No. Convention defines perfect squares as squares of positive integers.
No- the closest perfect squares are 36 (perfect square of 6) and 49 (perfect square of 7)
No, 188 is not a perfect square. The nearest perfect squares as 169 and 196.
That the set of perfect squares is closed under multiplication. That is if x and y are any two perfect squares, then x*y is a perfect square.
None. Perfect squares, by definition, are the squares of counting numbers and these cannot be fractions.
The word "difference" implies subtraction. The word "squares" implies a perfect square term or number. To recognize the "difference of squares" look for 2 perfect square terms, one being subtracted from the other. Ex. x2 - 16. "x" is being squared and 16 is a perfect square. They are being subtracted. Factors: (x+4)(x-4)
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The square roots of perfect squares are the numbers that when squared create perfect squares as for example 36 is a perfect square and its square root is 6 which when squared is 36
The square root of every perfect square is an integer. However, there are also square roots of numbers that are not perfect squares.
No. There are infinitely many perfect squares so there is no "the" perfect square.
No. Convention defines perfect squares as squares of positive integers.
No- the closest perfect squares are 36 (perfect square of 6) and 49 (perfect square of 7)
No, 188 is not a perfect square. The nearest perfect squares as 169 and 196.
That the set of perfect squares is closed under multiplication. That is if x and y are any two perfect squares, then x*y is a perfect square.
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None. Perfect squares, by definition, are the squares of counting numbers and these cannot be fractions.
perfect squares