The force involved while pushing a box with a rod is typically a combination of your applied force (pushing with the rod) and frictional forces between the box and the surface it's on. The applied force from the rod helps overcome the static friction between the box and the surface, allowing the box to move.
Pushing a box that doesn't move indicates an unbalanced force. If the force of friction opposing the push is greater than the force you are exerting, the box will not move. In this case, the forces are unbalanced.
If a box is slowing down while being pushed, it suggests that there is an unbalanced force acting on it. The force causing the box to slow down is greater than the force pushing it, creating an imbalance.
Well, depending on which way you are pushing, it could be one of three forces. If you are pushing along a table, then it is friction that is preventing the box from moving (or more accurately, static friction). If you are pushing the box down into the table, then it is the normal force that is at work. If you are pushing into the air, then it is gravity.
The force of friction between the box and the floor. This force opposes the motion of the box and must be overcome by the pushing force to make the box slide.
The frictional force will be greater than your pushing force when the surfaces are rough, creating more resistance. This can happen if there are high levels of friction between the box and the table or if the weight of the box increases significantly.
Pushing a box that doesn't move indicates an unbalanced force. If the force of friction opposing the push is greater than the force you are exerting, the box will not move. In this case, the forces are unbalanced.
If a box is slowing down while being pushed, it suggests that there is an unbalanced force acting on it. The force causing the box to slow down is greater than the force pushing it, creating an imbalance.
Well, depending on which way you are pushing, it could be one of three forces. If you are pushing along a table, then it is friction that is preventing the box from moving (or more accurately, static friction). If you are pushing the box down into the table, then it is the normal force that is at work. If you are pushing into the air, then it is gravity.
The force of friction between the box and the floor. This force opposes the motion of the box and must be overcome by the pushing force to make the box slide.
static friction
The frictional force will be greater than your pushing force when the surfaces are rough, creating more resistance. This can happen if there are high levels of friction between the box and the table or if the weight of the box increases significantly.
well it dipends because if its a balanced force there wouldn't be change in movement and if its unbalanced force there would be some types of change of movement. i hope this made you realize the answer
This is unbalanced force. Whenever a greater force is acting upon a smaller force, it is clearly unbalanced. I'm pretty sure this is the right answer because if you have the same science questions from a science textbook then my science teacher said it was unbalanced.
When the pushing force is greater than the friction force, the box will start to accelerate in the direction of the push. As the acceleration increases, the box's speed will also increase until another force, such as air resistance or another object, balances or stops its motion.
To determine if Beatrice is doing work on the box, we need to know the distance over which she is pushing and the direction of the force she is applying. Work is done when a force is applied in the direction of motion over a distance. If Beatrice is pushing the box in the direction of motion over a distance, then work is being done on the box.
The net force on the box is the difference between the applied force and the force of friction. In this case, the net force on the box is 13 N (20 N - 7 N) in the direction of the applied force.
The motion of the box will change if the total force applied by the students in any direction is not balanced by an equal opposing force. If the net force in the direction of movement is greater than zero, the box will accelerate; if it is less than zero, the box will decelerate or change direction.