Thrust
When making a balloon-powered car, it is typically designed to be unbalanced. The force of the escaping air from the balloon propels the car forward, creating an imbalance in forces that moves the car. This unbalance allows the car to move in the desired direction.
Gravity affects a balloon-powered car by providing the force needed to overcome friction and air resistance, allowing the car to move forward. When the balloon is inflated and the car is released, the potential energy stored in the balloon is converted into kinetic energy as the escaping air propels the car forward.
A balloon-powered car works by releasing air from a balloon, which creates a force that propels the car forward. The air escaping from the balloon pushes against the car, causing it to move in the opposite direction. This is an example of Newton's third law of motion, which states that for every action, there is an equal and opposite reaction.
Friction
Newton's balloon car demonstrates the principles of motion and force by showing how the force of the air escaping from the balloon propels the car forward, in accordance with Newton's third law of motion. The car moves in the opposite direction of the air escaping from the balloon, showcasing the concept of action and reaction forces.
Increasing pressure in the balloon will result in more air being forced out of the balloon, propelling the car forward with greater force. Conversely, decreasing pressure will reduce the force pushing the car forward. Optimal pressure will need to be determined through experimentation to achieve the best performance of the balloon-powered car.
A balloon powered car is moves because the balloon pushes out air. Whenever something exerts a force on something else (in other words, the balloon is exerting force on the air), then the object being pushed always exerts an equal and opposite reaction force on the object exerting force on it (in other words, the air exerts force on the balloon). Because the balloon is attached to the car, when the balloon is pushed by the air, the car is pushed. The law that for every force there is an equal and opposite reaction force is Newton's Third Law of Motion.
If the car is lighter, Then the balloon powered car will go further.
A Cool Balloon Powered Mini Car works by attaching a blown-up balloon to the car's body, allowing the air to escape and propel the car forward as it deflates. The air escaping the balloon creates a thrust force that pushes the car in the opposite direction, causing it to move.
There was no ballon powered car.
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.
Balloon powered cars utilize potential energy stored in the balloon as it is inflated. When released, this potential energy is converted into kinetic energy that propels the car forward. Friction and air resistance also play a role in the energy transfer process.