
The Discriminant
... The y-intercept is y=c. (The y-intercept lies on the y-axis, that is, the line x=0.) Parabolas are symmetric. Do not confuse the y-intercept with the vertex and skew your parabola. Remember – we can only graph points whose coordinates are real numbers. Here we do not care at all about imaginary numb ...
... The y-intercept is y=c. (The y-intercept lies on the y-axis, that is, the line x=0.) Parabolas are symmetric. Do not confuse the y-intercept with the vertex and skew your parabola. Remember – we can only graph points whose coordinates are real numbers. Here we do not care at all about imaginary numb ...
The Riemann Hypothesis for Elliptic Curves
... numerators and denominators agree modulo F (x, y), we can think of them as defining the same function on C. If we choose a point P ∈ C, we can obtain a valuation vP on K by looking at the order of vanishing or pole at P of each nonzero function in K. However, there are some subtleties to consider. ...
... numerators and denominators agree modulo F (x, y), we can think of them as defining the same function on C. If we choose a point P ∈ C, we can obtain a valuation vP on K by looking at the order of vanishing or pole at P of each nonzero function in K. However, there are some subtleties to consider. ...
- DocServer
... From the examples we see that 2, 3, 5, 7, 11, 13, 17, 31, 43, 257 and 757 are all cyclotomic primes. To determine which other primes are cyclotomic primes we would have to have a characterisation of Mersenne composites. It may be that every prime is cyclotomic. Let us note in passing that for certai ...
... From the examples we see that 2, 3, 5, 7, 11, 13, 17, 31, 43, 257 and 757 are all cyclotomic primes. To determine which other primes are cyclotomic primes we would have to have a characterisation of Mersenne composites. It may be that every prime is cyclotomic. Let us note in passing that for certai ...
Section 3.4 - GEOCITIES.ws
... You shall be able to define and give examples for the following mathematical terminology: ...
... You shall be able to define and give examples for the following mathematical terminology: ...
Factorization
In mathematics, factorization (also factorisation in some forms of British English) or factoring is the decomposition of an object (for example, a number, a polynomial, or a matrix) into a product of other objects, or factors, which when multiplied together give the original. For example, the number 15 factors into primes as 3 × 5, and the polynomial x2 − 4 factors as (x − 2)(x + 2). In all cases, a product of simpler objects is obtained.The aim of factoring is usually to reduce something to “basic building blocks”, such as numbers to prime numbers, or polynomials to irreducible polynomials. Factoring integers is covered by the fundamental theorem of arithmetic and factoring polynomials by the fundamental theorem of algebra. Viète's formulas relate the coefficients of a polynomial to its roots.The opposite of polynomial factorization is expansion, the multiplying together of polynomial factors to an “expanded” polynomial, written as just a sum of terms.Integer factorization for large integers appears to be a difficult problem. There is no known method to carry it out quickly. Its complexity is the basis of the assumed security of some public key cryptography algorithms, such as RSA.A matrix can also be factorized into a product of matrices of special types, for an application in which that form is convenient. One major example of this uses an orthogonal or unitary matrix, and a triangular matrix. There are different types: QR decomposition, LQ, QL, RQ, RZ.Another example is the factorization of a function as the composition of other functions having certain properties; for example, every function can be viewed as the composition of a surjective function with an injective function. This situation is generalized by factorization systems.