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Find the binding energy of a satellite o...

Find the binding energy of a satellite of mass `m` in orbit of radius `r`, (R = radius of earth, g = acceleration due to gravity)

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To find the binding energy of a satellite of mass \( m \) in an orbit of radius \( r \), we can follow these steps: ### Step 1: Understand the Concept of Binding Energy The binding energy of a satellite is defined as the energy required to remove the satellite from its orbit to infinity. It is equal to the negative of the total mechanical energy of the satellite in orbit. ### Step 2: Total Mechanical Energy of the Satellite The total mechanical energy \( E \) of a satellite in orbit is given by the formula: \[ ...
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DC PANDEY ENGLISH-GRAVITATION-(C) Chapter Exercises
  1. Find the binding energy of a satellite of mass m in orbit of radius r...

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  2. Starting from the centre of the earth having radius R, the variation o...

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  3. A satellite of mass m is orbiting the earth (of radius R) at a height ...

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  4. At what height from the surface of earth the gravitation potential and...

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  5. The ratio of escape velocity at earth (V(e)) to the escape velocity at...

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  6. Kepler's third law states that square of period of revolution (T) of a...

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  7. The reading of a spring balance corresponds to 100 N while situated at...

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  8. The gravitational field due to an uniform solid sphere of mass M and r...

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  9. What would be the value of acceleration due to gravity at a point 5 km...

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  10. Two particles of equal mass m go round a circle of radius R under the ...

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  11. What would be the escape velocity from the moon, it the mass of the mo...

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  12. Two spheres of masses 16 kg and 4 kg are separated by a distance 30 m ...

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  13. Orbital velocity of an artificial satellite does not depend upon

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  14. Gravitational potential energy of body of mass m at a height of h abov...

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  15. According to Kepler's law of planetary motion, if T represents time pe...

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  16. If mass of a body is M on the earth surface, then the mass of the same...

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  17. Two spherical bodies of masses m and 5m and radii R and 2R respectivel...

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  18. The force of gravitation is

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  19. Dependence of intensity of gravitational field (E) of earth with dista...

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  20. Keeping the mass of the earth as constant, if its radius is reduced to...

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  21. A body of mass m is raised to a height 10 R from the surface of the ea...

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