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C1: Surds - Pearson Schools and FE Colleges
C1: Surds - Pearson Schools and FE Colleges

Notes on Galois Theory
Notes on Galois Theory

... F [x]. Suppose that α1 , . . . , αn are the (distinct) roots of f (x) that lie in E, i.e. {α ∈ E : f (α) = 0} = {α1 , . . . , αn } and, for i 6= j, αi 6= αj . Then Gal(E/F ) acts on the set {α1 , . . . , αn }, and hence there is a homomorphism ρ : Gal(E/F ) → Sn , where Sn is the symmetric group on ...
Lecture 1: Lattice ideals and lattice basis ideals
Lecture 1: Lattice ideals and lattice basis ideals

Computing the p-Selmer Group of an Elliptic Curve
Computing the p-Selmer Group of an Elliptic Curve

... elliptic curve, but we will need to perform arithmetic in the elds of de nition of the points of order p. Our method shall be based on that found in [15], to which we refer the reader for further details and proofs of some of the results. That paper gives a general algorithm for computing Selmer g ...
MULTIPLICATIVE GROUPS IN Zm 1. Abstract Our goal will be to find
MULTIPLICATIVE GROUPS IN Zm 1. Abstract Our goal will be to find

CHAP03 Quadratic Congruences
CHAP03 Quadratic Congruences

STRATIFICATION BY THE LOCAL HILBERT
STRATIFICATION BY THE LOCAL HILBERT

... there exists a unique (q1 , . . . , qr , R) ∈ Rr+1 such that: (i) f = q1 g1 + · · · + qr gr + R (ii) for any j, if qj 6= 0 then Supp(qj ) + exp(gj ) ⊂ ∆j ...
Generalization at Higher Types
Generalization at Higher Types

Modular Arithmetic
Modular Arithmetic

on the structure of algebraic algebras and related rings
on the structure of algebraic algebras and related rings

The Weil Pairing on Elliptic Curves and Its Cryptographic Applications
The Weil Pairing on Elliptic Curves and Its Cryptographic Applications

Lesson 6.2
Lesson 6.2

NSE CHARACTERIZATION OF THE SIMPLE GROUP L2(3n) Hosein
NSE CHARACTERIZATION OF THE SIMPLE GROUP L2(3n) Hosein

definability of linear equation systems over
definability of linear equation systems over

Inversion of Circulant Matrices over Zm
Inversion of Circulant Matrices over Zm

... The above results show that the inversion of the global maps F and G is equivalent to the inversion of A(x) in Zm{x} and Zm [x]/(xn −1) respectively. Therefore they are also equivalent to the inversion of bi-infinite Toeplitz and circulant matrices. Conditions for invertibility over Zm{x} and Zm [x] ...
Number Theory - Fredonia.edu
Number Theory - Fredonia.edu

Algebras and Representations
Algebras and Representations

... such that (xy)z = x(yz). The algebra A is said to have a unit element if there exists e ∈ A such that ae = ea = a for all a ∈ A. If A has an unit element it is unique and it will usually be denoted by 1. Examples 1. Let V be a vector space over C (possibly infinite dimensional), and let A = End(V ) ...
Direct-sum decompositions over local rings
Direct-sum decompositions over local rings

Bounded length intervals containing two primes and an almost
Bounded length intervals containing two primes and an almost

Lecture 9: Arithmetics II 1 Greatest Common Divisor
Lecture 9: Arithmetics II 1 Greatest Common Divisor

The maximum modulus of a trigonometric trinomial
The maximum modulus of a trigonometric trinomial

Algebra 1
Algebra 1

... You can model the probabilities found in the Punnett square with the expression ( 1 B + 1 W)2. Show that this product gives the same result ...
Polynomials - Mr
Polynomials - Mr

12 Recognizing invertible elements and full ideals using finite
12 Recognizing invertible elements and full ideals using finite

An introduction to the algorithmic of p-adic numbers
An introduction to the algorithmic of p-adic numbers

< 1 ... 5 6 7 8 9 10 11 12 13 ... 97 >

Eisenstein's criterion

In mathematics, Eisenstein's criterion gives a sufficient condition for a polynomial with integer coefficients to be irreducible over the rational numbers—that is, for it to be unfactorable into the product of non-constant polynomials with rational coefficients.This criterion is not applicable to all polynomials with integer coefficients that are irreducible over the rational numbers, but it does allow in certain important cases to prove irreducibility with very little effort. It may apply either directly or after transformation of the original polynomial.This criterion is named after Gotthold Eisenstein. In the early 20th century, it was also known as the Schönemann–Eisenstein theorem because Theodor Schönemann was the first to publish it.
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