Podcast
Questions and Answers
What is the power generated by the turbine when water falls from a height of 60 m at the rate of 10 kg/s to operate a turbine, considering 20% losses due to frictional forces? (Given: g = 10 m/s$^2$)
What is the power generated by the turbine when water falls from a height of 60 m at the rate of 10 kg/s to operate a turbine, considering 20% losses due to frictional forces? (Given: g = 10 m/s$^2$)
- 4.8 kW
- 2.4 kW (correct)
- 6 kW
- 4.8 W
Match the moment of inertia of a uniform ring (M, R) about an axis passing through the centre and normal to its plane.
Match the moment of inertia of a uniform ring (M, R) about an axis passing through the centre and normal to its plane.
- (P) $MR^2$
- (R) $rac{MR^2}{3}$
- (A) Moment of inertia of uniform ring (M, R) about an axis passing through centre and normal to its plane (correct)
- (Q) $rac{MR^2}{2}$
What is the power generated by the turbine when water falls from a height of 60 m at the rate of 10 kg/s to operate a turbine, considering 20% losses due to frictional forces? (Given: g = 10 m/s$^2$)
What is the power generated by the turbine when water falls from a height of 60 m at the rate of 10 kg/s to operate a turbine, considering 20% losses due to frictional forces? (Given: g = 10 m/s$^2$)
- 4.8 kW (correct)
- 5.2 kW
- 4.8 W
- 2.4 kW
Match the moment of inertia of a uniform ring (M, R) about an axis passing through the centre and normal to its plane.
Match the moment of inertia of a uniform ring (M, R) about an axis passing through the centre and normal to its plane.
Flashcards
Turbine Power Output
Turbine Power Output
The effective power output of the turbine is 2.4 kW, derived from the potential energy of water falling from 60m at a rate of 10 kg/s, accounting for 20% frictional losses.
Moment of Inertia of a Ring
Moment of Inertia of a Ring
The moment of inertia of a uniform ring (M, R) about an axis passing through the center and normal to its plane is MR^2.
