Examples of using Integer coefficients in English and their translations into Greek
{-}
-
Colloquial
-
Official
-
Medicine
-
Ecclesiastic
-
Financial
-
Official/political
-
Computer
With integer coefficients.
Algebraic numbers are roots of polynomials with integer coefficients.
With integer coefficients has three solutions in the complex plane.
The process of how to find these integer coefficients is described below.
It is given by the unique positive real root of a polynomial of degree 71 with integer coefficients.
Thus x2+1 is a polynomial with integer coefficients whose primitives are not polynomials over the integers. .
Its width, approximately 1.545,is the root of a degree-6 polynomial with integer coefficients.[17][19][20].
Thus x2+ 3x- 5 is a polynomial with integer coefficients, but it is also a polynomial with complex coefficients, because the integers are a subset of the complex numbers.
Algebraic numbers are those that are a solution to a polynomial equation with integer coefficients.
Each repeating decimal number satisfies a linear equation with integer coefficients, and its unique solution is a rational number.
Algebraic numbers are those that can be expressed as the solution to a polynomial equation with integer coefficients.
Algebraic numbers appear as solutions to polynomial equations(with integer coefficients) and may involve radicals and certain other irrational numbers.
Dedekind defined a ring ideal as a subset of a set of numbers,composed of algebraic integers that satisfy polynomial equations with integer coefficients.
Conversely, if x is an element of F which is a root of a monic polynomial with integer coefficients then the same property holds for the corresponding matrix A.
The Hardy-Littlewood conjecture F makes an asymptotic prediction about the density of primes among the values of quadratic polynomials(with integer coefficients a, b, and c).
Other common kinds of polynomials are polynomials with integer coefficients, polynomials with complex coefficients, and polynomials with coefficients that are integers modulo of some prime number pp.
Find an algorithm to determine whether a given polynomial Diophantine equation with integer coefficients has an integer solution.
Thus for instance the determinant of a matrix with integer coefficients will be an integer, and the matrix has an inverse with integer coefficients if and only if this determinant is 1 or -1(these being the only invertible elements of the integers). .
In computer algebra,modular arithmetic is commonly used to limit the size of integer coefficients in intermediate calculations and data.
An element x of F is analgebraic integer if and only if the characteristic polynomial pA of the matrix A associated to x is a monic polynomial with integer coefficients.
The general cubic equation a x 3+ b x 2+ c x+ d= 0{\displaystyleax^{ 3}+ bx^{ 2} +cx+d=0} with integer coefficients has three solutions in the complex plane.
In mathematics, a transcendental number is a real number or complex number that is not an algebraic number- that is,not a root(i.e., solution) of a nonzero polynomial equation with integer coefficients.
Hilbert's tenth problem was to determine whether a given polynomial Diophantine equation with integer coefficients has an integer solution.
The algorithmic unsolvability of Hilbert's tenth problem, established by Yuri Matiyasevich in 1970,showed that it is not possible for any computer program to correctly decide whether multivariate polynomials with integer coefficients have any integer roots.
Hilbert's 10th Problem asked for an algorithm to determine whether a given polynomial equation with integer coefficients has an integer solution.
The tenth problem asked for a general algorithm to determine whether a given Diophantine equation with integer coefficients has an integer solution.
The celebrated Hilbert's 10th problem asks for an algorithm to decide whether a system of polynomial equations with integer coefficients has a nontrivial solution.
Hilbert's tenth problem asked for an algorithm to determine whether a multivariate polynomial equation with integer coefficients has a solution in the integers. .
The size of a point decreases exponentially with the‘complexity' of the simplest polynomial with integer coefficient of which it's a root.
If the coefficients are integers or rational numbers exactly represented, the intermediate entries can grow exponentially large, so the bit complexity is exponential.
