Introduction
In an article yesterday, Alexander "Sasha" Sidorkin wrote about how AI has “invaded” education, making it “increasingly clear that our current educational paradigms and learning theories are no longer sufficient to explain how people now learn.”
An article by four MIT professors was a bit gentler, describing it as an AI “arrival” technology. It was also less direct in the size of change needed. But Sidorkin is right that “AI-powered tools and systems can now take on many of the roles previously reserved for human instructors, blurring the lines between tools and collaborators in the learning process.”
You say “invasion” and I say “arrival,” but there is no one to call the whole thing off.
This technology is transformational. It’s so transformational that Mustafa Sulyeman suggests that it may not even be appropriate to think of it as a technology.
What does his ultimately mean for education?
I think Sidorkin is correct when he writes —
As AI systems become increasingly capable of performing tasks that once required human cognitive processes, the focus of education may need to shift from the internalization of knowledge and skills to the development of strategies for effective externalization and collaboration with AI. In other words, the aim of education shifts from an individual learner to a symbiosis of a human and a machine.
He adds —
(L)earners to focus on higher-order aspects of the writing process, such as idea generation, argumentation, and style, while offloading more mechanical tasks like grammar and syntax checking to AI tools…Rather than viewing AI as a threat to human intelligence, a blended intelligence approach seeks to harness the complementary strengths of humans and machines, creating a symbiotic relationship that enhances the potential of both.
Co-Intelligence and Metacognitive Skills
Metacognitive skills, which encompass the ability to monitor, evaluate, and regulate one's thought processes and learning strategies, play a crucial role in enabling students to navigate the complexities of AI-human cointelligence. At the core of this lies self-awareness and self-regulation. By developing a deep understanding of their strengths, weaknesses, and knowledge gaps, students can recognize when to rely on their capabilities and when to seek assistance from AI systems. This self-awareness, coupled with the ability to adjust their learning strategies and approaches, empowers students to optimize their interactions with AI and leverage its full potential.
Moreover, metacognitive skills foster critical thinking, a fundamental component of effective decision-making in the realm of AI-human cointelligence. As AI systems generate outputs and recommendations, students must possess the ability to analyze, question, and reason about the information provided, rather than blindly accepting it. This critical thinking ability not only ensures informed decision-making but also promotes the responsible and ethical use of AI technologies.
As AI technologies advance, the ability to reflect on one's learning processes, identify areas for improvement, and develop strategies to bridge knowledge gaps becomes invaluable for maintaining effective collaboration with AI systems.
By fostering transparency and clear articulation of thought processes and reasoning, students can build trust and establish productive working relationships with AI systems. Additionally, metacognition helps students recognize and address potential biases, assumptions, or misconceptions that may arise during these interactions, further enhancing the quality and reliability of the collaborative efforts.
As AI systems become increasingly influential, the development of metacognitive skills plays a pivotal role in promoting ethical and responsible decision-making. By encouraging students to reflect on the implications and potential consequences of using AI systems, metacognition cultivates a mindset that prioritizes factors such as fairness, privacy, transparency, and accountability. This ethical awareness is essential for mitigating potential risks and ensuring that AI-human cointelligence is leveraged in a manner that benefits society as a whole.
Debate As the Solution
Academic debate is a powerful tool in education, primarily because it fosters metacognitive skills among participants.
Enhancing Awareness of Thought Processes
Debate requires participants to plan, organize, and articulate their thoughts in a structured manner. This necessitates a high level of self-awareness about one’s cognitive processes. Debaters must think about how they think in order to construct coherent arguments, anticipate counterarguments, and respond to opponents effectively. This practice develops their ability to monitor their own thought patterns and strategies, recognizing biases and gaps in their knowledge.
Developing Critical Thinking Skills
Debaters are constantly tasked with analyzing the validity and soundness of arguments — both their own and those of their opponents. This involves evaluating evidence, assessing the relevance and impact of information, and drawing reasoned conclusions. Such activities are the bedrock of critical thinking, which is itself a metacognitive process. Debaters must not only use these skills in the heat of competition but also reflect on and critique their own reasoning processes afterward, thereby improving their future performance and thought clarity.
Promoting Self-Regulation
Debate also enhances self-regulatory skills. Debaters must manage their time, control their emotions, and adjust their strategies based on the flow of the debate. Self-regulation in this context means being cognitively flexible — adapting one's cognitive processes in response to new information or feedback. This is particularly evident during rebuttals, where debaters must quickly reassess their own arguments in light of opposition and judge the best course of action under pressure.
Encouraging Reflective Thinking
Reflection is a critical aspect of metacognition, involving looking back at one’s performance to evaluate and learn from it. Debaters often engage in post-debate reflection sessions where they analyze the strengths and weaknesses of their arguments, consider alternative strategies, and plan how to improve in future debates. This reflective practice not only improves their debate skills but also enhances their general ability to learn from experience.
Fostering Transfer of Skills
The skills developed through debate are not limited to debating alone; they are transferable to other academic pursuits and real-life scenarios. For example, the ability to structure and organize thoughts can enhance written and oral communication in various contexts. Similarly, the ability to critically assess information can improve problem-solving skills in academic research and professional tasks. The metacognitive skills homed in debate thus contribute to a broader set of capabilities.
Conclusion
Overall, the power of academic debate in strengthening metacognition lies in its rigorous demand for cognitive awareness, control, and evaluation. These skills are crucial not only for academic success but also for personal growth and professional development. Through debate, students become more adept at understanding their cognitive processes, controlling and adapting them as needed, and reflecting on their effectiveness, which are all key aspects of becoming effective learners and thoughtful individuals.
Many schools are starting to turn themselves upside down to find the best instructional approach for the world of AI. We already have one and we’ve been doing it for a century.
For more, check out Beyond Algorithmic Solutions: The Significance of Academic Debate for Learning Assessment and Skill Cultivation in the AI World.
We should focus on introducing computer science (CS) and harder quantitative skills training (e.g., data science and analytics) in all majors (especially in STEM fields with underdeveloped CS and data science skills, such as chemistry and biology).
I don't buy Huang's (Nvidia CEO) premise that people need to study biology instead of learning coding (or programming).
To me, that sounds like a strategy to prevent people from achieving the success they can with programming skills, and to keep a subset of scientists and researchers (or other people in general) from making less money and doing the tedious and boring work that is used to train AI models. Telling people not to learn coding and programming limits competition, which actually benefits Nvidia and other tech companies. It also benefits the people currently working at those companies because they can relax a bit and not worry about competition.
The truth is that the practical work of chemists and biologists, such as laboratory and field work, does not even require a Bachelor of Science degree and can be done by a trained technician and eventually by robots, while the "trained" biologists and chemists can eventually work comfortably from a computer and make a lot of money like programmers by helping to design and program AI systems.
It just takes a paradigm shift. The truth is also that the more competition there is, the better the salaries will be, and for the most part, any trivial job, CS-related or not, will be automated by AI, so the people currently working in tech will not have to worry so much about us non-CS majors taking their jobs. They should not worry so much about making their work non-inclusive.
We should also focus more on oral problem solving and research skills instead of closed book exams, essays, and regurgitation.