Escape velocity is the speed that a rocket must reach to break free from Earth's gravity and enter space. It is the minimum velocity required for an object to overcome the pull of Earth's gravity.
Exactly the same way it takes off from the earth. Gravity on the moon is so relativistically low that the propulsion required to reach an escape velocity is very very low compared to the earth.
A bottle rocket is like a firecracker on a stick. The bottle rocket is placed at an angle in a soda bottle that is firmly on the ground. Then the bottle rocket's fuse is lit. When the fuse burns down there is an abrupt explosion in the bottom of the rocket that forces it to fly up. When it burns all the way up the bottle rocket, gun powder in the tip of the rocket explodes in the air.
determined by the rocket's thrust and the mass of the rocket. The speed of the rocket can also be influenced by external factors such as gravity and air resistance. Ultimately, the goal is to achieve enough speed to overcome these forces and reach the desired velocity.
The main forces that affect a rocket's flight are propulsion (thrust), gravity, drag, and lift. Thrust propels the rocket forward, gravity pulls it down, drag pushes against its movement, and lift helps it stay stable in the air. Balancing these forces is crucial for a rocket to reach its intended destination.
Escape velocity is defined to be the minimum velocity an object must have in order to escape the gravitational field of the earth, that is, escape the earth without ever falling back. From the surface of the Earth, escape velocity (ignoring air friction) is about 7 miles per second, (11.2 km/sec) or about 25,000 miles per hour. Given that initial speed, an object needs no additional force applied to completely escape Earth's gravity. More can be seen about this in the related link below.
It takes around 8 minutes for a rocket to reach space and escape Earth's atmosphere. This can vary slightly depending on the specific rocket and its speed.
When on Earth, you can escape if you move away from the Earth at the "escape" speed. Gravity will slow you down and you will reach zero speed at an infinite distance.
A rocket that doesn't reach "escape velocity" will be overcome by gravity and will be pulled back down to Earth. Also, rockets which go into orbit have not reached escape velocity. Escape velocity is what is needed to completely leave earth's gravity well.
Your motorcycle would have to reach 5300 MPH to escape the moon's gravity. It's doubtful that a real world motorcycle, even rocket propelled could do this with a human sitting on it.
To overcome gravity, you must reach "Escape Velocity" to overcome gravity and escape a planet's orbit.
Rocket ships are launched by a combination of forces, including the thrust generated by the rocket engines and the force needed to overcome gravity. The thrust from the rocket engines propels the rocket forward, while the force needed to overcome gravity allows the rocket to lift off the ground and enter into space.
Escape Velocity
It isn't clear what exactly you mean with "escape gravity". The effects of Earth's gravity (for example) extend all the way to infinity, while getting weaker and weaker at a greater distance. So in a way, an object moving away from Earth never "escapes gravity". If an object moves fast enough - about 11.2 km/second near Earth's surface - it is said to have reached "escape velocity", in this case, it is fast enough never to come back. A rocket will reach escape velocity in a few minutes.
gravity
To reach outer space, rockets must escape the force of gravity. Gravity is the force that pulls objects towards the center of a mass, such as the Earth. Rockets need to generate enough thrust to overcome Earth's gravity and reach escape velocity to enter outer space.
A rocket is propelled by its engines to overcome Earth's gravity and achieve enough speed to enter orbit or reach its destination. In space, there is no air resistance or opposing forces to slow it down, allowing it to continue moving forward. To prevent a rocket from falling back to Earth, it must reach a minimum speed known as escape velocity.
To break away from Earth's gravity and reach space, an object needs to reach an escape velocity of about 11.2 kilometers per second (about 25,000 mph). The force required to achieve this velocity is enormous and depends on the mass of the object. For example, a spacecraft with humans onboard would need powerful rockets to generate enough force to break free from Earth's gravity.