First the answer
If you fire the gun on Earth then no, the bullet comes back down slower than it left.
Now for the physics which explains the answer.
The simplest way to look at this question is probably to use conservation of Energy. You could arrive at the same answer using Newton's laws but it becomes involved. First less us consider firing the gun in a vacuum. The kinetic energy (movement energy) of the bullet when it leaves the gun is gradually converted into gravitational potential energy as it moves up and slows down. Eventually it reaches its highest point and stops. It has zero kinetic energy, all the energy has been converted into gravitational potential. The bullet then starts to fall under gravity. The gravitational potential energy is converted back into kinetic energy. No energy is lost so the bullet arrives back where it started with the same kinetic energy it left with or to put it another way at the same speed it left. If you tried this on Earth it would not happen. The bullet would be subject to air resistance (friction from the air) on the way up. Some of the kinetic energy would be converted into gravitational potential, some would be lost heating the surrounding air. The same would happen on the way down, some energy would be lost. The bullet would arrive back moving more slowly than it left.
An alternate way of looking at it is to use the concept of terminal velocity. It is not as compete from a physics point of view but it may be easier to understand. The bullet, once at the top of the trajectory has no energy left from the gun, all of the energy from that point forward comes from gravity. Any object falling in a gas (like the atmosphere of Earth) can only reach a certain speed, its terminal velocity before the friction from the surrounding gas is equal to the force from gravity. This speed is called terminal velocity. It is determined by the size, shape and mass of an object. The terminal velocity for a bullet is likely significantly less than the muzzle velocity.
Yes, a bullet fired straight up in the air can be lethal when it falls back down to the ground. The force of gravity causes the bullet to accelerate as it falls, potentially reaching a lethal velocity. This phenomenon is known as a "stray bullet" injury.
No, when a bullet is shot straight up, it will not land in the same place it was shot from. This is because as the bullet ascends, it loses its forward momentum and is affected by gravity, causing it to fall back down at a different location.
Gravity will cause a fired bullet to decelerate as it travels through the air, pulling it down towards the ground and affecting its trajectory. The velocity of the bullet decreases over time due to the downward force of gravity, causing it to follow a curved path rather than a straight line.
The bullet fired horizontally will hit the ground first, given that it has an initial horizontal velocity that keeps it moving forward from the moment it leaves the gun. On the other hand, the bullet dropped from the end of the barrel only has the force of gravity acting on it, causing it to fall vertically, which is slower than the horizontal motion of the fired bullet.
Yes, a bullet can potentially knock someone over with the force of impact. However, there are many variables that can influence the effect of a bullet, such as the caliber of the bullet, the distance it is fired from, and where it strikes the body.
The bullet will travel to wherever the muzzle was pointed at the moment of disharge.
200 yards straight, 2 miles at an angle.
Yes, a bullet fired straight up in the air can be lethal when it falls back down to the ground. The force of gravity causes the bullet to accelerate as it falls, potentially reaching a lethal velocity. This phenomenon is known as a "stray bullet" injury.
No, when a bullet is shot straight up, it will not land in the same place it was shot from. This is because as the bullet ascends, it loses its forward momentum and is affected by gravity, causing it to fall back down at a different location.
Gravity will cause a fired bullet to decelerate as it travels through the air, pulling it down towards the ground and affecting its trajectory. The velocity of the bullet decreases over time due to the downward force of gravity, causing it to follow a curved path rather than a straight line.
It makes the bullet spin when it is fired- much the same way a football spins in flight. The helps the bullet travel in a straight line, improving the accuracy of the gun.
The bullet fired from a gun has greater horizontal acceleration. For vertical acceleration, they are both the same.
The bullet fired horizontally will hit the ground first, given that it has an initial horizontal velocity that keeps it moving forward from the moment it leaves the gun. On the other hand, the bullet dropped from the end of the barrel only has the force of gravity acting on it, causing it to fall vertically, which is slower than the horizontal motion of the fired bullet.
I used gelatin or a large water tank.
When a bullet is fired into the sky, it will eventually stop becasue it has run out of energy and fall back to the ground.
That would depend on the mass of the bullet, the bullet's velocity when it left the barrel of the gun, and from how high up the bullet was fired from.
The velocity of a bullet coming down from altitude is the terminal velocity of the bullet fired. Since not all bullets are equal in mass, it would depend on the grain (weight) of the bullet fired, the caliber of the bullet, and the charge behind the bullet (which would determine the highest possible altitude it could reach). To determine the terminal velocity of any bullet, you must first know these variables and plug in those variables to the equation below: That is, * Vt = terminal velocity * m= mass of the bullet * g = gravitational acceleration * Cd = drag coefficient (wind resistance applied to the bullet as it falls) * ? = denisty of the medium through which the bullet is falling (the atmosphere) * A = projected area of the bullet (which can get complicated due to the shape of the ball). Essentially, the following is true: any bullet fired straight upward is not only potentially but very likely as deadly to anyone it might strike when it lands as if that same bullet were fired directly at that person.