magic square - significado y definición. Qué es magic square
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Qué (quién) es magic square - definición

SUMS OF EACH ROW, COLUMN, AND MAIN DIAGONALS ARE EQUAL
Magic squares; Magic Square; Date magic square; Date magic squares; Wafq; The Arithmetic Progression in Magic square; Simple magic square; Simple magic squares; Numbers, planetary; Magic Squares; Parker square; Parker Square; Kameas; Multiplicative magic square; Semimagic square
  • A 6×6 magic square from ''Book of Wonders'' (from 16th century manuscript).
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  • A magic square on the Sagrada Família church façade
  • [[Dürer]]'s ''Melancholia I'' (1514) includes an order 4 square with magic sum 34
  • A geometric magic square.
  • The 3×3 magic square in different orientations forming a non-normal 6×6 magic square, from an unidentified 19th century Indian manuscript.
  • Semi-log plot of Pn, the probability of magic squares of dimension n
  • Lo Shu from "The Astronomical Phenomena" (''Tien Yuan Fa Wei''). Compiled by Bao Yunlong in 13th century, published during the [[Ming dynasty]], 1457–1463.
  • Parshvanatha temple]], in [[Khajuraho]], [[India]]
  • A page from Simon de la Loubère's ''Du Royaume de Siam'' (1691) showcasing the Indian method of constructing an odd magic square.
  • This page from [[Athanasius Kircher]]'s ''Oedipus Aegyptiacus'' (1653) belongs to a treatise on magic squares and shows the ''Sigillum Iovis'' associated with Jupiter
  • A page displaying 9×9 magic square from Cheng Dawei's ''Suanfa tongzong'' (1593).
  • The first linear area magic square
  • [[Yang Hui]]'s construction method
  • Iron plate with an order-6 magic square in [[Eastern Arabic numerals]] from China, dating to the [[Yuan Dynasty]] (1271–1368).

magic square         
¦ noun a square divided into smaller squares each containing a number, such that the figures in each vertical, horizontal, and diagonal row add up to the same value.
Freudenthal magic square         
CONSTRUCTION OF LIE ALGEBRAS (INCLUDING, NOTABLY, THE EXCEPTIONAL SIMPLE LIE ALGEBRAS) FROM A PAIR OF REAL DIVISION ALGEBRAS (R, C, H, O)
Freudenthal's magic square; Rosenfeld projective plane; Quateroctonionic projective plane; Octooctonionic projective plane; Freudenthal–Tits magic square; Freudenthal-Tits magic square
In mathematics, the Freudenthal magic square (or Freudenthal–Tits magic square) is a construction relating several Lie algebras (and their associated Lie groups). It is named after Hans Freudenthal and Jacques Tits, who developed the idea independently.
Pandiagonal magic square         
MAGIC SQUARE WHOSE BROKEN DIAGONALS ALSO ADD UP TO THE MAGIC CONSTANT
Diabolic square; Diabolical square; Pandiagonal magic squares; Panmagic square
A pandiagonal magic square or panmagic square (also diabolic square, diabolical square or diabolical magic square) is a magic square with the additional property that the broken diagonals, i.e.

Wikipedia

Magic square

In recreational mathematics, a square array of numbers, usually positive integers, is called a magic square if the sums of the numbers in each row, each column, and both main diagonals are the same. The 'order' of the magic square is the number of integers along one side (n), and the constant sum is called the 'magic constant'. If the array includes just the positive integers 1 , 2 , . . . , n 2 {\displaystyle 1,2,...,n^{2}} , the magic square is said to be 'normal'. Some authors take magic square to mean normal magic square.

Magic squares that include repeated entries do not fall under this definition and are referred to as 'trivial'. Some well-known examples, including the Sagrada Família magic square and the Parker square are trivial in this sense. When all the rows and columns but not both diagonals sum to the magic constant this gives a semimagic square' (sometimes called orthomagic square).

The mathematical study of magic squares typically deals with their construction, classification, and enumeration. Although completely general methods for producing all the magic squares of all orders do not exist, historically three general techniques have been discovered: by bordering method, by making composite magic squares, and by adding two preliminary squares. There are also more specific strategies like the continuous enumeration method that reproduces specific patterns. Magic squares are generally classified according to their order n as: odd if n is odd, evenly even (also referred to as "doubly even") if n is a multiple of 4, oddly even (also known as "singly even") if n is any other even number. This classification is based on different techniques required to construct odd, evenly even, and oddly even squares. Beside this, depending on further properties, magic squares are also classified as associative magic squares, pandiagonal magic squares, most-perfect magic squares, and so on. More challengingly, attempts have also been made to classify all the magic squares of a given order as transformations of a smaller set of squares. Except for n ≤ 5, the enumeration of higher order magic squares is still an open challenge. The enumeration of most-perfect magic squares of any order was only accomplished in the late 20th century.

Magic squares have a long history, dating back to at least 190 BCE in China. At various times they have acquired occult or mythical significance, and have appeared as symbols in works of art. In modern times they have been generalized a number of ways, including using extra or different constraints, multiplying instead of adding cells, using alternate shapes or more than two dimensions, and replacing numbers with shapes and addition with geometric operations.