Distance X speed
The mechanical advantage of the machine is"if you give small accelration , it will increase the speed of the engine... It is possible by mechanical
A lever is a simple machine that can multiply the distance you apply force over. By adjusting the placement of the fulcrum, you can increase the distance the load moves relative to the distance you push or pull on it.
When a simple machine helps reduce force, the distance the object moves increases. This is known as a trade-off between force and distance in mechanical systems. By applying less force over a longer distance, simple machines make it easier to perform work.
The product of force times the distance the force was directed in, is called "work".The relationship between distance and force is that, when using a simple machine, to move an object it requires less force to move an object a farther distance when using a simple machine than moving an object without a simple machine.The relationship between distance and force is that, when using a simple machine, to move an object it requires less force to move an object a farther distance when using a simple machine than moving an object without a simple machine.Addition: "Using a Force (y-axis) over Distance (x-axis), the Work done can be estimated by calculating the area under the graphed line." -Arian.
In the distance from the fulcrum to the input forcedivided by the distance from the fulcrum to theoutput force.
The work that a simple machine does is called mechanical work. It refers to the amount of force applied over a distance to accomplish a task using the simple machine.
If a simple machine provides an increased output force, then the output distance will decrease. This is due to the principle of work conservation, where input work equals output work. As the force increases, the distance through which the force acts decreases proportionally to maintain the balance.
Efficiency % = (work out / work in) * 100 (Work = force * distance)
The distance of the object
The resistance force multiplied by the resistance distance.
Efficiency % = (work out / work in) * 100 (Work = force * distance)