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Rules For Differentiation
Rules For Differentiation
(1) y  c
Rules For Differentiation
(1) y  c
    f  x  c
Rules For Differentiation
(1) y  c
    f  x  c
   f  x  h  c
Rules For Differentiation
(1) y  c
                                 cc
    f  x  c      f   x   lim
                              h0 h
   f  x  h  c
Rules For Differentiation
(1) y  c
                                  cc
    f  x  c      f   x   lim
                              h0 h
   f  x  h  c                  0
                             lim
                              h 0 h
Rules For Differentiation
(1) y  c
                                  cc
    f  x  c      f   x   lim
                              h0 h
   f  x  h  c                  0
                             lim
                              h 0 h

                             lim 0
                               h0

                            0
Rules For Differentiation
(1) y  c
                                  cc
    f  x  c      f   x   lim
                              h0 h
   f  x  h  c                  0
                             lim
                              h 0 h

                             lim 0
                               h0

                            0
(2) y  kx
Rules For Differentiation
(1) y  c
                                  cc
    f  x  c      f   x   lim
                              h0 h
   f  x  h  c                  0
                             lim
                              h 0 h

                             lim 0
                               h0

                            0
(2) y  kx
    f  x   kx
Rules For Differentiation
(1) y  c
                                        cc
    f  x  c            f   x   lim
                                    h0 h
   f  x  h  c                        0
                                   lim
                                    h 0 h

                                   lim 0
                                     h0

                                  0
(2) y  kx
    f  x   kx
f  x  h  k  x  h
             kx  kh
Rules For Differentiation
(1) y  c
                                        cc
    f  x  c            f   x   lim
                                    h0 h
   f  x  h  c                        0
                                   lim
                                    h 0 h

                                   lim 0
                                     h0

                                  0
(2) y  kx
                                         kx  kh  kx
    f  x   kx          f   x   lim
                                     h0      h
f  x  h  k  x  h
             kx  kh
Rules For Differentiation
(1) y  c
                                        cc
    f  x  c            f   x   lim
                                    h0 h
   f  x  h  c                        0
                                   lim
                                    h 0 h

                                   lim 0
                                     h0

                                  0
(2) y  kx
                                         kx  kh  kx
    f  x   kx          f   x   lim
                                     h0      h
f  x  h  k  x  h                  kh
                                   lim
             kx  kh               h0 h
Rules For Differentiation
(1) y  c
                                        cc
    f  x  c            f   x   lim
                                    h0 h
   f  x  h  c                        0
                                   lim
                                    h 0 h

                                   lim 0
                                     h0

                                  0
(2) y  kx
                                         kx  kh  kx
    f  x   kx          f   x   lim
                                     h0      h
f  x  h  k  x  h                  kh
                                   lim
             kx  kh               h0 h

                                   lim k
                                     h0

                                  k
(3) y  x n
(3) y  x n

          a 2  b 2   a  b  a  b 
(3) y  x n

          a 2  b 2   a  b  a  b 
          a 3  b3   a  b   a 2  ab  b 2 
(3) y  x n

          a 2  b 2   a  b  a  b 
          a 3  b3   a  b   a 2  ab  b 2 
          a 4  b 4   a  b   a 3  a 2b  ab 2  b3 
(3) y  x n

          a 2  b 2   a  b  a  b 
          a 3  b3   a  b   a 2  ab  b 2 
          a 4  b 4   a  b   a 3  a 2b  ab 2  b3 
                                                   
         a n  b n   a  b   a n1  a n2b  a n3b 2    a 2b n3  ab n2  b n1 
(3) y  x n

          a 2  b 2   a  b  a  b 
          a 3  b3   a  b   a 2  ab  b 2 
          a 4  b 4   a  b   a 3  a 2b  ab 2  b3 
                                                   
         a n  b n   a  b   a n1  a n2b  a n3b 2    a 2b n3  ab n2  b n1 
              f  x   xn
(3) y  x n

          a 2  b 2   a  b  a  b 
          a 3  b3   a  b   a 2  ab  b 2 
          a 4  b 4   a  b   a 3  a 2b  ab 2  b3 
                                                   
         a n  b n   a  b   a n1  a n2b  a n3b 2    a 2b n3  ab n2  b n1 
              f  x   xn                 f  x  h   x  h
                                                                   n
(3) y  x n

          a 2  b 2   a  b  a  b 
           a 3  b3   a  b   a 2  ab  b 2 
          a 4  b 4   a  b   a 3  a 2b  ab 2  b3 
                                                   
          a n  b n   a  b   a n1  a n2b  a n3b 2    a 2b n3  ab n2  b n1 
               f  x   xn                f  x  h   x  h
                                                                   n


                    x  h   xn
                            n

  f   x   lim
              h0         h
(3) y  x n

          a 2  b 2   a  b  a  b 
          a 3  b3   a  b   a 2  ab  b 2 
          a 4  b 4   a  b   a 3  a 2b  ab 2  b3 
                                                   
         a n  b n   a  b   a n1  a n2b  a n3b 2    a 2b n3  ab n2  b n1 
               f  x   xn                  f  x  h   x  h
                                                                   n


                    x  h   xn
                            n

  f   x   lim
              h0         h

             lim
                              
                    x  h  x   x  h    x  h  x     x  h  x n2  x n1
                                          n 1           n2
                                                                                          
              h0                                       h
(3) y  x n

          a 2  b 2   a  b  a  b 
          a 3  b3   a  b   a 2  ab  b 2 
          a 4  b 4   a  b   a 3  a 2b  ab 2  b3 
                                                   
         a n  b n   a  b   a n1  a n2b  a n3b 2    a 2b n3  ab n2  b n1 
               f  x   xn                  f  x  h   x  h
                                                                   n


                    x  h   xn
                            n

  f   x   lim
              h0         h

             lim
                              
                    x  h  x   x  h    x  h  x     x  h  x n2  x n1
                                          n 1           n2
                                                                                          
              h0                                       h
             lim
                   h  x  h    x  h  x     x  h  x n2  x n1
                               n 1            n2
                                                                               
               h0                                 h
(3) y  x n

          a 2  b 2   a  b  a  b 
          a 3  b3   a  b   a 2  ab  b 2 
          a 4  b 4   a  b   a 3  a 2b  ab 2  b3 
                                                   
         a n  b n   a  b   a n1  a n2b  a n3b 2    a 2b n3  ab n2  b n1 
               f  x   xn                  f  x  h   x  h
                                                                   n


                    x  h   xn
                            n

  f   x   lim
              h0         h

             lim
                              
                    x  h  x   x  h    x  h  x     x  h  x n2  x n1
                                          n 1           n2
                                                                                          
              h0                                       h
             lim
                    
                    h  x  h    x  h  x     x  h  x n2  x n1
                                 n 1          n2
                                                                               
               h0                                 h
             lim  x  h    x  h  x     x  h  x n2  x n1
                            n 1          n2
              h0
f   x   lim  x  h             x  h         x     x  h  x n2  x n1
                            n 1                n2
           h0
f   x   lim  x  h             x  h         x     x  h  x n2  x n1
                            n 1                n2
           h0

         x n1  x n1    x n1  x n1
f   x   lim  x  h             x  h         x     x  h  x n2  x n1
                            n 1                n2
           h0

         x n1  x n1    x n1  x n1
         nx n1
f   x   lim  x  h             x  h         x     x  h  x n2  x n1
                             n 1                n2
            h0

          x n1  x n1    x n1  x n1
          nx n1
          1
(4) y 
          x
f   x   lim  x  h             x  h         x     x  h  x n2  x n1
                             n 1                n2
            h0

          x n1  x n1    x n1  x n1
          nx n1
          1
(4) y 
          x
             1
    f  x 
             x
f   x   lim  x  h             x  h         x     x  h  x n2  x n1
                             n 1                n2
            h0

          x n1  x n1    x n1  x n1
          nx n1
          1
(4) y 
          x
             1
    f  x 
             x
               1
 f  x  h 
              xh
f   x   lim  x  h             x  h         x     x  h  x n2  x n1
                             n 1                n2
            h0

          x n1  x n1    x n1  x n1
          nx n1
          1
(4) y 
          x                                             1     1
             1                                              
    f  x                           f   x   lim x  h x
             x                                    h0     h
               1
 f  x  h 
              xh
f   x   lim  x  h             x  h         x     x  h  x n2  x n1
                             n 1                n2
            h0

          x n1  x n1    x n1  x n1
          nx n1
          1
(4) y 
          x                                             1      1
             1                                               
    f  x                           f   x   lim x  h x
             x                                    h0      h
               1                                       xxh
 f  x  h                                     lim
              xh                                 h0 hx  x  h 
f   x   lim  x  h             x  h         x     x  h  x n2  x n1
                             n 1                n2
            h0

          x n1  x n1    x n1  x n1
          nx n1
          1
(4) y 
          x                                             1      1
             1                                               
    f  x                           f   x   lim x  h x
             x                                     h0     h
               1                                       xxh
 f  x  h                                     lim
              xh                                 h0 hx  x  h 

                                                          h
                                                lim
                                                  h0 hx  x  h 
f   x   lim  x  h             x  h         x     x  h  x n2  x n1
                             n 1                n2
            h0

          x n1  x n1    x n1  x n1
          nx n1
          1
(4) y 
          x                                              1      1
             1                                                
    f  x                           f   x   lim x  h x
             x                                     h0      h
               1                                       xxh
 f  x  h                                     lim
              xh                                 h0 hx  x  h 

                                                           h
                                                lim
                                                  h0 hx  x  h 

                                                          1
                                                lim
                                                  h0 x  x  h 
f   x   lim  x  h             x  h         x     x  h  x n2  x n1
                             n 1                n2
            h0

          x n1  x n1    x n1  x n1
          nx n1
          1
(4) y 
          x                                              1      1
             1                                                
    f  x                           f   x   lim x  h x
             x                                     h0      h
               1                                       xxh
 f  x  h                                     lim
              xh                                 h0 hx  x  h 

                                                           h
                                                lim
                                                  h0 hx  x  h 

                                                          1
                                                lim
                                                  h0 x  x  h 

                                                  1
                                                 2
                                                  x
f   x   lim  x  h             x  h         x     x  h  x n2  x n1
                             n 1                n2
            h0

          x n1  x n1    x n1  x n1
          nx n1
          1
(4) y 
          x                                              1      1
             1                                                                     Note:
    f  x                           f   x   lim x  h x
             x                                     h0      h
               1                                       xxh
 f  x  h                                     lim
              xh                                 h0 hx  x  h 

                                                           h
                                                lim
                                                  h0 hx  x  h 

                                                          1
                                                lim
                                                  h0 x  x  h 

                                                  1
                                                 2
                                                  x
f   x   lim  x  h             x  h         x     x  h  x n2  x n1
                             n 1                n2
            h0

          x n1  x n1    x n1  x n1
          nx n1
          1
(4) y 
          x                                              1      1
             1                                                                     Note:
    f  x                           f   x   lim x  h x
             x                                     h0      h                     f  x   x 1
               1                                       xxh
 f  x  h                                     lim
              xh                                 h0 hx  x  h 

                                                           h
                                                lim
                                                  h0 hx  x  h 

                                                          1
                                                lim
                                                  h0 x  x  h 

                                                  1
                                                 2
                                                  x
f   x   lim  x  h             x  h         x     x  h  x n2  x n1
                             n 1                n2
            h0

          x n1  x n1    x n1  x n1
          nx n1
          1
(4) y 
          x                                              1      1
             1                                                                     Note:
    f  x                           f   x   lim x  h x
             x                                     h0      h                     f  x   x 1
               1                                       xxh
 f  x  h                                     lim
              xh                                 h0 hx  x  h                f   x    x 2
                                                           h
                                                lim
                                                  h0 hx  x  h 

                                                          1
                                                lim
                                                  h0 x  x  h 

                                                  1
                                                 2
                                                  x
f   x   lim  x  h             x  h         x     x  h  x n2  x n1
                             n 1                n2
            h0

          x n1  x n1    x n1  x n1
          nx n1
          1
(4) y 
          x                                              1      1
             1                                                                     Note:
    f  x                           f   x   lim x  h x
             x                                     h0      h                     f  x   x 1
               1                                       xxh
 f  x  h                                     lim
              xh                                 h0 hx  x  h                f   x    x 2
                                                           h                                1
                                                lim                                        2
                                                  h0 hx  x  h                            x
                                                          1
                                                lim
                                                  h0 x  x  h 

                                                  1
                                                 2
                                                  x
(5) y  x
(5) y  x
    f  x  x
(5) y  x
    f  x  x

 f  x  h  x  h
(5) y  x
    f  x  x
                                       xh x
 f  x  h  x  h   f   x   lim
                                  h 0   h
(5) y  x
    f  x  x
                                       xh x   xh x
 f  x  h  x  h   f   x   lim         
                                  h 0   h      xh x
(5) y  x
    f  x  x
                                         xh x   xh x
 f  x  h  x  h   f   x   lim           
                                   h 0    h      xh x
                                          xhx
                                 lim
                                 h0
                                             
                                        h xh x
(5) y  x
    f  x  x
                                         xh x   xh x
 f  x  h  x  h   f   x   lim           
                                   h 0    h      xh x
                                          xhx
                                 lim
                                 h0
                                             
                                        h xh x
                                             h
                                lim
                                 h0
                                             
                                        h xh x
(5) y  x
    f  x  x
                                         xh x    xh x
 f  x  h  x  h   f   x   lim            
                                   h 0     h      xh x
                                           xhx
                                 lim
                                    
                                  h0
                                        h xh x
                                              h
                                lim
                                    
                                  h0
                                        h xh x
                                             1
                                lim
                                 h0
                                            
                                          xh x
(5) y  x
    f  x  x
                                         xh x    xh x
 f  x  h  x  h   f   x   lim            
                                   h 0     h      xh x
                                           xhx
                                 lim
                                    
                                  h0
                                        h xh x
                                              h
                                lim
                                    
                                  h0
                                        h xh x
                                             1
                                lim
                                 h0
                                            
                                          xh x
                               1
                          
                              x x
(5) y  x
    f  x  x
                                         xh x    xh x
 f  x  h  x  h   f   x   lim            
                                   h 0     h      xh x
                                           xhx
                                 lim
                                    
                                  h0
                                        h xh x
                                              h
                                lim
                                    
                                  h0
                                        h xh x
                                             1
                                lim
                                 h0
                                            
                                          xh x
                                1
                          
                              x x
                              1
                           
                             2 x
(5) y  x
    f  x  x
                                         xh x    xh x
 f  x  h  x  h   f   x   lim            
                                   h 0     h      xh x
                                           xhx
                                 lim
                                    
                                  h0
                                        h xh x
                                              h
                                lim
                                    
                                  h0
                                        h xh x       Note:

                                             1
                                lim
                                 h0
                                            
                                          xh x
                                1
                          
                              x x
                              1
                           
                             2 x
(5) y  x
    f  x  x
                                         xh x    xh x
 f  x  h  x  h   f   x   lim            
                                   h 0     h      xh x
                                           xhx
                                 lim
                                  h0
                                       h xh x  
                                              h
                                lim
                                  h0
                                       h xh x        Note:
                                                                 1
                                             1         f  x  x2
                                lim
                                 h0
                                              
                                          xh x
                                1
                           
                              x x
                              1
                           
                             2 x
(5) y  x
    f  x  x
                                         xh x    xh x
 f  x  h  x  h   f   x   lim            
                                   h 0     h      xh x
                                           xhx
                                 lim
                                  h0
                                       h xh x  
                                              h
                                lim
                                  h0
                                       h xh x         Note:
                                                                  1
                                             1          f  x  x2
                                lim
                                 h0
                                              
                                          xh x                 1 1
                                                       f  x  x 2
                                       1                         2
                               
                                     x x
                                     1
                               
                                  2 x
(5) y  x
    f  x  x
                                         xh x    xh x
 f  x  h  x  h   f   x   lim            
                                   h 0     h      xh x
                                           xhx
                                 lim
                                  h0
                                       h xh x  
                                              h
                                lim
                                  h0
                                       h xh x         Note:
                                                                  1
                                             1          f  x  x2
                                lim
                                 h0
                                              
                                          xh x                 1 1
                                                       f  x  x 2
                                       1                         2
                                                                  1
                                     x x                      
                                                                 2 x
                                     1
                               
                                  2 x
e.g.  i  y  7
e.g.  i  y  7
          dy
             0
          dx
e.g.  i  y  7
          dy
             0
          dx

     ii  y  37 x
e.g.  i  y  7
          dy
             0
          dx

     ii  y  37 x
       dy
           37
       dx
e.g.  i  y  7
          dy
             0
          dx

     ii  y  37 x
       dy
           37
       dx

   iii  y  x10
e.g.  i  y  7
          dy
             0
          dx

     ii  y  37 x
       dy
           37
       dx

   iii  y  x10
       dy
           10 x 9
       dx
e.g.  i  y  7
          dy
             0
          dx

     ii  y  37 x
       dy
           37
       dx

   iii  y  x10
       dy
           10 x 9
       dx

   iv  y  3x 2  6 x  2
e.g.  i  y  7
          dy
             0
          dx

     ii  y  37 x
       dy
           37
       dx

   iii  y  x10
       dy
           10 x 9
       dx

   iv  y  3x 2  6 x  2
       dy
           6x  6
       dx
e.g.  i  y  7               v  y   2 x  1
                                                     2

          dy
             0
          dx

     ii  y  37 x
       dy
           37
       dx

   iii  y  x10
       dy
           10 x 9
       dx

   iv  y  3x 2  6 x  2
       dy
           6x  6
       dx
e.g.  i  y  7               v  y   2 x  1
                                                     2

          dy
             0                       4x2  4 x  1
          dx

     ii  y  37 x
       dy
           37
       dx

   iii  y  x10
       dy
           10 x 9
       dx

   iv  y  3x 2  6 x  2
       dy
           6x  6
       dx
e.g.  i  y  7               v  y   2 x  1
                                                     2

          dy
             0                       4x2  4 x  1
          dx                     dy
                                     8x  4
                                 dx
     ii  y  37 x
       dy
           37
       dx

   iii  y  x10
       dy
           10 x 9
       dx

   iv  y  3x 2  6 x  2
       dy
           6x  6
       dx
e.g.  i  y  7               v  y   2 x  1
                                                     2

          dy
             0                       4x2  4 x  1
          dx                        dy
                                        8x  4
                                    dx
     ii  y  37 x                           1
       dy                      vi  y  3x  2
           37                                x
       dx

   iii  y  x10
       dy
           10 x 9
       dx

   iv  y  3x 2  6 x  2
       dy
           6x  6
       dx
e.g.  i  y  7                v  y   2 x  1
                                                      2

          dy
             0                        4x2  4 x  1
          dx                        dy
                                        8x  4
                                    dx
     ii  y  37 x                            1
       dy                      vi  y  3x  2
           37                                 x
       dx                               3 x  x 2

   iii  y  x10
       dy
           10 x 9
       dx

   iv  y  3x 2  6 x  2
       dy
           6x  6
       dx
e.g.  i  y  7                v  y   2 x  1
                                                      2

          dy
             0                        4x2  4 x  1
          dx                        dy
                                        8x  4
                                    dx
     ii  y  37 x                            1
       dy                      vi  y  3x  2
           37                                 x
       dx                               3 x  x 2
                                    dy
                                        3  2 x 3
   iii  y  x10                   dx
       dy
           10 x 9
       dx

   iv  y  3x 2  6 x  2
       dy
           6x  6
       dx
e.g.  i  y  7                v  y   2 x  1
                                                      2

          dy
             0                        4x2  4 x  1
          dx                        dy
                                        8x  4
                                    dx
     ii  y  37 x                            1
       dy                      vi  y  3x  2
           37                                 x
       dx                               3 x  x 2
                                    dy
                                        3  2 x 3
   iii  y  x10                   dx
       dy                                     2
           10 x 9                      3 3
       dx                                     x

   iv  y  3x 2  6 x  2
       dy
           6x  6
       dx
e.g.  i  y  7                v  y   2 x  1
                                                      2
                                                           vii  y  x 2 x
          dy
             0                        4x2  4 x  1
          dx                        dy
                                        8x  4
                                    dx
     ii  y  37 x                            1
       dy                      vi  y  3x  2
           37                                 x
       dx                               3 x  x 2
                                    dy
                                        3  2 x 3
   iii  y  x10                   dx
       dy                                     2
           10 x 9                      3 3
       dx                                     x

   iv  y  3x 2  6 x  2
       dy
           6x  6
       dx
e.g.  i  y  7                v  y   2 x  1
                                                      2
                                                           vii  y  x 2 x
          dy
             0                        4x2  4 x  1
                                                                       5

          dx                                                      x   2
                                    dy
                                        8x  4
                                    dx
     ii  y  37 x                            1
       dy                      vi  y  3x  2
           37                                 x
       dx                               3 x  x 2
                                    dy
                                        3  2 x 3
   iii  y  x10                   dx
       dy                                     2
           10 x 9                      3 3
       dx                                     x

   iv  y  3x 2  6 x  2
       dy
           6x  6
       dx
e.g.  i  y  7                v  y   2 x  1
                                                      2
                                                           vii  y  x 2 x
          dy
             0                        4x2  4 x  1
                                                                      5

          dx                                                     x   2
                                    dy
                                        8x  4                dy 5 3
                                    dx                            x2
     ii  y  37 x                            1               dx 2
       dy                      vi  y  3x  2
           37                                 x
       dx                               3 x  x 2
                                    dy
                                        3  2 x 3
   iii  y  x10                   dx
       dy                                     2
           10 x 9                      3 3
       dx                                     x

   iv  y  3x 2  6 x  2
       dy
           6x  6
       dx
e.g.  i  y  7                v  y   2 x  1
                                                      2
                                                           vii  y  x 2 x
          dy
             0                        4x2  4 x  1
                                                                      5

          dx                                                     x   2
                                    dy
                                        8x  4                dy 5 3
                                    dx                            x2
     ii  y  37 x                            1               dx 2
       dy                      vi  y  3x  2                   5
           37                                 x                  x x
       dx                               3 x  x 2               2
                                    dy
                                        3  2 x 3
   iii  y  x10                   dx
       dy                                     2
           10 x 9                      3 3
       dx                                     x

   iv  y  3x 2  6 x  2
       dy
           6x  6
       dx
e.g.  i  y  7                v  y   2 x  1
                                                      2
                                                            vii  y  x 2 x
          dy
             0                        4x2  4 x  1
                                                                         5

          dx                                                       x    2
                                    dy
                                        8x  4                  dy 5 3
                                    dx                              x2
     ii  y  37 x                            1                 dx 2
       dy                      vi  y  3x  2                     5
           37                                 x                    x x
       dx                               3 x  x 2                 2
                                    dy
                                        3  2 x 3
   iii  y  x10                   dx                     viii  If f  x   x3  3,
        dy
             10 x 9                    3 3
                                              2                    find f   2 
        dx                                    x

   iv  y  3x 2  6 x  2
       dy
           6x  6
       dx
e.g.  i  y  7                v  y   2 x  1
                                                      2
                                                            vii  y  x 2 x
          dy
             0                        4x2  4 x  1
                                                                         5

          dx                                                       x    2
                                    dy
                                        8x  4                  dy 5 3
                                    dx                              x2
     ii  y  37 x                            1                 dx 2
       dy                      vi  y  3x  2                     5
           37                                 x                    x x
       dx                               3 x  x 2                 2
                                    dy
                                        3  2 x 3
   iii  y  x10                   dx                     viii  If f  x   x3  3,
        dy
             10 x 9                    3 3
                                              2                    find f   2 
        dx                                    x
                                                                     f  x   x3  3
   iv  y  3x 2  6 x  2
       dy
           6x  6
       dx
e.g.  i  y  7                v  y   2 x  1
                                                      2
                                                            vii  y  x 2 x
          dy
             0                        4x2  4 x  1
                                                                         5

          dx                                                       x    2
                                    dy
                                        8x  4                  dy 5 3
                                    dx                              x2
     ii  y  37 x                            1                 dx 2
       dy                      vi  y  3x  2                     5
           37                                 x                    x x
       dx                               3 x  x 2                 2
                                    dy
                                        3  2 x 3
   iii  y  x10                   dx                     viii  If f  x   x3  3,
        dy
             10 x 9                    3 3
                                              2                    find f   2 
        dx                                    x
                                                                     f  x   x3  3
   iv  y  3x 2  6 x  2                                         f   x   3x 2
       dy
           6x  6
       dx
e.g.  i  y  7                v  y   2 x  1
                                                      2
                                                            vii  y  x 2 x
          dy
             0                        4x2  4 x  1
                                                                         5

          dx                                                       x    2
                                    dy
                                        8x  4                  dy 5 3
                                    dx                              x2
     ii  y  37 x                            1                 dx 2
       dy                      vi  y  3x  2                     5
           37                                 x                    x x
       dx                               3 x  x 2                 2
                                    dy
                                        3  2 x 3
   iii  y  x10                   dx                     viii  If f  x   x3  3,
        dy
             10 x 9                    3 3
                                              2                    find f   2 
        dx                                    x
                                                                     f  x   x3  3
   iv  y  3x 2  6 x  2                                         f   x   3x 2
       dy
           6x  6
                                                                    f   2  3 2
                                                                                       2
       dx
e.g.  i  y  7                v  y   2 x  1
                                                      2
                                                            vii  y  x 2 x
          dy
             0                        4x2  4 x  1
                                                                         5

          dx                                                       x    2
                                    dy
                                        8x  4                  dy 5 3
                                    dx                              x2
     ii  y  37 x                            1                 dx 2
       dy                      vi  y  3x  2                     5
           37                                 x                    x x
       dx                               3 x  x 2                 2
                                    dy
                                        3  2 x 3
   iii  y  x10                   dx                     viii  If f  x   x3  3,
        dy
             10 x 9                    3 3
                                              2                    find f   2 
        dx                                    x
                                                                     f  x   x3  3
   iv  y  3x 2  6 x  2                                         f   x   3x 2
       dy
           6x  6
                                                                    f   2  3 2
                                                                                       2
       dx
                                                                              12
 xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2
        at the point 1,1
 xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2
        at the point 1,1
       y  5 x3  6 x 2  2
 xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2
        at the point 1,1
       y  5 x3  6 x 2  2
      dy
          15 x 2  12 x
      dx
 xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2
        at the point 1,1
     y  5 x3  6 x 2  2
    dy
        15 x 2  12 x
    dx
            dy
 when x  1,  15 1  12 1
                         2

            dx
 xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2
        at the point 1,1
     y  5 x3  6 x 2  2
    dy
        15 x 2  12 x
    dx
            dy
 when x  1,  15 1  12 1
                         2

            dx
                3
 xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2
        at the point 1,1
     y  5 x3  6 x 2  2
    dy
        15 x 2  12 x
    dx
            dy
 when x  1,  15 1  12 1
                         2

            dx
                3
     required slope  3
 xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2
        at the point 1,1
        y  5 x3  6 x 2  2                   y  1  3  x  1
    dy
        15 x 2  12 x
    dx
            dy
 when x  1,  15 1  12 1
                       2

            dx
                3
     required slope  3
 xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2
        at the point 1,1
        y  5 x3  6 x 2  2                   y  1  3  x  1
    dy                                          y  1  3x  3
        15 x 2  12 x
    dx
            dy
 when x  1,  15 1  12 1
                       2

            dx
                3
     required slope  3
 xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2
        at the point 1,1
        y  5 x3  6 x 2  2                   y  1  3  x  1
    dy                                          y  1  3x  3
        15 x 2  12 x
    dx
            dy
 when x  1,  15 1  12 1
                       2                       3x  y  2  0
            dx
                3
     required slope  3
 xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2
        at the point 1,1
        y  5 x3  6 x 2  2                   y  1  3  x  1
       dy                                      y  1  3x  3
           15 x 2  12 x
       dx
              dy
 when x  1,  15 1  12 1
                          2                    3x  y  2  0
              dx
                   3
        required slope  3
 x  Find the points on the curve y  x3  12 x where the tangents
     are horizontal
 xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2
        at the point 1,1
        y  5 x3  6 x 2  2                   y  1  3  x  1
       dy                                      y  1  3x  3
           15 x 2  12 x
       dx
              dy
 when x  1,  15 1  12 1
                          2                    3x  y  2  0
              dx
                   3
        required slope  3
 x  Find the points on the curve y  x3  12 x where the tangents
     are horizontal
      y  x 3  12 x
 xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2
        at the point 1,1
        y  5 x3  6 x 2  2                   y  1  3  x  1
       dy                                      y  1  3x  3
           15 x 2  12 x
       dx
              dy
 when x  1,  15 1  12 1
                          2                    3x  y  2  0
              dx
                   3
        required slope  3
 x  Find the points on the curve y  x3  12 x where the tangents
     are horizontal
      y  x 3  12 x
     dy
         3 x 2  12
     dx
 xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2
        at the point 1,1
        y  5 x3  6 x 2  2                   y  1  3  x  1
       dy                                      y  1  3x  3
           15 x 2  12 x
       dx
              dy
 when x  1,  15 1  12 1
                          2                    3x  y  2  0
              dx
                   3
        required slope  3
 x  Find the points on the curve y  x3  12 x where the tangents
     are horizontal                                           dy
                                 tangents are horizontal when    0
      y  x 3  12 x                                          dx
     dy
         3 x 2  12
     dx
 xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2
        at the point 1,1
        y  5 x3  6 x 2  2                   y  1  3  x  1
       dy                                      y  1  3x  3
           15 x 2  12 x
       dx
              dy
 when x  1,  15 1  12 1
                          2                    3x  y  2  0
              dx
                   3
        required slope  3
 x  Find the points on the curve y  x3  12 x where the tangents
     are horizontal                                           dy
                                 tangents are horizontal when    0
      y  x 3  12 x                                          dx
                                          i.e. 3 x  12  0
                                                  2

     dy
         3 x 2  12
     dx
 xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2
        at the point 1,1
        y  5 x3  6 x 2  2                   y  1  3  x  1
       dy                                      y  1  3x  3
           15 x 2  12 x
       dx
              dy
 when x  1,  15 1  12 1
                          2                    3x  y  2  0
              dx
                   3
        required slope  3
 x  Find the points on the curve y  x3  12 x where the tangents
     are horizontal                                           dy
                                 tangents are horizontal when    0
      y  x 3  12 x                                          dx
                                          i.e. 3 x  12  0
                                                  2

     dy
         3 x 2  12                                 x2  4
     dx
                                                      x  2
 xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2
        at the point 1,1
        y  5 x3  6 x 2  2                   y  1  3  x  1
       dy                                      y  1  3x  3
           15 x 2  12 x
       dx
              dy
 when x  1,  15 1  12 1
                          2                    3x  y  2  0
              dx
                   3
        required slope  3
 x  Find the points on the curve y  x3  12 x where the tangents
     are horizontal                                           dy
                                 tangents are horizontal when    0
      y  x 3  12 x                                          dx
                                          i.e. 3 x  12  0
                                                  2

     dy
         3 x 2  12                                 x2  4
     dx
                                                      x  2
           tangents are horizontal at  2,16  and  2, 16 
A normal is a line perpendicular to the tangent at the point of contact
A normal is a line perpendicular to the tangent at the point of contact
                               y
                                                    y  f  x

                                                x
A normal is a line perpendicular to the tangent at the point of contact
                               y
                                                    y  f  x

                                                x


                                           tangent
A normal is a line perpendicular to the tangent at the point of contact
                               y
                                                    y  f  x

                                                x


                    normal                 tangent
A normal is a line perpendicular to the tangent at the point of contact
                                   y
                                                          y  f  x

                                                      x


                        normal                   tangent
 xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at
       the point  3, 29 
A normal is a line perpendicular to the tangent at the point of contact
                                   y
                                                          y  f  x

                                                      x


                        normal                   tangent
 xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at
       the point  3, 29 
   y  4 x 2  3x  2
A normal is a line perpendicular to the tangent at the point of contact
                                   y
                                                          y  f  x

                                                      x


                        normal                   tangent
 xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at
       the point  3, 29 
   y  4 x 2  3x  2
  dy
      8x  3
  dx
A normal is a line perpendicular to the tangent at the point of contact
                                   y
                                                          y  f  x

                                                      x


                        normal                   tangent
 xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at
       the point  3, 29 
  y  4 x 2  3x  2
 dy
     8x  3
 dx
              dy
 when x  3,  8  3  3
              dx
A normal is a line perpendicular to the tangent at the point of contact
                                   y
                                                          y  f  x

                                                      x


                        normal                   tangent
 xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at
       the point  3, 29 
  y  4 x 2  3x  2
 dy
     8x  3
 dx
              dy
 when x  3,  8  3  3
              dx
                   21
A normal is a line perpendicular to the tangent at the point of contact
                                   y
                                                          y  f  x

                                                      x


                        normal                   tangent
 xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at
       the point  3, 29 
  y  4 x 2  3x  2
 dy
     8x  3
 dx
              dy
 when x  3,  8  3  3
              dx
                   21
                       1
  required slope  
                       21
A normal is a line perpendicular to the tangent at the point of contact
                                   y
                                                          y  f  x

                                                      x


                        normal                   tangent
 xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at
       the point  3, 29 
                                                       1
     y  4 x  3x  2
            2
                                            y  29    x  3
 dy                                                       21
     8x  3
 dx
             dy
 when x  3,  8  3  3
             dx
                 21
                       1
  required slope  
                      21
A normal is a line perpendicular to the tangent at the point of contact
                                   y
                                                          y  f  x

                                                      x


                        normal                   tangent
 xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at
       the point  3, 29 
                                                       1
     y  4 x  3x  2
            2
                                            y  29    x  3
 dy                                                     21
     8x  3                             21 y  609   x  3
 dx
             dy
 when x  3,  8  3  3
             dx
                 21
                       1
  required slope  
                      21
A normal is a line perpendicular to the tangent at the point of contact
                                   y
                                                          y  f  x

                                                      x


                        normal                   tangent
 xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at
       the point  3, 29 
                                                       1
     y  4 x  3x  2
            2
                                            y  29    x  3
 dy                                                     21
     8x  3                             21 y  609   x  3
 dx
             dy
 when x  3,  8  3  3                   x  21 y  612  0
             dx
                 21
                       1
  required slope  
                      21
Exercise 7C; 1ace etc, 2ace etc, 3ace etc, 4bd, 5bdfh,
           8bd, 9bd, 10ac, 12, 13b, 16, 21

Exercise 7D; 2ac, 3bd, 4ace, 6c, 7b, 11a, 13aei, 18, 22

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11X1 T08 03 rules for differentiation

  • 3. Rules For Differentiation (1) y  c f  x  c
  • 4. Rules For Differentiation (1) y  c f  x  c f  x  h  c
  • 5. Rules For Differentiation (1) y  c cc f  x  c f   x   lim h0 h f  x  h  c
  • 6. Rules For Differentiation (1) y  c cc f  x  c f   x   lim h0 h f  x  h  c 0  lim h 0 h
  • 7. Rules For Differentiation (1) y  c cc f  x  c f   x   lim h0 h f  x  h  c 0  lim h 0 h  lim 0 h0 0
  • 8. Rules For Differentiation (1) y  c cc f  x  c f   x   lim h0 h f  x  h  c 0  lim h 0 h  lim 0 h0 0 (2) y  kx
  • 9. Rules For Differentiation (1) y  c cc f  x  c f   x   lim h0 h f  x  h  c 0  lim h 0 h  lim 0 h0 0 (2) y  kx f  x   kx
  • 10. Rules For Differentiation (1) y  c cc f  x  c f   x   lim h0 h f  x  h  c 0  lim h 0 h  lim 0 h0 0 (2) y  kx f  x   kx f  x  h  k  x  h  kx  kh
  • 11. Rules For Differentiation (1) y  c cc f  x  c f   x   lim h0 h f  x  h  c 0  lim h 0 h  lim 0 h0 0 (2) y  kx kx  kh  kx f  x   kx f   x   lim h0 h f  x  h  k  x  h  kx  kh
  • 12. Rules For Differentiation (1) y  c cc f  x  c f   x   lim h0 h f  x  h  c 0  lim h 0 h  lim 0 h0 0 (2) y  kx kx  kh  kx f  x   kx f   x   lim h0 h f  x  h  k  x  h kh  lim  kx  kh h0 h
  • 13. Rules For Differentiation (1) y  c cc f  x  c f   x   lim h0 h f  x  h  c 0  lim h 0 h  lim 0 h0 0 (2) y  kx kx  kh  kx f  x   kx f   x   lim h0 h f  x  h  k  x  h kh  lim  kx  kh h0 h  lim k h0 k
  • 14. (3) y  x n
  • 15. (3) y  x n a 2  b 2   a  b  a  b 
  • 16. (3) y  x n a 2  b 2   a  b  a  b  a 3  b3   a  b   a 2  ab  b 2 
  • 17. (3) y  x n a 2  b 2   a  b  a  b  a 3  b3   a  b   a 2  ab  b 2  a 4  b 4   a  b   a 3  a 2b  ab 2  b3 
  • 18. (3) y  x n a 2  b 2   a  b  a  b  a 3  b3   a  b   a 2  ab  b 2  a 4  b 4   a  b   a 3  a 2b  ab 2  b3   a n  b n   a  b   a n1  a n2b  a n3b 2    a 2b n3  ab n2  b n1 
  • 19. (3) y  x n a 2  b 2   a  b  a  b  a 3  b3   a  b   a 2  ab  b 2  a 4  b 4   a  b   a 3  a 2b  ab 2  b3   a n  b n   a  b   a n1  a n2b  a n3b 2    a 2b n3  ab n2  b n1  f  x   xn
  • 20. (3) y  x n a 2  b 2   a  b  a  b  a 3  b3   a  b   a 2  ab  b 2  a 4  b 4   a  b   a 3  a 2b  ab 2  b3   a n  b n   a  b   a n1  a n2b  a n3b 2    a 2b n3  ab n2  b n1  f  x   xn f  x  h   x  h n
  • 21. (3) y  x n a 2  b 2   a  b  a  b  a 3  b3   a  b   a 2  ab  b 2  a 4  b 4   a  b   a 3  a 2b  ab 2  b3   a n  b n   a  b   a n1  a n2b  a n3b 2    a 2b n3  ab n2  b n1  f  x   xn f  x  h   x  h n  x  h   xn n f   x   lim h0 h
  • 22. (3) y  x n a 2  b 2   a  b  a  b  a 3  b3   a  b   a 2  ab  b 2  a 4  b 4   a  b   a 3  a 2b  ab 2  b3   a n  b n   a  b   a n1  a n2b  a n3b 2    a 2b n3  ab n2  b n1  f  x   xn f  x  h   x  h n  x  h   xn n f   x   lim h0 h  lim   x  h  x   x  h    x  h  x     x  h  x n2  x n1 n 1 n2  h0 h
  • 23. (3) y  x n a 2  b 2   a  b  a  b  a 3  b3   a  b   a 2  ab  b 2  a 4  b 4   a  b   a 3  a 2b  ab 2  b3   a n  b n   a  b   a n1  a n2b  a n3b 2    a 2b n3  ab n2  b n1  f  x   xn f  x  h   x  h n  x  h   xn n f   x   lim h0 h  lim   x  h  x   x  h    x  h  x     x  h  x n2  x n1 n 1 n2  h0 h  lim  h  x  h    x  h  x     x  h  x n2  x n1 n 1 n2  h0 h
  • 24. (3) y  x n a 2  b 2   a  b  a  b  a 3  b3   a  b   a 2  ab  b 2  a 4  b 4   a  b   a 3  a 2b  ab 2  b3   a n  b n   a  b   a n1  a n2b  a n3b 2    a 2b n3  ab n2  b n1  f  x   xn f  x  h   x  h n  x  h   xn n f   x   lim h0 h  lim   x  h  x   x  h    x  h  x     x  h  x n2  x n1 n 1 n2  h0 h  lim  h  x  h    x  h  x     x  h  x n2  x n1 n 1 n2  h0 h  lim  x  h    x  h  x     x  h  x n2  x n1 n 1 n2 h0
  • 25. f   x   lim  x  h    x  h x     x  h  x n2  x n1 n 1 n2 h0
  • 26. f   x   lim  x  h    x  h x     x  h  x n2  x n1 n 1 n2 h0  x n1  x n1    x n1  x n1
  • 27. f   x   lim  x  h    x  h x     x  h  x n2  x n1 n 1 n2 h0  x n1  x n1    x n1  x n1  nx n1
  • 28. f   x   lim  x  h    x  h x     x  h  x n2  x n1 n 1 n2 h0  x n1  x n1    x n1  x n1  nx n1 1 (4) y  x
  • 29. f   x   lim  x  h    x  h x     x  h  x n2  x n1 n 1 n2 h0  x n1  x n1    x n1  x n1  nx n1 1 (4) y  x 1 f  x  x
  • 30. f   x   lim  x  h    x  h x     x  h  x n2  x n1 n 1 n2 h0  x n1  x n1    x n1  x n1  nx n1 1 (4) y  x 1 f  x  x 1 f  x  h  xh
  • 31. f   x   lim  x  h    x  h x     x  h  x n2  x n1 n 1 n2 h0  x n1  x n1    x n1  x n1  nx n1 1 (4) y  x 1 1 1  f  x  f   x   lim x  h x x h0 h 1 f  x  h  xh
  • 32. f   x   lim  x  h    x  h x     x  h  x n2  x n1 n 1 n2 h0  x n1  x n1    x n1  x n1  nx n1 1 (4) y  x 1 1 1  f  x  f   x   lim x  h x x h0 h 1 xxh f  x  h   lim xh h0 hx  x  h 
  • 33. f   x   lim  x  h    x  h x     x  h  x n2  x n1 n 1 n2 h0  x n1  x n1    x n1  x n1  nx n1 1 (4) y  x 1 1 1  f  x  f   x   lim x  h x x h0 h 1 xxh f  x  h   lim xh h0 hx  x  h  h  lim h0 hx  x  h 
  • 34. f   x   lim  x  h    x  h x     x  h  x n2  x n1 n 1 n2 h0  x n1  x n1    x n1  x n1  nx n1 1 (4) y  x 1 1 1  f  x  f   x   lim x  h x x h0 h 1 xxh f  x  h   lim xh h0 hx  x  h  h  lim h0 hx  x  h  1  lim h0 x  x  h 
  • 35. f   x   lim  x  h    x  h x     x  h  x n2  x n1 n 1 n2 h0  x n1  x n1    x n1  x n1  nx n1 1 (4) y  x 1 1 1  f  x  f   x   lim x  h x x h0 h 1 xxh f  x  h   lim xh h0 hx  x  h  h  lim h0 hx  x  h  1  lim h0 x  x  h  1  2 x
  • 36. f   x   lim  x  h    x  h x     x  h  x n2  x n1 n 1 n2 h0  x n1  x n1    x n1  x n1  nx n1 1 (4) y  x 1 1 1  Note: f  x  f   x   lim x  h x x h0 h 1 xxh f  x  h   lim xh h0 hx  x  h  h  lim h0 hx  x  h  1  lim h0 x  x  h  1  2 x
  • 37. f   x   lim  x  h    x  h x     x  h  x n2  x n1 n 1 n2 h0  x n1  x n1    x n1  x n1  nx n1 1 (4) y  x 1 1 1  Note: f  x  f   x   lim x  h x x h0 h f  x   x 1 1 xxh f  x  h   lim xh h0 hx  x  h  h  lim h0 hx  x  h  1  lim h0 x  x  h  1  2 x
  • 38. f   x   lim  x  h    x  h x     x  h  x n2  x n1 n 1 n2 h0  x n1  x n1    x n1  x n1  nx n1 1 (4) y  x 1 1 1  Note: f  x  f   x   lim x  h x x h0 h f  x   x 1 1 xxh f  x  h   lim xh h0 hx  x  h  f   x    x 2 h  lim h0 hx  x  h  1  lim h0 x  x  h  1  2 x
  • 39. f   x   lim  x  h    x  h x     x  h  x n2  x n1 n 1 n2 h0  x n1  x n1    x n1  x n1  nx n1 1 (4) y  x 1 1 1  Note: f  x  f   x   lim x  h x x h0 h f  x   x 1 1 xxh f  x  h   lim xh h0 hx  x  h  f   x    x 2 h 1  lim  2 h0 hx  x  h  x 1  lim h0 x  x  h  1  2 x
  • 41. (5) y  x f  x  x
  • 42. (5) y  x f  x  x f  x  h  x  h
  • 43. (5) y  x f  x  x xh x f  x  h  x  h f   x   lim h 0 h
  • 44. (5) y  x f  x  x xh x xh x f  x  h  x  h f   x   lim  h 0 h xh x
  • 45. (5) y  x f  x  x xh x xh x f  x  h  x  h f   x   lim  h 0 h xh x xhx  lim h0  h xh x
  • 46. (5) y  x f  x  x xh x xh x f  x  h  x  h f   x   lim  h 0 h xh x xhx  lim h0  h xh x h  lim h0  h xh x
  • 47. (5) y  x f  x  x xh x xh x f  x  h  x  h f   x   lim  h 0 h xh x xhx  lim  h0 h xh x h  lim  h0 h xh x 1  lim  h0  xh x
  • 48. (5) y  x f  x  x xh x xh x f  x  h  x  h f   x   lim  h 0 h xh x xhx  lim  h0 h xh x h  lim  h0 h xh x 1  lim  h0  xh x 1  x x
  • 49. (5) y  x f  x  x xh x xh x f  x  h  x  h f   x   lim  h 0 h xh x xhx  lim  h0 h xh x h  lim  h0 h xh x 1  lim  h0  xh x 1  x x 1  2 x
  • 50. (5) y  x f  x  x xh x xh x f  x  h  x  h f   x   lim  h 0 h xh x xhx  lim  h0 h xh x h  lim  h0 h xh x Note: 1  lim  h0  xh x 1  x x 1  2 x
  • 51. (5) y  x f  x  x xh x xh x f  x  h  x  h f   x   lim  h 0 h xh x xhx  lim h0  h xh x  h  lim h0  h xh x  Note: 1 1 f  x  x2  lim h0  xh x 1  x x 1  2 x
  • 52. (5) y  x f  x  x xh x xh x f  x  h  x  h f   x   lim  h 0 h xh x xhx  lim h0  h xh x  h  lim h0  h xh x  Note: 1 1 f  x  x2  lim h0  xh x 1 1 f  x  x 2 1 2  x x 1  2 x
  • 53. (5) y  x f  x  x xh x xh x f  x  h  x  h f   x   lim  h 0 h xh x xhx  lim h0  h xh x  h  lim h0  h xh x  Note: 1 1 f  x  x2  lim h0  xh x 1 1 f  x  x 2 1 2  1 x x  2 x 1  2 x
  • 54. e.g.  i  y  7
  • 55. e.g.  i  y  7 dy 0 dx
  • 56. e.g.  i  y  7 dy 0 dx  ii  y  37 x
  • 57. e.g.  i  y  7 dy 0 dx  ii  y  37 x dy  37 dx
  • 58. e.g.  i  y  7 dy 0 dx  ii  y  37 x dy  37 dx  iii  y  x10
  • 59. e.g.  i  y  7 dy 0 dx  ii  y  37 x dy  37 dx  iii  y  x10 dy  10 x 9 dx
  • 60. e.g.  i  y  7 dy 0 dx  ii  y  37 x dy  37 dx  iii  y  x10 dy  10 x 9 dx  iv  y  3x 2  6 x  2
  • 61. e.g.  i  y  7 dy 0 dx  ii  y  37 x dy  37 dx  iii  y  x10 dy  10 x 9 dx  iv  y  3x 2  6 x  2 dy  6x  6 dx
  • 62. e.g.  i  y  7  v  y   2 x  1 2 dy 0 dx  ii  y  37 x dy  37 dx  iii  y  x10 dy  10 x 9 dx  iv  y  3x 2  6 x  2 dy  6x  6 dx
  • 63. e.g.  i  y  7  v  y   2 x  1 2 dy 0  4x2  4 x  1 dx  ii  y  37 x dy  37 dx  iii  y  x10 dy  10 x 9 dx  iv  y  3x 2  6 x  2 dy  6x  6 dx
  • 64. e.g.  i  y  7  v  y   2 x  1 2 dy 0  4x2  4 x  1 dx dy  8x  4 dx  ii  y  37 x dy  37 dx  iii  y  x10 dy  10 x 9 dx  iv  y  3x 2  6 x  2 dy  6x  6 dx
  • 65. e.g.  i  y  7  v  y   2 x  1 2 dy 0  4x2  4 x  1 dx dy  8x  4 dx  ii  y  37 x 1 dy  vi  y  3x  2  37 x dx  iii  y  x10 dy  10 x 9 dx  iv  y  3x 2  6 x  2 dy  6x  6 dx
  • 66. e.g.  i  y  7  v  y   2 x  1 2 dy 0  4x2  4 x  1 dx dy  8x  4 dx  ii  y  37 x 1 dy  vi  y  3x  2  37 x dx  3 x  x 2  iii  y  x10 dy  10 x 9 dx  iv  y  3x 2  6 x  2 dy  6x  6 dx
  • 67. e.g.  i  y  7  v  y   2 x  1 2 dy 0  4x2  4 x  1 dx dy  8x  4 dx  ii  y  37 x 1 dy  vi  y  3x  2  37 x dx  3 x  x 2 dy  3  2 x 3  iii  y  x10 dx dy  10 x 9 dx  iv  y  3x 2  6 x  2 dy  6x  6 dx
  • 68. e.g.  i  y  7  v  y   2 x  1 2 dy 0  4x2  4 x  1 dx dy  8x  4 dx  ii  y  37 x 1 dy  vi  y  3x  2  37 x dx  3 x  x 2 dy  3  2 x 3  iii  y  x10 dx dy 2  10 x 9  3 3 dx x  iv  y  3x 2  6 x  2 dy  6x  6 dx
  • 69. e.g.  i  y  7  v  y   2 x  1 2  vii  y  x 2 x dy 0  4x2  4 x  1 dx dy  8x  4 dx  ii  y  37 x 1 dy  vi  y  3x  2  37 x dx  3 x  x 2 dy  3  2 x 3  iii  y  x10 dx dy 2  10 x 9  3 3 dx x  iv  y  3x 2  6 x  2 dy  6x  6 dx
  • 70. e.g.  i  y  7  v  y   2 x  1 2  vii  y  x 2 x dy 0  4x2  4 x  1 5 dx x 2 dy  8x  4 dx  ii  y  37 x 1 dy  vi  y  3x  2  37 x dx  3 x  x 2 dy  3  2 x 3  iii  y  x10 dx dy 2  10 x 9  3 3 dx x  iv  y  3x 2  6 x  2 dy  6x  6 dx
  • 71. e.g.  i  y  7  v  y   2 x  1 2  vii  y  x 2 x dy 0  4x2  4 x  1 5 dx x 2 dy  8x  4 dy 5 3 dx  x2  ii  y  37 x 1 dx 2 dy  vi  y  3x  2  37 x dx  3 x  x 2 dy  3  2 x 3  iii  y  x10 dx dy 2  10 x 9  3 3 dx x  iv  y  3x 2  6 x  2 dy  6x  6 dx
  • 72. e.g.  i  y  7  v  y   2 x  1 2  vii  y  x 2 x dy 0  4x2  4 x  1 5 dx x 2 dy  8x  4 dy 5 3 dx  x2  ii  y  37 x 1 dx 2 dy  vi  y  3x  2 5  37 x  x x dx  3 x  x 2 2 dy  3  2 x 3  iii  y  x10 dx dy 2  10 x 9  3 3 dx x  iv  y  3x 2  6 x  2 dy  6x  6 dx
  • 73. e.g.  i  y  7  v  y   2 x  1 2  vii  y  x 2 x dy 0  4x2  4 x  1 5 dx x 2 dy  8x  4 dy 5 3 dx  x2  ii  y  37 x 1 dx 2 dy  vi  y  3x  2 5  37 x  x x dx  3 x  x 2 2 dy  3  2 x 3  iii  y  x10 dx  viii  If f  x   x3  3, dy  10 x 9  3 3 2 find f   2  dx x  iv  y  3x 2  6 x  2 dy  6x  6 dx
  • 74. e.g.  i  y  7  v  y   2 x  1 2  vii  y  x 2 x dy 0  4x2  4 x  1 5 dx x 2 dy  8x  4 dy 5 3 dx  x2  ii  y  37 x 1 dx 2 dy  vi  y  3x  2 5  37 x  x x dx  3 x  x 2 2 dy  3  2 x 3  iii  y  x10 dx  viii  If f  x   x3  3, dy  10 x 9  3 3 2 find f   2  dx x f  x   x3  3  iv  y  3x 2  6 x  2 dy  6x  6 dx
  • 75. e.g.  i  y  7  v  y   2 x  1 2  vii  y  x 2 x dy 0  4x2  4 x  1 5 dx x 2 dy  8x  4 dy 5 3 dx  x2  ii  y  37 x 1 dx 2 dy  vi  y  3x  2 5  37 x  x x dx  3 x  x 2 2 dy  3  2 x 3  iii  y  x10 dx  viii  If f  x   x3  3, dy  10 x 9  3 3 2 find f   2  dx x f  x   x3  3  iv  y  3x 2  6 x  2 f   x   3x 2 dy  6x  6 dx
  • 76. e.g.  i  y  7  v  y   2 x  1 2  vii  y  x 2 x dy 0  4x2  4 x  1 5 dx x 2 dy  8x  4 dy 5 3 dx  x2  ii  y  37 x 1 dx 2 dy  vi  y  3x  2 5  37 x  x x dx  3 x  x 2 2 dy  3  2 x 3  iii  y  x10 dx  viii  If f  x   x3  3, dy  10 x 9  3 3 2 find f   2  dx x f  x   x3  3  iv  y  3x 2  6 x  2 f   x   3x 2 dy  6x  6 f   2  3 2 2 dx
  • 77. e.g.  i  y  7  v  y   2 x  1 2  vii  y  x 2 x dy 0  4x2  4 x  1 5 dx x 2 dy  8x  4 dy 5 3 dx  x2  ii  y  37 x 1 dx 2 dy  vi  y  3x  2 5  37 x  x x dx  3 x  x 2 2 dy  3  2 x 3  iii  y  x10 dx  viii  If f  x   x3  3, dy  10 x 9  3 3 2 find f   2  dx x f  x   x3  3  iv  y  3x 2  6 x  2 f   x   3x 2 dy  6x  6 f   2  3 2 2 dx  12
  • 78.  xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2 at the point 1,1
  • 79.  xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2 at the point 1,1 y  5 x3  6 x 2  2
  • 80.  xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2 at the point 1,1 y  5 x3  6 x 2  2 dy  15 x 2  12 x dx
  • 81.  xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2 at the point 1,1 y  5 x3  6 x 2  2 dy  15 x 2  12 x dx dy when x  1,  15 1  12 1 2 dx
  • 82.  xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2 at the point 1,1 y  5 x3  6 x 2  2 dy  15 x 2  12 x dx dy when x  1,  15 1  12 1 2 dx 3
  • 83.  xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2 at the point 1,1 y  5 x3  6 x 2  2 dy  15 x 2  12 x dx dy when x  1,  15 1  12 1 2 dx 3  required slope  3
  • 84.  xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2 at the point 1,1 y  5 x3  6 x 2  2 y  1  3  x  1 dy  15 x 2  12 x dx dy when x  1,  15 1  12 1 2 dx 3  required slope  3
  • 85.  xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2 at the point 1,1 y  5 x3  6 x 2  2 y  1  3  x  1 dy y  1  3x  3  15 x 2  12 x dx dy when x  1,  15 1  12 1 2 dx 3  required slope  3
  • 86.  xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2 at the point 1,1 y  5 x3  6 x 2  2 y  1  3  x  1 dy y  1  3x  3  15 x 2  12 x dx dy when x  1,  15 1  12 1 2 3x  y  2  0 dx 3  required slope  3
  • 87.  xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2 at the point 1,1 y  5 x3  6 x 2  2 y  1  3  x  1 dy y  1  3x  3  15 x 2  12 x dx dy when x  1,  15 1  12 1 2 3x  y  2  0 dx 3  required slope  3  x  Find the points on the curve y  x3  12 x where the tangents are horizontal
  • 88.  xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2 at the point 1,1 y  5 x3  6 x 2  2 y  1  3  x  1 dy y  1  3x  3  15 x 2  12 x dx dy when x  1,  15 1  12 1 2 3x  y  2  0 dx 3  required slope  3  x  Find the points on the curve y  x3  12 x where the tangents are horizontal y  x 3  12 x
  • 89.  xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2 at the point 1,1 y  5 x3  6 x 2  2 y  1  3  x  1 dy y  1  3x  3  15 x 2  12 x dx dy when x  1,  15 1  12 1 2 3x  y  2  0 dx 3  required slope  3  x  Find the points on the curve y  x3  12 x where the tangents are horizontal y  x 3  12 x dy  3 x 2  12 dx
  • 90.  xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2 at the point 1,1 y  5 x3  6 x 2  2 y  1  3  x  1 dy y  1  3x  3  15 x 2  12 x dx dy when x  1,  15 1  12 1 2 3x  y  2  0 dx 3  required slope  3  x  Find the points on the curve y  x3  12 x where the tangents are horizontal dy tangents are horizontal when 0 y  x 3  12 x dx dy  3 x 2  12 dx
  • 91.  xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2 at the point 1,1 y  5 x3  6 x 2  2 y  1  3  x  1 dy y  1  3x  3  15 x 2  12 x dx dy when x  1,  15 1  12 1 2 3x  y  2  0 dx 3  required slope  3  x  Find the points on the curve y  x3  12 x where the tangents are horizontal dy tangents are horizontal when 0 y  x 3  12 x dx i.e. 3 x  12  0 2 dy  3 x 2  12 dx
  • 92.  xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2 at the point 1,1 y  5 x3  6 x 2  2 y  1  3  x  1 dy y  1  3x  3  15 x 2  12 x dx dy when x  1,  15 1  12 1 2 3x  y  2  0 dx 3  required slope  3  x  Find the points on the curve y  x3  12 x where the tangents are horizontal dy tangents are horizontal when 0 y  x 3  12 x dx i.e. 3 x  12  0 2 dy  3 x 2  12 x2  4 dx x  2
  • 93.  xix  Find the equation of the tangent to the curve y  5 x3  6 x 2  2 at the point 1,1 y  5 x3  6 x 2  2 y  1  3  x  1 dy y  1  3x  3  15 x 2  12 x dx dy when x  1,  15 1  12 1 2 3x  y  2  0 dx 3  required slope  3  x  Find the points on the curve y  x3  12 x where the tangents are horizontal dy tangents are horizontal when 0 y  x 3  12 x dx i.e. 3 x  12  0 2 dy  3 x 2  12 x2  4 dx x  2  tangents are horizontal at  2,16  and  2, 16 
  • 94. A normal is a line perpendicular to the tangent at the point of contact
  • 95. A normal is a line perpendicular to the tangent at the point of contact y y  f  x x
  • 96. A normal is a line perpendicular to the tangent at the point of contact y y  f  x x tangent
  • 97. A normal is a line perpendicular to the tangent at the point of contact y y  f  x x normal tangent
  • 98. A normal is a line perpendicular to the tangent at the point of contact y y  f  x x normal tangent  xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at the point  3, 29 
  • 99. A normal is a line perpendicular to the tangent at the point of contact y y  f  x x normal tangent  xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at the point  3, 29  y  4 x 2  3x  2
  • 100. A normal is a line perpendicular to the tangent at the point of contact y y  f  x x normal tangent  xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at the point  3, 29  y  4 x 2  3x  2 dy  8x  3 dx
  • 101. A normal is a line perpendicular to the tangent at the point of contact y y  f  x x normal tangent  xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at the point  3, 29  y  4 x 2  3x  2 dy  8x  3 dx dy when x  3,  8  3  3 dx
  • 102. A normal is a line perpendicular to the tangent at the point of contact y y  f  x x normal tangent  xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at the point  3, 29  y  4 x 2  3x  2 dy  8x  3 dx dy when x  3,  8  3  3 dx  21
  • 103. A normal is a line perpendicular to the tangent at the point of contact y y  f  x x normal tangent  xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at the point  3, 29  y  4 x 2  3x  2 dy  8x  3 dx dy when x  3,  8  3  3 dx  21 1  required slope   21
  • 104. A normal is a line perpendicular to the tangent at the point of contact y y  f  x x normal tangent  xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at the point  3, 29  1 y  4 x  3x  2 2 y  29    x  3 dy 21  8x  3 dx dy when x  3,  8  3  3 dx  21 1  required slope   21
  • 105. A normal is a line perpendicular to the tangent at the point of contact y y  f  x x normal tangent  xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at the point  3, 29  1 y  4 x  3x  2 2 y  29    x  3 dy 21  8x  3 21 y  609   x  3 dx dy when x  3,  8  3  3 dx  21 1  required slope   21
  • 106. A normal is a line perpendicular to the tangent at the point of contact y y  f  x x normal tangent  xi  Find the equation of the normal to the curve y  4 x 2  3 x  2 at the point  3, 29  1 y  4 x  3x  2 2 y  29    x  3 dy 21  8x  3 21 y  609   x  3 dx dy when x  3,  8  3  3 x  21 y  612  0 dx  21 1  required slope   21
  • 107. Exercise 7C; 1ace etc, 2ace etc, 3ace etc, 4bd, 5bdfh, 8bd, 9bd, 10ac, 12, 13b, 16, 21 Exercise 7D; 2ac, 3bd, 4ace, 6c, 7b, 11a, 13aei, 18, 22