It can be either. Horse-drawn carts are virtually all pulled. Library and shopping carts are pushed.
However, any pulling or pushing force that is exerted includes a pushing force against the ground (i.e. friction).
If they hang vertically, the weight is not moving, and is well-distributed, half of the weight will pull on each of the two chains.
The comet is kept in orbit around the sun by the gravitational pull between the comet and the sun. This gravitational force acts as a centripetal force, keeping the comet moving in its elliptical orbit.
Friction is a sticky force that appears when 2 objects rub against each other. If you push or pull slowly friction helps pull or push the tower along with the bottom coin. If you push or pull quickly, the coins still rub, but the friction force doesn't have time to get the stack moving. So the coin shoots out without pulling the tower with it.
When there is a divergent boundary, regardless if the plates are ocean-ocean or continental-continental, tensional stress pulls on the crust. Rocks have weaker tensional strength than compressive strength, so they are easier to pull apart.
A pull test involves applying force to a component or material to assess its tensile strength. This is typically done by attaching a calibrated force gauge to the material and steadily increasing the force until the material fails. The maximum force at which failure occurs is then recorded as the pull test result.
moving a loaded cart,opening or shutting a door
There are three forces that are exerted on the horse cart system. They are: weight, pull, and friction.
The force used to pull a cart is typically known as friction. Friction acts in the direction opposite to the motion of the cart, requiring a force to overcome it and move the cart forward. Other forces, such as gravity or applied force, can also be involved depending on the specific situation.
It is one of Isaac newton's laws, I believe it is the second one. It says that for every force, there is an equal and opposite force. Say you are pulling a cart. If you pull the cart with a force of 10N, the cart pulls on you with a force of 10N (mostly due to friction). If a train hits you with a force of 100,000N, you hit the train with a force of 100,000N; believe it or not.
It is one of Isaac newton's laws, I believe it is the second one. It says that for every force, there is an equal and opposite force. Say you are pulling a cart. If you pull the cart with a force of 10N, the cart pulls on you with a force of 10N (mostly due to friction). If a train hits you with a force of 100,000N, you hit the train with a force of 100,000N; believe it or not.
Yes, work is done when a girl pulls her cart because work is the transfer of energy resulting from a force acting over a distance. When the girl applies a force to pull the cart, and the cart moves in the direction of the force, work is being done on the cart.
It is one of Isaac newton's laws, I believe it is the second one. It says that for every force, there is an equal and opposite force. Say you are pulling a cart. If you pull the cart with a force of 10N, the cart pulls on you with a force of 10N (mostly due to friction). If a train hits you with a force of 100,000N, you hit the train with a force of 100,000N; believe it or not.
The force involved in the motion of a bullock cart is primarily friction between the wheels and the ground. As the bullocks pull the cart forward, the friction between the wheels and the ground allows for the transfer of kinetic energy to move the cart.
The net force is the difference between the two forces, so it would be 6 N (pulling force) - 5 N (pushing force) = 1 N to the right.
The answer is like force can be pull or push.Both are force.For example if you are pushing a shopping cart full of milk,that is force from your muscles.It is motion to.
Yes they can typically pull a small dog cart type horse cart.
Even though the cart is pulling on the horse with the same force that the horse is pulling on the cart, the weight of the horse, the way it runs, versus the way wheels move, all add up to make the sum of forces on the system move in the direction of the horse.