We derived the attractive force between two particles at a distance resulting from free degrees of freedom in space pulling two bodies toward each other. However, we did not consider any rotating effects for these hard spheres. We believe the repulsion force will manifest from the rotation of two rotating bodies. We hypothesize that the degrees of freedom rotating around the bodies can be the root of repulsive force. Here, we present our conjecture with a visualized model in Figure . Figure shows that if the spinning particle, resulting from complex Browning motion of degrees of freedom, in turn, causes a rotation in the degrees of freedom. Two rotating bodies with the same spin signs would repel each other and with opposite spin signs attract each other. Depending on the spin sign of particles, degrees of freedom rotate clockwise or counterclockwise. The direction of rotation of degrees of freedom around bodies with the same spin opposes each other which causes a repulsive force between them. On the other hand, the rotation of degrees of freedom around bodies with the opposite sign is in the same direction. In our hypothetical model, interior degrees of freedom have higher force owing to their distance from the spinning particle. The rotation of degrees of freedom slows down with the increase in the distance and eventually goes to zero.