The vertical components of the air resistance acts vertically down on it. This adds to the effect of the gravitational force. Therefore net force is increased - it slows down more rapidly and so does not rise as far.
Yes if you use compressed air inside the rocket. Or you can use agitated methanol and a flame for thrust like a whoosh rocket.
i wish
The rocket's acceleration is created by the net force acting on it. There are three forces acting on the rocket: the thrust provided by the engines, gravity or weight, and air resistance. The acceleration is inversely proportional to the rocket's mass. This is Newton's Second Law: (acceleration) = (net force) / (mass) We need to think about the direction of the forces. The thrust acts upward (call this positive), and both gravity and air resistance acts downward (call these negative). So we get (acceleration) = (thrust - weight - air resistance) / mass A typical rocket engine will provide constant thrust as long as the fuel lasts. But as the engine consumes fuel, expelling the exhaust products out the back of the rocket, the rocket's mass decreases. This tends to increase the rocket's acceleration since acceleration is inversely proportional to the mass. In addition to the decreasing mass, the rocket's weight decreases as it moves farther from the center of the Earth--- this effect is described by Newton's Law of Gravity. The rocket's decreasing weight tends to increase its upward acceleration. The action of air resistance is more complicated, and ordinarily we ignore air resistance in simple models just to avoid the complication air resistance gives to the problem. In the standard air resistance model, air resistance scales with the square of the rocket's speed and the air density. The rocket is moving faster and faster, but the air density is also decreasing as it rises through the atmosphere. I think we can safely say the air resistance force decreases as the rocket gains altitude, but a detailed answer illustrating precisely how this force changes would require a numerical simulation. Hope this helps!
Pressure is the force that launches the bottle rocket once it has launched this pressure starts to dissipate until no other force is driving the rocket to overcome gravity, therefore gravity is now the only force acting on the object and as such the bottle falls back to earth
A regular rectangular shaped fin makes the best flight time.
The wind will cause the bottle rocket to go off course possibly resulting in crashing or hitting into a tree.
you want it around 16-19 centimeters
Having the right amount of water in a bottle rocket is crucial for optimal performance. Too much water can make the rocket heavy and affect its height, while too little water can lead to a premature ejection of the compressed air, reducing thrust. It's recommended to find the right balance for the best launch.
The mass of a rocket bottle depends on various factors such as the size of the bottle, the amount of water and air pressure used, and the desired altitude or distance that the rocket needs to achieve. Generally, a rocket bottle mass should be light enough to maximize its acceleration and height while still providing stability during launch.
Air resistance acts against the motion of a rocket by creating drag, which can slow down the rocket's acceleration and decrease its maximum speed. The more streamlined a rocket is, the less air resistance it will face, allowing it to move more efficiently through the atmosphere. Overall, air resistance can impact the performance and efficiency of a rocket during its flight.
I think if you change the baking soda the rocket will explode higher
The maximum height reached by a rocket in a physics problem involving a rocket launch is determined by factors such as the initial velocity of the rocket, the force of gravity, and air resistance. This height is typically calculated using equations of motion and can vary depending on the specific conditions of the launch.
Water helps to create a layer of resistance inside the bottle rocket when it is pressurized. This resistance builds up pressure, which helps propel the rocket into the air when the pressure is released. Additionally, the water adds weight to the rocket, improving stability and trajectory.
The atmosphere affects a rocket by providing resistance as the rocket travels through it, which causes drag. Thicker atmospheres can increase drag and make it more difficult for a rocket to accelerate. Additionally, the atmosphere's composition can affect the combustion process in the rocket engines.
Bottle Rocket was created in 1994.
Derelict
Resistance can affect the shape of a rocket by increasing drag, which can slow down the rocket and reduce its efficiency in reaching its intended destination. To minimize resistance, rockets are typically streamlined with pointed fronts and smooth surfaces to reduce drag and improve aerodynamics.