It is the impulse which equals the change in momentum.
The purpose is to reduce the force that must be applied to raise a load. The inclined plane and rollers were used in building the pyramids in Egypt. To raise a body vertically a force must be applied that is equal to the weight of the body. The amount of work done in raising the body is equal to its weigt times the distance through which it is raised. If friction is ignored, the work done using the inclined plane will be exactly equal to the work done in lifting the body directly.
The purpose is to reduce the force that must be applied to raise a load. The inclined plane and rollers were used in building the pyramids in Egypt. To raise a body vertically a force must be applied that is equal to the weight of the body. The amount of work done in raising the body is equal to its weigt times the distance through which it is raised. If friction is ignored, the work done using the inclined plane will be exactly equal to the work done in lifting the body directly.
This is the equation for "work."
force
Work is done on an object when a force is applied to move the object through a distance in the direction of the force. The amount of work done is equal to the force applied times the distance the object moves.
Great question! We hardly ever see that one submitted here.(Force) x (Time) = Momentum
It is the impulse which equals the change in momentum.
Work is equal to the force applied to an object multiplied by the distance the object moves in the direction of the force. Mathematically, work = force × distance (W = F × d).
If a constant force is applied for double the amount of time, the impulse applied will also double. Impulse is equal to force multiplied by time, so if either the force or the time doubles, the impulse will also double.
It will not get harder on hitting it but crack and even tend to break depending on the amount of force applied on it It will not get harder on hitting it but crack and even tend to break depending on the amount of force applied on it
The motion of an object is directly related to the amount of force applied to it. The greater the force applied, the more acceleration the object will experience, leading to a change in its motion. The relationship is described by Newton's second law of motion, which states that force equals mass times acceleration.
The amount of work required to push water depends on the force applied, the distance over which the force is applied, and the properties of the water being pushed, such as its viscosity and density. Work is calculated as force times distance, so the greater the force or the distance over which it is applied, the more work will be required to push the water.
The work done is directly proportional to the distance through which the force is applied. This is known as the Work-Energy Principle, where work is equal to force multiplied by distance. So, increasing the distance over which a force is applied will result in more work being done.
The purpose is to reduce the force that must be applied to raise a load. The inclined plane and rollers were used in building the pyramids in Egypt. To raise a body vertically a force must be applied that is equal to the weight of the body. The amount of work done in raising the body is equal to its weigt times the distance through which it is raised. If friction is ignored, the work done using the inclined plane will be exactly equal to the work done in lifting the body directly.
The purpose is to reduce the force that must be applied to raise a load. The inclined plane and rollers were used in building the pyramids in Egypt. To raise a body vertically a force must be applied that is equal to the weight of the body. The amount of work done in raising the body is equal to its weigt times the distance through which it is raised. If friction is ignored, the work done using the inclined plane will be exactly equal to the work done in lifting the body directly.
Yes, it is possible for no transformation of energy to take place even when a force is applied to a body if the body does not move in the direction of the force or if the force is cancelled out by an equal and opposite force. In such cases, the energy remains constant.