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Magical Squares (The Science of ...) |
by Peter Loly |
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loly (at) cc (dot) umanitoba (dot) ca |
home.cc.umanitoba.ca/~loly/ |
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Design: The 3-by-3 motif (9 cells) of
the ancient Loshu magic square link to topics through cells:
I,II,III,IV,V,VI,VII,VIII,IX. |
Revised 12,22
April 2012. More design: fills Safari in landscape
on iPad2 for B&W printing. |
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IV.
Dϋrer
(1514) S=34 (r=3) 0ne of 880.
Quarto! – a board game. |
IX.
Abul
Wafa al-Buzani (10CE)
before Sudoku! Compound magic square (r=5) [Chan
and Loly]
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II.n=2: NO NATURAL MAGIC SQUARE
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The
population problem
with magic squares. Moment of inertia theorem for magic squares and for magic cubes. Tetraktys:
1+2+3+4=10 |
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III. Lo-Shu
magic square S=15 (r=3)
This
prototype magic square has all Row, Column and main Diagonal sums equal to
15. RCD symmetry. Generally for order n with elements: 1..n2
the linesum is Sn=(n/2)(1+
n2). |
V.
275,305,224
distinct magic squares
S=65 (r=4) [Schroeppel 1972] |
VII.
Order 7: the magic square of Venus |
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VIII.
magic Franklin 2006
(r=3) BF151, BF81 |
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