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         Polynomial Division:     more books (37)
  1. Conditions Satisfied By Characteristic Polynomials in Fields and Division Algebras: MSRI 1000-009 by Zinovy; Boris Youssin Reichstein, 2000
  2. Generalized characteristic polynomials (Report. University of California, Berkeley. Computer Science Division) by John Canny, 1988
  3. Tables for graduating orthogonal polynomials, (Commonwealth Scientific and Industrial Research Organization, Australia. Division of Mathematical Statistics technical paper) by E. A Cornish, 1962
  4. A fast algorithm for rational interpolation via orthogonal polynomials (Report, CS. University of California, Berkeley. Computer Science Division) by Ömer Nuri Eğecioğlu, 1987
  5. The interlace polynomial: A new graph polynomial (Research report / International Business Machines Corporation. Research Division) by Richard Arratia, 2000
  6. On the numerical condition of Bernstein Polynomials (Research Report RC. International Business Machines Corporation. Research Division) by Rida T Farouki, 1987
  7. On the distance to the zero set of a homogeneous polynomial (Research report RC. International Business Machines Corporation. Research Division) by Michael Shub, 1989
  8. Neural networks, error-correcting codes and polynomials over the binary n-cube (Research report RJ. International Business Machines Corporation. Research Division) by Jehoshua Bruck, 1987
  9. On the zeros of a polynomial vector field (Research report RC. International Business Machines Corporation. Research Division) by Takis Sakkalis, 1987
  10. D[subscript s]-optimal designs for polynomial regression using continued fractions (Mimeograph series / Dept. of Statistics, Division of Mathematical Sciences) by W. J. (William J.) Studden, 1979
  11. Root isolation and root approximation for polynomials in Bernstein form (Research report RC. International Business Machines Corporation. Research Division) by V. T Rajan, 1988
  12. Convexity and Bernstein polynomials on k-simploids (Research report RC. International Business Machines Corporation. Research Division) by Wolfgang Dahmen, 1988
  13. Some algebraic and geometric computations in PSPACE (Report. University of California, Berkeley. Computer Science Division) by John Canny, 1988
  14. On a problem of Chebyshev (Mimeograph series / Dept. of Statistics, Division of Mathematical Sciences) by W. J. (William J.) Studden, 1979

81. Su Alcune Condizioni Di Monotonia Per Matrici A Blocchi. Calcolo
Fast parallel polynomial division via reduction to triangular Toeplitz matrix inversion and to polynomial division and its computational complexity,
http://www.dm.unipi.it/~bini/pub77-89.html
  • Su alcune condizioni di monotonia per matrici a blocchi. Calcolo 14, 133-141, 1977. Su alcune questioni di complessita' computazionale numerica. Boll. U.M.I. 15-A, 327-351, 1978 (with M. Capovani). Lower bounds of the complexity of linear algebras. Information Processing Letters 46-47, 1979 (with M. Capovani). Approximate solution for the bilinear form computational problem. SIAM J. Comput., 692-697, 1980 (with G. Lotti, F. Romani). Relation between exact and approximate bilinear algorithms. Applications. Calcolo 17, 87-97, 1980. Stability of fast algorithms for matrix multiplications. Numerische Mathematik, 36, 63-72, 1980 (with G. Lotti). Reply to the paper "The numerical instability of Bini's algorithm". Information Processing Letters, 14, 144-145, 1982. Spectral and computational properties of symmetric band Toeplitz matrices. Linear Algebra Appl. 52, 99-126, 1983 (with M. Capovani). Fast parallel and sequential computations and spectral properties concerning band Toeplitz matrices. Calcolo 20,177-189, 1983 (with M. Capovani). On commutativity and approximation. Theoretical Computer Science, 28, 135-150, 1984.
  • 82. DBLP: Dario Bini
    19, Dario Bini, Victor Y. Pan Improved Parallel polynomial division and Its Extensions FOCS 1992 131136. 18, Dario Bini, Luca Gemignani On the
    http://www.informatik.uni-trier.de/~ley/db/indices/a-tree/b/Bini:Dario.html
    Dario Bini
    List of publications from the DBLP Bibliography Server FAQ Coauthor Index - Ask others: ACM DL ACM Guide CiteSeer CSB ... EE Dario Bini, Luca Gemignani : Bernstein-Bezoutian matrices. Theor. Comput. Sci. 315 Dario Bini, Gianna M. Del Corso Giovanni Manzini Luciano Margara : Inversion of circulant matrices over Z m Math. Comput. 70 EE Dario Bini, Gianna M. Del Corso Giovanni Manzini Luciano Margara : Inversion of Circulant Matrices over Z m ICALP 1998 EE Dario Bini, Victor Y. Pan : Computing Matrix Eigenvalues and Polynomial Zeros Where the Output is Real. SIAM J. Comput. 27 Dario Bini, Luca Gemignani : Erratum: Fast Parallel Computation of the Polynomial Remainder Sequence via Bezout and Hankel Matrices. SIAM J. Comput. 25 Dario Bini, Luca Gemignani : Fast Parallel Computation of the Polynomial Remainder Sequence Via Bezout and Hankel Matrices. SIAM J. Comput. 24 EE Dario Bini, Victor Y. Pan : Parallel Computations with Toeplitz-like and Hankel-like Matrices. ISSAC 1993 Dario Bini, Victor Y. Pan : Improved Parallel Polynomial Division. SIAM J. Comput. 22

    83. Worksheet9
    Section 4.5 is about division of polynomials this will give another approach to polynomial long division dividend divided by divisor get
    http://cs.jsu.edu/mcis/faculty/leathrum/ms102/Worksheet9/

    84. Basic Polynomial Operations - LabVIEW Analysis Concepts- Manuals - Support - Nat
    Divide Q(x) by R1(x) to obtain the new quotient polynomial Q2(x) and new represents the quotient polynomial resulting from the division of Pi 2(x) by Pi
    http://zone.ni.com/reference/en-XX/manuals/370192C-01/06Chap13_03/
    view cart help search Product Manuals Support Entire Site You are here: NI Home Support Product Reference Manuals
    Basic Polynomial Operations
    Table of Contents View PDF The basic polynomial operations include the following operations:
    • Finding the order of a polynomial Evaluating a polynomial Adding, subtracting, multiplying, or dividing polynomials Determining the composition of a polynomial Determining the greatest common divisor of two polynomials Determining the least common multiple of two polynomials Calculating the derivative of a polynomial Integrating a polynomial Finding the number of real roots of a real polynomial
    The following equations define two polynomials used in the following sections. Please read the PDF file of this manual to view this equation. Please read the PDF file of this manual to view this equation.
    Order of Polynomial
    The largest exponent of the variable determines the order of a polynomial. The order of P(x) in Equation 13-4 is three because of the variable x3. The order of Q(x) in Equation 13-5 is two because of the variable x2.
    Polynomial Evaluation
    Polynomial evaluation determines the value of a polynomial for a particular value of x, as shown by the following equation.

    85. Numerical Methods: Tutorial 7
    In general, one polynomial does not exactly divide a second polynomial. In class, you saw an example of long division using polynomials.
    http://www.ece.uwaterloo.ca/~ece104/tutorials/t7.html
    @import url("http://www.uwaterloo.ca/css/UWblank.css"); @import url("css/tpm.css"); @import url("http://www.uwaterloo.ca/css/UW2col.css"); @import url("http://www.uwaterloo.ca/css/UWprint.css") print; uwaterloo.ca
    Numerical Methods: Tutorial 7
    This tutorial explores the implementation of polynomials in Matlab.
    Defining and Constructing Polynomials
    The vector p = [a b c] (column or row vector, it doesn't matter) represents the polynomial ax bx c For example, the vector p >> p = [1 3.2 0.5 -0.8 0.7] represents the degree 4 polynomial x x x x Suppose, however, you have the roots of a polynomial and wish to construct the expanded form. This may be done using the poly function, simply pass it a vector of roots: >> p = poly( [-1 -1 -3 -4] ) ans = 1 9 27 31 12 Note that the leading coefficient is 1, as there are arbitrarily many polynomials which have the four given roots. If you are constructing a polynomial from a pair of complex conjugate roots, you must take the real part of each of the coefficients to get rid of the complex components:

    86. Ruffini S Rule
    when the divisor is a linear factor. Ruffini s rule is also known as synthetic division. See also polynomial long division for related background.
    http://www.algebra.com/algebra/about/history/Ruffini%27s-rule.wikipedia

    87. Chapter 5.4 Lesson, Math 101 - Fall 1997
    where the dividend and divisor are polynomials. To divide a polynomial by a monomial, divide each term of the polynomial by the monomial.
    http://www.sci.wsu.edu/~kentler/Fall97_101/nojs/Chapter5/section4.html
    Math 101 Intermediate Algebra
    Polynomial Division

    Chapter 5, Sections 4
    Dividend, Divisor, Quotient, and Remainder Problems will look like dividend divisor where the dividend and divisor are polynomials. Problem and answer will look like dividend divisor = quotient + remainder divisor Check that the division has been performed correctly (i.e., the correct quotient and remainder have been found) by
    That is, multiplying the quotient by the divisor and adding in the remainder has to result in the dividend. Example
    Problem: x x + 2 Dividend: x
    Divisor: x + 2
    Answer: x + 3 + x + 2 Quotient: x + 3
    Remainder: 3
    Note that (x + 3)(x + 2) + 3 = x
    Dividing a Polynomial by a Monomial
    To divide a polynomial by a monomial, divide each term of the polynomial by the monomial. That means, apply the distibutive property and simplify. Example
    y + 5xy y x xy Answer: xy Example
    a b c - 6abc b a b c b ab b Answer: ab b
    Long Polynomial Division
    Long polynomial division may always be used when the divisor has more than one term. That is, the divisor is a binomial or trinomial or etc.
    Long polynomial division is a technique for finding the quotient and remainder given the dividend and divisor.

    88. Mathematics-Online Course: Precalculus-Tools For Solving Equations-Polynomial Di
    For polynomials $ p$ and $ q$ with $ m=$ degree $ \,q\le$ degree $ \,p=n$ there exists This decomposition can be determined by division with remainder.
    http://www.mathematics-online.org/kurse/kurs9/seite24.html
    home lexicon problems tests ... staff Mathematics-Online course: Precalculus - Tools for solving Equations
    Polynomial Division
    previous page next page table of contents page overview For polynomials and with degree degree there exists two unique polynomials and with degree degree This decomposition can be determined by division with remainder. In particular for a root of follows that with degree (Authors: Höllig/Hörner/Knödler) Division of by thus (Authors: Höllig/Hörner/Knödler) automatically generated 7/27/2004

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