To solve this problem we will apply the Newtonian concept of gravitational acceleration produced by a planet. This relationship is given by:
[tex]g = \frac{GM}{r^2}[/tex]
Where,
G = Gravitational Universal Constant
M = Mass of Earth
r = Radius
The values given are based on the constants of the earth, so they can be expressed as
[tex]M_p = \frac{1}{100} M_e[/tex]
[tex]r_p = \frac{1}{4} r_e[/tex]
The relationship of gravity would then be given:
[tex]g_e = \frac{GM_e}{r_e^2}[/tex]
The relationship with the new planet, from the gravity of the earth would be given
[tex]g_p = \frac{GM_p}{r_p^2}[/tex]
[tex]g_p = \frac{G(1/100)M_e}{(1/4 r_e)^2}[/tex]
[tex]g_p = \frac{GM_e 16}{100 r_e^2}[/tex]
[tex]g_p = 0.16 \frac{GM_e}{r_e^2}[/tex]
[tex]g_p = 0.16g_e[/tex]
The relationship with the weight of the earth would be given as:
[tex]W_e = m*g_e = 600N[/tex]
[tex]W_p = m*g_p = m(0.16g_p)[/tex]
[tex]W_p = (m*g_p)(0.16)[/tex]
[tex]W_p = 600*0.16[/tex]
[tex]W_p = 96N[/tex]
Therefore the weigh on this planet would be 96N