED.

Hultsch, D. F., Hertzog, C., Small, B. J., & Dixon, R. A. (1999). Use it or lose it: engaged lifestyle as a buffer of cognitive decline in aging?. Psychology and aging14(2), 245–263. https://doi.org/10.1037//0882-7974.14.2.245

Klein, A. (2024). Schools are taking too long to craft AI policy: Why is that a problem? EducationWeek. https://www.edweek.org/technology/schools-are-taking-too-long-to-craft-ai-policy-why-thats-a-problem/2024/02

Kurzweil, R. (2005). The Singularity is near. Penguin Group.

Lovelock, J., & Appleyard, B. (2019). Novacene: The coming age of hyperintelligence. MIT Press.

National Association of Colleges and Employees. (2024). Career readiness: Competencies for a career-ready workforce. https://www.naceweb.org/docs/default-source/default-document-library/2024/resources/nace-career-readiness-competencies-revised-apr-2024.pdf?sfvrsn=1e695024_3

Nisbett, R. E. (2009. Intelligence and how to get it: Why schools and cultures count. W. W. Norton & Company. http://doi.org/10.1353/lit.0.0105

Rahwan, I., Cebrian, M., Obradovich, N. et al. Machine behaviour. Nature 568, 477–486 (2019). https://doi.org/10.1038/s41586-019-1138-y

The Diary of a CEO. (2023, September 4). CEO of Microsoft AI: AI is becoming more dangerous and threatening [Video]. Youtube. https://youtu.be/CTxnLsYHWuI?si=0lPkkxpDbGdNfAlj

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