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Asymptotes
Asymptotes
Curves always bend towards the asymptotes
Asymptotes
Curves always bend towards the asymptotes

Curves never cross a vertical asymptote
Asymptotes
Curves always bend towards the asymptotes

Curves never cross a vertical asymptote
Curves approach horizontal and oblique asymptotes as x  
Asymptotes
Curves always bend towards the asymptotes

Curves never cross a vertical asymptote
Curves approach horizontal and oblique asymptotes as x  




                      P x             R x 
                   y         Q x  
                      A x             A x 
Asymptotes
Curves always bend towards the asymptotes

Curves never cross a vertical asymptote
Curves approach horizontal and oblique asymptotes as x  




                      P x             R x 
                   y         Q x  
                      A x             A x 


                                         solve A(x) = 0 to find
                                          vertical asymptotes
Asymptotes
Curves always bend towards the asymptotes

Curves never cross a vertical asymptote
Curves approach horizontal and oblique asymptotes as x  




                      P x             R x 
                   y         Q x  
                      A x             A x 


                y = Q(x) is the          solve A(x) = 0 to find
              horizontal/oblique          vertical asymptotes
                  asymptote
Asymptotes
Curves always bend towards the asymptotes

Curves never cross a vertical asymptote
Curves approach horizontal and oblique asymptotes as x  
                                             solve R(x) = 0 to find where
                                             (if anywhere) the curve cuts
                                                 the horizontal/oblique
                                                       asymptote
                      P x             R x 
                   y         Q x  
                      A x             A x 


                y = Q(x) is the          solve A(x) = 0 to find
              horizontal/oblique          vertical asymptotes
                  asymptote
e.g.  i  y 
                x  3 x  2 
                x  1 x  1
e.g.  i  y 
                x  3 x  2 
                x  1 x  1

  x2 1 x2  x  6
e.g.  i  y 
                x  3 x  2 
                x  1 x  1
        1
  x2 1 x2  x  6
        x2     1
e.g.  i  y 
                x  3 x  2 
                x  1 x  1
        1
  x2 1 x2  x  6
        x2     1
             x 5
e.g.  i  y 
                x  3 x  2 
                x  1 x  1
         1
  x2 1 x2  x  6
         x2      1
               x 5
               x5
  y  1
          x  1 x  1
e.g.  i  y 
                x  3 x  2 
                x  1 x  1
         1
  x2 1 x2  x  6                      y
         x2      1
               x 5
               x5
  y  1
          x  1 x  1

  x intercepts: (–3,0) , (2,0)
                                   –3       2   x
e.g.  i  y 
                x  3 x  2 
                x  1 x  1
         1
  x2 1 x2  x  6                      y
         x2      1                     6
               x 5
               x5
  y  1
          x  1 x  1

  x intercepts: (–3,0) , (2,0)
                                   –3       2   x
  y intercept: (0,6)
e.g.  i  y 
                x  3 x  2 
                x  1 x  1
         1
  x2 1 x2  x  6                           y
         x2      1                          6
               x 5
               x5
  y  1
          x  1 x  1

  x intercepts: (–3,0) , (2,0)
                                   –3   –1       1   2   x
  y intercept: (0,6)
  vertical asymptotes: x  1
e.g.  i  y 
                x  3 x  2 
                x  1 x  1
         1
  x2 1 x2  x  6                           y
         x2      1                          6
               x 5
               x5
  y  1
          x  1 x  1
                                             1
  x intercepts: (–3,0) , (2,0)
                                   –3   –1       1   2   x
  y intercept: (0,6)
  vertical asymptotes: x  1
  horizontal asymptote: y  1
e.g.  i  y 
                x  3 x  2 
                x  1 x  1
         1
  x2 1 x2  x  6                           y
         x2      1                          6
               x 5
               x5
  y  1
          x  1 x  1
                                             1
  x intercepts: (–3,0) , (2,0)                           (5,1)
                                   –3   –1       1   2           x
  y intercept: (0,6)
  vertical asymptotes: x  1
  horizontal asymptote: y  1
        cuts horizontal
      asymptote at x  5
e.g.  i  y 
                x  3 x  2 
                x  1 x  1
         1
  x2 1 x2  x  6                           y
         x2      1                          6
               x 5
               x5
  y  1
          x  1 x  1
                                             1
  x intercepts: (–3,0) , (2,0)                           (5,1)
                                   –3   –1       1   2           x
  y intercept: (0,6)
  vertical asymptotes: x  1
  horizontal asymptote: y  1
        cuts horizontal
      asymptote at x  5
e.g.  i  y 
                x  3 x  2 
                x  1 x  1
         1
  x2 1 x2  x  6                           y
         x2      1                          6
               x 5
               x5
  y  1
          x  1 x  1
                                             1
  x intercepts: (–3,0) , (2,0)                           (5,1)
                                   –3   –1       1   2           x
  y intercept: (0,6)
  vertical asymptotes: x  1
  horizontal asymptote: y  1
        cuts horizontal
      asymptote at x  5
e.g.  i  y 
                x  3 x  2 
                x  1 x  1
         1
  x2 1 x2  x  6                           y
         x2      1                          6
               x 5
               x5
  y  1
          x  1 x  1
                                             1
  x intercepts: (–3,0) , (2,0)                           (5,1)
                                   –3   –1       1   2           x
  y intercept: (0,6)
  vertical asymptotes: x  1
  horizontal asymptote: y  1
        cuts horizontal
      asymptote at x  5
e.g.  i  y 
                x  2  x  1 x  1
                    x  2  x  3
e.g.  i  y 
                x  2  x  1 x  1
                    x  2  x  3

   x 2  x  6 x3  2 x 2  x  2
e.g.  i  y 
                x  2  x  1 x  1
                    x  2  x  3
               x
   x 2  x  6 x3  2 x 2  x  2
               x3  x 2  6 x
e.g.  i  y 
                x  2  x  1 x  1
                    x  2  x  3
               x
   x 2  x  6 x3  2 x 2  x  2
               x3  x 2  6 x
                   x2  5x  2
e.g.  i  y 
                x  2  x  1 x  1
                    x  2  x  3
               x 1
   x 2  x  6 x3  2 x 2  x  2
               x3  x 2  6 x
                   x2  5 x  2
                      2

                  x  x  6
e.g.  i  y 
                x  2  x  1 x  1
                    x  2  x  3
               x 1
   x 2  x  6 x3  2 x 2  x  2
               x3  x 2  6 x
                   x2  5 x  2
                      2

                  x  x  6
                          4x  4
e.g.  i  y 
                x  2  x  1 x  1
                    x  2  x  3
               x 1
  x 2  x  6 x3  2 x 2  x  2
               x3  x 2  6 x
                   x2  5 x  2
                      2

                  x  x  6
                          4x  4
                  4x  4
 y  x 1
              x  2  x  3
e.g.  i  y 
                x  2  x  1 x  1
                    x  2  x  3
               x 1
  x 2  x  6 x3  2 x 2  x  2                y
               x3  x 2  6 x
                   x2  5 x  2
                      2

                  x  x  6
                          4x  4
                  4x  4
 y  x 1
              x  2  x  3
  x intercepts: (–1,0), (1,0), (2,0)       –1       1   2   x
e.g.  i  y 
                x  2  x  1 x  1
                    x  2  x  3
               x 1
  x 2  x  6 x3  2 x 2  x  2              y
               x3  x 2  6 x
                   x2  5 x  2
                      2

                  x  x  6
                          4x  4
                  4x  4
 y  x 1
              x  2  x  3
 x intercepts: (–1,0), (1,0), (2,0)        –1 1   1   2   x
                                            
 y intercept:  0,  
                    1
                                            3
                   3
e.g.  i  y 
                x  2  x  1 x  1
                    x  2  x  3
               x 1
  x 2  x  6 x3  2 x 2  x  2                   y
               x3  x 2  6 x
                   x2  5 x  2
                      2

                  x  x  6
                          4x  4
                  4x  4
 y  x 1
              x  2  x  3
 x intercepts: (–1,0), (1,0), (2,0)        –2   –1 1   1   2 3   x
                                                 
 y intercept:  0,  
                    1
                                                 3
                   3
vertical asymptotes: x  2,3
e.g.  i  y 
                x  2  x  1 x  1
                    x  2  x  3
               x 1
  x 2  x  6 x3  2 x 2  x  2                   y
               x3  x 2  6 x
                                                                 y  x 1
                   x2  5 x  2
                      2

                  x  x  6
                          4x  4
                  4x  4
 y  x 1
              x  2  x  3
 x intercepts: (–1,0), (1,0), (2,0)        –2   –1 1   1   2 3     x
                                                 
 y intercept:  0,  
                    1
                                                 3
                   3
vertical asymptotes: x  2,3
oblique asymptote: y  x  1
e.g.  i  y 
                x  2  x  1 x  1
                    x  2  x  3
               x 1
  x 2  x  6 x3  2 x 2  x  2                   y
               x3  x 2  6 x
                                                                 y  x 1
                   x2  5 x  2
                      2

                  x  x  6
                          4x  4
                  4x  4
 y  x 1
              x  2  x  3
 x intercepts: (–1,0), (1,0), (2,0)        –2   –1 1   1   2 3     x
                                                 
 y intercept:  0,  
                    1
                                                 3
                   3
vertical asymptotes: x  2,3
oblique asymptote: y  x  1
       cuts horizontal
      asymptote at x  1
e.g.  i  y 
                x  2  x  1 x  1
                    x  2  x  3
               x 1
  x 2  x  6 x3  2 x 2  x  2                   y
               x3  x 2  6 x
                                                                 y  x 1
                   x2  5 x  2
                      2

                  x  x  6
                          4x  4
                  4x  4
 y  x 1
              x  2  x  3
 x intercepts: (–1,0), (1,0), (2,0)        –2   –1 1   1   2 3     x
                                                 
 y intercept:  0,  
                    1
                                                 3
                   3
vertical asymptotes: x  2,3
oblique asymptote: y  x  1
       cuts horizontal
      asymptote at x  1
e.g.  i  y 
                x  2  x  1 x  1
                    x  2  x  3
               x 1
  x 2  x  6 x3  2 x 2  x  2                   y
               x3  x 2  6 x
                                                                 y  x 1
                   x2  5 x  2
                      2

                  x  x  6
                          4x  4
                  4x  4
 y  x 1
              x  2  x  3
 x intercepts: (–1,0), (1,0), (2,0)        –2   –1 1   1   2 3     x
                                                 
 y intercept:  0,  
                    1
                                                 3
                   3
vertical asymptotes: x  2,3
oblique asymptote: y  x  1
       cuts horizontal
      asymptote at x  1
e.g.  i  y 
                x  2  x  1 x  1
                    x  2  x  3
               x 1
  x 2  x  6 x3  2 x 2  x  2                   y
               x3  x 2  6 x
                                                                 y  x 1
                   x2  5 x  2
                      2

                  x  x  6
                          4x  4
                  4x  4
 y  x 1
              x  2  x  3
 x intercepts: (–1,0), (1,0), (2,0)        –2   –1 1   1   2 3     x
                                                 
 y intercept:  0,  
                    1
                                                 3
                   3
vertical asymptotes: x  2,3
oblique asymptote: y  x  1
       cuts horizontal
      asymptote at x  1
Exercise 3G; 3, 6, 8ac, 16cf, 17a

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11X1 T01 01 algebra & indices (2011)
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11X1 T15 01 polynomial definitions (2011)
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11X1 T03 06 asymptotes (2011)

  • 2. Asymptotes Curves always bend towards the asymptotes
  • 3. Asymptotes Curves always bend towards the asymptotes Curves never cross a vertical asymptote
  • 4. Asymptotes Curves always bend towards the asymptotes Curves never cross a vertical asymptote Curves approach horizontal and oblique asymptotes as x  
  • 5. Asymptotes Curves always bend towards the asymptotes Curves never cross a vertical asymptote Curves approach horizontal and oblique asymptotes as x   P x  R x  y  Q x   A x  A x 
  • 6. Asymptotes Curves always bend towards the asymptotes Curves never cross a vertical asymptote Curves approach horizontal and oblique asymptotes as x   P x  R x  y  Q x   A x  A x  solve A(x) = 0 to find vertical asymptotes
  • 7. Asymptotes Curves always bend towards the asymptotes Curves never cross a vertical asymptote Curves approach horizontal and oblique asymptotes as x   P x  R x  y  Q x   A x  A x  y = Q(x) is the solve A(x) = 0 to find horizontal/oblique vertical asymptotes asymptote
  • 8. Asymptotes Curves always bend towards the asymptotes Curves never cross a vertical asymptote Curves approach horizontal and oblique asymptotes as x   solve R(x) = 0 to find where (if anywhere) the curve cuts the horizontal/oblique asymptote P x  R x  y  Q x   A x  A x  y = Q(x) is the solve A(x) = 0 to find horizontal/oblique vertical asymptotes asymptote
  • 9. e.g.  i  y   x  3 x  2   x  1 x  1
  • 10. e.g.  i  y   x  3 x  2   x  1 x  1 x2 1 x2  x  6
  • 11. e.g.  i  y   x  3 x  2   x  1 x  1 1 x2 1 x2  x  6 x2 1
  • 12. e.g.  i  y   x  3 x  2   x  1 x  1 1 x2 1 x2  x  6 x2 1 x 5
  • 13. e.g.  i  y   x  3 x  2   x  1 x  1 1 x2 1 x2  x  6 x2 1 x 5 x5 y  1  x  1 x  1
  • 14. e.g.  i  y   x  3 x  2   x  1 x  1 1 x2 1 x2  x  6 y x2 1 x 5 x5 y  1  x  1 x  1 x intercepts: (–3,0) , (2,0) –3 2 x
  • 15. e.g.  i  y   x  3 x  2   x  1 x  1 1 x2 1 x2  x  6 y x2 1 6 x 5 x5 y  1  x  1 x  1 x intercepts: (–3,0) , (2,0) –3 2 x y intercept: (0,6)
  • 16. e.g.  i  y   x  3 x  2   x  1 x  1 1 x2 1 x2  x  6 y x2 1 6 x 5 x5 y  1  x  1 x  1 x intercepts: (–3,0) , (2,0) –3 –1 1 2 x y intercept: (0,6) vertical asymptotes: x  1
  • 17. e.g.  i  y   x  3 x  2   x  1 x  1 1 x2 1 x2  x  6 y x2 1 6 x 5 x5 y  1  x  1 x  1 1 x intercepts: (–3,0) , (2,0) –3 –1 1 2 x y intercept: (0,6) vertical asymptotes: x  1 horizontal asymptote: y  1
  • 18. e.g.  i  y   x  3 x  2   x  1 x  1 1 x2 1 x2  x  6 y x2 1 6 x 5 x5 y  1  x  1 x  1 1 x intercepts: (–3,0) , (2,0) (5,1) –3 –1 1 2 x y intercept: (0,6) vertical asymptotes: x  1 horizontal asymptote: y  1 cuts horizontal asymptote at x  5
  • 19. e.g.  i  y   x  3 x  2   x  1 x  1 1 x2 1 x2  x  6 y x2 1 6 x 5 x5 y  1  x  1 x  1 1 x intercepts: (–3,0) , (2,0) (5,1) –3 –1 1 2 x y intercept: (0,6) vertical asymptotes: x  1 horizontal asymptote: y  1 cuts horizontal asymptote at x  5
  • 20. e.g.  i  y   x  3 x  2   x  1 x  1 1 x2 1 x2  x  6 y x2 1 6 x 5 x5 y  1  x  1 x  1 1 x intercepts: (–3,0) , (2,0) (5,1) –3 –1 1 2 x y intercept: (0,6) vertical asymptotes: x  1 horizontal asymptote: y  1 cuts horizontal asymptote at x  5
  • 21. e.g.  i  y   x  3 x  2   x  1 x  1 1 x2 1 x2  x  6 y x2 1 6 x 5 x5 y  1  x  1 x  1 1 x intercepts: (–3,0) , (2,0) (5,1) –3 –1 1 2 x y intercept: (0,6) vertical asymptotes: x  1 horizontal asymptote: y  1 cuts horizontal asymptote at x  5
  • 22. e.g.  i  y   x  2  x  1 x  1  x  2  x  3
  • 23. e.g.  i  y   x  2  x  1 x  1  x  2  x  3 x 2  x  6 x3  2 x 2  x  2
  • 24. e.g.  i  y   x  2  x  1 x  1  x  2  x  3 x x 2  x  6 x3  2 x 2  x  2 x3  x 2  6 x
  • 25. e.g.  i  y   x  2  x  1 x  1  x  2  x  3 x x 2  x  6 x3  2 x 2  x  2 x3  x 2  6 x  x2  5x  2
  • 26. e.g.  i  y   x  2  x  1 x  1  x  2  x  3 x 1 x 2  x  6 x3  2 x 2  x  2 x3  x 2  6 x  x2  5 x  2 2 x  x  6
  • 27. e.g.  i  y   x  2  x  1 x  1  x  2  x  3 x 1 x 2  x  6 x3  2 x 2  x  2 x3  x 2  6 x  x2  5 x  2 2 x  x  6 4x  4
  • 28. e.g.  i  y   x  2  x  1 x  1  x  2  x  3 x 1 x 2  x  6 x3  2 x 2  x  2 x3  x 2  6 x  x2  5 x  2 2 x  x  6 4x  4 4x  4 y  x 1  x  2  x  3
  • 29. e.g.  i  y   x  2  x  1 x  1  x  2  x  3 x 1 x 2  x  6 x3  2 x 2  x  2 y x3  x 2  6 x  x2  5 x  2 2 x  x  6 4x  4 4x  4 y  x 1  x  2  x  3 x intercepts: (–1,0), (1,0), (2,0) –1 1 2 x
  • 30. e.g.  i  y   x  2  x  1 x  1  x  2  x  3 x 1 x 2  x  6 x3  2 x 2  x  2 y x3  x 2  6 x  x2  5 x  2 2 x  x  6 4x  4 4x  4 y  x 1  x  2  x  3 x intercepts: (–1,0), (1,0), (2,0) –1 1 1 2 x  y intercept:  0,   1   3  3
  • 31. e.g.  i  y   x  2  x  1 x  1  x  2  x  3 x 1 x 2  x  6 x3  2 x 2  x  2 y x3  x 2  6 x  x2  5 x  2 2 x  x  6 4x  4 4x  4 y  x 1  x  2  x  3 x intercepts: (–1,0), (1,0), (2,0) –2 –1 1 1 2 3 x  y intercept:  0,   1   3  3 vertical asymptotes: x  2,3
  • 32. e.g.  i  y   x  2  x  1 x  1  x  2  x  3 x 1 x 2  x  6 x3  2 x 2  x  2 y x3  x 2  6 x y  x 1  x2  5 x  2 2 x  x  6 4x  4 4x  4 y  x 1  x  2  x  3 x intercepts: (–1,0), (1,0), (2,0) –2 –1 1 1 2 3 x  y intercept:  0,   1   3  3 vertical asymptotes: x  2,3 oblique asymptote: y  x  1
  • 33. e.g.  i  y   x  2  x  1 x  1  x  2  x  3 x 1 x 2  x  6 x3  2 x 2  x  2 y x3  x 2  6 x y  x 1  x2  5 x  2 2 x  x  6 4x  4 4x  4 y  x 1  x  2  x  3 x intercepts: (–1,0), (1,0), (2,0) –2 –1 1 1 2 3 x  y intercept:  0,   1   3  3 vertical asymptotes: x  2,3 oblique asymptote: y  x  1 cuts horizontal asymptote at x  1
  • 34. e.g.  i  y   x  2  x  1 x  1  x  2  x  3 x 1 x 2  x  6 x3  2 x 2  x  2 y x3  x 2  6 x y  x 1  x2  5 x  2 2 x  x  6 4x  4 4x  4 y  x 1  x  2  x  3 x intercepts: (–1,0), (1,0), (2,0) –2 –1 1 1 2 3 x  y intercept:  0,   1   3  3 vertical asymptotes: x  2,3 oblique asymptote: y  x  1 cuts horizontal asymptote at x  1
  • 35. e.g.  i  y   x  2  x  1 x  1  x  2  x  3 x 1 x 2  x  6 x3  2 x 2  x  2 y x3  x 2  6 x y  x 1  x2  5 x  2 2 x  x  6 4x  4 4x  4 y  x 1  x  2  x  3 x intercepts: (–1,0), (1,0), (2,0) –2 –1 1 1 2 3 x  y intercept:  0,   1   3  3 vertical asymptotes: x  2,3 oblique asymptote: y  x  1 cuts horizontal asymptote at x  1
  • 36. e.g.  i  y   x  2  x  1 x  1  x  2  x  3 x 1 x 2  x  6 x3  2 x 2  x  2 y x3  x 2  6 x y  x 1  x2  5 x  2 2 x  x  6 4x  4 4x  4 y  x 1  x  2  x  3 x intercepts: (–1,0), (1,0), (2,0) –2 –1 1 1 2 3 x  y intercept:  0,   1   3  3 vertical asymptotes: x  2,3 oblique asymptote: y  x  1 cuts horizontal asymptote at x  1
  • 37. Exercise 3G; 3, 6, 8ac, 16cf, 17a