That depends upon the direction in which it is facing when it turns its engine on. If it faces the direction in which it is already moving, the added speed will cause it to move to a higher orbit. If it faces against the direction in which it is moving to slow down, it will move to a lower orbit (or re-enter the atmosphere). If it faces any other direction, its orbit will change in various other ways.
To exit orbit and travel into space, a spacecraft must increase its velocity to overcome the gravitational pull of the celestial body it is orbiting. This is typically achieved by firing onboard thrusters or engines in the direction opposite to the spacecraft's orbital motion. Once the spacecraft reaches a high enough velocity, it can break free from the gravitational influence and continue its journey into space. This maneuver requires precise calculations and timing to ensure a successful exit from orbit.
Car engines enable you to travel faster and more easily. Search engines enable you to find information faster and more easily.
A380 is faster because it has bigger engines and its a bigger aircraft
A Leonid goes way faster. It can go up to seventy kilometers per second!
Smaller, faster, and more efficient computers. Lighter and stronger materials. More efficient motors and engines. Basically everything that went into the original spacecraft could be improved on using today's technology.
The time depends on the speed; the faster you go, the less time it will take. The more powerful your spacecraft engines are and the more fuel you have, the longer you can run the engines and the shorter the trip.The Apollo space missions took about 3 days to get there and back, but if you could accelerate at one gravity continually, it would take one hour to get to the Moon and land.
gas engines go faster that the batter powered engines and last longer (dont have to charge gas)
Yes ... but not with chemical engines - we need ion rockets - or perhaps nuclear engines.
Diesel engines use propane to go faster, only gas engines use NOS
What's relevant is the black hole's mass in this case. That's the same as if you change the mass of any other object around which another object orbits - for example, the mass of a star. For a higher mass of the central object, the orbiting object must move faster - assuming it is at the same distance of course.
Diesel engines ignite fuel through compression, while gasoline engines use spark plugs. Diesel engines are more fuel-efficient and have higher torque, but gasoline engines are typically quieter and have faster acceleration.
Nothing will happen because of the gravity