The force that stops a car from moving is friction between the tires and the road surface. This friction provides the necessary resistance to slow down and eventually halt the car's motion. Additional forces, such as air resistance and braking, also play a role in stopping a moving car.
When a car is stopped at a stop sign, the net force on the car is zero because no motion is occurring. When a car is moving in a straight line with constant speed, the net force on the car is also zero because the forces acting on the car (like air resistance and friction) are balanced by the force generated by the car's engine.
It is easier to stop a bicycle than a car with the same speed because the bicycle has less mass and momentum compared to the car. The car's greater mass and momentum make it harder to stop quickly. The car's brakes also have to work against greater inertia, requiring more force and distance to stop.
Friction between the wheels and the surface it is moving on causes a balloon powered car to stop. As the wheels turn and the car moves, friction gradually slows down the car until it eventually comes to a stop.
To make a moving object stop, you can apply a force in the opposite direction of its motion, such as braking in a car or pressing on the brakes of a bicycle. Friction between the object and the surface it is moving on can also help slow it down until it eventually comes to a stop.
The force that causes the car to stop by opposing its motion is friction. Friction occurs between the tires of the car and the road surface, creating a force that resists the motion of the car, ultimately bringing it to a stop.
When a car is stopped at a stop sign, the net force on the car is zero because no motion is occurring. When a car is moving in a straight line with constant speed, the net force on the car is also zero because the forces acting on the car (like air resistance and friction) are balanced by the force generated by the car's engine.
Of course inertia depends upon mass and not the medium in which it is moving therefore ship will need more force to stop and not car.
Things will eventually stop if there is a force to stop it... and no force that keeps it moving. If there are no forces on an object, or the forces are balanced (the friction forces on a car are compensated by forces that pull it forward), it will continue moving.
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It is easier to stop a bicycle than a car with the same speed because the bicycle has less mass and momentum compared to the car. The car's greater mass and momentum make it harder to stop quickly. The car's brakes also have to work against greater inertia, requiring more force and distance to stop.
It depends on the weight of the car, and the surface upon which it is traveling - as well as what force is being used to stop it (IE a brakeing mechanism).
Friction between the wheels and the surface it is moving on causes a balloon powered car to stop. As the wheels turn and the car moves, friction gradually slows down the car until it eventually comes to a stop.
To make a moving object stop, you can apply a force in the opposite direction of its motion, such as braking in a car or pressing on the brakes of a bicycle. Friction between the object and the surface it is moving on can also help slow it down until it eventually comes to a stop.
It takes less force to stop a train than to stop a car.
A passenger's first feel of inertial force in a moving car is a backwards jolt when a car starts moving. The force is more pronounced if the car takes off faster.
A passenger's first feel of inertial force in a moving car is a backwards jolt when a car starts moving. The force is more pronounced if the car takes off faster.
Friction