Look at the figure of a ball resting on top of a wall. At A, it's energy is 50 J. It falls down, at B its PE is 30 J.

Which law helped us to calculate the energies above?

Look at the figure of a ball resting on top of a wall. At A, it's energy is 50 J. It falls down, at B its PE is 30 J. What is the KE at the point B.

Look at the figure of a ball resting on top of a wall. At A, it's energy is 50 J. It falls down, at B its PE is 30 J. Write the value of PE and KE at point A.

Look at the figure of a ball resting on top of a wall. At A, it's energy is 50 J. It falls down, at B its PE is 30 J. What will be the total energy at point C?

Look at the figure of a ball resting on top of a wall. At A, it's energy is 50 J. It falls down, at B its PE is 30 J. What kind of energy does the ball have just before touching the ground? What is the value of this energy?

4500 J of energy is used to raise an object with a mass of 50 kg to a height h. Calculate h.

A car resting on top of a hill at point I (Fig. C) has a PE of 16000 J. a. Calculate its kinetic energy at II, if its PE at that point is 9000 J. b. What will be its KE as it reaches the final point lll down the hill? c. What will be its PE at the point III? d. What will be its mechanical energy at points I, II, and III? e. Which law helped you to arrive at

Look at the figure given below and answer the following questions: If the car is at rest at W and has a maximum PE of 6000 J What will be its KE at X, if PE = 0?

In a cyclic process shown in the figure an ideal gas is adiabatically taken from B to A , the work done on the gas during the process B to A is 30,J when the gas is taken from A to B the heat absorbed by the gas is 20 J Then change in internal energy of the gas in the process A to B is :

In a cyclic process shown in the figure an ideal gas is adiabatically taken from B to A , the work done on the gas during the process B to A is 30,J when the gas is taken from A to B the heat absorbed by the gas is 20 J Then change in internal energy of the gas in the process A to B is :

In a cyclic process shown in the figure an ideal gas is adiabatically taken from B to A , the work done on the gas during the process B to A is 30,J when the gas is taken from A to B the heat absorbed by the gas is 20 J Then change in internal energy of the gas in the process A to B is :