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Rates of Change
e.g. A block of ice in the form of a cube has one edge 10 cm long. It is
     melting so that its dimensions decrease at the rate of 1 mm/s.
    At what rate is the volume decreasing when the edge is 5cm long?
Rates of Change
e.g. A block of ice in the form of a cube has one edge 10 cm long. It is
     melting so that its dimensions decrease at the rate of 1 mm/s.
    At what rate is the volume decreasing when the edge is 5cm long?

              x
Rates of Change
e.g. A block of ice in the form of a cube has one edge 10 cm long. It is
     melting so that its dimensions decrease at the rate of 1 mm/s.
    At what rate is the volume decreasing when the edge is 5cm long?
                     dV
              x         ?
                     dt
Rates of Change
e.g. A block of ice in the form of a cube has one edge 10 cm long. It is
     melting so that its dimensions decrease at the rate of 1 mm/s.
    At what rate is the volume decreasing when the edge is 5cm long?

                     dV           dx     1
              x         ?           
                     dt           dt    10
Rates of Change
e.g. A block of ice in the form of a cube has one edge 10 cm long. It is
     melting so that its dimensions decrease at the rate of 1 mm/s.
    At what rate is the volume decreasing when the edge is 5cm long?

                     dV
                        ?
                                  dx
                                     
                                         1           V  x3
              x
                     dt           dt    10
Rates of Change
e.g. A block of ice in the form of a cube has one edge 10 cm long. It is
     melting so that its dimensions decrease at the rate of 1 mm/s.
    At what rate is the volume decreasing when the edge is 5cm long?

                     dV
                        ?
                                  dx
                                     
                                         1           V  x3
              x
                     dt           dt    10          dV
                                                        3x 2
                                                    dx
Rates of Change
e.g. A block of ice in the form of a cube has one edge 10 cm long. It is
     melting so that its dimensions decrease at the rate of 1 mm/s.
    At what rate is the volume decreasing when the edge is 5cm long?

                     dV
                        ?
                                  dx
                                     
                                         1           V  x3
              x
                     dt           dt    10          dV
                                                        3x 2
                                                    dx
           dV dV dx
                 
           dt   dx dt
Rates of Change
e.g. A block of ice in the form of a cube has one edge 10 cm long. It is
     melting so that its dimensions decrease at the rate of 1 mm/s.
    At what rate is the volume decreasing when the edge is 5cm long?

                        dV
                           ?
                                  dx
                                     
                                         1           V  x3
              x
                        dt        dt    10          dV
                                                        3x 2
                                                    dx
           dV dV dx
                 
           dt   dx dt
                         1
                3x  
                    2

                        10
Rates of Change
e.g. A block of ice in the form of a cube has one edge 10 cm long. It is
     melting so that its dimensions decrease at the rate of 1 mm/s.
    At what rate is the volume decreasing when the edge is 5cm long?

                        dV
                           ?
                                  dx
                                     
                                         1           V  x3
              x
                        dt        dt    10          dV
                                                        3x 2
                                                    dx
           dV dV dx
                 
           dt   dx dt
                         1
                3x  
                    2

                        10
                   3x 2
               
                   10
Rates of Change
e.g. A block of ice in the form of a cube has one edge 10 cm long. It is
     melting so that its dimensions decrease at the rate of 1 mm/s.
    At what rate is the volume decreasing when the edge is 5cm long?

                        dV
                           ?
                                  dx
                                     
                                         1           V  x3
              x
                        dt        dt    10          dV
                                                        3x 2
                                                    dx
                                                           3 5
                                                                 2
           dV dV dx                                 dV
                                      when x  5,    
           dt   dx dt                               dt       10
                         1
                3x  
                    2

                        10
                   3x 2
               
                   10
Rates of Change
e.g. A block of ice in the form of a cube has one edge 10 cm long. It is
     melting so that its dimensions decrease at the rate of 1 mm/s.
    At what rate is the volume decreasing when the edge is 5cm long?

                        dV
                           ?
                                  dx
                                     
                                         1           V  x3
              x
                        dt        dt    10          dV
                                                        3x 2
                                                    dx
                                                           3 5
                                                                 2
           dV dV dx                                 dV
                                      when x  5,    
           dt   dx dt                               dt       10
                3x  
                    2    1                              7.5
                        10
                   3x 2
               
                   10
Rates of Change
e.g. A block of ice in the form of a cube has one edge 10 cm long. It is
     melting so that its dimensions decrease at the rate of 1 mm/s.
    At what rate is the volume decreasing when the edge is 5cm long?

                        dV
                           ?
                                 dx
                                    
                                        1            V  x3
              x
                        dt       dt    10           dV
                                                        3x 2
                                                    dx
                                                           3 5
                                                                 2
           dV dV dx                                 dV
                                      when x  5,    
           dt   dx dt                               dt       10
                3x  
                    2    1                              7.5
                        10
                   3x 2             volume is decreasing at 7.5 cm3 /s
               
                   10
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.



                x
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.



                x
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.

                                  x
                                      45

                x
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
                                          x
                                  x
                                      45

                x
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
                                          x             1 2
                                                     V  r h
                                    x                  3
                                    45

                x
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
                                          x             1 2
                                                     V  r h
                                    x                  3
                                      45                1 2
                                                        x x
                  x                                     3
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
                                          x             1 2
                                                     V  r h
                                    x                  3
                                      45                1 2
                                                        x x
                  x                                     3
                                                        1 3
                                                        x
                                                        3
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
                                           x               1 2
                                                     V  r h
                                     x                    3
                                       45                  1 2
                                                          x x
                   x                                       3
                                                           1 3
                                                          x
                                                           3
     b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth
         is increasing when the water depth is 4 cm.
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
                                           x               1 2
                                                     V  r h
                                     x                    3
                                       45                  1 2
                                                          x x
                   x                                       3
                                                           1 3
                                                          x
                                                           3
     b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth
         is increasing when the water depth is 4 cm.
      dx
          ?
      dt
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
                                           x               1 2
                                                     V  r h
                                     x                    3
                                       45                  1 2
                                                          x x
                   x                                       3
                                                           1 3
                                                          x
                                                           3
     b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth
         is increasing when the water depth is 4 cm.
      dx
          ?
      dt
     dV 1
          
      dt 5
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
                                           x               1 2
                                                     V  r h
                                     x                    3
                                       45                  1 2
                                                          x x
                   x                                       3
                                                           1 3
                                                          x
                                                           3
     b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth
         is increasing when the water depth is 4 cm.
      dx
          ?
      dt
     dV 1
          
      dt 5
             1
       V   x3
             3
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
                                           x               1 2
                                                     V  r h
                                     x                    3
                                       45                  1 2
                                                          x x
                   x                                       3
                                                           1 3
                                                          x
                                                           3
     b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth
         is increasing when the water depth is 4 cm.
      dx
          ?
      dt
     dV 1
          
      dt 5
             1
       V   x3
     dV 3 2
          x
     dx
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
                                           x               1 2
                                                     V  r h
                                     x                    3
                                       45                  1 2
                                                          x x
                   x                                       3
                                                           1 3
                                                          x
                                                           3
     b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth
         is increasing when the water depth is 4 cm.
      dx           dx dx dV
          ?               
      dt            dt dV dt
     dV 1
          
      dt 5
             1
       V   x3
     dV 3 2
          x
     dx
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
                                           x               1 2
                                                     V  r h
                                     x                    3
                                       45                  1 2
                                                          x x
                   x                                       3
                                                           1 3
                                                          x
                                                           3
     b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth
         is increasing when the water depth is 4 cm.
      dx           dx dx dV
          ?               
      dt            dt dV dt
     dV 1
                         1 1
      dt 5              2
             1 3        x 5
       V  x
     dV 3 2
          x
     dx
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
                                           x               1 2
                                                     V  r h
                                     x                    3
                                       45                  1 2
                                                          x x
                   x                                       3
                                                           1 3
                                                          x
                                                           3
     b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth
         is increasing when the water depth is 4 cm.
      dx           dx dx dV
          ?               
      dt            dt dV dt
     dV 1
                         1 1
      dt 5              2
             1 3        x 5
       V  x             1
     dV      3        
          x  2
                        5 x 2
     dx
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
                                           x               1 2
                                                     V  r h
                                     x                    3
                                       45                  1 2
                                                          x x
                   x                                       3
                                                           1 3
                                                          x
                                                           3
     b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth
         is increasing when the water depth is 4 cm.
      dx           dx dx dV                     dx      1
          ?                     when x  4, 
      dt            dt dV dt                    dt 5  4 2
     dV 1
                         1 1
      dt 5              2
             1 3        x 5
       V  x             1
     dV      3        
          x  2
                        5 x 2
     dx
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
                                           x               1 2
                                                      V  r h
                                     x                    3
                                       45                  1 2
                                                          x x
                   x                                       3
                                                           1 3
                                                          x
                                                           3
     b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth
         is increasing when the water depth is 4 cm.
      dx           dx dx dV                     dx      1
          ?                     when x  4, 
      dt            dt dV dt                    dt 5  4 2
     dV 1
                         1 1                       
                                                       1
                        2
      dt 5
                        x 5                          80
             1
       V   x3           1
     dV      3        
          x  2
                        5 x 2
     dx
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
                                           x               1 2
                                                       V  r h
                                     x                    3
                                       45                  1 2
                                                          x x
                   x                                       3
                                                           1 3
                                                          x
                                                           3
     b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth
         is increasing when the water depth is 4 cm.
      dx           dx dx dV                     dx       1
          ?                     when x  4, 
      dt            dt dV dt                    dt 5  4 2
     dV 1
                         1 1                        
                                                        1
                        2
      dt 5
                        x 5                           80
             1
       V   x3                          depth is increasing
                          1
     dV      3                                 1
          x  2
                        5 x 2              at      cm/min
     dx                                        80
(ii) A vessel is in the form of an inverted cone with a vertical angle of 90
     If the depth of the water in the vessel is x cm;
     a) find the volume of water.
                                           x               1 2
                                                       V  r h
                                     x                    3
                                       45                  1 2
                                                          x x
                   x                                       3
                                                           1 3
                                                          x
                                                           3
     b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth
         is increasing when the water depth is 4 cm.
      dx           dx dx dV                     dx       1
          ?                     when x  4, 
      dt            dt dV dt                    dt 5  4 2 Exercise 7H;
     dV 1                                                           1a, 2a, 4,
                         1 1                        
                                                        1
                        2
      dt 5
                        x 5                           80         6, 7, 8, 10,
             1
       V   x3                          depth is increasing         12, 14
                          1
     dV 3 2                                    1
          x           5 x 2              at      cm/min
     dx                                        80

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11X1 T09 07 rates of change (2010)

  • 1. Rates of Change e.g. A block of ice in the form of a cube has one edge 10 cm long. It is melting so that its dimensions decrease at the rate of 1 mm/s. At what rate is the volume decreasing when the edge is 5cm long?
  • 2. Rates of Change e.g. A block of ice in the form of a cube has one edge 10 cm long. It is melting so that its dimensions decrease at the rate of 1 mm/s. At what rate is the volume decreasing when the edge is 5cm long? x
  • 3. Rates of Change e.g. A block of ice in the form of a cube has one edge 10 cm long. It is melting so that its dimensions decrease at the rate of 1 mm/s. At what rate is the volume decreasing when the edge is 5cm long? dV x ? dt
  • 4. Rates of Change e.g. A block of ice in the form of a cube has one edge 10 cm long. It is melting so that its dimensions decrease at the rate of 1 mm/s. At what rate is the volume decreasing when the edge is 5cm long? dV dx 1 x ?  dt dt 10
  • 5. Rates of Change e.g. A block of ice in the form of a cube has one edge 10 cm long. It is melting so that its dimensions decrease at the rate of 1 mm/s. At what rate is the volume decreasing when the edge is 5cm long? dV ? dx  1 V  x3 x dt dt 10
  • 6. Rates of Change e.g. A block of ice in the form of a cube has one edge 10 cm long. It is melting so that its dimensions decrease at the rate of 1 mm/s. At what rate is the volume decreasing when the edge is 5cm long? dV ? dx  1 V  x3 x dt dt 10 dV  3x 2 dx
  • 7. Rates of Change e.g. A block of ice in the form of a cube has one edge 10 cm long. It is melting so that its dimensions decrease at the rate of 1 mm/s. At what rate is the volume decreasing when the edge is 5cm long? dV ? dx  1 V  x3 x dt dt 10 dV  3x 2 dx dV dV dx   dt dx dt
  • 8. Rates of Change e.g. A block of ice in the form of a cube has one edge 10 cm long. It is melting so that its dimensions decrease at the rate of 1 mm/s. At what rate is the volume decreasing when the edge is 5cm long? dV ? dx  1 V  x3 x dt dt 10 dV  3x 2 dx dV dV dx   dt dx dt 1  3x   2 10
  • 9. Rates of Change e.g. A block of ice in the form of a cube has one edge 10 cm long. It is melting so that its dimensions decrease at the rate of 1 mm/s. At what rate is the volume decreasing when the edge is 5cm long? dV ? dx  1 V  x3 x dt dt 10 dV  3x 2 dx dV dV dx   dt dx dt 1  3x   2 10 3x 2  10
  • 10. Rates of Change e.g. A block of ice in the form of a cube has one edge 10 cm long. It is melting so that its dimensions decrease at the rate of 1 mm/s. At what rate is the volume decreasing when the edge is 5cm long? dV ? dx  1 V  x3 x dt dt 10 dV  3x 2 dx 3 5 2 dV dV dx dV   when x  5,  dt dx dt dt 10 1  3x   2 10 3x 2  10
  • 11. Rates of Change e.g. A block of ice in the form of a cube has one edge 10 cm long. It is melting so that its dimensions decrease at the rate of 1 mm/s. At what rate is the volume decreasing when the edge is 5cm long? dV ? dx  1 V  x3 x dt dt 10 dV  3x 2 dx 3 5 2 dV dV dx dV   when x  5,  dt dx dt dt 10  3x   2 1  7.5 10 3x 2  10
  • 12. Rates of Change e.g. A block of ice in the form of a cube has one edge 10 cm long. It is melting so that its dimensions decrease at the rate of 1 mm/s. At what rate is the volume decreasing when the edge is 5cm long? dV ? dx  1 V  x3 x dt dt 10 dV  3x 2 dx 3 5 2 dV dV dx dV   when x  5,  dt dx dt dt 10  3x   2 1  7.5 10 3x 2  volume is decreasing at 7.5 cm3 /s  10
  • 13. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water.
  • 14. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water.
  • 15. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x
  • 16. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x
  • 17. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x 45 x
  • 18. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x x 45 x
  • 19. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x 1 2 V  r h x  3 45 x
  • 20. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x 1 2 V  r h x  3 45 1 2  x x x 3
  • 21. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x 1 2 V  r h x  3 45 1 2  x x x 3 1 3  x 3
  • 22. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x 1 2 V  r h x  3 45 1 2  x x x 3 1 3  x 3 b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth is increasing when the water depth is 4 cm.
  • 23. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x 1 2 V  r h x  3 45 1 2  x x x 3 1 3  x 3 b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth is increasing when the water depth is 4 cm. dx ? dt
  • 24. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x 1 2 V  r h x  3 45 1 2  x x x 3 1 3  x 3 b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth is increasing when the water depth is 4 cm. dx ? dt dV 1  dt 5
  • 25. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x 1 2 V  r h x  3 45 1 2  x x x 3 1 3  x 3 b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth is increasing when the water depth is 4 cm. dx ? dt dV 1  dt 5 1 V   x3 3
  • 26. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x 1 2 V  r h x  3 45 1 2  x x x 3 1 3  x 3 b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth is increasing when the water depth is 4 cm. dx ? dt dV 1  dt 5 1 V   x3 dV 3 2 x dx
  • 27. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x 1 2 V  r h x  3 45 1 2  x x x 3 1 3  x 3 b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth is increasing when the water depth is 4 cm. dx dx dx dV ?   dt dt dV dt dV 1  dt 5 1 V   x3 dV 3 2 x dx
  • 28. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x 1 2 V  r h x  3 45 1 2  x x x 3 1 3  x 3 b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth is increasing when the water depth is 4 cm. dx dx dx dV ?   dt dt dV dt dV 1  1 1 dt 5  2 1 3 x 5 V  x dV 3 2 x dx
  • 29. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x 1 2 V  r h x  3 45 1 2  x x x 3 1 3  x 3 b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth is increasing when the water depth is 4 cm. dx dx dx dV ?   dt dt dV dt dV 1  1 1 dt 5  2 1 3 x 5 V  x 1 dV 3  x 2 5 x 2 dx
  • 30. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x 1 2 V  r h x  3 45 1 2  x x x 3 1 3  x 3 b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth is increasing when the water depth is 4 cm. dx dx dx dV dx 1 ?   when x  4,  dt dt dV dt dt 5  4 2 dV 1  1 1 dt 5  2 1 3 x 5 V  x 1 dV 3  x 2 5 x 2 dx
  • 31. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x 1 2 V  r h x  3 45 1 2  x x x 3 1 3  x 3 b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth is increasing when the water depth is 4 cm. dx dx dx dV dx 1 ?   when x  4,  dt dt dV dt dt 5  4 2 dV 1  1 1  1  2 dt 5 x 5 80 1 V   x3 1 dV 3  x 2 5 x 2 dx
  • 32. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x 1 2 V  r h x  3 45 1 2  x x x 3 1 3  x 3 b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth is increasing when the water depth is 4 cm. dx dx dx dV dx 1 ?   when x  4,  dt dt dV dt dt 5  4 2 dV 1  1 1  1  2 dt 5 x 5 80 1 V   x3  depth is increasing 1 dV 3  1 x 2 5 x 2 at cm/min dx 80
  • 33. (ii) A vessel is in the form of an inverted cone with a vertical angle of 90 If the depth of the water in the vessel is x cm; a) find the volume of water. x 1 2 V  r h x  3 45 1 2  x x x 3 1 3  x 3 b) If water is poured in at a rate of 0.2 cm3 /min, find the rate the depth is increasing when the water depth is 4 cm. dx dx dx dV dx 1 ?   when x  4,  dt dt dV dt dt 5  4 2 Exercise 7H; dV 1 1a, 2a, 4,  1 1  1  2 dt 5 x 5 80 6, 7, 8, 10, 1 V   x3  depth is increasing 12, 14 1 dV 3 2  1 x 5 x 2 at cm/min dx 80