
Which of the following potential energy curves in figure., cannot possibley describly describe the elastic collision of two billiard balls ? Here r is distance between centres of the balls.


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Correct Answer – C
The potential energy of a system of two masses varies inversely as the distance (r) between them.
i.e. `V(r)prop 1/r`
When the two billiard balls touch each other potential energy becomes zero, i.e at r=R+R=2R,V(r)=0
Out of the given graphs, only curve (c ) satisfies these conditions. Therefore, all other curves cannot possibly describe the elastic collision of two billiard balls.
Which of the following potential energy curves in Figure cannot possibly describe the elastic collision of two billiard balls? Here r is the distance between the centres of balls.
Which of the following potential energy curves in Figure cannot possibly describe the elastic collision of two billiard balls? Here r is the distance between the centres of balls.
The potential energy of a system of two masses varies inversely as the distance (r) between them i.e.
V(r) < \(\frac{1}{r} \) When the two balls touch each other, PE becomes zero i.e. at r – R + R = 2R , v (r) = 0. Out of the given graphs only the curve (V) satisfies these two conditions.
The potential energy of a system of two masses varies inveresly as the distance ® between them, i.e., `V(r)prop(1)/(r)`. When the twor billiard balls touch eachother,P.E. becomes zero i.e. at `r=R+R=2R,V(r )=0`. Out of the given curve (v) only satisfies these two conditions. Therefore, all other curves cannot possibly describe the elastic collision of two biliard balls.
The potential energy of a system of two masses varies inversely as the distance(r) between 1
them, i.e., `V(r)alpha 1//r`. When the two billard touch each other, P.E. Becomes zero i.e.,at r=R+R=2R, V(r) =0. Out of the given graphs, curve (v) only satisfies these two condition. Therefore, all other curves cannot possibly describe the eleastic collision of two billiard balls.