An adult weighing 600N raises the centre of gravity of his body by 0.25m while taking each step of 1m lenth in jogging. If he jogs for 6km, calculate the energy utilised by him in jogging assuming that there is no energy loss dur to friction of ground and air. Assuming that the body of the adult is capable of converting `10%` of energy intake in the form of food, calculate the energy equivalent fo food that would be required to compensate energy utilised for jogging.

An adult weighting 600 N raises the centre of gravity of his body by 0.25 m while taking each step of 1 m length in jogging. If he jog for 6 km, calculate the energy utillised by him in jogging assuming that there is no energy loss due to friction of ground and air. Assuming that the body of the adult is capable of converting 10% of energy intake in the form of food. calculate the energy equivalents of food that would required to compensate energy utilised for jogging.

an adult weighing 600 N raises the centre of gravity of his body by 0.25 m while taking each step of 1 m length in jogging. If he jogs for 6 km, calculate the energy utilised by him in jogging assuming that there is no energy loss due to friction of ground and air.

An adult weighing 600 N raises the centre of gravity of his body by 0.25 m while taking each step of 1 m length in jogging. If he jogs for 6 km, the energy utilised by him in jogging is

An adult weighing 600 N raises the centre of gravity of his body by 0.25 m while taking each step of 1 m length in jogging. If he jogs for 6 km, the energy utilised by him in jogging is

A runner weighing 60 kg raises the CG of his body by 0.25 m during each step of 1 min length. If he runs for 6 km and there is loss of 10% of the energy due to friction of air etc. What is the total energy required by him from his intake of food ?

Why the heart beat rate is more after jogging?

Calculate the heat energy received by 5 m^2 area on the Earth's surface in 1 minute, assuming that 47 % of the solar energy strikes the Earth's surface.

A brick weighing 4.0 kg is dropped into a 1.0m deep river from a height of 2.0m Assuming that 80% of the gravitational potential energy is finally converted into thermal energy, find this thermal energy in calorie.

A brick weighing 4.0 kg is dropped into a 1.0m deep river from a height of 2.0m Assuming that 80% of the gravitational potential energy is finally converted into thermal energy, find this thermal energy in calorie.

A brick weighing 4.0 kg is dropped into a 1.0m deep river from a height of 2.0m Assuming that 80% of the gravitational potential energy is finally converted into thermal energy, find this thermal energy in calorie.