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Polynomial Functions
Polynomial Functions
A real polynomial P(x) of degree n is an expression of the form;
            P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n
Polynomial Functions
A real polynomial P(x) of degree n is an expression of the form;
            P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n
            where : pn  0
Polynomial Functions
A real polynomial P(x) of degree n is an expression of the form;
            P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n
            where : pn  0
                      n  0 and is an integer
Polynomial Functions
A real polynomial P(x) of degree n is an expression of the form;
              P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n
               where : pn  0
                        n  0 and is an integer
coefficients: p0 , p1 , p2 , , pn
Polynomial Functions
A real polynomial P(x) of degree n is an expression of the form;
              P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n
               where : pn  0
                        n  0 and is an integer
coefficients: p0 , p1 , p2 , , pn
index (exponent): the powers of the pronumerals.
Polynomial Functions
A real polynomial P(x) of degree n is an expression of the form;
              P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n
               where : pn  0
                        n  0 and is an integer
coefficients: p0 , p1 , p2 , , pn
index (exponent): the powers of the pronumerals.
degree (order): the highest index of the polynomial. The
polynomial is called “polynomial of degree n”
Polynomial Functions
A real polynomial P(x) of degree n is an expression of the form;
              P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n
               where : pn  0
                        n  0 and is an integer
coefficients: p0 , p1 , p2 , , pn
index (exponent): the powers of the pronumerals.
degree (order): the highest index of the polynomial. The
polynomial is called “polynomial of degree n”
                   n
leading term: pn x
Polynomial Functions
A real polynomial P(x) of degree n is an expression of the form;
              P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n
               where : pn  0
                        n  0 and is an integer
coefficients: p0 , p1 , p2 , , pn
index (exponent): the powers of the pronumerals.
degree (order): the highest index of the polynomial. The
polynomial is called “polynomial of degree n”
                   n
leading term: pn x
leading coefficient: pn
Polynomial Functions
A real polynomial P(x) of degree n is an expression of the form;
              P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n
               where : pn  0
                        n  0 and is an integer
coefficients: p0 , p1 , p2 , , pn
index (exponent): the powers of the pronumerals.
degree (order): the highest index of the polynomial. The
polynomial is called “polynomial of degree n”
                   n
leading term: pn x
leading coefficient: pn
monic polynomial: leading coefficient is equal to one.
P(x) = 0: polynomial equation
P(x) = 0: polynomial equation
y = P(x): polynomial function
P(x) = 0: polynomial equation
y = P(x): polynomial function
roots: solutions to the polynomial equation P(x) = 0
P(x) = 0: polynomial equation
y = P(x): polynomial function
roots: solutions to the polynomial equation P(x) = 0
zeros: the values of x that make polynomial P(x) zero. i.e. the x
intercepts of the graph of the polynomial.
P(x) = 0: polynomial equation
 y = P(x): polynomial function
  roots: solutions to the polynomial equation P(x) = 0
  zeros: the values of x that make polynomial P(x) zero. i.e. the x
  intercepts of the graph of the polynomial.
e.g. (i) Which of the following are polynomials?
                   1
       a) 5 x 3  7 x  2
                   2


              4
       b) 2
           x 3
          x2  3
       c)
              4
       d) 7
P(x) = 0: polynomial equation
 y = P(x): polynomial function
  roots: solutions to the polynomial equation P(x) = 0
  zeros: the values of x that make polynomial P(x) zero. i.e. the x
  intercepts of the graph of the polynomial.
e.g. (i) Which of the following are polynomials?
                   1
       a) 5 x 3  7 x  2
                   2
                             NO, can’t have fraction as a power
              4
       b) 2
           x 3
          x2  3
       c)
              4
       d) 7
P(x) = 0: polynomial equation
 y = P(x): polynomial function
  roots: solutions to the polynomial equation P(x) = 0
  zeros: the values of x that make polynomial P(x) zero. i.e. the x
  intercepts of the graph of the polynomial.
e.g. (i) Which of the following are polynomials?
                   1
       a) 5 x 3  7 x  2
                   2
                             NO, can’t have fraction as a power
              4
                      NO, can’t have negative as a power 4  x  3
                                                                    1
       b) 2                                                   2
           x 3
          x2  3
       c)
              4
       d) 7
P(x) = 0: polynomial equation
 y = P(x): polynomial function
  roots: solutions to the polynomial equation P(x) = 0
  zeros: the values of x that make polynomial P(x) zero. i.e. the x
  intercepts of the graph of the polynomial.
e.g. (i) Which of the following are polynomials?
                   1
       a) 5 x 3  7 x  2
                   2
                              NO, can’t have fraction as a power
              4
                      NO, can’t have negative as a power 4  x  3
                                                                    1
       b) 2                                                   2
           x 3
          x2  3            1 2 3
       c)            YES,     x 
              4             4     4
       d) 7
P(x) = 0: polynomial equation
 y = P(x): polynomial function
  roots: solutions to the polynomial equation P(x) = 0
  zeros: the values of x that make polynomial P(x) zero. i.e. the x
  intercepts of the graph of the polynomial.
e.g. (i) Which of the following are polynomials?
                   1
       a) 5 x 3  7 x  2
                   2
                              NO, can’t have fraction as a power
              4
                      NO, can’t have negative as a power 4  x  3
                                                                    1
       b) 2                                                   2
           x 3
          x2  3            1 2 3
       c)            YES,     x 
              4             4     4
       d) 7          YES, 7x 0
P(x) = 0: polynomial equation
 y = P(x): polynomial function
  roots: solutions to the polynomial equation P(x) = 0
  zeros: the values of x that make polynomial P(x) zero. i.e. the x
  intercepts of the graph of the polynomial.
e.g. (i) Which of the following are polynomials?
                      1
        a) 5 x 3  7 x  2
                      2
                               NO, can’t have fraction as a power
               4
                       NO, can’t have negative as a power 4  x  3
                                                                                1
        b) 2                                                            2
            x 3
           x2  3            1 2 3
        c)            YES,     x 
               4             4     4
        d) 7          YES, 7x 0
(ii) Determine whether P( x)  x 3  8 x  1  7 x  11   2 x 2  1 4 x 2  3 is
     monic and state its degree.
P(x) = 0: polynomial equation
 y = P(x): polynomial function
  roots: solutions to the polynomial equation P(x) = 0
  zeros: the values of x that make polynomial P(x) zero. i.e. the x
  intercepts of the graph of the polynomial.
e.g. (i) Which of the following are polynomials?
                      1
         a) 5 x 3  7 x  2
                      2
                                   NO, can’t have fraction as a power
                 4
                        NO, can’t have negative as a power 4  x  3
                                                                                1
         b) 2                                                           2
             x 3
             x2  3              1 2 3
         c)            YES,        x 
                4                4        4
         d) 7          YES, 7x 0
(ii) Determine whether P( x)  x 3  8 x  1  7 x  11   2 x 2  1 4 x 2  3 is
     monic and state its degree.
    P( x)  8 x 4  x3  7 x  11  8 x 4  6 x 2  4 x 2  3
P(x) = 0: polynomial equation
 y = P(x): polynomial function
  roots: solutions to the polynomial equation P(x) = 0
  zeros: the values of x that make polynomial P(x) zero. i.e. the x
  intercepts of the graph of the polynomial.
e.g. (i) Which of the following are polynomials?
                      1
         a) 5 x 3  7 x  2
                      2
                                   NO, can’t have fraction as a power
                 4
                        NO, can’t have negative as a power 4  x  3
                                                                                1
         b) 2                                                           2
             x 3
             x2  3              1 2 3
         c)            YES,        x 
                4                4        4
         d) 7          YES, 7x 0
(ii) Determine whether P( x)  x 3  8 x  1  7 x  11   2 x 2  1 4 x 2  3 is
     monic and state its degree.
    P( x)  8 x 4  x3  7 x  11  8 x 4  6 x 2  4 x 2  3
           x3  2 x 2  7 x  8
P(x) = 0: polynomial equation
 y = P(x): polynomial function
  roots: solutions to the polynomial equation P(x) = 0
  zeros: the values of x that make polynomial P(x) zero. i.e. the x
  intercepts of the graph of the polynomial.
e.g. (i) Which of the following are polynomials?
                      1
         a) 5 x 3  7 x  2
                      2
                                   NO, can’t have fraction as a power
                 4
                        NO, can’t have negative as a power 4  x  3
                                                                                1
         b) 2                                                           2
             x 3
             x2  3              1 2 3
         c)            YES,        x 
                4                4        4
         d) 7          YES, 7x 0
(ii) Determine whether P( x)  x 3  8 x  1  7 x  11   2 x 2  1 4 x 2  3 is
     monic and state its degree.
    P( x)  8 x 4  x3  7 x  11  8 x 4  6 x 2  4 x 2  3
           x3  2 x 2  7 x  8             monic, degree = 3
P(x) = 0: polynomial equation
 y = P(x): polynomial function
  roots: solutions to the polynomial equation P(x) = 0
  zeros: the values of x that make polynomial P(x) zero. i.e. the x
  intercepts of the graph of the polynomial.
e.g. (i) Which of the following are polynomials?
                      1
         a) 5 x 3  7 x  2
                      2
                                   NO, can’t have fraction as a power
                 4
                        NO, can’t have negative as a power 4  x  3
                                                                                1
         b) 2                                                             2
             x 3
             x2  3              1 2 3
         c)            YES,        x             Exercise 4A; 1, 2acehi, 3bdf,
                4                4        4              6bdf, 7, 9d, 10ad, 13
                                   0
         d) 7          YES, 7x
(ii) Determine whether P( x)  x 3  8 x  1  7 x  11   2 x 2  1 4 x 2  3 is
     monic and state its degree.
    P( x)  8 x 4  x3  7 x  11  8 x 4  6 x 2  4 x 2  3
           x3  2 x 2  7 x  8             monic, degree = 3

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X2 t02 01 factorising complex expressions (2013)Nigel Simmons
 
11 x1 t16 07 approximations (2013)
11 x1 t16 07 approximations (2013)11 x1 t16 07 approximations (2013)
11 x1 t16 07 approximations (2013)Nigel Simmons
 
11 x1 t16 06 derivative times function (2013)
11 x1 t16 06 derivative times function (2013)11 x1 t16 06 derivative times function (2013)
11 x1 t16 06 derivative times function (2013)Nigel Simmons
 
11 x1 t16 05 volumes (2013)
11 x1 t16 05 volumes (2013)11 x1 t16 05 volumes (2013)
11 x1 t16 05 volumes (2013)Nigel Simmons
 
11 x1 t16 04 areas (2013)
11 x1 t16 04 areas (2013)11 x1 t16 04 areas (2013)
11 x1 t16 04 areas (2013)Nigel Simmons
 
11 x1 t16 03 indefinite integral (2013)
11 x1 t16 03 indefinite integral (2013)11 x1 t16 03 indefinite integral (2013)
11 x1 t16 03 indefinite integral (2013)Nigel Simmons
 
11 x1 t16 02 definite integral (2013)
11 x1 t16 02 definite integral (2013)11 x1 t16 02 definite integral (2013)
11 x1 t16 02 definite integral (2013)Nigel Simmons
 
11 x1 t16 01 area under curve (2013)
11 x1 t16 01 area under curve (2013)11 x1 t16 01 area under curve (2013)
11 x1 t16 01 area under curve (2013)Nigel Simmons
 
X2 t01 11 nth roots of unity (2012)
X2 t01 11 nth roots of unity (2012)X2 t01 11 nth roots of unity (2012)
X2 t01 11 nth roots of unity (2012)Nigel Simmons
 
X2 t01 10 complex & trig (2013)
X2 t01 10 complex & trig (2013)X2 t01 10 complex & trig (2013)
X2 t01 10 complex & trig (2013)Nigel Simmons
 
X2 t01 09 de moivres theorem
X2 t01 09 de moivres theoremX2 t01 09 de moivres theorem
X2 t01 09 de moivres theoremNigel Simmons
 
X2 t01 08 locus & complex nos 2 (2013)
X2 t01 08  locus & complex nos 2 (2013)X2 t01 08  locus & complex nos 2 (2013)
X2 t01 08 locus & complex nos 2 (2013)Nigel Simmons
 
X2 t01 07 locus & complex nos 1 (2013)
X2 t01 07 locus & complex nos 1 (2013)X2 t01 07 locus & complex nos 1 (2013)
X2 t01 07 locus & complex nos 1 (2013)Nigel Simmons
 

Mais de Nigel Simmons (20)

12 x1 t02 01 differentiating exponentials (2014)
12 x1 t02 01 differentiating exponentials (2014)12 x1 t02 01 differentiating exponentials (2014)
12 x1 t02 01 differentiating exponentials (2014)
 
11 x1 t01 01 algebra & indices (2014)
11 x1 t01 01 algebra & indices (2014)11 x1 t01 01 algebra & indices (2014)
11 x1 t01 01 algebra & indices (2014)
 
12 x1 t01 03 integrating derivative on function (2013)
12 x1 t01 03 integrating derivative on function (2013)12 x1 t01 03 integrating derivative on function (2013)
12 x1 t01 03 integrating derivative on function (2013)
 
12 x1 t01 02 differentiating logs (2013)
12 x1 t01 02 differentiating logs (2013)12 x1 t01 02 differentiating logs (2013)
12 x1 t01 02 differentiating logs (2013)
 
12 x1 t01 01 log laws (2013)
12 x1 t01 01 log laws (2013)12 x1 t01 01 log laws (2013)
12 x1 t01 01 log laws (2013)
 
X2 t02 04 forming polynomials (2013)
X2 t02 04 forming polynomials (2013)X2 t02 04 forming polynomials (2013)
X2 t02 04 forming polynomials (2013)
 
X2 t02 02 multiple roots (2013)
X2 t02 02 multiple roots (2013)X2 t02 02 multiple roots (2013)
X2 t02 02 multiple roots (2013)
 
X2 t02 01 factorising complex expressions (2013)
X2 t02 01 factorising complex expressions (2013)X2 t02 01 factorising complex expressions (2013)
X2 t02 01 factorising complex expressions (2013)
 
11 x1 t16 07 approximations (2013)
11 x1 t16 07 approximations (2013)11 x1 t16 07 approximations (2013)
11 x1 t16 07 approximations (2013)
 
11 x1 t16 06 derivative times function (2013)
11 x1 t16 06 derivative times function (2013)11 x1 t16 06 derivative times function (2013)
11 x1 t16 06 derivative times function (2013)
 
11 x1 t16 05 volumes (2013)
11 x1 t16 05 volumes (2013)11 x1 t16 05 volumes (2013)
11 x1 t16 05 volumes (2013)
 
11 x1 t16 04 areas (2013)
11 x1 t16 04 areas (2013)11 x1 t16 04 areas (2013)
11 x1 t16 04 areas (2013)
 
11 x1 t16 03 indefinite integral (2013)
11 x1 t16 03 indefinite integral (2013)11 x1 t16 03 indefinite integral (2013)
11 x1 t16 03 indefinite integral (2013)
 
11 x1 t16 02 definite integral (2013)
11 x1 t16 02 definite integral (2013)11 x1 t16 02 definite integral (2013)
11 x1 t16 02 definite integral (2013)
 
11 x1 t16 01 area under curve (2013)
11 x1 t16 01 area under curve (2013)11 x1 t16 01 area under curve (2013)
11 x1 t16 01 area under curve (2013)
 
X2 t01 11 nth roots of unity (2012)
X2 t01 11 nth roots of unity (2012)X2 t01 11 nth roots of unity (2012)
X2 t01 11 nth roots of unity (2012)
 
X2 t01 10 complex & trig (2013)
X2 t01 10 complex & trig (2013)X2 t01 10 complex & trig (2013)
X2 t01 10 complex & trig (2013)
 
X2 t01 09 de moivres theorem
X2 t01 09 de moivres theoremX2 t01 09 de moivres theorem
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X2 t01 08 locus & complex nos 2 (2013)
X2 t01 08  locus & complex nos 2 (2013)X2 t01 08  locus & complex nos 2 (2013)
X2 t01 08 locus & complex nos 2 (2013)
 
X2 t01 07 locus & complex nos 1 (2013)
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11X1 T16 01 definitions

  • 2. Polynomial Functions A real polynomial P(x) of degree n is an expression of the form; P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n
  • 3. Polynomial Functions A real polynomial P(x) of degree n is an expression of the form; P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n where : pn  0
  • 4. Polynomial Functions A real polynomial P(x) of degree n is an expression of the form; P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n where : pn  0 n  0 and is an integer
  • 5. Polynomial Functions A real polynomial P(x) of degree n is an expression of the form; P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n where : pn  0 n  0 and is an integer coefficients: p0 , p1 , p2 , , pn
  • 6. Polynomial Functions A real polynomial P(x) of degree n is an expression of the form; P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n where : pn  0 n  0 and is an integer coefficients: p0 , p1 , p2 , , pn index (exponent): the powers of the pronumerals.
  • 7. Polynomial Functions A real polynomial P(x) of degree n is an expression of the form; P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n where : pn  0 n  0 and is an integer coefficients: p0 , p1 , p2 , , pn index (exponent): the powers of the pronumerals. degree (order): the highest index of the polynomial. The polynomial is called “polynomial of degree n”
  • 8. Polynomial Functions A real polynomial P(x) of degree n is an expression of the form; P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n where : pn  0 n  0 and is an integer coefficients: p0 , p1 , p2 , , pn index (exponent): the powers of the pronumerals. degree (order): the highest index of the polynomial. The polynomial is called “polynomial of degree n” n leading term: pn x
  • 9. Polynomial Functions A real polynomial P(x) of degree n is an expression of the form; P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n where : pn  0 n  0 and is an integer coefficients: p0 , p1 , p2 , , pn index (exponent): the powers of the pronumerals. degree (order): the highest index of the polynomial. The polynomial is called “polynomial of degree n” n leading term: pn x leading coefficient: pn
  • 10. Polynomial Functions A real polynomial P(x) of degree n is an expression of the form; P x   p0  p1 x  p2 x 2    pn1 x n1  pn x n where : pn  0 n  0 and is an integer coefficients: p0 , p1 , p2 , , pn index (exponent): the powers of the pronumerals. degree (order): the highest index of the polynomial. The polynomial is called “polynomial of degree n” n leading term: pn x leading coefficient: pn monic polynomial: leading coefficient is equal to one.
  • 11. P(x) = 0: polynomial equation
  • 12. P(x) = 0: polynomial equation y = P(x): polynomial function
  • 13. P(x) = 0: polynomial equation y = P(x): polynomial function roots: solutions to the polynomial equation P(x) = 0
  • 14. P(x) = 0: polynomial equation y = P(x): polynomial function roots: solutions to the polynomial equation P(x) = 0 zeros: the values of x that make polynomial P(x) zero. i.e. the x intercepts of the graph of the polynomial.
  • 15. P(x) = 0: polynomial equation y = P(x): polynomial function roots: solutions to the polynomial equation P(x) = 0 zeros: the values of x that make polynomial P(x) zero. i.e. the x intercepts of the graph of the polynomial. e.g. (i) Which of the following are polynomials? 1 a) 5 x 3  7 x  2 2 4 b) 2 x 3 x2  3 c) 4 d) 7
  • 16. P(x) = 0: polynomial equation y = P(x): polynomial function roots: solutions to the polynomial equation P(x) = 0 zeros: the values of x that make polynomial P(x) zero. i.e. the x intercepts of the graph of the polynomial. e.g. (i) Which of the following are polynomials? 1 a) 5 x 3  7 x  2 2 NO, can’t have fraction as a power 4 b) 2 x 3 x2  3 c) 4 d) 7
  • 17. P(x) = 0: polynomial equation y = P(x): polynomial function roots: solutions to the polynomial equation P(x) = 0 zeros: the values of x that make polynomial P(x) zero. i.e. the x intercepts of the graph of the polynomial. e.g. (i) Which of the following are polynomials? 1 a) 5 x 3  7 x  2 2 NO, can’t have fraction as a power 4 NO, can’t have negative as a power 4  x  3 1 b) 2 2 x 3 x2  3 c) 4 d) 7
  • 18. P(x) = 0: polynomial equation y = P(x): polynomial function roots: solutions to the polynomial equation P(x) = 0 zeros: the values of x that make polynomial P(x) zero. i.e. the x intercepts of the graph of the polynomial. e.g. (i) Which of the following are polynomials? 1 a) 5 x 3  7 x  2 2 NO, can’t have fraction as a power 4 NO, can’t have negative as a power 4  x  3 1 b) 2 2 x 3 x2  3 1 2 3 c) YES, x  4 4 4 d) 7
  • 19. P(x) = 0: polynomial equation y = P(x): polynomial function roots: solutions to the polynomial equation P(x) = 0 zeros: the values of x that make polynomial P(x) zero. i.e. the x intercepts of the graph of the polynomial. e.g. (i) Which of the following are polynomials? 1 a) 5 x 3  7 x  2 2 NO, can’t have fraction as a power 4 NO, can’t have negative as a power 4  x  3 1 b) 2 2 x 3 x2  3 1 2 3 c) YES, x  4 4 4 d) 7 YES, 7x 0
  • 20. P(x) = 0: polynomial equation y = P(x): polynomial function roots: solutions to the polynomial equation P(x) = 0 zeros: the values of x that make polynomial P(x) zero. i.e. the x intercepts of the graph of the polynomial. e.g. (i) Which of the following are polynomials? 1 a) 5 x 3  7 x  2 2 NO, can’t have fraction as a power 4 NO, can’t have negative as a power 4  x  3 1 b) 2 2 x 3 x2  3 1 2 3 c) YES, x  4 4 4 d) 7 YES, 7x 0 (ii) Determine whether P( x)  x 3  8 x  1  7 x  11   2 x 2  1 4 x 2  3 is monic and state its degree.
  • 21. P(x) = 0: polynomial equation y = P(x): polynomial function roots: solutions to the polynomial equation P(x) = 0 zeros: the values of x that make polynomial P(x) zero. i.e. the x intercepts of the graph of the polynomial. e.g. (i) Which of the following are polynomials? 1 a) 5 x 3  7 x  2 2 NO, can’t have fraction as a power 4 NO, can’t have negative as a power 4  x  3 1 b) 2 2 x 3 x2  3 1 2 3 c) YES, x  4 4 4 d) 7 YES, 7x 0 (ii) Determine whether P( x)  x 3  8 x  1  7 x  11   2 x 2  1 4 x 2  3 is monic and state its degree. P( x)  8 x 4  x3  7 x  11  8 x 4  6 x 2  4 x 2  3
  • 22. P(x) = 0: polynomial equation y = P(x): polynomial function roots: solutions to the polynomial equation P(x) = 0 zeros: the values of x that make polynomial P(x) zero. i.e. the x intercepts of the graph of the polynomial. e.g. (i) Which of the following are polynomials? 1 a) 5 x 3  7 x  2 2 NO, can’t have fraction as a power 4 NO, can’t have negative as a power 4  x  3 1 b) 2 2 x 3 x2  3 1 2 3 c) YES, x  4 4 4 d) 7 YES, 7x 0 (ii) Determine whether P( x)  x 3  8 x  1  7 x  11   2 x 2  1 4 x 2  3 is monic and state its degree. P( x)  8 x 4  x3  7 x  11  8 x 4  6 x 2  4 x 2  3  x3  2 x 2  7 x  8
  • 23. P(x) = 0: polynomial equation y = P(x): polynomial function roots: solutions to the polynomial equation P(x) = 0 zeros: the values of x that make polynomial P(x) zero. i.e. the x intercepts of the graph of the polynomial. e.g. (i) Which of the following are polynomials? 1 a) 5 x 3  7 x  2 2 NO, can’t have fraction as a power 4 NO, can’t have negative as a power 4  x  3 1 b) 2 2 x 3 x2  3 1 2 3 c) YES, x  4 4 4 d) 7 YES, 7x 0 (ii) Determine whether P( x)  x 3  8 x  1  7 x  11   2 x 2  1 4 x 2  3 is monic and state its degree. P( x)  8 x 4  x3  7 x  11  8 x 4  6 x 2  4 x 2  3  x3  2 x 2  7 x  8  monic, degree = 3
  • 24. P(x) = 0: polynomial equation y = P(x): polynomial function roots: solutions to the polynomial equation P(x) = 0 zeros: the values of x that make polynomial P(x) zero. i.e. the x intercepts of the graph of the polynomial. e.g. (i) Which of the following are polynomials? 1 a) 5 x 3  7 x  2 2 NO, can’t have fraction as a power 4 NO, can’t have negative as a power 4  x  3 1 b) 2 2 x 3 x2  3 1 2 3 c) YES, x  Exercise 4A; 1, 2acehi, 3bdf, 4 4 4 6bdf, 7, 9d, 10ad, 13 0 d) 7 YES, 7x (ii) Determine whether P( x)  x 3  8 x  1  7 x  11   2 x 2  1 4 x 2  3 is monic and state its degree. P( x)  8 x 4  x3  7 x  11  8 x 4  6 x 2  4 x 2  3  x3  2 x 2  7 x  8  monic, degree = 3