Any object moving or stationary that is on the ground is subjected to a normal/reaction force upwards.
If a car is moving at a constant speed up a ramp, the force propelling the car up the ramp is equal and opposite to the force of gravity pulling it down the ramp. This means that the net force acting on the car is zero, allowing it to maintain a constant speed. This scenario is possible if the car's engine power matches the force of gravity.
Centripetal force is the inward force that keeps a car moving in a circular path. It acts towards the center of the circle and prevents the car from moving in a straight line. This force is necessary to maintain the car's direction and speed while navigating a curve.
An example of a force acting on a moving car is friction between the tires and the road. This friction force allows the tires to grip the road surface and generate the necessary traction for the car to accelerate, decelerate, or make turns.
When a car is moving in the forward direction, the main forces at play are the engine force propelling the car forward, the frictional force between the tires and the road providing traction, and air resistance acting against the car's motion. These forces work together to keep the car moving in the desired direction.
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.
If a car is moving at a constant speed up a ramp, the force propelling the car up the ramp is equal and opposite to the force of gravity pulling it down the ramp. This means that the net force acting on the car is zero, allowing it to maintain a constant speed. This scenario is possible if the car's engine power matches the force of gravity.
when a car is speeding up how does the forward force and air resistance compare
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
Centripetal force is the inward force that keeps a car moving in a circular path. It acts towards the center of the circle and prevents the car from moving in a straight line. This force is necessary to maintain the car's direction and speed while navigating a curve.
speed! a moving car is having a force greater than the friction of the tires/air (and gravity on a steep upward hill) applied to it, and is moving forward. The force can come from the engine, or external forces.
An example of a force acting on a moving car is friction between the tires and the road. This friction force allows the tires to grip the road surface and generate the necessary traction for the car to accelerate, decelerate, or make turns.
When a car is moving in the forward direction, the main forces at play are the engine force propelling the car forward, the frictional force between the tires and the road providing traction, and air resistance acting against the car's motion. These forces work together to keep the car moving in the desired direction.
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.
When unbalanced forces act on a moving car, it can accelerate, decelerate, or change direction. The net force determines the acceleration or deceleration of the car, causing it to speed up, slow down, or turn.
The force of the car on the bug is equal in magnitude but opposite in direction to the force of the bug on the car (Newton's Third Law). This means the bug exerts the same force on the car as the car exerts on the bug.