Examples of using Integer can in English and their translations into Greek
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Note that any integer can be used more than once.
Raising a positive real number to a power that is not an integer can be accomplished in two ways.
Every single positive integer can be written as the sum of at most 19 powers.
An important example is the fundamental theorem of arithmetic,which says that every positive integer can be factored uniquely into prime numbers.
Every positive integer can be written as the sum of nine(or fewer) positive cubes.
The set of all fractions includes the integers, since every integer can be written as a fraction with denominator 1.
Every positive integer can be represented uniquely as the sum of one or more distinct Fibonacci numbers without including any two consecutive Fibonacci numbers.
We intend to show that every sufficient large integer can be expressed as a sum of nine positive cubes.
Every positive integer can be represented uniquely as the sum of one or more distinct Fibonacci numbers in such a way that the sum does not include any two consecutive Fibonacci numbers.
Weaker statements than this have been proven, for example,Vinogradov's theorem says that every sufficiently large odd integer can be written as a sum of three primes.
It states that every non-zero integer can be written(essentially) uniquely as a product of prime powers and±1.
The Lasker-Noether theorem can be viewed as a generalization 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.
This means that every positive integer can be written as a sum of Fibonacci numbers, where anyone number is used once at most.
Specifically, every positive integer can be written in a unique way as the sum of one or more distinct Fibonacci numbers in such a way that the sum does not include any two consecutive Fibonacci numbers.
The essential observation is that every integer can be expressed(not uniquely) as the difference of two natural numbers, so we may as well define an integer as the difference of two natural numbers.
The essential observation is that every integer can be expressed(not uniquely) as the difference of two natural numbers, so we may as well''define'' an integer as the difference of two natural numbers.
The integers can be constructed from the natural numbers.
For example the additive group Z of integers can also be presented by.
By defining an analog of the Euclidean algorithm,Gaussian integers can be shown to be uniquely factorizable, by the argument above.
Additionally, stating a definition of parity for all integers can seem like an arbitrary conceptual shortcut if the only even numbers investigated so far have been positive.
Integers can be treated as the value of a polynomial evaluated specifically at the number base, with the coefficients of the polynomial corresponding to the digits in that base ex.
Any pair of integers can be added or multiplied, always resulting in another integer, and the first operation, addition, is commutative, i.e., for any elements a and b in the ring, a+ b= b+ a.
For example, it can be used to solve linear Diophantine equations andChinese remainder problems for Gaussian integers; continued fractions of Gaussian integers can also be defined.
(a) Any integer expression can be used as an index.
Numerous problems in integer geometry can be solved using parametric equations.
Exponentiation for integer exponents can be defined for quite general structures in abstract algebra.
With these numbers hi, any integer x can be reconstructed from its remainders xi by the equation.
Bash can perform integer calculations without spawning external processes, unlike the Bourne shell.
Only one relevant proof by Fermat has survived,in which he uses the technique of infinite descent to show that the area of a right triangle with integer sides can never equal the square of an integer. .
The square of an integer N can be calculated by adding all integers from 1 to N and returning back to 1.