[HN Gopher] Reimagining mathematics in a world of reasoning mach...
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       Reimagining mathematics in a world of reasoning machines [video]
        
       Author : kentricon
       Score  : 22 points
       Date   : 2024-12-19 21:34 UTC (3 days ago)
        
 (HTM) web link (www.youtube.com)
 (TXT) w3m dump (www.youtube.com)
        
       | revskill wrote:
       | My wish is for math to remove all the gatekeeping layers and one
       | day, everyone can do maths, just like with programming.
        
         | godelski wrote:
         | I'm curious, what do you see as "gatekeeping layers" in math?
         | Books? Material? Pedagogy? Nomenclature? Something else?
        
           | wslh wrote:
           | Not OP, but I'd like to add the term "learning complexity
           | reduction" which relates closely to "pedagogy".
           | 
           | Reflecting on my experience as a CS graduate with a strong
           | interest in math (though not very advanced knowledge), I
           | realize I would have benefited from a more intuitive, black-
           | box approach when first engaging with complex topics, rather
           | than diving straight into their intricacies.
        
           | Al0neStar wrote:
           | Not really gatekeeping, but as someone who likes to self-
           | study, not having solutions is very annoying.
        
             | godelski wrote:
             | I totally get that. I was fortunate to get properly
             | educated up through essentially the level of an
             | undergraduate math degree (minus maybe typology), but then
             | continued learning a lot on my own. It's common to hear
             | that the struggle is part of the learning process. The more
             | I've advanced the more I find this to be true. It's that
             | struggle that makes you pay attention to the small details
             | that are so critical. I was also fortunate to have a
             | professor who would pester me and he later told me he
             | wanted me to be confident in my results, because eventually
             | I would have no one to double check (and he was right). The
             | struggle really helps with this.
             | 
             | I think the main difference between learning provisioning
             | and math is a compiler. To learn either you can only learn
             | by doing. Reading and lectures aren't enough. What is hard
             | to learn in math is to be the compiler yourself. To be able
             | to verify "programs" (do I even need quotes here?). This is
             | a very powerful tool to add to your tool belt and one I
             | think even helps in programming.
             | 
             | I hope others can add advice here and words of
             | encouragement. The struggle is real, but it is part of the
             | process, for better or for worse.
        
             | nicf wrote:
             | I work as a private tutor for proof-based math, and I have
             | a lot of students who've spent some time self-studying
             | before coming to me. The comment by godelski matches my
             | experience: the biggest obstacle seems to be the fact that
             | it's hard to learn how to check your own proofs if no one
             | has ever taught you how. I see a _lot_ of variation in how
             | well people have managed to develop that skill on their
             | own.
             | 
             | Having more textbooks with solutions to the exercises would
             | probably help a lot with this, especially if you used the
             | solutions judiciously. I think the fact that this isn't
             | more common sadly has a lot to do with their role in
             | undergraduate teaching: every exercise that has a solution
             | in the back of the book is one that college students can
             | very easily cheat on. I definitely agree that it's
             | frustrating that the product has to be made worse for
             | everyone else just because some people would misuse the
             | better version. Far from the only such case in the world!
        
         | random3 wrote:
         | Programming should remove all gatekeeping one day so everyone
         | can do programming
        
           | Nevermark wrote:
           | And gatekeeping, so many of us want to gatekeep but there
           | too, other gatekeepers stand in our way
        
         | olddustytrail wrote:
         | Yes, like the Fields Medal. Everyone should get a Fields Medal,
         | that way we're all winners.
         | 
         | Or the Riemann Hypothesis! Why not call it the American
         | Hypothesis? That way everyone could think it.
        
         | Tainnor wrote:
         | Everyone can do maths. All you need is pencil and paper. Or
         | download Lean, if that's your preference.
         | 
         | Of course it's possible that instead of "no gatekeeping" what
         | you mean is "free tutoring".
        
         | wakawaka28 wrote:
         | What gatekeeping? Anyone is free to do math to the extent of
         | their abilities. Math is known for accepting contributions from
         | other fields. You don't need special credentials in math to
         | publish a book or paper about math. It helps but it is not
         | essential. Some academic positions are very difficult to get
         | without a proper degree in the subject but that applies to
         | every field, and for good reason.
        
       | m3kw9 wrote:
       | Just waiting on what Terrance Tao thinks of the new o3 intern
        
         | pegasus wrote:
         | When can infer somewhat from this section in the FrontierMath
         | paper [1]:
         | 
         | "Assessment of FrontierMath difficulty
         | 
         | All four mathematicians characterized the research problems in
         | the FrontierMath benchmark as exceptionally challenging, noting
         | that the most difficult questions require deep domain expertise
         | and significant time investment. For example, referring to a
         | selection of several questions from the dataset, Tao remarked,
         | "These are extremely challenging. I think that in the near term
         | basically the only way to solve them, short of having a real
         | domain expert in the area, is by a combination of a semi-expert
         | like a graduate student in a related field, maybe paired with
         | some combination of a modern AI and lots of other algebra
         | packages..."
         | 
         | However, some mathematicians pointed out that the numerical
         | format of the questions feels somewhat contrived. Borcherds, in
         | particular, mentioned that the benchmark problems "aren't quite
         | the same as coming up with original proofs."
         | 
         | It sounds like it will be able to crack some hard math
         | problems, but not actually _do mathematics_. Which makes sense
         | to me, given how these oN models are being trained. Synthetic
         | data is bound to be in some (more or less obvious) way
         | contrieved, since it 's not like we can just generate tons of
         | new/natural/original mathematical results to train the model
         | on.
         | 
         | [1] https://arxiv.org/pdf/2411.04872
        
           | versteegen wrote:
           | > It sounds like it will be able to crack some hard math
           | problems, but not actually do mathematics.
           | 
           | What, do you say that because format of the FrontierMath
           | problems is a bit contrived? I think I must misunderstanding
           | you; a benchmark can't rule out something it doesn't test.
           | And saying solving these problems requiring "deep domain
           | expertise" isn't real mathematics sure sounds like a No True
           | Scotsman argument. Why shouldn't o3 be able to produce novel
           | mathematical proofs? It's got plenty of maths textbooks and
           | papers to train on, the same thing mathematicians train on.
        
             | pegasus wrote:
             | Those proofs are not by far enough - which is why the raw
             | frontier models don't do that well on this test. The oN
             | models are trained on synthetic data: so generated
             | mathematical theorems and associated proofs. If we could
             | generate legitimately new math we would already have
             | accomplished the hard task, so the generated theorems are
             | going to feel contrieved. I.e. they won't be theorems that
             | ever make it into a future math book.
             | 
             | Doesn't mean they won't be useful to mathematicians, they
             | will, just like computers in general are useful in doing
             | maths today.
        
             | pegasus wrote:
             | Look at the sample problems and it will be obvious. For
             | example, look at all the arbitrary constants here:
             | 
             | "Let an for n [?] Z be the sequence of integers satisfying
             | the recurrence formula1 an = (1.981 x 1011)an-1 + (3.549 x
             | 1011)an-2 - (4.277 x 1011)an-3 + (3.706 x 108 )an-4 with
             | initial conditions ai = i for 0 <= i <= 3. Find the
             | smallest prime p [?] 4 mod 7 for which the function Z - Z
             | given by n 7- an can be extended to a continuous function
             | on Zp."
        
       | sleno wrote:
       | nothing very interesting was said
        
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