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by foobar_
2151 days ago
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I'm not insane ... you are just the type of person who will defend roman numerals. Maybe you just have OCD. 1. Socrates is mortal 2. Mortals die 3. Socrates dies Deduction is really like amazing. Holy shit we really proved something spectacular here. I guess you would be really impressed if I used tau and sigma and defined death with vietnamese alphabet. Almost the entirety of calculus was derived from problems related to physics. Volumes were calculated for doing engineering. Mathematics != Thinking. The last time I checked both logic and critical thinking were branches of philosophy. All good mathematicians are physicists or engineers. Heck some even learnt maths on their own. All mediocre mathematicians write textbooks and hide behind notations. Come to think of it they remind me of OO programmers in their utter arrogant mediocrity. Most abstract mathematics is like the definition of protocols/interfaces and other platonic garbage. I suppose this debate will never end. Plato vs Aristotle, Deduction vs Induction, Analytic vs Synthetic .... |
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Further, that phrase is bigoted. What you are implying is that someone with OCD is "lesser" or "other" as you are using the phrase to discount the person you are talking with. Hence it is bigoted.
In fact, it is obvious that you have no idea what you are talking about. Mathematics is not "just notation" in the same way software engineering is not "just programming language syntax", music is not just "notes on a piece of paper", and literature is not just "grammar rules".
If you cannot see that, I suggest you read more and expand your view of the world. Don't hurl insults at others.
If you want a more concrete example, show that the sum:
1 + (1/2)^2 + (1/3)^2 + (1/4)^2 + ... = pi^2/6
That is, first define what it means to take a sum of an infinite number of terms, prove that your definition is consistent with a sum of a finite number of terms, and then show that the sum is exactly pi^2/6. Showing that they agree to 100 billion decimal places is not enough. You need to show they are exact.
When you are done with that, find an exact closed form for the sum:
1 + (1/2)^3 + (1/3)^3 + (1/4)^3 + ...