Examples of using Positive integer in English and their translations into Ukrainian
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Natural numbers are positive integer numbers.
Every positive integer is one of Ramanujan's personal friends.".
Is a prime number for every positive integer n.
So we just have to find a positive integer that is not divisible by 2 or 3, by neither 2 nor 3.
You should write a function that will receive a positive integer and return.
As a consequence every positive integer admits infinitely many weak compositions(if their length is not bounded).
Each orbit is distinguished by a number designated as n, with n having positive integer values starting with one.
As the positive integer n becomes larger and larger, the value n\cdot\sin\bigg(\frac1\bigg) becomes arbitrarily close to 1.
Let r(n) count the number of representations of a positive integer n as a sum of two integer squares.
The positive integer powers 2n give the number of possible values for an n-bit integer binary number; for example, a byte may take 28= 256 different values.
Moreover, because 16 is the smallest positive integer m satisfying 3m≡ 1(mod 17), these are the only solutions.
The freshman's dream is a name sometimes given to the erroneous equation(x+ y)n= xn+ yn,where n is a real number(usually a positive integer greater than 1).
If you pick a ticket randomly, then you get positive integer n, with probability 1/N if n≤ N and with probability 0 if n> N.
The gamma function can be seen as a solution to the following interpolation problem:"Find a smooth curve that connects the points(x, y) given by y=(x-1)! at the positive integer values for x.".
July 10, the scientist makes the discovery that any positive integer can be expressed by a sum of not more than three triangular numbers.
One of the most important problems in additive number theory is Waring's problem, which asks whether it is possible, for any k≥ 2,to write any positive integer as the sum of a bounded number of kth powers.
Moreover, since 16 is the smallest positive integer m satisfying 3m≡ 1(mod 17), i.e. 16 is the order of 3 in(Z17)×, these are the only solutions.
Each test case will be given as a non-negative integer a and a positive integer p as specified above, on a line.
Let d{\displaystyle d} be a positive integer, D{\displaystyle{\mathcal{D}}} be a collection of datasets, and f: D→ R d{\displaystyle f\colon{\mathcal{D}}\rightarrow \mathbb{R}^{d}} be a function.
The case for squares, k= 2, was answered by Lagrange in 1770,who proved that every positive integer is the sum of at most four squares.
Derived by Daniel Bernoulli, if n is a positive integer, Γ( n)=( n- 1)!{\displaystyle\Gamma(n)=(n-1)!} Although other extensions do exist, this particular definition is the most popular and useful.
One is reminded of the twentieth century Indian mathematician Ramanujan,for whom"every positive integer was one of his personal friends.".
The problem asks whether it is possible to colour each positive integer either red or blue, so that no trio of integers a, b and c that satisfy Pythagoras' famous equation a2+ b2= c2 are all the same colour.
The geometric distribution of the number Y offailures before the first success is infinitely divisible, i.e., for any positive integer n, there exist independent identically distributed random variables Y1,….
To prove that if a positive integer N is a non-square number, its square root is irrational, we can equivalently prove its contrapositive, that if a positive integer N has a square root that is rational, then N is a square number.
The Lasker- Noether theorem can be viewed as ageneralization of the fundamental theorem of arithmetic which states that any positive integer can be expressed as a product of prime numbers, and that this decomposition is unique.
The Belgian mathematician Charles Jean de laVallée-Poussin proved in 1898 that when taking any positive integer n and dividing it by each positive integer m less than n, the average fraction by which the quotient n/m falls short of the next integer tends to γ{\displaystyle\gamma}.
The problem the proof seeked to solvewas to work out whether it is possible to colour each positive integer either red or blue, so that no trio of integers a, b and c that satisfy Pythagoras' famous equation a2+ b2= c2 are all the same colour.
The Belgian mathematician Charles Jean de laVallée-Poussin proved in 1898 that when taking any positive integer n and dividing it by each positive integer m less than n, the average fraction by which the quotient n/m falls short of the next integer tends to γ{\displaystyle\gamma}(rather than 0.5) as n tends to infinity.