How a SLV (satellite vehicle launcher) advances in space where there is vacuum in outer space, away from Earth
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THERE IS NO SUCH THING AS A TRUE VACUUM... PERIOD!\n(exerpt from a previous answer)\nContrary to popular belief, empty space is not empty, and it is certainly not a vacuum. In fact, a true vacuum has never been created, anywhere, where the atomic count is zero.\nresearch it, its true.\n"Empty" space actually contains an average of 1 hydrogen atom for every 32 cubic centimeters of space, this data is per NASA.\n\nIn our own Milky Way, space is more dense with 1 hydrogen atom for every 1 cubic centimeter.\n\nOne day the misinformation of space as a vacuum will finally die out.\n\nSo in addition to the principle behind Newtons 3rd law, there is actually atomic content providing a small but still resistive force to the SLV thrusters.\n\nspread the knowledge
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Properly named "launch vehicles", these are a class of rockets which are used to launch satellites into earth, moon, sun, or planetary orbits, or, to lauch interplanetary payloads to objects in our solar system.\n\nA launch vehicle can be manned or un-manned. Unmanned vehicles are usually referred to as "Expendable Launch Vehicles (ELVs)", since most of the vehicle is not recovered for re-use. \n\nExamples:\nELVs: Atlas-Centaur, Titan-Centaur\nManned: Shuttle, Saturn V\n\nMore on rockets from Wikipedia:\nhttp://en.wikipedia.org/wiki/Rocket\n\nHope this helps!
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Other methods involve pressurized air in a bottle with water, makes a crude rocket, there is some video of an asian guy who made a rocket suit with about 20 2 liter bottles hooked up to a pump system that shot him up in the air over water a ways, then he crashes down awkwardly.  Poor guy. Probably for a game show or something, idk.   \n\nOther rocket mixtures use liquid or solid fuel, depends what you mean and want when you say "Rocket".  Like are you trying to make something to play with in the yard, or trying to make your own ICBM?  \n\nAll you need is some source of thrust to be propelled out the back end which because of Newton's Law of Equal and Opposite reaction means that it can operate in a vacuum, with no medium to push against (unlike a propeller or jet engine or something of that nature).
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Uses the gravitational pulll of the planet to speed up the object and also change its trajectory... Look at what they do with satilites that they send into deep space.
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Oh, this one is easy. \n\nGo out into space (probably just inside the asteroid belt), and build a 30 kilometer long linear accelerator made out of low impedance electromagnets. Attach it to a huge solar collector, a huge capacitor bank, and a transformer to transform whatever voltage the collector recieves voltage at, to just below the breakdown voltage of your capacitor or electromagnets (whichever is lower).\n\nAssemble a big paramagnetic rod out of something nice and massive (like iron), and coat it with a few thousand tons of lithium, or something similar in reactivity. The entire projectile should mass no less than ten thousand tons. \n\nCharge up your capacitor bank, point the accelerator at the Earth, and tell them to turn over control of all governments to you, or you're going to hit the Earth with a very large plasma projectile traveling at a very high rate of speed...
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An example is the rocket equation:\nV = Vex * log(m0/m1)\nwhere \nV is final velocity\nVex is the rocket exhaust velocity\nm0 is liftoff mass\nm1 is burnout mass\nThis equation says (e.g.) that you need a ratio of liftoff to burnout weights = e (2.718, base of natural logarithms) to achieve a V = Vex.\nNow suppose you know the final velocity you want and you know the mass of the object you want to impart the velocity to, which is a typical design situation.  Then you turn the equation around:\nM0=M1*e^(V/Vex)\n(The results can be surprising if you're unfamiliar with rocket propulsion.  With a state-of-the-art engine like the Shuttle main engines, Vex is about 15000 ft/sec. If you want 1000 pounds (empty rocket plus any payload) to reach 35000 ft/sec (~earth escape velocity) with an engine of equal efficiency, you'd need a liftoff weight of about 10000 lb.)
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Definitely Vacuum. Because space, that is vacuum space has no mass. Because of that factor, WE, can basically, "FLY" in outer space....
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A space craft would use the gravitational force of a large body to increase its velocity and/or change direction.  The speed achieved would depend in part on the strength of that gravitational field.  The nearest star to our sun is about 4 light-years away which means it takes light 4 years to cover that distance (about 23 trillion miles).  Using the most advanced technology we have today, a space craft would only be able to achieve about 10-20% of light-speed so it would take about 20 to 40 years to reach the nearest star at top speed.  However, because of the mass of the fuel and food and water needed to supply the astronaut on such a mission and the time needed for acceleration and braking, it becomes nearly impossible with current technology to reach it in a human lifetime.
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In theory, a very light weight space craft with a very large area "sail" could use pressure from sunlight itself to accelerate. Note that it is the actual sunlight, as in photons, that exert the force, not the solar wind, which is a stream of particles from the Sun. The solar wind does not exert nearly as much force as the light does. Hard to believe, but true.
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Before launch, the shuttle crew activates the the ship's rockets. At t=0, the Solid Rocket Boosters or SRBs are activated to provide the initial lift. As the name implies, the SRBs run on solid fuel in order to maximize thrust, but the design has a major drawback. Combustion of the solid fuel cannot be controlled in any way, and it will continue to burn the rest of the way until the fuel runs out 5 minutes later. So, the ship is stabilized before ignition.  After 5 minutes, the SRBs are jettisoned to lessen weight and the SRBs parachute back to earth. The shuttle continues on with the fuel in the external tank (the orange cone) attatched to its belly until the fuel it contains is used up 30 minutes later. That is then it is also jettisoned, but unlike the SRBs, the external tanks remain in space, for good. The shuttle then maneuvers itself around using its own fuel and thrusters to do the job it came up for. It may dock with the ISS, do some repairs, release its sattelite cargo or do whatever it came up to do.\n\nWhen it's time to head home, the shuttle again uses its thrusters and boosters to maneuver itself into low orbit and heads into the atmosphere for re-entry. As the shuttle heads deeper into Earth's atmosphere, friction between the shuttle and the air increases. The space shuttle is purposely built to utilize this effect for re-entry. Its design incorporates a flat base on the underside. That part and some others are generously covered with special ceramic tiles that can withstand temperatures up to 5000 degrees, depending on the thickness. So, the shuttle maximizes friction during re-entry by facing its underside to the direction it is travelling to, using the red-hot ceramic tiles to absorb the heat while slowing itself down. It is a dangerous procedure. If only one of the tiles cracked, went loose or dropped, the shuttle will disintegrate like shuttle Columbia. If the shuttle survives, it heads to its planned destination - a commercial runway. It slowly shifts its flying position back to aircraft-style and lands using landing gears and brake parachute.
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Outer space...and to the moon.
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By giving them enough speed, depending on the altitude of orbit (the heightof elevation of an object above sea level). The higher the altitude of orbit, the higher amount of speed needed.\n\nIf satellite loses orbital speed, especially if the orbit is low, gravity steps in and the spacecraft soon plunges to Earth.
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I found this very easily on the Internet.  You could have done the same thing.\n\nhttp://liftoff.msfc.nasa.gov/academy/universe/RADEC.HTML
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Space, the final frontier.
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A satellite transmits signals to the earth.it tracks the object by moving with the same speed as that of the car
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When an object is launched under the influence of only a uniform gravitational force field, it is said to follow a projectile motion. Under ideal condition, the path it traces is parabolic. There is catch here – if the initial velocity is equal or more than the escape velocity then the object will simply vanish into space i.e. leave earth!\n\nImagine if the launch angle from the horizontal is “theta” and initial velocity is “U” then you can easily compute vertical (Uv) and horizontal (Uh) components of it. The Uv will be equal to U x Sin(theta) and Uh will be equal to U x Cos(theta). Now by using Uv you can compute the max height it will reach and the total time it will take to go up and return to ground. With this round trip time in hand, you can easily compute the max horizontal distance it will cover before hitting the ground.\n\nAll these calculation assume ideal conditions like no wind resistance etc.
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absolutely.  In the dead of space a vehicle such as the space shuttle could use maneuvering thrusters to completely stop it's self and remain stationary.  Taking that a bit further you can conclude that if the data is mapped properly gravitation forces from heavenly bodies could be automatically counter with the same thrusters.