Well it depends on what you are using for a pulley the mechanical advantage is equal to the number of ropes lifting the object such as if you have one pulley the MA (mechanical advantage) is equal to 1 if you have two pullies the MA is 2 if you are using a lever such as a seesaw you have to move the fulcrum as close to the object being lifted and have to longest possible input arm. If you modify a seesaw a 60 pound child can lift a 200 pound adult. That is about all i know hope it helps if you are using a different simple machine or need more help email me at : icecbejohn@Yahoo.com
Second class lever. . . . Always greater than 1 . Third class lever . . . . . Always less than 1 . First class lever . . . . . Can be greater than 1 or less than 1 depending on position of fulcrum.
output force (:
1.4 is greater than 1.
no 1 is not greater than 100
0
The mechanical advantage of a pulley can be greater than 1.The efficiency cannot but that is a different matter.
A second class lever always has a mechanical advantage greater than 1.
The IMA of a machine is greater than 1 whenever the output force is greater than the input force.
Second class lever. . . . Always greater than 1 . Third class lever . . . . . Always less than 1 . First class lever . . . . . Can be greater than 1 or less than 1 depending on position of fulcrum.
output force (:
well the advantage of that is pie, not math pie but pie that you eat
The Output Force Will Most Likely Be Greater Than The Input Force. So "OUTPUT" Is Greater Than "INPUT".
When the output is less than the input. Mechanical advantage is expressed as the ratio of the output to the input.
Because it always has a mechanical advantage greater then 1.
The mechanical advantage of an inclined plane is equal to length divided by height (l/h). Therefore, if the length is less than than the height, the mechanical advantage would be less than one.
2
True ~ LiL' Diablo