The velocity of a body falling freely under acceleration due to gravity g varies as `g^(p)h^(q)` where h is decrease in height of the body. What are the values of p and q?

The velocity of a body falling freely under gravitational field varies as g^(p)h^(q) , where g is gravitational acceleration and h is height from which the body is released. p and q are given by

What is the effect of mass of the body on acceleration due to gravity (g)?

Using the dimensional method, show that the velocity v of a body falling freely under gravity varies as sqrt"gh" where g is the acceleration due to gravity and h is distance through which the body falls.

The velocity of a freely falling body changes as g^ph^q where g is acceleration due to gravity and h is the height. The values of p and q are

The velocity of a freely falling body changes as g^ph^q where g is acceleration due to gravity and h is the height. The values of p and q are

Find ratio of acceleration due to gravity g at depth d and at height h where d=2h

The velocity of a body which has fallen under gravity varies as g^(a) h^(b) where g is the acceleration due to gravity at a place and h is the height through which the body has fallen, a and b are given by

Find the value of a and b in the following cases : (a) The velocity v of the ball falling freely under gravity is proportional to g^(a) h^(b) , where g is the acceleration due to gravity, h is the height from which the ball is dropped. (b) The kinetic energy K of a rotating body is proportional to I^(a) omega^(b) where I is the moment if inertia and omega is the angular speed. (c ) The time-period T of spring pendulum is proportiona to m^(a) k^(b) , where m is the mass of block attached to the spring and k is the spring constant. The speed of sound v in a gaseous medium is proportional to P^(a) rho^(b) , where P is the pressure and rho is the density of medium.