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Differentiability
Differentiability
A function is differentiable at a point if the curve is smooth continuous
                      i.e. lim f   x   lim f   x 
                         x a         x a
Differentiability
A function is differentiable at a point if the curve is smooth continuous
                      i.e. lim f   x   lim f   x 
                         x a         x a


               y
                          y  x 1

               1
                   1      x
Differentiability
A function is differentiable at a point if the curve is smooth continuous
                      i.e. lim f   x   lim f   x 
                          x a        x a


               y
                           y  x 1

               1
                   1       x



   not differentiable at x = 1
Differentiability
A function is differentiable at a point if the curve is smooth continuous
                      i.e. lim f   x   lim f   x 
                          x a        x a


                 y
                           y  x 1

                  1
                      1    x



   not differentiable at x = 1

 lim f   x   1
    
 x1
Differentiability
A function is differentiable at a point if the curve is smooth continuous
                      i.e. lim f   x   lim f   x 
                                 x a         x a


                 y
                                   y  x 1

                  1
                      1           x



   not differentiable at x = 1

 lim f   x   1
    
                          lim f   x   1
                             
 x1                      x1
Differentiability
A function is differentiable at a point if the curve is smooth continuous
                      i.e. lim f   x   lim f   x 
                                 x a         x a


                 y                                     y       y  x2
                                   y  x 1

                  1
                      1           x                               x




   not differentiable at x = 1

 lim f   x   1
    
                          lim f   x   1
                             
 x1                      x1
Differentiability
A function is differentiable at a point if the curve is smooth continuous
                      i.e. lim f   x   lim f   x 
                                 x a         x a


                 y                                     y       y  x2
                                   y  x 1

                  1
                      1           x                        1      x




   not differentiable at x = 1

 lim f   x   1
    
                          lim f   x   1
                             
 x1                      x1
Differentiability
A function is differentiable at a point if the curve is smooth continuous
                      i.e. lim f   x   lim f   x 
                                 x a         x a


                 y                                            y        y  x2
                                   y  x 1

                  1
                      1           x                               1       x




   not differentiable at x = 1                       differentiable at x = 1

 lim f   x   1
    
                          lim f   x   1
                             
 x1                      x1
Implicit Differentiation
Implicit Differentiation
         df df dy
            
         dx dy dx
Implicit Differentiation
                   df df dy
                      
                   dx dy dx
e.g. (i) x  y 2
Implicit Differentiation
                      df df dy
                         
                      dx dy dx
e.g. (i) x  y 2
        x   y 
    d        d 2
   dx        dx
Implicit Differentiation
                          df df dy
                             
                          dx dy dx
e.g. (i) x  y 2
        x   y 
    d        d 2
   dx        dx




                      d 2
                      dx
                          y   dy  y   dx
                                 d 2 dy
Implicit Differentiation
                          df df dy
                             
                          dx dy dx
e.g. (i) x  y 2
        x   y 
    d        d 2
   dx        dx
                 dy
          1 2y
                 dx


                      d 2
                      dx
                          y   dy  y   dx
                                 d 2 dy
Implicit Differentiation
                          df df dy
                             
                          dx dy dx
e.g. (i) x  y 2
        x   y 
    d         d 2
   dx         dx
                 dy
          1 2y
                 dx
        dy 1
            
        dx 2 y
                      d 2
                      dx
                          y   dy  y   dx
                                 d 2 dy
Implicit Differentiation
                          df df dy
                             
                          dx dy dx
e.g. (i) x  y 2                       (ii)
                                            dx
                                               x y 
                                            d 2 3

        x   y 
    d         d 2
   dx         dx
                 dy
          1 2y
                 dx
        dy 1
            
        dx 2 y
                      d 2
                      dx
                          y   dy  y   dx
                                 d 2 dy
Implicit Differentiation
                          df df dy
                             
                          dx dy dx
e.g. (i) x  y 2                       (ii)
                                            dx
                                               x y 
                                            d 2 3

        x   y 
    d         d 2
                                                 2     2 dy 
   dx         dx                              x  3y         y3   2 x 
                 dy                                      dx 
          1 2y
                 dx
        dy 1
            
        dx 2 y
                      d 2
                      dx
                          y   dy  y   dx
                                 d 2 dy
Implicit Differentiation
                          df df dy
                             
                          dx dy dx
e.g. (i) x  y 2                       (ii)
                                            dx
                                               x y 
                                            d 2 3

        x   y 
    d         d 2
                                                 2     2 dy 
   dx         dx                              x  3y         y3   2 x 
                 dy                                      dx 
          1 2y                                   2 2 dy
                 dx                           3x y        2 xy 3
        dy 1                                          dx
            
        dx 2 y
                      d 2
                      dx
                          y   dy  y   dx
                                 d 2 dy
 iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2 
 iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2 
          x2  y 2  9
 iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2 
         x2  y 2  9
              dy
      2x  2 y  0
              dx
 iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2 
         x2  y 2  9
              dy
      2x  2 y  0
              dx
              dy
           2 y  2 x
              dx
 iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2 
         x2  y 2  9
              dy
      2x  2 y  0
              dx
              dy
           2 y  2 x
              dx
              dy      x
                  
              dx      y
 iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2 
            x2  y 2  9
                 dy
         2x  2 y  0
                 dx
                 dy
              2 y  2 x
                 dx
                 dy      x
                     
                 dx      y

     
  at 1, 2 2 ,    dy
                  dx
                     
                         1
                        2 2
 iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2 
            x2  y 2  9
                 dy
         2x  2 y  0
                 dx
                 dy
              2 y  2 x
                 dx
                 dy      x
                     
                 dx      y

     
  at 1, 2 2 ,    dy
                  dx
                     
                         1
                        2 2
                         1
 required slope  
                        2 2
 iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2 
            x2  y 2  9                                   1
                 dy                         y2 2              x  1
         2x  2 y  0                                     2 2
                 dx
                 dy
              2 y  2 x
                 dx
                 dy      x
                     
                 dx      y

     
  at 1, 2 2 ,    dy
                  dx
                     
                         1
                        2 2
                         1
 required slope  
                        2 2
 iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2 
            x2  y 2  9                                   1
                 dy                         y2 2              x  1
         2x  2 y  0                                     2 2
                 dx
                                           2 2y  8  x 1
                 dy
              2 y  2 x
                 dx
                 dy      x
                     
                 dx      y

     
  at 1, 2 2 ,    dy
                  dx
                     
                         1
                        2 2
                         1
 required slope  
                        2 2
 iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2 
            x2  y 2  9                                   1
                 dy                         y2 2              x  1
         2x  2 y  0                                     2 2
                 dx
                                           2 2y  8  x 1
                 dy
              2 y  2 x
                 dx                          x  2 2y  9  0
                 dy      x
                     
                 dx      y

     
  at 1, 2 2 ,    dy
                  dx
                     
                         1
                        2 2
                         1
 required slope  
                        2 2
 iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2 
            x2  y 2  9                                   1
                 dy                         y2 2              x  1
         2x  2 y  0                                     2 2
                 dx
                                           2 2y  8  x 1
                 dy
              2 y  2 x
                 dx                          x  2 2y  9  0
                 dy      x
                     
                 dx      y

     
  at 1, 2 2 ,    dy
                  dx
                     
                         1
                        2 2
                         1             Exercise 7K; 1acegi, 2bdfh, 3a,
 required slope  
                        2 2                       4a, 7, 8

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11 x1 t09 08 implicit differentiation (2012)

  • 2. Differentiability A function is differentiable at a point if the curve is smooth continuous i.e. lim f   x   lim f   x  x a x a
  • 3. Differentiability A function is differentiable at a point if the curve is smooth continuous i.e. lim f   x   lim f   x  x a x a y y  x 1 1 1 x
  • 4. Differentiability A function is differentiable at a point if the curve is smooth continuous i.e. lim f   x   lim f   x  x a x a y y  x 1 1 1 x not differentiable at x = 1
  • 5. Differentiability A function is differentiable at a point if the curve is smooth continuous i.e. lim f   x   lim f   x  x a x a y y  x 1 1 1 x not differentiable at x = 1 lim f   x   1  x1
  • 6. Differentiability A function is differentiable at a point if the curve is smooth continuous i.e. lim f   x   lim f   x  x a x a y y  x 1 1 1 x not differentiable at x = 1 lim f   x   1  lim f   x   1  x1 x1
  • 7. Differentiability A function is differentiable at a point if the curve is smooth continuous i.e. lim f   x   lim f   x  x a x a y y y  x2 y  x 1 1 1 x x not differentiable at x = 1 lim f   x   1  lim f   x   1  x1 x1
  • 8. Differentiability A function is differentiable at a point if the curve is smooth continuous i.e. lim f   x   lim f   x  x a x a y y y  x2 y  x 1 1 1 x 1 x not differentiable at x = 1 lim f   x   1  lim f   x   1  x1 x1
  • 9. Differentiability A function is differentiable at a point if the curve is smooth continuous i.e. lim f   x   lim f   x  x a x a y y y  x2 y  x 1 1 1 x 1 x not differentiable at x = 1 differentiable at x = 1 lim f   x   1  lim f   x   1  x1 x1
  • 11. Implicit Differentiation df df dy   dx dy dx
  • 12. Implicit Differentiation df df dy   dx dy dx e.g. (i) x  y 2
  • 13. Implicit Differentiation df df dy   dx dy dx e.g. (i) x  y 2  x   y  d d 2 dx dx
  • 14. Implicit Differentiation df df dy   dx dy dx e.g. (i) x  y 2  x   y  d d 2 dx dx d 2 dx  y   dy  y   dx d 2 dy
  • 15. Implicit Differentiation df df dy   dx dy dx e.g. (i) x  y 2  x   y  d d 2 dx dx dy 1 2y dx d 2 dx  y   dy  y   dx d 2 dy
  • 16. Implicit Differentiation df df dy   dx dy dx e.g. (i) x  y 2  x   y  d d 2 dx dx dy 1 2y dx dy 1  dx 2 y d 2 dx  y   dy  y   dx d 2 dy
  • 17. Implicit Differentiation df df dy   dx dy dx e.g. (i) x  y 2 (ii) dx x y  d 2 3  x   y  d d 2 dx dx dy 1 2y dx dy 1  dx 2 y d 2 dx  y   dy  y   dx d 2 dy
  • 18. Implicit Differentiation df df dy   dx dy dx e.g. (i) x  y 2 (ii) dx x y  d 2 3  x   y  d d 2 2  2 dy  dx dx   x  3y    y3   2 x  dy  dx  1 2y dx dy 1  dx 2 y d 2 dx  y   dy  y   dx d 2 dy
  • 19. Implicit Differentiation df df dy   dx dy dx e.g. (i) x  y 2 (ii) dx x y  d 2 3  x   y  d d 2 2  2 dy  dx dx   x  3y    y3   2 x  dy  dx  1 2y 2 2 dy dx  3x y  2 xy 3 dy 1 dx  dx 2 y d 2 dx  y   dy  y   dx d 2 dy
  • 20.  iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2 
  • 21.  iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2  x2  y 2  9
  • 22.  iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2  x2  y 2  9 dy 2x  2 y  0 dx
  • 23.  iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2  x2  y 2  9 dy 2x  2 y  0 dx dy 2 y  2 x dx
  • 24.  iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2  x2  y 2  9 dy 2x  2 y  0 dx dy 2 y  2 x dx dy x  dx y
  • 25.  iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2  x2  y 2  9 dy 2x  2 y  0 dx dy 2 y  2 x dx dy x  dx y  at 1, 2 2 ,  dy dx  1 2 2
  • 26.  iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2  x2  y 2  9 dy 2x  2 y  0 dx dy 2 y  2 x dx dy x  dx y  at 1, 2 2 ,  dy dx  1 2 2 1  required slope   2 2
  • 27.  iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2  x2  y 2  9 1 dy y2 2    x  1 2x  2 y  0 2 2 dx dy 2 y  2 x dx dy x  dx y  at 1, 2 2 ,  dy dx  1 2 2 1  required slope   2 2
  • 28.  iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2  x2  y 2  9 1 dy y2 2    x  1 2x  2 y  0 2 2 dx 2 2y  8  x 1 dy 2 y  2 x dx dy x  dx y  at 1, 2 2 ,  dy dx  1 2 2 1  required slope   2 2
  • 29.  iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2  x2  y 2  9 1 dy y2 2    x  1 2x  2 y  0 2 2 dx 2 2y  8  x 1 dy 2 y  2 x dx x  2 2y  9  0 dy x  dx y  at 1, 2 2 ,  dy dx  1 2 2 1  required slope   2 2
  • 30.  iii  Find the equation of the tangent to x 2  y 2  9 at the point 1, 2 2  x2  y 2  9 1 dy y2 2    x  1 2x  2 y  0 2 2 dx 2 2y  8  x 1 dy 2 y  2 x dx x  2 2y  9  0 dy x  dx y  at 1, 2 2 ,  dy dx  1 2 2 1 Exercise 7K; 1acegi, 2bdfh, 3a,  required slope   2 2 4a, 7, 8