There is heat resistent plating around the hull of the shuttle. The re-entry angle is also critical and needs to be as shallow as possible.
Asteroids
Because before they hit the atmosphere they are travelling at extremely high speeds without any resistance (from wind). Therefore when they enter the atmosphere the wind resistance builds up and creates friction which also brings lots of heat, causing them to burn up before they hit the ground. This doesn't just happen to satellites; most if not all objects travelling from space into Earth encounter this. The only exception would be space shuttles because they have been specially designed with heat resistant panels etc.
Answer: All combustion reactions require oxygen, since there is no oxygen in space, they must bring it with them.
When a space shuttle takes off, it gathers momentum and burns fuel to get higher. Once the huge rocket that the space shuttle rides on is out of fuel, it falls off. The shuttle continues on alone into space. To get back into the atmosphere, careful calculations are done. The shuttle must come in at just the right angle or else it will burn up or bounce off of the atmosphere and be gone forever. The space shuttle slices into the atmosphere and begins gliding like a paper airplane at incredible speeds. A computer controls the shuttle and lands it on a runway that is a mile wide and several miles long. It lands like a normal airplane and everyone arrives safely.
They burn up in the atmosphere.
Usually they will burn up due to the friction they encounter when they enter the atmosphere, or they will bounce off the atmosphere and be deflected into deep space.
Meteors are seen in the sky when huge space junk enter the atmosphere and burn up.
Because they are going at very high speeds. Things cannot burn in space, because there is no oxegen.
Asteroids
No. They are just bits of ice, dust or rock floating through space that then enter Earth's atmosphere and start to burn up, giving us the chance of seeing it. They are not like the planets that have rings.No. They are just bits of ice, dust or rock floating through space that then enter Earth's atmosphere and start to burn up, giving us the chance of seeing it. They are not like the planets that have rings.No. They are just bits of ice, dust or rock floating through space that then enter Earth's atmosphere and start to burn up, giving us the chance of seeing it. They are not like the planets that have rings.No. They are just bits of ice, dust or rock floating through space that then enter Earth's atmosphere and start to burn up, giving us the chance of seeing it. They are not like the planets that have rings.No. They are just bits of ice, dust or rock floating through space that then enter Earth's atmosphere and start to burn up, giving us the chance of seeing it. They are not like the planets that have rings.No. They are just bits of ice, dust or rock floating through space that then enter Earth's atmosphere and start to burn up, giving us the chance of seeing it. They are not like the planets that have rings.No. They are just bits of ice, dust or rock floating through space that then enter Earth's atmosphere and start to burn up, giving us the chance of seeing it. They are not like the planets that have rings.No. They are just bits of ice, dust or rock floating through space that then enter Earth's atmosphere and start to burn up, giving us the chance of seeing it. They are not like the planets that have rings.No. They are just bits of ice, dust or rock floating through space that then enter Earth's atmosphere and start to burn up, giving us the chance of seeing it. They are not like the planets that have rings.No. They are just bits of ice, dust or rock floating through space that then enter Earth's atmosphere and start to burn up, giving us the chance of seeing it. They are not like the planets that have rings.No. They are just bits of ice, dust or rock floating through space that then enter Earth's atmosphere and start to burn up, giving us the chance of seeing it. They are not like the planets that have rings.
they could burn up or explode and caus emany deaths
Because before they hit the atmosphere they are travelling at extremely high speeds without any resistance (from wind). Therefore when they enter the atmosphere the wind resistance builds up and creates friction which also brings lots of heat, causing them to burn up before they hit the ground. This doesn't just happen to satellites; most if not all objects travelling from space into Earth encounter this. The only exception would be space shuttles because they have been specially designed with heat resistant panels etc.
It is called a meteorite.
That depends. Meteoroids are pretty cold when they float around in space. When they enter our atmosphere, they get super hot and usually burn up in the thermospere.
Answer: All combustion reactions require oxygen, since there is no oxygen in space, they must bring it with them.
Meteors do not burn in space. They burn when they dive throughEarth's atmosphere, because of friction with it.
When a space shuttle takes off, it gathers momentum and burns fuel to get higher. Once the huge rocket that the space shuttle rides on is out of fuel, it falls off. The shuttle continues on alone into space. To get back into the atmosphere, careful calculations are done. The shuttle must come in at just the right angle or else it will burn up or bounce off of the atmosphere and be gone forever. The space shuttle slices into the atmosphere and begins gliding like a paper airplane at incredible speeds. A computer controls the shuttle and lands it on a runway that is a mile wide and several miles long. It lands like a normal airplane and everyone arrives safely.