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Visual Prime Pattern identified |
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| Jun6-11, 02:39 PM | #103 |
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Visual Prime Pattern identified(n-1)/2 = h 2*sqrt(n)= b (b*h)/2 = a 2*(a^2) = Pentagonal pyramidal number if (a*(4/3))^2 is an integer then n is a number having a digital root of 1, 4, 7 or 9. 1, 4, 7, 9, 10, 13, 16, 18, 19, 22, 25, 27, 28, 31, 34, 36, 37, 40, 43, 45, 46, 49, 52, 54...... |
| Jun7-11, 06:34 PM | #104 |
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also...
The area of a rectangle A = sqrt(n) * ((n-1)/2) * 4 (this area directly relates to my equation) When “n” is a square then A/12 = Tetrahedral (or triangular pyramidal) number Or reducing… (4n(((n^2)-1)/2)) /12 = Tetrahedral (or triangular pyramidal) number (n(((n^2)-1)/2)) /3 = Tetrahedral (or triangular pyramidal) number |
| Jun7-11, 07:08 PM | #105 |
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| Jun7-11, 09:59 PM | #106 |
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well, since raphie seems to be restricted at the moment, i have to ask, is anyone else following this?
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| Jun14-11, 02:25 AM | #107 |
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| Jun14-11, 07:09 AM | #108 |
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It is a sieve and all prime sieves seem to smack of Eratosthenes to me. I'm approaching it in my head from a different angle though. My method relates to the fact that a square number added to a prime number only equals another square number when the square added to the prime is equal to ((n-1)/2)^2. Or basically: n+((n-1)/2)^2 = ((n+1)/2)^2 Its true that all integers share this property despite their primality but composite numbers will have other square congruence, less than the ((n-1)/2)^2 ratio, according to their integer divisors. These ratios form a lattice when you deal with integers at their square root the way I have. This lattice creates a parabolic coordinate system. This coordinate system is what I'm using to exploit the sieve. jeremy * http://en.wikipedia.org/wiki/Congruence_of_squares * http://en.wikipedia.org/wiki/Parabolic_coordinates |
| Jun14-11, 04:29 PM | #109 |
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| Jun14-11, 05:21 PM | #110 |
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As an intger n increases, the first blue horizontal line north (north/south = y axis) of the green line (east/west = x axis) increases by the square root of n. The intersections of the vertical lines and the concentric circles at the square root of n (blue horizontal line) equate to the divisors d of n by (n-d^2)/2d = 0 mod(.5). Does that help? Jeremy |
| Jun29-11, 07:18 AM | #111 |
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a spherical version of my equation:
http://dl.dropbox.com/u/13155084/PL3...3D_Sphere.html |
| Jul5-11, 06:49 PM | #112 |
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Raphie (quoted below),
I'm probably late on this but when saying things like: (11+13/((1+1)+(1+3)) = 4 You should see what mod9 (*notated by %9) gives you... I.e. ((x+y)/(x%9+y%9)) It matches most of your numbers... since mod9 is the infinite digital sum.. (digital sum taken as many times as possible until a single digit is reached) I.e. (11+13/((1+1)+(1+3)) == ((11+13)/(11%9+13%9)) |
| Jul8-11, 03:56 PM | #113 |
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