An astronaut named Alex is exploring a newly discovered planet, Xylon, which has a mass of 5 × 10²⁴ kg and a radius of 6,400 km. Alex, with a mass of 80 kg, is on the surface of Planet Xylon. The planet is unique because it has only one-sixth of the density of Earth but the same surface gravity.

Newton's Universal Law of Gravitation, Gravitational Constant G, Acceleration Due to Gravity, Weight of an Object on Earth | PadhAiPro

Question

CASE_STUDIESNewton's Universal Law of GravitationGravitational Constant GAcceleration Due to GravityWeight of an Object on Earth3 sub-questions

Similar Questions

A man weighs 600N on the surface of earth. What would be his mass and weight on the surface of moon? (take of g_earth = 10m/s²).

TextDifference Between Mass and WeightWeight of an Object on EarthWeight of an Object on Moon

What happens to the magnitude of the force of gravitation between two objects if -

CASE_STUDIESNewton's Universal Law of Gravitation

Calculate the weight of an astronaut of mass 60 kg on the surface of the earth and on the surface of the moon. Also calculate the ratio of mass of astronaut on the surface of the earth and on the surface of the moon. Given that acceleration due to gravity on the surface of moon is one-sixth of that on the earth.

TextDifference Between Mass and WeightWeight of an Object on EarthWeight of an Object on Moon

Calculate the weight of an astronaut of mass 66 kg on the surface of the earth and on the surface of the moon. Also calculate the ratio of mass of astronaut on the surface of the earth and on the surface of the moon. Given that acceleration due to gravity on the surface of moon is one-sixth of that on the earth.

TextAcceleration Due to GravityWeight of an Object on EarthWeight of an Object on Moon

If two objects have masses m₁ and m₂ and are separated by a distance d, what happens to the gravitational force between them if the distance is doubled?

MCQ (Single)Newton's Universal Law of Gravitation

With the help of Second Law of Motion and the Universal Law of Gravitation derive an expression for acceleration due to gravity 'g'.

TextNewton's Second Law of MotionNewton's Universal Law of GravitationFree Fall of ObjectsAcceleration Due to GravityWeight of an Object on Moon