Newton's Laws of Motion explain the behavior of a cannon and cannonball during firing. According to Newton's Third Law, for every action, there is an equal and opposite reaction; when the cannon fires, the explosive force pushes the cannonball forward while the cannon itself recoils backward. Newton's Second Law states that the acceleration of the cannonball depends on the force applied and its mass, illustrating how the cannon's explosive force propels the ball. Overall, these laws describe the interactions and motions involved in firing a cannon.
"For every action, there is an equal and oposite reaction." The cannonball is pushed out of the barrel at high speed. This pushes the cannon in the opposite direction. That is recoil. The heavier the cannonball, and the faster it is pushed, the more the cannon recoils.
The long barreled cannon allows a longer time for the explosive charge to act upon the cannonball, which increases its velocity, making it go farther. You could also say the distance of the force of the long barreled cannon is greater, which increases its velocity, making it go farther.
No, the cannon and cannonball will not have the same amount of kinetic energy when the cannon is fired. The cannonball typically has more kinetic energy due to its higher velocity compared to the slower-moving cannon.
No, the cannon will have less kinetic energy compared to the cannonball due to its smaller mass. Kinetic energy is proportional to an object's mass and velocity, so the faster and heavier cannonball will have more kinetic energy than the slower and lighter cannon.
Its a matter of being scientifically rigorous. You can not claim the 2nd law as a law unless you first establish the first law.
When a cannon is fired and the cannonball is propelled out of the barrel, the cannon experiences an equal and opposite reaction due to Newton's third law of motion. This means that while the cannonball moves forward, the cannon itself recoils backward. The force generated by the explosion of the gunpowder pushes the cannonball out, resulting in the recoil of the cannon. This recoil can cause the cannon to move slightly backward and may require stabilization to maintain its position.
The forces acting on the cannonball and the recoiling cannon are equal in magnitude due to Newton's third law, which states that every action has an equal and opposite reaction. However, the mass of the cannonball is much smaller than that of the cannon, resulting in a greater acceleration for the cannonball according to Newton’s second law (F = ma). Since acceleration is inversely proportional to mass, the same force will produce a larger acceleration in the lighter object (the cannonball) compared to the heavier object (the cannon).
When a cannon fires a cannonball, it recoils due to the principle of conservation of momentum. As the cannonball is propelled forward with a certain momentum, the cannon itself must move backward to conserve the total momentum of the system. This reaction occurs in equal and opposite directions, as described by Newton's third law of motion: for every action, there is an equal and opposite reaction. Thus, the forward motion of the cannonball results in the backward motion of the cannon.
A cannonball is fired by a cannon due to the buildup of pressure behind it when ignited. The explosion of gunpowder causes the cannonball to be propelled out of the cannon at high speed. The trajectory and distance the cannonball travels is influenced by factors such as the angle of the cannon and the amount of gunpowder used.
Yes, momentum is conserved in the cannon-cannonball system. When the cannon fires the cannonball, the cannon moves in the opposite direction to conserve momentum. This is based on the principle of conservation of momentum in a closed system.
"For every action, there is an equal and oposite reaction." The cannonball is pushed out of the barrel at high speed. This pushes the cannon in the opposite direction. That is recoil. The heavier the cannonball, and the faster it is pushed, the more the cannon recoils.
Both objects are acted on by the force of the expanding gases in the bore. The forces forward and backward have to be equal. The motion they produce ... the forward motion of the shot and the rearward motion of the cannon ... are in inverse proportion to their masses, so that the linear momentum after the shot is the same as the linear momentum before the shot, namely zero.
Cannonball Adderley went by The New Bird, and Cannon.
a cannon is the instrument use to propel a cannonball. A cannon ball is the missile which is propelled from a cannon.................
Depends on the cannon and the charge.
Yes, a cannonball will generally travel farther if shot from a longer cannon. A longer cannon gives the cannonball more time to accelerate and build momentum before exiting the barrel, resulting in a higher initial velocity and longer travel distance.
the speed it moved at was very close to a cannonballs speed after leaving a cannon