Yes, that's what I understood from your first reply, but in this case it's a sphere, not a circle, right?TheDoctor46 said:https://www.youtube.com/watch?v=m_7vcuzzM5Q&feature=youtube_gdata_player
This is, more or less, what I was talking about.
Probably my way of explaining the problem in English wasn't the best.
Thanks!
The reaction of a spherical surface on an object is the force exerted by the surface on the object when they come into contact with each other. This force can be either a normal force, which acts perpendicular to the surface, or a tangential force, which acts parallel to the surface.
The size of the spherical surface can affect the reaction force on the object in two ways. Firstly, a larger surface area means a larger contact area between the surface and the object, resulting in a larger normal force. Secondly, the curvature of the surface can also affect the tangential force, as a more curved surface will have a greater effect on the object's motion.
The magnitude of the reaction force on an object can be influenced by several factors, including the material properties of both the surface and the object, the angle of contact between the two, and the speed and direction of the object's motion.
The reaction force on an object can change as the object moves across a spherical surface. If the surface is smooth and the object is moving at a constant velocity, the reaction force will also be constant. However, if the surface is rough or the object is accelerating, the reaction force may vary and become more complex.
The reaction force on an object is directly related to the weight of the object. This means that as the weight of the object increases, the reaction force from the spherical surface will also increase. This relationship is important to consider when designing structures or objects that will be in contact with spherical surfaces.