The force that opposes the motion of a book sliding on a table is kinetic friction. This force acts in the opposite direction to the book's motion and is caused by the interaction between the surfaces of the book and the table as they slide against each other.
The force that slows down a book sliding on a table is mainly friction. As the book moves across the table, the friction between the book and the table surface opposes the motion, causing the book to slow down until it eventually stops.
Pushing a book across a table creates sliding friction between the book and the table surface, which acts in the opposite direction of the pushing force, making it harder to move the book.
A book sliding off a table is an example of an object experiencing an unbalanced force. The force of gravity pulling the book downward is greater than the frictional force between the book and the table, causing it to accelerate in the direction of the force.
The book slows down and stops due to the force of friction acting between the book and the table. As the book moves, friction opposes its motion, causing it to lose speed until it eventually comes to a stop.
The force acting on the book when it is resting on a table is the gravitational force pulling the book downwards. This force is equal in magnitude and opposite in direction to the normal force exerted by the table on the book, keeping it in equilibrium.
Yes, Sliding friction opposes the movement of the book, slowing it down.
The force that slows down a book sliding on a table is mainly friction. As the book moves across the table, the friction between the book and the table surface opposes the motion, causing the book to slow down until it eventually stops.
Pushing a book across a table creates sliding friction between the book and the table surface, which acts in the opposite direction of the pushing force, making it harder to move the book.
A book sliding off a table is an example of an object experiencing an unbalanced force. The force of gravity pulling the book downward is greater than the frictional force between the book and the table, causing it to accelerate in the direction of the force.
No. If the book is sliding along the table, then there must be some external force being applied to the book to cause the movement. You pushed the book and created a force to move. And this is exactly what the first law is saying- a body at rest (net forces acting on book=0) remains at rest unless acted upon my some external force.
Gravity - and friction. The larger book has more gravity - holding it own onto the desk. Friction stops the book sliding sideways.
friction
The book slows down and stops due to the force of friction acting between the book and the table. As the book moves, friction opposes its motion, causing it to lose speed until it eventually comes to a stop.
When you place a book on a table, the table exerts an upward force on the book known as the normal force. This force is a reaction force to the downward force exerted by the book's weight due to gravity. According to Newton's third law of motion, for every action, there is an equal and opposite reaction. Therefore, the table pushes on the book with a force equal in magnitude and opposite in direction to the force the book exerts on the table.
The force acting on the book when it is resting on a table is the gravitational force pulling the book downwards. This force is equal in magnitude and opposite in direction to the normal force exerted by the table on the book, keeping it in equilibrium.
It depends. Two surfaces which are pressed together will show a frictional force resisting any sliding. If they are pressed together by gravity (e.g. such as for a book lying on a table), then the frictional force resisting a horizontal push will depend on the weight of the book, which depends on the force of gravity.
The normal force acts perpendicular to the surface of the book and balances the weight of the book when it is resting on a table. This force arises from the interaction between the book and the table, supporting the book and preventing it from falling through the table.