No.
Yes, the net torque changes because the distance from the pivot point to the partner's center of mass is altered when she stands or hangs instead of sitting. Standing or hanging position increases the moment arm, affecting the torque exerted on the seesaw.
A seesaw is an example of a first-class lever. The fulcrum, which is the part of the lever that does not move, is in the middle. The resistance, which is the weight (person) you are trying to lift is at one end. The effort, which is the force applied to the lever, is the person sitting on the other end.
A lighter person sitting closer to the pivot point of a seesaw exerts a smaller torque compared to a heavier person sitting farther from the pivot point. This difference in torque allows the heavier person to be lifted. The principle involved is torque, or the rotational force, in relation to the pivot point.
The main forces involved when on a seesaw are gravity, which pulls objects towards the Earth's center, and the normal force, which is the force exerted by the seesaw pushing back on the person sitting on it. These forces create a balanced system where one end of the seesaw goes up while the other goes down.
A seesaw works due to the force of gravity acting on the two people sitting on either end. As one person pushes down, their end goes up because the fulcrum (pivot point) acts as a balance point for the seesaw to rotate around. The seesaw operates on the principle of the lever, with the downward force of one person causing the other end to move upward.
Yes, the net torque changes because the distance from the pivot point to the partner's center of mass is altered when she stands or hangs instead of sitting. Standing or hanging position increases the moment arm, affecting the torque exerted on the seesaw.
Your mother did
no s's in "that"
The path of the end of a seesaw is an arc or semicircle.
To balance the seesaw, your partner should weigh 144 pounds. This is because the weight of each person multiplied by their distance from the fulcrum should be equal. So, 120 pounds × 15ft = Partner's weight × 20ft, which amounts to 144 pounds.
Balance, horizontal, play, children, fun, plank, moving, up-and-down, two, sitting.
A seesaw is an example of a first-class lever. The fulcrum, which is the part of the lever that does not move, is in the middle. The resistance, which is the weight (person) you are trying to lift is at one end. The effort, which is the force applied to the lever, is the person sitting on the other end.
A lighter person sitting closer to the pivot point of a seesaw exerts a smaller torque compared to a heavier person sitting farther from the pivot point. This difference in torque allows the heavier person to be lifted. The principle involved is torque, or the rotational force, in relation to the pivot point.
The main forces involved when on a seesaw are gravity, which pulls objects towards the Earth's center, and the normal force, which is the force exerted by the seesaw pushing back on the person sitting on it. These forces create a balanced system where one end of the seesaw goes up while the other goes down.
A seesaw works due to the force of gravity acting on the two people sitting on either end. As one person pushes down, their end goes up because the fulcrum (pivot point) acts as a balance point for the seesaw to rotate around. The seesaw operates on the principle of the lever, with the downward force of one person causing the other end to move upward.
Oh, dude, the heavier person needs to sit closer to the fulcrum on a seesaw to balance out the weight with the lighter person sitting farther away. It's all about physics and stuff, like, who knew a playground toy could teach us about leverage, right? Just remember, don't go launching your friend into orbit if you want to keep the seesaw fun going.
You must be sitting twice as far away from the pivot, on your side, as your sister is on her side.