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Elliptic Curves - Department of Mathematics
Elliptic Curves - Department of Mathematics

elements of finite order for finite monadic church-rosser
elements of finite order for finite monadic church-rosser

Computability of Heyting algebras and Distributive Lattices
Computability of Heyting algebras and Distributive Lattices

... successor relation is easily seen to be computable in the standard ordering 0 < 1 < 2 < . . ., since y is a successor of x when y = x + 1. However, one can construct a more complicated ordering such as 18 < 100 < 34 < 2 < . . ., where it is more difficult to determine if one element is a successor o ...
Abstract Algebra - UCLA Department of Mathematics
Abstract Algebra - UCLA Department of Mathematics

Commutative Algebra I
Commutative Algebra I

... The ring Z[i] was used in a paper of Gauss (1828), in which he proved that non-unit elements in Z[i] can be factored uniquely into product of “prime” elements, which is a central property of ordinary integers. He then used this property to prove results on ordinary integers. For example, it is possi ...
higher algebra
higher algebra

a p - CS.Duke
a p - CS.Duke

Number Theory The Greatest Common Divisor (GCD) R. Inkulu http
Number Theory The Greatest Common Divisor (GCD) R. Inkulu http

... Note that pairwise relatively prime integers must be mutually relatively prime, but the converse is not necessarily true. ...
as a PDF
as a PDF

Rational points on Shimura curves and Galois representations Carlos de Vera Piquero
Rational points on Shimura curves and Galois representations Carlos de Vera Piquero

... ingredients in this thesis is a cyclic Galois covering of Shimura curves over Q XD,` −→ XD associated with an odd prime ` dividing D. It was firstly introduced by Jordan in [Jor81, Chapter 5], and its maximal étale quotient is referred to2 as the Shimura covering of XD at `. Here, XD,` /Q is the co ...
Minimal ideals and minimal idempotents
Minimal ideals and minimal idempotents

... (1) We work in the semigroup (S =X X, ◦) of Example 1.6, for an arbitrary set X. Check which of the following subsets of S are left resp. right ideals. (a) I = {f ∈ S : ranf ⊆ Y } where Y is a non-empty subset of X (b) J = {f ∈ S : f is not one-one} (c) L = {f ∈ S : f is not onto}. (2) Assume X is a ...
Class Field Theory - Purdue Math
Class Field Theory - Purdue Math

CParrish - Mathematics
CParrish - Mathematics

Stanford University Educational Program for Gifted Youth (EPGY
Stanford University Educational Program for Gifted Youth (EPGY

... 6. Find all integers n ≥ 1 so that n3 −1 is prime. Hint: n3 −1 = (n2 +n+1)(n−1). 7. Show that if ac | bc, then a | b. 8. (a) Prove that the product of three consecutive integers is divisible by 6. (b) Prove that the product of four consecutive integers is divisible by 24. (c) Prove that the product ...
GROUPS, RINGS AND FIELDS
GROUPS, RINGS AND FIELDS

For a nonnegative integer a the Jacobi symbol is defined by an   := Π
For a nonnegative integer a the Jacobi symbol is defined by an := Π

course notes
course notes

Lecture 12 CS 282 - Computer Science Division
Lecture 12 CS 282 - Computer Science Division

... By previous results, each of the n+1 terms on the right is less than 1/(n+1), so P(A) < 1. So the predicate “there exists a real number b, the encoding of B such that G(b) =F(B)< 0” is recursively undecidable. Now suppose G(x) 2 R, then so is |G(x)|-G(x) 2 R. We cannot tell if F(x) is zero if we can ...
FILTERED MODULES WITH COEFFICIENTS 1. Introduction Let E
FILTERED MODULES WITH COEFFICIENTS 1. Introduction Let E

Chapter IV. Quotients by group schemes. When we work with group
Chapter IV. Quotients by group schemes. When we work with group

A Report on Artin`s holomorphy conjecture
A Report on Artin`s holomorphy conjecture

A Common Recursion For Laplacians of Matroids and Shifted
A Common Recursion For Laplacians of Matroids and Shifted

FINITE SIMPLICIAL MULTICOMPLEXES
FINITE SIMPLICIAL MULTICOMPLEXES

... An element m ∈ Γ is called a maximal facet if it does not exist a ∈ Γ with a > m; in other words, if m is maximal with respect to ”≤”. We denote M(Γ) the set of maximal facets of Γ. If a ∈ Γ is a face, the dimension of a is the number dim(a) = |a| − 1. The dimension of Γ is the number dim(Γ) = max{d ...
Quotient Modules in Depth
Quotient Modules in Depth

lecture 3
lecture 3

< 1 2 3 4 5 6 ... 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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