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Properties of Parabolas that open
          Up or Down
Properties of Parabolas that open
           Up or Down
 General Form: y = ax2+bx+c
Properties of Parabolas that open
           Up or Down
 General Form: y = ax2+bx+c
Properties of Parabolas that open
           Up or Down
 General Form: y = ax2+bx+c

 Standard form (also called vertex form) is y = a(x - h)2 + k,
  where the vertex is (h,k)
        If a is positive it opens up
        If a is negative it opens down


      Axis of Symmetry (aos) is x = -b/2a
Properties of Parabolas that open
          Right or Left
Properties of Parabolas that open
           Right or Left
 General Form: x = ay2+by+c
Properties of Parabolas that open
           Right or Left
 General Form: x = ay2+by+c
Properties of Parabolas that open
           Right or Left
 General Form: x = ay2+by+c

 Standard Form: x = a(y – k)2+ h, where the vertex is (h,k)
        If a is positive it opens right
        If a is negative it opens left
Properties of Parabolas that open
           Right or Left
 General Form: x = ay2+by+c

 Standard Form: x = a(y – k)2+ h, where the vertex is (h,k)
        If a is positive it opens right
        If a is negative it opens left


 Axis of Symmetry (aos) is y = -b/2a
Differences
Differences
         Properties of Parabolas
          that open Left or Right
Differences
         Properties of Parabolas
          that open Left or Right
                x=
Differences
         Properties of Parabolas
          that open Left or Right
                x=
                aos: y =
Differences
         Properties of Parabolas
          that open Left or Right
                x=
                aos: y =
                vertex is (h,k)
Differences
 Properties of Parabolas           Properties of Parabolas
  that open Up or Down:              that open Left or Right
        y=                                x=
        aos: x =                          aos: y =
        Vertex is (h,k)                   vertex is (h,k)
Examples :
Tell the direction that each parabola opens, the vertex and the axis
of symmetry (aos).
                   2                                     2
   y = 5 ( x + 2) − 6                   x = −2 ( y + 1) + 1
Examples :
Tell the direction that each parabola opens, the vertex and the axis
of symmetry (aos).
                   2                                     2
   y = 5 ( x + 2) − 6                   x = −2 ( y + 1) + 1
 Opens up
Examples :
Tell the direction that each parabola opens, the vertex and the axis
of symmetry (aos).
                       2                                 2
   y = 5 ( x + 2) − 6                   x = −2 ( y + 1) + 1
 Opens up
 Vertex is (-2,-6)
         make sure to change the
          sign of the value in the
          parenthesis
Examples :
Tell the direction that each parabola opens, the vertex and the axis
of symmetry (aos).
                        2                                2
   y = 5 ( x + 2) − 6                   x = −2 ( y + 1) + 1
 Opens up
 Vertex is (-2,-6)
         make sure to change the
          sign of the value in the
          parenthesis
 aos is x = -2
         once you have found the
          vertex you can just take
          the x coordinate and that
          is your aos
Examples :
Tell the direction that each parabola opens, the vertex and the axis
of symmetry (aos).
                        2                                2
   y = 5 ( x + 2) − 6                   x = −2 ( y + 1) + 1
 Opens up
                                          Opens left
 Vertex is (-2,-6)
         make sure to change the
          sign of the value in the
          parenthesis
 aos is x = -2
         once you have found the
          vertex you can just take
          the x coordinate and that
          is your aos
Examples :
Tell the direction that each parabola opens, the vertex and the axis
of symmetry (aos).
                        2                                   2
   y = 5 ( x + 2) − 6                   x = −2 ( y + 1) + 1
 Opens up
                                          Opens left
 Vertex is (-2,-6)
                                          vertex: (1,-1)
         make sure to change the
          sign of the value in the
          parenthesis
 aos is x = -2
         once you have found the
          vertex you can just take
          the x coordinate and that
          is your aos
Examples :
Tell the direction that each parabola opens, the vertex and the axis
of symmetry (aos).
                        2                                      2
   y = 5 ( x + 2) − 6                   x = −2 ( y + 1) + 1
 Opens up
                                          Opens left
 Vertex is (-2,-6)
                                          vertex: (1,-1)
         make sure to change the
          sign of the value in the
                                                  The thing to remember
          parenthesis                              here is that the y-
                                                   coordinate is now in the
 aos is x = -2                                    parenthesis and the x –
         once you have found the                  coordinate is in the back.
          vertex you can just take
          the x coordinate and that
          is your aos
Examples :
Tell the direction that each parabola opens, the vertex and the axis
of symmetry (aos).
                        2                                      2
   y = 5 ( x + 2) − 6                   x = −2 ( y + 1) + 1
 Opens up
                                          Opens left
 Vertex is (-2,-6)
                                          vertex: (1,-1)
         make sure to change the
          sign of the value in the
                                                  The thing to remember
          parenthesis                              here is that the y-
                                                   coordinate is now in the
 aos is x = -2                                    parenthesis and the x –
         once you have found the                  coordinate is in the back.
          vertex you can just take        aos: y = -1
          the x coordinate and that
          is your aos
Putting an Equation in Standard
             Form
Putting an Equation in Standard
               Form
 Complete the square.
Putting an Equation in Standard
               Form
 Complete the square.
 Example: y = x2 - 2x + 4
       y = (x2 - 2x + ___ ) + 4 – (a) ___ put (-b/2)2 in the
        blanks and the value for a in the parenthesis before the
        last blank
       y = (x2 - 2x + (2/2)2 ) + 4 – (1)(2/2)2
       y = (x2 -2x + 1) + 4 – (1)(1) now factor the first set of ()
       y = (x - 1)2 + 4 – 1
       y = (x - 1)2 + 3 now it easy to find the vertex and aos.
Determine the direction in which the following open.
Solve for either x or y whichever one is only in the problem once or is not
squared.

     2                                                     2
 6x + 2y + 4x = 10                           10y − 5y − 5x + 10 = 0
Determine the direction in which the following open.
Solve for either x or y whichever one is only in the problem once or is not
squared.

     2                                                     2
 6x + 2y + 4x = 10                           10y − 5y − 5x + 10 = 0

   Solve for y
            2y = -6x2 – 4x +10
            y = -3x2 -2x + 5
Determine the direction in which the following open.
Solve for either x or y whichever one is only in the problem once or is not
squared.

     2                                                     2
 6x + 2y + 4x = 10                           10y − 5y − 5x + 10 = 0

   Solve for y
        2y = -6x2 – 4x +10
         
       y = -3x2 -2x + 5

   Opens down
Determine the direction in which the following open.
Solve for either x or y whichever one is only in the problem once or is not
squared.

     2                                                     2
 6x + 2y + 4x = 10                           10y − 5y − 5x + 10 = 0

   Solve for y                                Solve for x
        2y = -6x2 – 4x +10
         
       y = -3x2 -2x + 5

   Opens down
Determine the direction in which the following open.
Solve for either x or y whichever one is only in the problem once or is not
squared.

     2                                                     2
 6x + 2y + 4x = 10                           10y − 5y − 5x + 10 = 0

   Solve for y                                Solve for x
        2y = -6x2 – 4x +10
                                                       -5x = 5y2 – 10y -10
       y = -3x2 -2x + 5

   Opens down
Determine the direction in which the following open.
Solve for either x or y whichever one is only in the problem once or is not
squared.

     2                                                     2
 6x + 2y + 4x = 10                           10y − 5y − 5x + 10 = 0

   Solve for y                                Solve for x
        2y = -6x2 – 4x +10
                                                       -5x = 5y2 – 10y -10
       y = -3x2 -2x + 5                                x = - y2 + 2y + 2
   Opens down
Determine the direction in which the following open.
Solve for either x or y whichever one is only in the problem once or is not
squared.

     2                                                     2
 6x + 2y + 4x = 10                           10y − 5y − 5x + 10 = 0

   Solve for y                                Solve for x
        2y = -6x2 – 4x +10
                                                   -5x = 5y2 – 10y -10
                                                     
       y = -3x2 -2x + 5                           x = - y2 + 2y + 2
   Opens down                                 Opens left
Write the Standard Form of the equation
      with a Vertex at (-1,2) and goes
          through the point (2, 8).
Write the Standard Form of the equation
      with a Vertex at (-1,2) and goes
          through the point (2, 8).
 Identify h, k , x and y
    h = -1, k = 2 these are from the vertex
    x = 2, y = 8 these are from the other point
Write the Standard Form of the equation
      with a Vertex at (-1,2) and goes
          through the point (2, 8).
 Identify h, k , x and y
    h = -1, k = 2 these are from the vertex
    x = 2, y = 8 these are from the other point
 Plug in what you know
    y = a(x - h)2 + k
    8 = a(2 – (-1))2 + 2
Write the Standard Form of the equation
      with a Vertex at (-1,2) and goes
          through the point (2, 8).
 Identify h, k , x and y
    h = -1, k = 2 these are from the vertex
    x = 2, y = 8 these are from the other point
 Plug in what you know
    y = a(x - h)2 + k
    8 = a(2 – (-1))2 + 2
 Now solve for a
    8 = 9a + 2
    6 = 9a
    6/9 = a     or a = ⅔
Write the Standard Form of the equation
      with a Vertex at (-1,2) and goes
          through the point (2, 8).
 Identify h, k , x and y
    h = -1, k = 2 these are from the vertex
    x = 2, y = 8 these are from the other point
 Plug in what you know
    y = a(x - h)2 + k
    8 = a(2 – (-1))2 + 2
 Now solve for a
    8 = 9a + 2
    6 = 9a
    6/9 = a     or a = ⅔
 Write the answer in Standard Form, plugging in a h and k
    y = ⅔(x + 1)2 + 2

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Notes parabolas

  • 1.
  • 2. Properties of Parabolas that open Up or Down
  • 3. Properties of Parabolas that open Up or Down  General Form: y = ax2+bx+c
  • 4. Properties of Parabolas that open Up or Down  General Form: y = ax2+bx+c
  • 5. Properties of Parabolas that open Up or Down  General Form: y = ax2+bx+c  Standard form (also called vertex form) is y = a(x - h)2 + k, where the vertex is (h,k)  If a is positive it opens up  If a is negative it opens down  Axis of Symmetry (aos) is x = -b/2a
  • 6. Properties of Parabolas that open Right or Left
  • 7. Properties of Parabolas that open Right or Left  General Form: x = ay2+by+c
  • 8. Properties of Parabolas that open Right or Left  General Form: x = ay2+by+c
  • 9. Properties of Parabolas that open Right or Left  General Form: x = ay2+by+c  Standard Form: x = a(y – k)2+ h, where the vertex is (h,k)  If a is positive it opens right  If a is negative it opens left
  • 10. Properties of Parabolas that open Right or Left  General Form: x = ay2+by+c  Standard Form: x = a(y – k)2+ h, where the vertex is (h,k)  If a is positive it opens right  If a is negative it opens left  Axis of Symmetry (aos) is y = -b/2a
  • 12. Differences  Properties of Parabolas that open Left or Right
  • 13. Differences  Properties of Parabolas that open Left or Right  x=
  • 14. Differences  Properties of Parabolas that open Left or Right  x=  aos: y =
  • 15. Differences  Properties of Parabolas that open Left or Right  x=  aos: y =  vertex is (h,k)
  • 16. Differences  Properties of Parabolas  Properties of Parabolas that open Up or Down: that open Left or Right  y=  x=  aos: x =  aos: y =  Vertex is (h,k)  vertex is (h,k)
  • 17. Examples : Tell the direction that each parabola opens, the vertex and the axis of symmetry (aos). 2 2 y = 5 ( x + 2) − 6 x = −2 ( y + 1) + 1
  • 18. Examples : Tell the direction that each parabola opens, the vertex and the axis of symmetry (aos). 2 2 y = 5 ( x + 2) − 6 x = −2 ( y + 1) + 1  Opens up
  • 19. Examples : Tell the direction that each parabola opens, the vertex and the axis of symmetry (aos). 2 2 y = 5 ( x + 2) − 6 x = −2 ( y + 1) + 1  Opens up  Vertex is (-2,-6)  make sure to change the sign of the value in the parenthesis
  • 20. Examples : Tell the direction that each parabola opens, the vertex and the axis of symmetry (aos). 2 2 y = 5 ( x + 2) − 6 x = −2 ( y + 1) + 1  Opens up  Vertex is (-2,-6)  make sure to change the sign of the value in the parenthesis  aos is x = -2  once you have found the vertex you can just take the x coordinate and that is your aos
  • 21. Examples : Tell the direction that each parabola opens, the vertex and the axis of symmetry (aos). 2 2 y = 5 ( x + 2) − 6 x = −2 ( y + 1) + 1  Opens up  Opens left  Vertex is (-2,-6)  make sure to change the sign of the value in the parenthesis  aos is x = -2  once you have found the vertex you can just take the x coordinate and that is your aos
  • 22. Examples : Tell the direction that each parabola opens, the vertex and the axis of symmetry (aos). 2 2 y = 5 ( x + 2) − 6 x = −2 ( y + 1) + 1  Opens up  Opens left  Vertex is (-2,-6)  vertex: (1,-1)  make sure to change the sign of the value in the parenthesis  aos is x = -2  once you have found the vertex you can just take the x coordinate and that is your aos
  • 23. Examples : Tell the direction that each parabola opens, the vertex and the axis of symmetry (aos). 2 2 y = 5 ( x + 2) − 6 x = −2 ( y + 1) + 1  Opens up  Opens left  Vertex is (-2,-6)  vertex: (1,-1)  make sure to change the sign of the value in the  The thing to remember parenthesis here is that the y- coordinate is now in the  aos is x = -2 parenthesis and the x –  once you have found the coordinate is in the back. vertex you can just take the x coordinate and that is your aos
  • 24. Examples : Tell the direction that each parabola opens, the vertex and the axis of symmetry (aos). 2 2 y = 5 ( x + 2) − 6 x = −2 ( y + 1) + 1  Opens up  Opens left  Vertex is (-2,-6)  vertex: (1,-1)  make sure to change the sign of the value in the  The thing to remember parenthesis here is that the y- coordinate is now in the  aos is x = -2 parenthesis and the x –  once you have found the coordinate is in the back. vertex you can just take  aos: y = -1 the x coordinate and that is your aos
  • 25. Putting an Equation in Standard Form
  • 26. Putting an Equation in Standard Form  Complete the square.
  • 27. Putting an Equation in Standard Form  Complete the square.  Example: y = x2 - 2x + 4  y = (x2 - 2x + ___ ) + 4 – (a) ___ put (-b/2)2 in the blanks and the value for a in the parenthesis before the last blank  y = (x2 - 2x + (2/2)2 ) + 4 – (1)(2/2)2  y = (x2 -2x + 1) + 4 – (1)(1) now factor the first set of ()  y = (x - 1)2 + 4 – 1  y = (x - 1)2 + 3 now it easy to find the vertex and aos.
  • 28. Determine the direction in which the following open. Solve for either x or y whichever one is only in the problem once or is not squared. 2 2 6x + 2y + 4x = 10 10y − 5y − 5x + 10 = 0
  • 29. Determine the direction in which the following open. Solve for either x or y whichever one is only in the problem once or is not squared. 2 2 6x + 2y + 4x = 10 10y − 5y − 5x + 10 = 0  Solve for y  2y = -6x2 – 4x +10  y = -3x2 -2x + 5
  • 30. Determine the direction in which the following open. Solve for either x or y whichever one is only in the problem once or is not squared. 2 2 6x + 2y + 4x = 10 10y − 5y − 5x + 10 = 0  Solve for y 2y = -6x2 – 4x +10   y = -3x2 -2x + 5  Opens down
  • 31. Determine the direction in which the following open. Solve for either x or y whichever one is only in the problem once or is not squared. 2 2 6x + 2y + 4x = 10 10y − 5y − 5x + 10 = 0  Solve for y  Solve for x 2y = -6x2 – 4x +10   y = -3x2 -2x + 5  Opens down
  • 32. Determine the direction in which the following open. Solve for either x or y whichever one is only in the problem once or is not squared. 2 2 6x + 2y + 4x = 10 10y − 5y − 5x + 10 = 0  Solve for y  Solve for x 2y = -6x2 – 4x +10   -5x = 5y2 – 10y -10  y = -3x2 -2x + 5  Opens down
  • 33. Determine the direction in which the following open. Solve for either x or y whichever one is only in the problem once or is not squared. 2 2 6x + 2y + 4x = 10 10y − 5y − 5x + 10 = 0  Solve for y  Solve for x 2y = -6x2 – 4x +10   -5x = 5y2 – 10y -10  y = -3x2 -2x + 5  x = - y2 + 2y + 2  Opens down
  • 34. Determine the direction in which the following open. Solve for either x or y whichever one is only in the problem once or is not squared. 2 2 6x + 2y + 4x = 10 10y − 5y − 5x + 10 = 0  Solve for y  Solve for x 2y = -6x2 – 4x +10  -5x = 5y2 – 10y -10   y = -3x2 -2x + 5  x = - y2 + 2y + 2  Opens down  Opens left
  • 35. Write the Standard Form of the equation with a Vertex at (-1,2) and goes through the point (2, 8).
  • 36. Write the Standard Form of the equation with a Vertex at (-1,2) and goes through the point (2, 8).  Identify h, k , x and y  h = -1, k = 2 these are from the vertex  x = 2, y = 8 these are from the other point
  • 37. Write the Standard Form of the equation with a Vertex at (-1,2) and goes through the point (2, 8).  Identify h, k , x and y  h = -1, k = 2 these are from the vertex  x = 2, y = 8 these are from the other point  Plug in what you know  y = a(x - h)2 + k  8 = a(2 – (-1))2 + 2
  • 38. Write the Standard Form of the equation with a Vertex at (-1,2) and goes through the point (2, 8).  Identify h, k , x and y  h = -1, k = 2 these are from the vertex  x = 2, y = 8 these are from the other point  Plug in what you know  y = a(x - h)2 + k  8 = a(2 – (-1))2 + 2  Now solve for a  8 = 9a + 2  6 = 9a  6/9 = a or a = ⅔
  • 39. Write the Standard Form of the equation with a Vertex at (-1,2) and goes through the point (2, 8).  Identify h, k , x and y  h = -1, k = 2 these are from the vertex  x = 2, y = 8 these are from the other point  Plug in what you know  y = a(x - h)2 + k  8 = a(2 – (-1))2 + 2  Now solve for a  8 = 9a + 2  6 = 9a  6/9 = a or a = ⅔  Write the answer in Standard Form, plugging in a h and k  y = ⅔(x + 1)2 + 2

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