When using a lever to lift a 45 N rock, the force required would be an input force. This is because you are applying the force to the lever to lift the rock against the force of gravity. The output force would be the force exerted by the lever on the rock.
Yes, a lever can lift a rock by using a mechanical advantage to multiply the force applied to lift the rock. The longer the lever arm, the easier it is to lift the rock.
Using a lever allows for the force applied to be spread out over a larger distance, making it easier to lift the rock compared to lifting it by hand where the force is applied directly. This makes it possible to lift heavier objects with less effort when using a lever.
What you do to your end of the lever is the INPUT force.The OUTPUT force is what happens down there under the rock.How to decide ? Try this:The OUTPUT is the RESULT of all the tools, equipment, resources,knowledge, tricks, and machinery you have, and how you use them.
The force applied to the lever can be found by dividing the force exerted on the rock by the mechanical advantage of the lever. In this case, the force applied to the lever would be 200 N (800 N / 4).
The force applied to the end of the crowbar is bigger than the weight of the rock. By using the crowbar as a lever, you apply a smaller force over a longer distance to lift the heavier rock with a greater force over a shorter distance. This allows you to overcome the weight of the rock more easily.
Yes, a lever can lift a rock by using a mechanical advantage to multiply the force applied to lift the rock. The longer the lever arm, the easier it is to lift the rock.
A simple machine that would lift a rock is a lever. By using a lever, you can apply force to one end, which allows the rock to be lifted on the other end. The lever amplifies your input force, making it easier to move heavy objects. Another option is a pulley, which can also effectively lift a rock by distributing the weight and reducing the effort needed.
Using a lever allows for the force applied to be spread out over a larger distance, making it easier to lift the rock compared to lifting it by hand where the force is applied directly. This makes it possible to lift heavier objects with less effort when using a lever.
What you do to your end of the lever is the INPUT force.The OUTPUT force is what happens down there under the rock.How to decide ? Try this:The OUTPUT is the RESULT of all the tools, equipment, resources,knowledge, tricks, and machinery you have, and how you use them.
The force applied to the lever can be found by dividing the force exerted on the rock by the mechanical advantage of the lever. In this case, the force applied to the lever would be 200 N (800 N / 4).
The force applied to the end of the crowbar is bigger than the weight of the rock. By using the crowbar as a lever, you apply a smaller force over a longer distance to lift the heavier rock with a greater force over a shorter distance. This allows you to overcome the weight of the rock more easily.
Well, what happens is, people who don't know what they're doing come on here and ask questions when they should know how to answer the question themselves. This sounds like a question from a test, so if it's for a test then you should have been taught how to solve this.
When using a crowbar to lift a large rock, you are working against the force of gravity. Gravity is pulling the rock downward towards the Earth, and you are exerting force in the opposite direction to lift it.
The moving rock with a board and log is an example of a simple machine called a lever. In this case, it likely represents a first-class lever, where the rock acts as the fulcrum, the board is the lever arm, and the log provides the effort to lift or move the load.
By placing the lever under the rock while still balancing on the fulcrum and pressing on the other end
Jack sets up a lever to make it easier to lift heavy objects by using leverage to amplify the force applied. This allows Jack to overcome resistance with less effort.
It is used to lift a heavy object. Place the end of the lever under the rock. Then move a fulcrum (for example a small rock) under the lever close to where it goes under the rock. By moving your end of the lever a lot, you can make the shorter end move a little and lift a heavy weight.