Tomorrow_Farewell [any, they/them]

  • 7 Posts
  • 273 Comments
Joined 5 months ago
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Cake day: January 30th, 2024

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  • the other choice is the end of democracy

    What ‘democracy’?
    You never actually had any sort of representation of working-class people’s interests in your government, so clearly you aren’t talking about any genuine democracy. And there is no indication that the practice of representative ‘democracy’ is going away under the 99% Biden option, so clearly you aren’t talking about that, either.

    Also, if you do have a democracy, as you claim, then you should be put on Nuremberg trials for your complicity in many, many atrocities that you keep committing in a supposedly-democratic manner.

    and a piece of human shit in office

    Literally every single USian president, ever, including Biden. Hell, you venerate worse beings than Trump, like chattel slavers like Washington, for example.

    Also, your plan seems to basically be ‘never have the Dem party, which literally funds and backs Republican candidates in elections (including Trump in 2016, by the way), lose a presidential election to the Rep party’. Every literate person understands that that is not workable, even if you were correct about the supposed ‘end of democracy’.





  • Alright, so, the other proof that I promised:

    If we define 0.999… as the sum of the series 9/10+9/100+9/1000+…, then for every neighbourhood U(1) it is true that there exists a metric ball B_N = B(1, 1/10^N), where N is natural, such that B_N is a subset of U(1).

    For all natural n > N it is true that d(sum(9/10^k) for k from 1 to n, 1) = |1 - sum(9/10^k) for k from 1 to n| = |1/10^n| = 1/10^n < 1/10^N, meaning that for all natural n > N it is true that sum(9/10^k) for k from 1 to n is in B_N, meaning that it is also in U(1).

    However, sum(9/10^k) for k from 1 to n is the nth partial sum of the series 9/10+9/100+9/1000+…, which, together with the fact that every such sum is in U(1) for n > N, means that 1 is the limit of the sequence of the partial sums of the series 9/10+9/100+9/1000+…, meaning that 1 is the sum of that series. That means that 0.999… is 1 by definition.







  • I am going to note that this was not well-expressed when you said ‘we can just pretend to have “reached infinity” and work with like any number’. To a lay person it would look as if you were suggesting that we non-rigorously treat one object (like the sequence (0.9, 0.99, 0.999,…)) as another (like the real number that that sequence converges to given the standard topology of the space of real numbers).