When a horse applies more force to the cart, the cart will accelerate and move faster. This is because the increased force from the horse overcomes the resistance (friction) acting on the cart, allowing it to pick up speed.
When a horse applies more force to a cart, the speed of the cart will increase. This is due to Newton's second law of motion, which states that the acceleration of an object is directly proportional to the force applied to it. So, the greater the force applied by the horse, the faster the cart will accelerate and increase in speed.
When a horse pulls a cart, it exerts a force that can vary depending on the weight of the cart and the terrain. On average, a horse can exert a force of around 500 to 1,000 pounds when pulling a cart.
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 a horse pulls a cart, the action is on the horse. The horse exerts force on the cart through its harness, which causes the cart to move. This action is a result of the horse's muscle power and body strength.
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.
When a horse applies more force to a cart, the speed of the cart will increase. This is due to Newton's second law of motion, which states that the acceleration of an object is directly proportional to the force applied to it. So, the greater the force applied by the horse, the faster the cart will accelerate and increase in speed.
When a horse pulls a cart, it exerts a force that can vary depending on the weight of the cart and the terrain. On average, a horse can exert a force of around 500 to 1,000 pounds when pulling a cart.
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 a horse pulls a cart, the action is on the horse. The horse exerts force on the cart through its harness, which causes the cart to move. This action is a result of the horse's muscle power and body strength.
As the horse exerts greater force, both horse and cart move, accelerating from zero to some velocity. During that acceleration the net forward force on the horse must be greater than the net backward force on the horse. And also, the net forward force on the cart must be greater than the net backward force on the cart. This is from Newton's second law
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 goes faster i assume.
If a larger force is exerted on the loaded cart, the cart will accelerate in the direction of the force applied. This acceleration depends on the mass of the cart and the magnitude of the force. If the force is strong enough, it may even cause the cart to move uncontrollably or tip over.
There are three forces that are exerted on the horse cart system. They are: weight, pull, and friction.
Aristotle's horse-cart theory is a metaphor he used to explain the relationship between motion and change. Similar to how a horse pulls a cart, Aristotle believed that motion is caused by a force or "prime mover" that initiates change in the world. This prime mover is an immutable, eternal being that sets everything else in motion.
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.
A hard push applies more force to the cart, which causes it to accelerate faster due to Newton's second law of motion (F = ma). In contrast, a soft push imparts less force on the cart, resulting in slower acceleration.