Примери за използване на Perfect squares на Английски и техните преводи на Български
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All the perfect squares.
Is the sum of two consecutive perfect squares.
The number of perfect squares between and is.
Find the unique positive integer for which are also perfect squares. 2.
Prove that there are no perfect squares in the array below: 3.
Prove that the other solution is integer too andboth solutions are perfect squares. 2.
How many positive perfect squares less than are multiples of? 2.
Find all terms which are perfect squares. 2.
All fourth powers, sixth powers, eighth powers andso on are perfect squares.
Determine all pairs of integers with the property that the numbers and are both perfect squares.
It was known to the ancient Greeks that square roots of positive numbers that are not perfect squares are always irrational numbers, numbers not expressible as a ratio of two integers.
Prove that there doesn't exist any positive integer such that and are perfect squares. 2.
It was known to the ancient Greeks that square roots of positive whole numbers that are not perfect squares are always irrational numbers: numbers not expressible as a ratio of two integers(that is, they cannot be written exactly as m/n, where m and n are integers).
Show that there exist distinct positive integers and such that and are four perfect squares.
Galileo produced one piece of original and even prophetic work in mathematics: Galileo's paradox,which shows that there are as many perfect squares as there are whole numbers, even though most numbers are not perfect squares.
Find all natural numbers that can be expressed in a unique way as a sum of five or less perfect squares.
(iii) the first of two digits, the middle two digits andthe last two digits of the number are all perfect squares when considered as two digit numbers.
Find the smallest positive integer,,which can be expressed as the sum of distinct positive integers such that are perfect squares.
Prove that if and are pairwise relatively prime positive integers, and if,then are perfect squares of integers.
Every odd perfect square is a centered octagonal number.
Hence, all the numbers between each perfect square must be either even or odd.
And this is a perfect square, and it's divided into 14 bits.
They make a perfect square.
When 4 is a perfect square, you might already recognize that.
Once again, 16's a perfect square, so we could stop there.
Prove that is a perfect square and it has at least distinct prime divisors.
Is a perfect square.
Iii. is a perfect square for every.
Is not a perfect square; divides. 4.