If there is no external force acting on the cart and no friction present, the cart will continue to move in a straight line at a constant velocity due to its inertia. It will keep moving unless acted upon by an external force.
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 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.
The force of friction will push the cart to the east, which is opposite to the direction the cart is being pushed. Friction always acts in the direction opposite to the direction of motion.
In a horse-cart system, there are typically three main forces acting on the system: the force of the horse pulling the cart forward, the force of friction between the wheels and the ground resisting motion, and the force of gravity acting downwards on the horse and cart.
When you push a cart, the main forces involved are your applied force in the direction you're pushing, the force of friction between the cart's wheels and the ground resisting movement, and the normal force exerted by the ground on the cart to support its weight. Additionally, there may be air resistance opposing the motion of the cart, depending on the speed and shape of the cart.
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 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.
The motion of a freely falling object is solely under the influence of gravity, leading to a constant acceleration downwards. In contrast, the motion of a cart can be influenced by various factors such as friction, external forces, and its initial velocity, resulting in a more complex trajectory.
When you push a shopping cart, the friction that opposes the motion is called static friction if the cart is stationary or kinetic friction if it's already in motion. Static friction acts to prevent the cart from moving, while kinetic friction acts against the motion once it starts rolling. Both types of friction arise from the interactions between the cart's wheels and the surface it moves on.
The force of friction will push the cart to the east, which is opposite to the direction the cart is being pushed. Friction always acts in the direction opposite to the direction of motion.
In a horse-cart system, there are typically three main forces acting on the system: the force of the horse pulling the cart forward, the force of friction between the wheels and the ground resisting motion, and the force of gravity acting downwards on the horse and cart.
When you push a cart, the main forces involved are your applied force in the direction you're pushing, the force of friction between the cart's wheels and the ground resisting movement, and the normal force exerted by the ground on the cart to support its weight. Additionally, there may be air resistance opposing the motion of the cart, depending on the speed and shape of the cart.
If the force of friction acting on a cart on a ramp is exactly balanced by the force of gravity acting on the cart down the ramp, the cart will remain at a constant speed and not accelerate. This is an example of a state of equilibrium where the forces are balanced, resulting in no net force acting on the cart.
East
The cart will move at a constant velocity.
it goes faster i assume.
east