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The Quadratic Polynomial
    and the Parabola
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial –
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial – ax 2  bx  c
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial – ax 2  bx  c
Quadratic function –
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial – ax 2  bx  c
Quadratic function – y  ax 2  bx  c
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial – ax 2  bx  c
Quadratic function – y  ax 2  bx  c
Quadratic equation –
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial – ax 2  bx  c
Quadratic function – y  ax 2  bx  c
Quadratic equation – ax 2  bx  c  0
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial – ax 2  bx  c
Quadratic function – y  ax 2  bx  c
Quadratic equation – ax 2  bx  c  0
Coefficients –
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial – ax 2  bx  c
Quadratic function – y  ax 2  bx  c
Quadratic equation – ax 2  bx  c  0
Coefficients – a, b, c
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial – ax 2  bx  c
Quadratic function – y  ax 2  bx  c
Quadratic equation – ax 2  bx  c  0
Coefficients – a, b, c
Indeterminate –
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial – ax 2  bx  c
Quadratic function – y  ax 2  bx  c
Quadratic equation – ax 2  bx  c  0
Coefficients – a, b, c
Indeterminate – x
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial – ax 2  bx  c
Quadratic function – y  ax 2  bx  c
Quadratic equation – ax 2  bx  c  0
Coefficients – a, b, c
Indeterminate – x
Roots –
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial – ax 2  bx  c
Quadratic function – y  ax 2  bx  c
Quadratic equation – ax 2  bx  c  0
Coefficients – a, b, c
Indeterminate – x
Roots – Solutions to the quadratic equation
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial – ax 2  bx  c
Quadratic function – y  ax 2  bx  c
Quadratic equation – ax 2  bx  c  0
Coefficients – a, b, c
Indeterminate – x
Roots – Solutions to the quadratic equation
 Zeroes –
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial – ax 2  bx  c
Quadratic function – y  ax 2  bx  c
Quadratic equation – ax 2  bx  c  0
Coefficients – a, b, c
Indeterminate – x
Roots – Solutions to the quadratic equation
 Zeroes – x intercepts of the quadratic function
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial – ax 2  bx  c
Quadratic function – y  ax 2  bx  c
Quadratic equation – ax 2  bx  c  0
Coefficients – a, b, c
Indeterminate – x
Roots – Solutions to the quadratic equation
 Zeroes – x intercepts of the quadratic function
 e.g. Find the roots of x 2  1  0
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial – ax 2  bx  c
Quadratic function – y  ax 2  bx  c
Quadratic equation – ax 2  bx  c  0
Coefficients – a, b, c
Indeterminate – x
Roots – Solutions to the quadratic equation
 Zeroes – x intercepts of the quadratic function
 e.g. Find the roots of x 2  1  0
      x2 1  0
        x2  1
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial – ax 2  bx  c
Quadratic function – y  ax 2  bx  c
Quadratic equation – ax 2  bx  c  0
Coefficients – a, b, c
Indeterminate – x
Roots – Solutions to the quadratic equation
 Zeroes – x intercepts of the quadratic function
 e.g. Find the roots of x 2  1  0
      x2 1  0
        x2  1
         x  1
The Quadratic Polynomial
     and the Parabola
Quadratic polynomial – ax 2  bx  c
Quadratic function – y  ax 2  bx  c
Quadratic equation – ax 2  bx  c  0
Coefficients – a, b, c
Indeterminate – x
Roots – Solutions to the quadratic equation
 Zeroes – x intercepts of the quadratic function
 e.g. Find the roots of x 2  1  0
      x2 1  0
        x2  1
         x  1         the roots are x  1 and x  1
Graphing Quadratics
Graphing Quadratics
The graph of a quadratic function is a parabola.
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c

a
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
            y
a



                         x
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
            y
a



                       x
                    a0
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
            y
a



                        x
                    a0
                  concave up
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
            y                                      y
a



                        x                                        x
                    a0
                  concave up
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
            y                                      y
a



                        x                                        x
                    a0                                    a0
                  concave up
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
            y                                      y
a



                        x                                        x
                    a0                                   a0
                  concave up                           concave down
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
            y                                      y
a



                        x                                        x
                    a0                                   a0
                  concave up                           concave down
c
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
            y                                      y
a



                        x                                        x
                    a0                                   a0
                  concave up                           concave down
c = y intercept
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
            y                                      y
a



                        x                                        x
                    a0                                   a0
                  concave up                           concave down
c = y intercept
zeroes (roots)
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
            y                                      y
a



                        x                                        x
                    a0                                   a0
                  concave up                           concave down
c = y intercept
zeroes (roots) = x intercepts
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
            y                                      y
a



                        x                                        x
                    a0                                   a0
                  concave up                           concave down
c = y intercept
zeroes (roots) = x intercepts
   b
x
   2a
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
            y                                      y
a



                        x                                        x
                    a0                                   a0
                  concave up                           concave down
c = y intercept
zeroes (roots) = x intercepts
   b
x        = axis of symmetry
   2a
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
            y                                      y
a



                        x                                        x
                    a0                                    a0
                  concave up                            concave down
c = y intercept
zeroes (roots) = x intercepts
   b
x        = axis of symmetry     Note: AOS is the average of the zeroes
   2a
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
            y                                      y
a



                        x                                        x
                    a0                                    a0
                  concave up                            concave down
c = y intercept
zeroes (roots) = x intercepts
   b
x        = axis of symmetry     Note: AOS is the average of the zeroes
   2a
 vertex
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
            y                                      y
a



                        x                                        x
                    a0                                    a0
                  concave up                            concave down
c = y intercept
zeroes (roots) = x intercepts
   b
x        = axis of symmetry     Note: AOS is the average of the zeroes
   2a
 vertex x value is the AOS
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
            y                                      y
a



                        x                                         x
                    a0                                    a0
                  concave up                            concave down
c = y intercept
zeroes (roots) = x intercepts
   b
x        = axis of symmetry     Note: AOS is the average of the zeroes
   2a
 vertex x value is the AOS
        y value is found by substituting AOS into the function.
Graphing Quadratics
The graph of a quadratic function is a parabola.   y  ax 2  bx  c
            y                                      y
a



                        x                                         x
                    a0                                    a0
                  concave up                            concave down
c = y intercept
zeroes (roots) = x intercepts
   b
x        = axis of symmetry     Note: AOS is the average of the zeroes
   2a
 vertex x value is the AOS
        y value is found by substituting AOS into the function.
          (It is the maximum/minimum value of the function)
e.g. Graph y  x 2  8 x  12
e.g. Graph y  x 2  8 x  12
a=1>0
                                y




                                    x
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up
                                y




                                    x
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up          c = 12
                                         y   y  x 2  8 x  12




                                                     x
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up          c = 12  y intercept is  0,12 
                                                    y




                                                              x
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up          c = 12  y intercept is  0,12 
                                                    y
                                                   12




                                                              x
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up          c = 12  y intercept is  0,12 
zeroes                                              y
                                                   12




                                                              x
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up          c = 12  y intercept is  0,12 
zeroes x 2  8 x  12  0                           y   y  x 2  8 x  12
                                                   12




                                                                x
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up          c = 12  y intercept is  0,12 
zeroes x 2  8 x  12  0                           y   y  x 2  8 x  12
        x  6  x  2   0                      12




                                                                x
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up          c = 12  y intercept is  0,12 
zeroes x 2  8 x  12  0                           y   y  x 2  8 x  12
        x  6  x  2   0                      12
          x  6 or x  2




                                                                x
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up          c = 12  y intercept is  0,12 
zeroes x 2  8 x  12  0                           y   y  x 2  8 x  12
        x  6  x  2   0                      12
          x  6 or x  2
        x intercepts are
        6,0  and  2,0 



                                                                x
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up          c = 12  y intercept is  0,12 
zeroes x 2  8 x  12  0                             y   y  x 2  8 x  12
        x  6  x  2   0                      12
          x  6 or x  2
        x intercepts are
        6,0  and  2,0 



                                        –6       –2               x
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up          c = 12  y intercept is  0,12 
zeroes x 2  8 x  12  0                             y   y  x 2  8 x  12
        x  6  x  2   0                      12
          x  6 or x  2
        x intercepts are
        6,0  and  2,0 
AOS


                                        –6       –2               x
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up          c = 12  y intercept is  0,12 
zeroes x 2  8 x  12  0                             y   y  x 2  8 x  12
        x  6  x  2   0                      12
          x  6 or x  2
        x intercepts are
        6,0  and  2,0 
AOS x  b
        2a


                                        –6       –2               x
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up          c = 12  y intercept is  0,12 
zeroes x 2  8 x  12  0                             y   y  x 2  8 x  12
        x  6  x  2   0                      12
          x  6 or x  2
        x intercepts are
        6,0  and  2,0 
AOS x  b
        2a
        8
      
         2                              –6       –2               x
       4
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up            c = 12  y intercept is  0,12 
zeroes x 2  8 x  12  0                               y   y  x 2  8 x  12
        x  6  x  2   0                        12
          x  6 or x  2
        x intercepts are
        6,0  and  2,0 
AOS x  b        OR x 
                         6  2
        2a                 2
        8
      
         2                                –6       –2               x
       4
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up            c = 12  y intercept is  0,12 
zeroes x 2  8 x  12  0                               y   y  x 2  8 x  12
        x  6  x  2   0                        12
          x  6 or x  2
        x intercepts are
        6,0  and  2,0 
AOS x  b        OR x 
                         6  2
        2a                 2
        8              4
      
         2                                –6       –2               x
       4
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up            c = 12  y intercept is  0,12 
zeroes x 2  8 x  12  0                               y   y  x 2  8 x  12
        x  6  x  2   0                        12
          x  6 or x  2
        x intercepts are
        6,0  and  2,0 
AOS x  b        OR x 
                         6  2
        2a                 2
        8              4
      
         2                                –6       –2               x
       4
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up            c = 12  y intercept is  0,12 
zeroes x 2  8 x  12  0                               y   y  x 2  8 x  12
        x  6  x  2   0                        12
          x  6 or x  2
        x intercepts are
        6,0  and  2,0 
AOS x  b        OR x 
                         6  2
        2a                 2
        8              4
      
         2                                –6       –2               x
       4
vertex
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up                 c = 12  y intercept is  0,12 
zeroes x 2  8 x  12  0                                    y   y  x 2  8 x  12
        x  6  x  2   0                             12
          x  6 or x  2
        x intercepts are
        6,0  and  2,0 
AOS x  b        OR x 
                         6  2
        2a                 2
        8              4
      
         2                                     –6       –2               x
       4
          y   4   8  4   12
                   2
vertex
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up                 c = 12  y intercept is  0,12 
zeroes x 2  8 x  12  0                                    y   y  x 2  8 x  12
        x  6  x  2   0                             12
          x  6 or x  2
        x intercepts are
        6,0  and  2,0 
AOS x  b         OR x 
                          6  2
        2a                  2
        8               4
      
         2                                     –6       –2               x
       4
          y   4   8  4   12
                   2
vertex
             4
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up                 c = 12  y intercept is  0,12 
zeroes x 2  8 x  12  0                                    y   y  x 2  8 x  12
        x  6  x  2   0                             12
          x  6 or x  2
        x intercepts are
        6,0  and  2,0 
AOS x  b        OR x 
                         6  2
        2a                 2
        8              4
      
         2                                     –6       –2               x
       4
          y   4   8  4   12
                   2
vertex
           4
       vertex is  4, 4 
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up                 c = 12  y intercept is  0,12 
zeroes x 2  8 x  12  0                                           y   y  x 2  8 x  12
        x  6  x  2   0                                   12
          x  6 or x  2
        x intercepts are
        6,0  and  2,0 
AOS x  b        OR x 
                         6  2
        2a                 2
        8              4
      
         2                                     –6              –2               x
       4
          y   4   8  4   12
                   2
vertex
                                                    (–4, –4)
           4
       vertex is  4, 4 
e.g. Graph y  x 2  8 x  12
a = 1 > 0  concave up                 c = 12  y intercept is  0,12 
zeroes x 2  8 x  12  0                                           y   y  x 2  8 x  12
        x  6  x  2   0                                   12
          x  6 or x  2
        x intercepts are
        6,0  and  2,0 
AOS x  b        OR x 
                         6  2
        2a                 2
        8              4
      
         2                                     –6              –2               x
       4
          y   4   8  4   12
                   2
vertex
                                                    (–4, –4)
           4
       vertex is  4, 4 
(ii) Find the quadratic with;
     a) roots 3 and 6
(ii) Find the quadratic with;
     a) roots 3 and 6
       y  a  x 2  9 x  18 
(ii) Find the quadratic with;
     a) roots 3 and 6
       y  a  x 2  9 x  18 
               6  3      63
(ii) Find the quadratic with;
     a) roots 3 and 6              b) monic roots 3  2 and 3  2
       y  a  x 2  9 x  18 
               6  3      63
(ii) Find the quadratic with;
      a) roots 3 and 6                    b) monic roots 3  2 and 3  2
          y  a  x 2  9 x  18                   y  x2  6x  7
                  6  3      63

      c) roots 2 and 8 and vertex (5,3)
         y  a  x 2  10 x  16 
 5,3 : 3  a  52  10  5   16 
        3  9a
             1
        a
             3

         y    x  10 x  16 
               1 2
               3
(ii) Find the quadratic with;
     a) roots 3 and 6              b) monic roots 3  2 and 3  2
       y  a  x 2  9 x  18               y  x2  6x  7
               6  3      63    
                                    3 2 3 2    3  2 3  2 
(ii) Find the quadratic with;
     a) roots 3 and 6                  b) monic roots 3  2 and 3  2
       y  a  x 2  9 x  18                   y  x2  6x  7
               6  3      63        
                                        3 2 3 2    3  2 3  2 
   c) roots 2 and 8 and vertex (5,3)
(ii) Find the quadratic with;
     a) roots 3 and 6                  b) monic roots 3  2 and 3  2
       y  a  x 2  9 x  18                   y  x2  6x  7
               6  3      63        
                                        3 2 3 2    3  2 3  2 
   c) roots 2 and 8 and vertex (5,3)
      y  a  x 2  10 x  16 
(ii) Find the quadratic with;
      a) roots 3 and 6                    b) monic roots 3  2 and 3  2
          y  a  x 2  9 x  18                   y  x2  6x  7
                  6  3      63        
                                           3 2 3 2    3  2 3  2 
      c) roots 2 and 8 and vertex (5,3)
         y  a  x 2  10 x  16 
 5,3 : 3  a  52  10  5   16 
(ii) Find the quadratic with;
      a) roots 3 and 6                    b) monic roots 3  2 and 3  2
          y  a  x 2  9 x  18                   y  x2  6x  7
                  6  3      63        
                                           3 2 3 2    3  2 3  2 
      c) roots 2 and 8 and vertex (5,3)
         y  a  x 2  10 x  16 
 5,3 : 3  a  52  10  5   16 
        3  9a
             1
        a
             3
(ii) Find the quadratic with;
      a) roots 3 and 6                    b) monic roots 3  2 and 3  2
          y  a  x 2  9 x  18                   y  x2  6x  7
                  6  3      63        
                                           3 2 3 2    3  2 3  2 
      c) roots 2 and 8 and vertex (5,3)
         y  a  x 2  10 x  16 
 5,3 : 3  a  52  10  5   16 
        3  9a
             1
        a
             3

         y    x  10 x  16 
               1 2
               3
(iii) Solve;
    a) x 2  5 x  6  0
(iii) Solve;
    a) x 2  5 x  6  0
     x  2  x  3  0
(iii) Solve;
    a) x 2  5 x  6  0        y

     x  2  x  3  0
                            –3 –2   x
(iii) Solve;
    a) x 2  5 x  6  0        y

     x  2  x  3  0
                            –3 –2   x
(iii) Solve;
    a) x 2  5 x  6  0             y

     x  2  x  3  0
                               –3 –2              x
                            Q: for what values of x is the
                               parabola above the x axis?
(iii) Solve;
    a) x 2  5 x  6  0             y

     x  2  x  3  0
                               –3 –2              x
                            Q: for what values of x is the
                               parabola above the x axis?
(iii) Solve;
    a) x 2  5 x  6  0             y

     x  2  x  3  0
     x  3 or x  2          –3 –2              x
                            Q: for what values of x is the
                               parabola above the x axis?
(iii) Solve;
    a) x 2  5 x  6  0             y

     x  2  x  3  0
     x  3 or x  2          –3 –2              x
                            Q: for what values of x is the
                               parabola above the x axis?

     b)  x 2  3 x  4
(iii) Solve;
    a) x 2  5 x  6  0             y

     x  2  x  3  0
     x  3 or x  2          –3 –2              x
                            Q: for what values of x is the
                               parabola above the x axis?

     b)  x 2  3 x  4
       x 2  3x  4  0
(iii) Solve;
    a) x 2  5 x  6  0             y

     x  2  x  3  0
     x  3 or x  2          –3 –2              x
                            Q: for what values of x is the
                               parabola above the x axis?

     b)  x 2  3 x  4
        x 2  3x  4  0
     x  4  x  1  0
(iii) Solve;
    a) x 2  5 x  6  0             y

     x  2  x  3  0
     x  3 or x  2          –3 –2              x
                            Q: for what values of x is the
                               parabola above the x axis?

     b)  x 2  3 x  4                 y
        x 2  3x  4  0
     x  4  x  1  0
                                   –4        1      x
(iii) Solve;
    a) x 2  5 x  6  0             y

     x  2  x  3  0
     x  3 or x  2          –3 –2              x
                            Q: for what values of x is the
                               parabola above the x axis?

     b)  x 2  3 x  4                 y
        x 2  3x  4  0
     x  4  x  1  0
                                   –4        1      x
(iii) Solve;
    a) x 2  5 x  6  0                  y

     x  2  x  3  0
     x  3 or x  2              –3 –2              x
                                Q: for what values of x is the
                                   parabola above the x axis?

     b)  x 2  3 x  4                      y
        x 2  3x  4  0
     x  4  x  1  0
                                        –4        1      x

                            Q: for what values of x is the
                               parabola below the x axis?
(iii) Solve;
    a) x 2  5 x  6  0                  y

     x  2  x  3  0
     x  3 or x  2              –3 –2              x
                                Q: for what values of x is the
                                   parabola above the x axis?

     b)  x 2  3 x  4                      y
        x 2  3x  4  0
     x  4  x  1  0
                                        –4        1      x

                            Q: for what values of x is the
                               parabola below the x axis?
(iii) Solve;
    a) x 2  5 x  6  0                  y

     x  2  x  3  0
     x  3 or x  2              –3 –2              x
                                Q: for what values of x is the
                                   parabola above the x axis?

     b)  x 2  3 x  4                      y
        x 2  3x  4  0
     x  4  x  1  0
               4  x  1               –4        1      x

                            Q: for what values of x is the
                               parabola below the x axis?
Exercise 8A; 1adf, 2adf, 3bd, 4bd, 5c, 6ade, 7d, 9ace, 12c,
                        13b, 14a

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11X1 T11 01 graphing quadratics

  • 1. The Quadratic Polynomial and the Parabola
  • 2. The Quadratic Polynomial and the Parabola Quadratic polynomial –
  • 3. The Quadratic Polynomial and the Parabola Quadratic polynomial – ax 2  bx  c
  • 4. The Quadratic Polynomial and the Parabola Quadratic polynomial – ax 2  bx  c Quadratic function –
  • 5. The Quadratic Polynomial and the Parabola Quadratic polynomial – ax 2  bx  c Quadratic function – y  ax 2  bx  c
  • 6. The Quadratic Polynomial and the Parabola Quadratic polynomial – ax 2  bx  c Quadratic function – y  ax 2  bx  c Quadratic equation –
  • 7. The Quadratic Polynomial and the Parabola Quadratic polynomial – ax 2  bx  c Quadratic function – y  ax 2  bx  c Quadratic equation – ax 2  bx  c  0
  • 8. The Quadratic Polynomial and the Parabola Quadratic polynomial – ax 2  bx  c Quadratic function – y  ax 2  bx  c Quadratic equation – ax 2  bx  c  0 Coefficients –
  • 9. The Quadratic Polynomial and the Parabola Quadratic polynomial – ax 2  bx  c Quadratic function – y  ax 2  bx  c Quadratic equation – ax 2  bx  c  0 Coefficients – a, b, c
  • 10. The Quadratic Polynomial and the Parabola Quadratic polynomial – ax 2  bx  c Quadratic function – y  ax 2  bx  c Quadratic equation – ax 2  bx  c  0 Coefficients – a, b, c Indeterminate –
  • 11. The Quadratic Polynomial and the Parabola Quadratic polynomial – ax 2  bx  c Quadratic function – y  ax 2  bx  c Quadratic equation – ax 2  bx  c  0 Coefficients – a, b, c Indeterminate – x
  • 12. The Quadratic Polynomial and the Parabola Quadratic polynomial – ax 2  bx  c Quadratic function – y  ax 2  bx  c Quadratic equation – ax 2  bx  c  0 Coefficients – a, b, c Indeterminate – x Roots –
  • 13. The Quadratic Polynomial and the Parabola Quadratic polynomial – ax 2  bx  c Quadratic function – y  ax 2  bx  c Quadratic equation – ax 2  bx  c  0 Coefficients – a, b, c Indeterminate – x Roots – Solutions to the quadratic equation
  • 14. The Quadratic Polynomial and the Parabola Quadratic polynomial – ax 2  bx  c Quadratic function – y  ax 2  bx  c Quadratic equation – ax 2  bx  c  0 Coefficients – a, b, c Indeterminate – x Roots – Solutions to the quadratic equation Zeroes –
  • 15. The Quadratic Polynomial and the Parabola Quadratic polynomial – ax 2  bx  c Quadratic function – y  ax 2  bx  c Quadratic equation – ax 2  bx  c  0 Coefficients – a, b, c Indeterminate – x Roots – Solutions to the quadratic equation Zeroes – x intercepts of the quadratic function
  • 16. The Quadratic Polynomial and the Parabola Quadratic polynomial – ax 2  bx  c Quadratic function – y  ax 2  bx  c Quadratic equation – ax 2  bx  c  0 Coefficients – a, b, c Indeterminate – x Roots – Solutions to the quadratic equation Zeroes – x intercepts of the quadratic function e.g. Find the roots of x 2  1  0
  • 17. The Quadratic Polynomial and the Parabola Quadratic polynomial – ax 2  bx  c Quadratic function – y  ax 2  bx  c Quadratic equation – ax 2  bx  c  0 Coefficients – a, b, c Indeterminate – x Roots – Solutions to the quadratic equation Zeroes – x intercepts of the quadratic function e.g. Find the roots of x 2  1  0 x2 1  0 x2  1
  • 18. The Quadratic Polynomial and the Parabola Quadratic polynomial – ax 2  bx  c Quadratic function – y  ax 2  bx  c Quadratic equation – ax 2  bx  c  0 Coefficients – a, b, c Indeterminate – x Roots – Solutions to the quadratic equation Zeroes – x intercepts of the quadratic function e.g. Find the roots of x 2  1  0 x2 1  0 x2  1 x  1
  • 19. The Quadratic Polynomial and the Parabola Quadratic polynomial – ax 2  bx  c Quadratic function – y  ax 2  bx  c Quadratic equation – ax 2  bx  c  0 Coefficients – a, b, c Indeterminate – x Roots – Solutions to the quadratic equation Zeroes – x intercepts of the quadratic function e.g. Find the roots of x 2  1  0 x2 1  0 x2  1 x  1  the roots are x  1 and x  1
  • 21. Graphing Quadratics The graph of a quadratic function is a parabola.
  • 22. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c
  • 23. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c a
  • 24. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c y a x
  • 25. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c y a x a0
  • 26. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c y a x a0 concave up
  • 27. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c y y a x x a0 concave up
  • 28. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c y y a x x a0 a0 concave up
  • 29. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c y y a x x a0 a0 concave up concave down
  • 30. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c y y a x x a0 a0 concave up concave down c
  • 31. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c y y a x x a0 a0 concave up concave down c = y intercept
  • 32. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c y y a x x a0 a0 concave up concave down c = y intercept zeroes (roots)
  • 33. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c y y a x x a0 a0 concave up concave down c = y intercept zeroes (roots) = x intercepts
  • 34. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c y y a x x a0 a0 concave up concave down c = y intercept zeroes (roots) = x intercepts b x 2a
  • 35. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c y y a x x a0 a0 concave up concave down c = y intercept zeroes (roots) = x intercepts b x = axis of symmetry 2a
  • 36. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c y y a x x a0 a0 concave up concave down c = y intercept zeroes (roots) = x intercepts b x = axis of symmetry Note: AOS is the average of the zeroes 2a
  • 37. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c y y a x x a0 a0 concave up concave down c = y intercept zeroes (roots) = x intercepts b x = axis of symmetry Note: AOS is the average of the zeroes 2a vertex
  • 38. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c y y a x x a0 a0 concave up concave down c = y intercept zeroes (roots) = x intercepts b x = axis of symmetry Note: AOS is the average of the zeroes 2a vertex x value is the AOS
  • 39. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c y y a x x a0 a0 concave up concave down c = y intercept zeroes (roots) = x intercepts b x = axis of symmetry Note: AOS is the average of the zeroes 2a vertex x value is the AOS y value is found by substituting AOS into the function.
  • 40. Graphing Quadratics The graph of a quadratic function is a parabola. y  ax 2  bx  c y y a x x a0 a0 concave up concave down c = y intercept zeroes (roots) = x intercepts b x = axis of symmetry Note: AOS is the average of the zeroes 2a vertex x value is the AOS y value is found by substituting AOS into the function. (It is the maximum/minimum value of the function)
  • 41. e.g. Graph y  x 2  8 x  12
  • 42. e.g. Graph y  x 2  8 x  12 a=1>0 y x
  • 43. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up y x
  • 44. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12 y y  x 2  8 x  12 x
  • 45. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  y x
  • 46. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  y 12 x
  • 47. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes y 12 x
  • 48. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes x 2  8 x  12  0 y y  x 2  8 x  12 12 x
  • 49. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes x 2  8 x  12  0 y y  x 2  8 x  12  x  6  x  2   0 12 x
  • 50. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes x 2  8 x  12  0 y y  x 2  8 x  12  x  6  x  2   0 12 x  6 or x  2 x
  • 51. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes x 2  8 x  12  0 y y  x 2  8 x  12  x  6  x  2   0 12 x  6 or x  2  x intercepts are  6,0  and  2,0  x
  • 52. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes x 2  8 x  12  0 y y  x 2  8 x  12  x  6  x  2   0 12 x  6 or x  2  x intercepts are  6,0  and  2,0  –6 –2 x
  • 53. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes x 2  8 x  12  0 y y  x 2  8 x  12  x  6  x  2   0 12 x  6 or x  2  x intercepts are  6,0  and  2,0  AOS –6 –2 x
  • 54. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes x 2  8 x  12  0 y y  x 2  8 x  12  x  6  x  2   0 12 x  6 or x  2  x intercepts are  6,0  and  2,0  AOS x  b 2a –6 –2 x
  • 55. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes x 2  8 x  12  0 y y  x 2  8 x  12  x  6  x  2   0 12 x  6 or x  2  x intercepts are  6,0  and  2,0  AOS x  b 2a 8  2 –6 –2 x  4
  • 56. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes x 2  8 x  12  0 y y  x 2  8 x  12  x  6  x  2   0 12 x  6 or x  2  x intercepts are  6,0  and  2,0  AOS x  b OR x  6  2 2a 2 8  2 –6 –2 x  4
  • 57. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes x 2  8 x  12  0 y y  x 2  8 x  12  x  6  x  2   0 12 x  6 or x  2  x intercepts are  6,0  and  2,0  AOS x  b OR x  6  2 2a 2 8  4  2 –6 –2 x  4
  • 58. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes x 2  8 x  12  0 y y  x 2  8 x  12  x  6  x  2   0 12 x  6 or x  2  x intercepts are  6,0  and  2,0  AOS x  b OR x  6  2 2a 2 8  4  2 –6 –2 x  4
  • 59. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes x 2  8 x  12  0 y y  x 2  8 x  12  x  6  x  2   0 12 x  6 or x  2  x intercepts are  6,0  and  2,0  AOS x  b OR x  6  2 2a 2 8  4  2 –6 –2 x  4 vertex
  • 60. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes x 2  8 x  12  0 y y  x 2  8 x  12  x  6  x  2   0 12 x  6 or x  2  x intercepts are  6,0  and  2,0  AOS x  b OR x  6  2 2a 2 8  4  2 –6 –2 x  4 y   4   8  4   12 2 vertex
  • 61. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes x 2  8 x  12  0 y y  x 2  8 x  12  x  6  x  2   0 12 x  6 or x  2  x intercepts are  6,0  and  2,0  AOS x  b OR x  6  2 2a 2 8  4  2 –6 –2 x  4 y   4   8  4   12 2 vertex  4
  • 62. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes x 2  8 x  12  0 y y  x 2  8 x  12  x  6  x  2   0 12 x  6 or x  2  x intercepts are  6,0  and  2,0  AOS x  b OR x  6  2 2a 2 8  4  2 –6 –2 x  4 y   4   8  4   12 2 vertex  4  vertex is  4, 4 
  • 63. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes x 2  8 x  12  0 y y  x 2  8 x  12  x  6  x  2   0 12 x  6 or x  2  x intercepts are  6,0  and  2,0  AOS x  b OR x  6  2 2a 2 8  4  2 –6 –2 x  4 y   4   8  4   12 2 vertex (–4, –4)  4  vertex is  4, 4 
  • 64. e.g. Graph y  x 2  8 x  12 a = 1 > 0  concave up c = 12  y intercept is  0,12  zeroes x 2  8 x  12  0 y y  x 2  8 x  12  x  6  x  2   0 12 x  6 or x  2  x intercepts are  6,0  and  2,0  AOS x  b OR x  6  2 2a 2 8  4  2 –6 –2 x  4 y   4   8  4   12 2 vertex (–4, –4)  4  vertex is  4, 4 
  • 65. (ii) Find the quadratic with; a) roots 3 and 6
  • 66. (ii) Find the quadratic with; a) roots 3 and 6 y  a  x 2  9 x  18 
  • 67. (ii) Find the quadratic with; a) roots 3 and 6 y  a  x 2  9 x  18    6  3 63
  • 68. (ii) Find the quadratic with; a) roots 3 and 6 b) monic roots 3  2 and 3  2 y  a  x 2  9 x  18    6  3 63
  • 69. (ii) Find the quadratic with; a) roots 3 and 6 b) monic roots 3  2 and 3  2 y  a  x 2  9 x  18  y  x2  6x  7   6  3 63 c) roots 2 and 8 and vertex (5,3) y  a  x 2  10 x  16   5,3 : 3  a  52  10  5   16  3  9a 1 a 3  y    x  10 x  16  1 2 3
  • 70. (ii) Find the quadratic with; a) roots 3 and 6 b) monic roots 3  2 and 3  2 y  a  x 2  9 x  18  y  x2  6x  7   6  3 63   3 2 3 2  3  2 3  2 
  • 71. (ii) Find the quadratic with; a) roots 3 and 6 b) monic roots 3  2 and 3  2 y  a  x 2  9 x  18  y  x2  6x  7   6  3 63   3 2 3 2  3  2 3  2  c) roots 2 and 8 and vertex (5,3)
  • 72. (ii) Find the quadratic with; a) roots 3 and 6 b) monic roots 3  2 and 3  2 y  a  x 2  9 x  18  y  x2  6x  7   6  3 63   3 2 3 2  3  2 3  2  c) roots 2 and 8 and vertex (5,3) y  a  x 2  10 x  16 
  • 73. (ii) Find the quadratic with; a) roots 3 and 6 b) monic roots 3  2 and 3  2 y  a  x 2  9 x  18  y  x2  6x  7   6  3 63   3 2 3 2  3  2 3  2  c) roots 2 and 8 and vertex (5,3) y  a  x 2  10 x  16   5,3 : 3  a  52  10  5   16 
  • 74. (ii) Find the quadratic with; a) roots 3 and 6 b) monic roots 3  2 and 3  2 y  a  x 2  9 x  18  y  x2  6x  7   6  3 63   3 2 3 2  3  2 3  2  c) roots 2 and 8 and vertex (5,3) y  a  x 2  10 x  16   5,3 : 3  a  52  10  5   16  3  9a 1 a 3
  • 75. (ii) Find the quadratic with; a) roots 3 and 6 b) monic roots 3  2 and 3  2 y  a  x 2  9 x  18  y  x2  6x  7   6  3 63   3 2 3 2  3  2 3  2  c) roots 2 and 8 and vertex (5,3) y  a  x 2  10 x  16   5,3 : 3  a  52  10  5   16  3  9a 1 a 3  y    x  10 x  16  1 2 3
  • 76. (iii) Solve; a) x 2  5 x  6  0
  • 77. (iii) Solve; a) x 2  5 x  6  0  x  2  x  3  0
  • 78. (iii) Solve; a) x 2  5 x  6  0 y  x  2  x  3  0 –3 –2 x
  • 79. (iii) Solve; a) x 2  5 x  6  0 y  x  2  x  3  0 –3 –2 x
  • 80. (iii) Solve; a) x 2  5 x  6  0 y  x  2  x  3  0 –3 –2 x Q: for what values of x is the parabola above the x axis?
  • 81. (iii) Solve; a) x 2  5 x  6  0 y  x  2  x  3  0 –3 –2 x Q: for what values of x is the parabola above the x axis?
  • 82. (iii) Solve; a) x 2  5 x  6  0 y  x  2  x  3  0 x  3 or x  2 –3 –2 x Q: for what values of x is the parabola above the x axis?
  • 83. (iii) Solve; a) x 2  5 x  6  0 y  x  2  x  3  0 x  3 or x  2 –3 –2 x Q: for what values of x is the parabola above the x axis? b)  x 2  3 x  4
  • 84. (iii) Solve; a) x 2  5 x  6  0 y  x  2  x  3  0 x  3 or x  2 –3 –2 x Q: for what values of x is the parabola above the x axis? b)  x 2  3 x  4 x 2  3x  4  0
  • 85. (iii) Solve; a) x 2  5 x  6  0 y  x  2  x  3  0 x  3 or x  2 –3 –2 x Q: for what values of x is the parabola above the x axis? b)  x 2  3 x  4 x 2  3x  4  0  x  4  x  1  0
  • 86. (iii) Solve; a) x 2  5 x  6  0 y  x  2  x  3  0 x  3 or x  2 –3 –2 x Q: for what values of x is the parabola above the x axis? b)  x 2  3 x  4 y x 2  3x  4  0  x  4  x  1  0 –4 1 x
  • 87. (iii) Solve; a) x 2  5 x  6  0 y  x  2  x  3  0 x  3 or x  2 –3 –2 x Q: for what values of x is the parabola above the x axis? b)  x 2  3 x  4 y x 2  3x  4  0  x  4  x  1  0 –4 1 x
  • 88. (iii) Solve; a) x 2  5 x  6  0 y  x  2  x  3  0 x  3 or x  2 –3 –2 x Q: for what values of x is the parabola above the x axis? b)  x 2  3 x  4 y x 2  3x  4  0  x  4  x  1  0 –4 1 x Q: for what values of x is the parabola below the x axis?
  • 89. (iii) Solve; a) x 2  5 x  6  0 y  x  2  x  3  0 x  3 or x  2 –3 –2 x Q: for what values of x is the parabola above the x axis? b)  x 2  3 x  4 y x 2  3x  4  0  x  4  x  1  0 –4 1 x Q: for what values of x is the parabola below the x axis?
  • 90. (iii) Solve; a) x 2  5 x  6  0 y  x  2  x  3  0 x  3 or x  2 –3 –2 x Q: for what values of x is the parabola above the x axis? b)  x 2  3 x  4 y x 2  3x  4  0  x  4  x  1  0 4  x  1 –4 1 x Q: for what values of x is the parabola below the x axis?
  • 91. Exercise 8A; 1adf, 2adf, 3bd, 4bd, 5c, 6ade, 7d, 9ace, 12c, 13b, 14a