If there is any. On Earth the rocket will become hot from air resistance and slow down, but in space, without air or friction, the rocket would keep moving the same direction forever or until it hits something or is affected by gravity.
simple wind amount of water size of bottle and how much you pump ;) bla bla bla...
The force of friction in the case of a rocket would be mostly on the upper-half of the fusilage as the rocket cleaves through the air.
Drag is the resistance to motion that a rocket faces while traveling in the earht's atmosphere.
it would burn up.
It can. The design of the fuselage could affect the range: a long fuselage may be less rigid and so reduce the range. However, the fuselage needs to contain all the fuel and if the fuselage is too short the model may not contain much fuel. Alternatively, the fuselage will be short and squat which will reduce its aerodynamics and the increased drag will reduce the range.
The factors affecting kinetic energy are mass and velocity.
Temperature, concentration, sometimes also internal fluid velocity. Moreover density, type of liquid, surface where it flows, viscous drag.
currently Nhra Top Fuel Dragster (4.42@336mph 1/4mile)(3.735@332mph 1000'), fastest time ever record on a drag strip was 3.86@386mph rocket powered funny car at santa pod dragstrip in 1984, before rcoket cars were banned. Fastest quater mile time(not on a drag strip) was at El Mirage, rocket power dragster 3.225@392mph in 1977
Where the energy going into a system equals that going out of it. An aircraft in steady, level flight is in equilibrium: Thrust=Drag, and Lift=Weight.
Thrust - is the force pushing it forwards Drag - the force acting against the rocket Gravity - the force acting upon the rocket trying to push it towards the centre of the earth
Indeed they do! There are a few primary forces that affect a rocket's flight, and one of those forces is drag. Aerodynamics is basically how drag affects an object in motion, and making something "more aerodynamic" means building it in such a way that it has less drag. The less drag something experiences, the faster (and in the case of model rockets, higher) it can go.
There does not appear to be a "best" size. It depends on a number of factors, to include the bottle used (brand of drink & manufacturer), type of rocket, distance aiming for. One common element to consider is drag. Larger fins have greater surface and mass which will directly affect the altitude your rocket can reach.
As a rocket descends, gravity is pulling it down whilst drag is stopping the gravity having some of its power because without the drag the rocket would be pulled down to the ground within a matter of seconds. I don't know how it affects it on its ascent!! Sorry!!
Air resistant
The tip of a rocket is pointy to increase aerodynamics and reduces drag. For example, if a rocket had a flat end, it would create more drag and slow the rocket down. It's also the same for planes too.
A longer fin has increased aerodynamic drag. The geometric relationship between the drag caused by the fins and the center of gravity of the rocket determine the stability of the rocket in flight. Less aerodynamic drag means the rocket can go higher or farther, but it also means the rocket is less stable in flight. This tradeoff has to be considered in the design of the rocket.
Work is done when an object moves in the direction in which a force is applied to it. So the factors are the magnitude and direction of the applied force and the factors which affect the object's motion. The latter will include the mass of the object and friction (including drag).
While a nose cone can either reduce or add drag, it provides a minimal amount of stability to the rocket' flight path. The fins are the most critical component for stabilizing a rocket's flight path; that's where your focus should be.
A vertical takeoff enables a rocket to get through the atmosphere with the least amount of fuel and drag. After takeoff, the rocket will progressively lean over to a more horizontal position because it follows the gravity turn trajectory.
By making it more streamlined and aerodynamic
There are four forces acting upon a rocket these are: Thrust, Gravity, Drag and Lift.