elias001
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There has been a lot of buzz about LLMs being able to do math research.
Here are a few links:
I am not sure which of the LLMs from Google or Microsoft or which ever big tech companies that did really well in this year's math IMO.
Also ever since the theorem proof checker speciality programming language Lean, and its 4.0 version came on the scene, there has been a lot of excitement from the tech savy corner of the research math community, now with the rise of LLMs, their excitement on X/twitter is so palpable to the point of feeling almost orgasmic. In some universities, there were intro to proofs course being offer where students are to learn to do proofs by using Lean. There are efforts such as: https://github.com/danieleschmidt/autoformalize-math-lab for translating math statements into code that will be readable by any of the proof checker programming languages. Not to mention there is an existing start up that uses AI to read a math psper and translate it back into LaTex code: https://mathpix.com/
OK, here is something to think about? How will all these technological innovations affect the teaching and learning of mathematics at all levels, from kids to the graduate level?
Think about it, how many parents that are not good in math, but need to find tutors for their kids with learning math for whatever reasons. I am not going to lay the blame on bad math teachers, or limited school resources, etc. However, one thing that will have an impact are parents who have limited financial means or parents who doesn't speak English or whatever language their children speak in school. These situations apply from grade school all the way to high school level.
Then there is what happens at universities. First year calculus or linear algebra courses. If a course has 600 plus students, there are only so many hours a course instructor or teaching assistant can be made available. There is also emailing and waiting for replying or waiting until the weekly office hours.
The fun gets even more suspenseful when any math courses where proofs are involved. I mean now with Lean, students can learn how to code in the language and write out their own proofs in Lean and have it check if it is correct. Why is this last part important and relevant.
In a math course involving proofs, if there are 50 students, and there are weekly problem sets, and each problem sets have 10 questions all involving proofs. A teaching assistant can mark two questions for each hand in problem sets. That means the other eight don't get looked at. The tests and exams usually have the announcement from their dear instructors/professors along the following line: students are expected to know all materials covered in lectures, textbook assigned readings and homework assignments. If there are 50 students, 13 week courses=13 problem sets and 10 proof questions/problem set. There are a total of 130 questions that involve proofs. A teaching assistant has a weekly office hour of 1 hour, plus certain alloted time for marking. There is of course the instructors/professors., but they have a limited amount of time per week.
Oh I haven't even mentioned about the engineer oriented math courses. But such issues don't apply to engineers. They are in constant training to be resourceful in finding solutions to problems they don't know how to solve, and LLM is another tool they can add to their tool belt.
Here are a few links:
I am not sure which of the LLMs from Google or Microsoft or which ever big tech companies that did really well in this year's math IMO.
Also ever since the theorem proof checker speciality programming language Lean, and its 4.0 version came on the scene, there has been a lot of excitement from the tech savy corner of the research math community, now with the rise of LLMs, their excitement on X/twitter is so palpable to the point of feeling almost orgasmic. In some universities, there were intro to proofs course being offer where students are to learn to do proofs by using Lean. There are efforts such as: https://github.com/danieleschmidt/autoformalize-math-lab for translating math statements into code that will be readable by any of the proof checker programming languages. Not to mention there is an existing start up that uses AI to read a math psper and translate it back into LaTex code: https://mathpix.com/
OK, here is something to think about? How will all these technological innovations affect the teaching and learning of mathematics at all levels, from kids to the graduate level?
Think about it, how many parents that are not good in math, but need to find tutors for their kids with learning math for whatever reasons. I am not going to lay the blame on bad math teachers, or limited school resources, etc. However, one thing that will have an impact are parents who have limited financial means or parents who doesn't speak English or whatever language their children speak in school. These situations apply from grade school all the way to high school level.
Then there is what happens at universities. First year calculus or linear algebra courses. If a course has 600 plus students, there are only so many hours a course instructor or teaching assistant can be made available. There is also emailing and waiting for replying or waiting until the weekly office hours.
The fun gets even more suspenseful when any math courses where proofs are involved. I mean now with Lean, students can learn how to code in the language and write out their own proofs in Lean and have it check if it is correct. Why is this last part important and relevant.
In a math course involving proofs, if there are 50 students, and there are weekly problem sets, and each problem sets have 10 questions all involving proofs. A teaching assistant can mark two questions for each hand in problem sets. That means the other eight don't get looked at. The tests and exams usually have the announcement from their dear instructors/professors along the following line: students are expected to know all materials covered in lectures, textbook assigned readings and homework assignments. If there are 50 students, 13 week courses=13 problem sets and 10 proof questions/problem set. There are a total of 130 questions that involve proofs. A teaching assistant has a weekly office hour of 1 hour, plus certain alloted time for marking. There is of course the instructors/professors., but they have a limited amount of time per week.
Oh I haven't even mentioned about the engineer oriented math courses. But such issues don't apply to engineers. They are in constant training to be resourceful in finding solutions to problems they don't know how to solve, and LLM is another tool they can add to their tool belt.
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