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.
No, the forces are not in balance after you stop pushing. When the car is stationary, the force of friction between the tires and the ground opposes the force applied to the car when you were pushing it.
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.
The force of friction between the tires and the road surface is what primarily causes a car to stop. When the brakes are applied, the brake pads press against the rotating wheels, generating friction that slows down the car.
The net force on a car stopped at a stop sign is zero, assuming there are no external forces acting on it. This means that the forces pushing the car forward (such as the engine) are balanced by the forces resisting the car's motion (like friction).
The car breaks (brakes) stop the car.
It takes less force to stop a train than to stop a car.
Time 2 get a new car
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.
If you apply the breaks quickly on a slick road, the wheels' rotational movement will come to a complete stop, but the car itself will keep moving forward, causing the car to slip. It happens because the force of friction, Ff, is small. The traction of the wheels on the ground (which requires that the wheels continue to roll at the speed that the ground moves past them, which is what normally happens) is what allows the driver to maintain control of the car. If the wheels suddenly were not gripping the ground, which would happen if their rotational motion stopped, the driver would have not control over the car. Slowly applying the breaks is advised because the force of friction is not exceded by the force of the breaks. In otherwords, friction (traction) still causes the wheels to roll, mainting the driver's control over the car. If the force of the breaks exceeds that of friction, then the wheels will come to a stop before the car does.
There are several ways to force an car engine to stop. One way to force the engine to stop is to disconnect the battery. Another way to force the engine to stop is to turn off the ignition.
because if you stop immediately then the car will stall.
Newton's first law of motion tells us that an object in motion stays in motion. When someone slams on the breaks in the car, the breaks can stop the car, but can't stop the driver from being thrown forward.
the brakes use friction to stop the car
The same amount of force required to push the car.
The force of gavity on car exerts friction on the wheels and axle that eventually stop the car from exerting forward force.
effect of force