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#1 |
Sep 2002
Database er0rr
3·11·107 Posts |
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Enjoy and criticize. It ain't no C&P but might help some.
![]() After 20 downloads, I have made the changes to typos and Mersenne data. A new copy is now uploaded. 2 More downloads and I have uploaded a new version without the Euler Phi Function nonsense -- Thanks Robert. 24 more downloads and a new version is up with accumulated corrections and suggested text. 13 more downloads. The replacement (12th Oct) version corrects some grammatical errors, includes suggestions by Nick and a Lucas Sequence algorithm. 12 more downloads. The replacement (Oct 15th) makes the suggestions by Nick and corrects some typos. 4 more downloads. The replacement builds on suggestions by Nick. There is now a section on Gaussian primes. Replacement (18 Oct,2020) uploaded. Last fiddled with by paulunderwood on 2020-10-18 at 00:19 |
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#2 |
Feb 2017
Nowhere
23·181 Posts |
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There is a caveat in using the term "number" to mean "natural number" or "positive integer."
Euclid distinguished between 1 ("the unit") and integers greater than 1, which he called "numbers." Thus, a "prime number" was, by definition an integer greater than 1. The unit, 1, is neither prime nor composite. |
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#3 |
"TF79LL86GIMPS96gpu17"
Mar 2017
US midwest
29×167 Posts |
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Legendre, Jocobi and Kronecker (should be Jacobi) (page 3)
"The determinant of a A is" (bottom of page 9) The determinant of a matrix A is nothing else conspicuous through page 10 on a first pass. Pretty clean. Last fiddled with by kriesel on 2020-10-10 at 14:29 |
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#4 |
"Viliam Furík"
Jul 2018
Martin, Slovakia
23·41 Posts |
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Page 3 - Typo in "Jocobi"
Page 32 - Fig. 7.1 contains n = 2 twice, lots of unknown where it shouldn't be (n= 61,89,107) |
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#5 |
"Robert Gerbicz"
Oct 2005
Hungary
1,429 Posts |
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On page 39:
"The Euler Phi Function is useful since for all a a^(1+φ(n)) ≡ a (mod n)." This is very false, a small counter-example is a=2, n=4. |
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#6 |
Mar 2016
23×37 Posts |
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"It is important to analize the the exponentiating" page 49.
Greetings Bernhard |
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#7 |
Oct 2020
2 Posts |
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You write i were the square root of -1.
As far as I know, the square root r of a number x is the non-negative solution of the equation r^2 = x as far as real numbers are concerned. As i is neither positive nor negative and i^2 = -1 and (-i)^2 = -1 in my opinion it is not correct to say i would be the square root of -1. Best regards Knut |
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#8 | |
Sep 2002
Database er0rr
3×11×107 Posts |
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Last fiddled with by paulunderwood on 2020-10-10 at 22:44 |
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#9 |
Sep 2002
Database er0rr
1101110010112 Posts |
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I have tidied up what I want write about "The Fermatian Child".
I will refrain from reposting the paper until more input from folks. Last fiddled with by paulunderwood on 2020-10-10 at 22:51 |
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#10 |
Oct 2020
2 Posts |
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I think there is no square root of -1.
Instead, define the "imaginary unit" i with i^2 = -1. And then define complex numbers. This, in my opinion, could help to avoid disturbances. E.g. x^2 = 3*i x^2 = - 3*i x^2 = 2 + 3*i x^2 = 2 - 3*i x^2 = - 2 + 3*i x^2 = - 2 - 3*i There are two (complex) solutions of each equation, of course. Which of the two solutions is to be named the "square root"? I am not aware of a definition. I apologize fpr my poor command of the English language and hope you can see my point. Best regards Knut |
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#11 |
Dec 2012
The Netherlands
2·7·113 Posts |
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There are a number of errors at the start, some just details of definitions but others hiding more important points.
How it would be best to resolve these depends strongly on who you are writing this for. What is the intended audience? |
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