Torque is the product of (force) x (distance from the center of rotation).
So with a distance from the center that's large enough or small enough,
any force can produce as much or as little torque as you want.
A large force can produce a small or zero torque if the force is applied at a point where the lever arm (distance from the point of rotation to the line of action of the force) is very small or zero. Torque is calculated as force multiplied by lever arm, so a small lever arm can result in a small or zero torque even with a large force.
Yes, a small force applied at a greater distance from the pivot point can produce a greater torque than a large force applied closer to the pivot point. This is because torque is the product of force and distance.
By applying the small force farther from the center of rotation. That's exactly the reason why you need a longer wrench to crack the nut off of the bolt when it's stuck. It's also exactly the reason why the child sits farther from the pivot of the see-saw than her father does.
When you apply a force to a mass you produce acceleration. "Tiny" and "large" are not well defined here, but the basic equation is F = ma, so if the forces are proportional to the masses in each case (for example, a 0.1 N force applied to a 0.1 g object and a 1000 N force applied to a 1000 g object) then you will produce the same acceleration for both objects.
A larger handle provides more leverage, making it easier to apply force and turn the nut. This leverage increases the torque applied to the nut, requiring less effort from the person turning the wrench.
A large force can produce a small or zero torque if the force is applied at a point where the lever arm (distance from the point of rotation to the line of action of the force) is very small or zero. Torque is calculated as force multiplied by lever arm, so a small lever arm can result in a small or zero torque even with a large force.
Yes, a small force applied at a greater distance from the pivot point can produce a greater torque than a large force applied closer to the pivot point. This is because torque is the product of force and distance.
By applying the small force farther from the center of rotation. That's exactly the reason why you need a longer wrench to crack the nut off of the bolt when it's stuck. It's also exactly the reason why the child sits farther from the pivot of the see-saw than her father does.
An angular force would produce a large torque like angular momentum of a spinning wheel.
It has to do with a type of force called torque. When you push down on a lever, the force you push with is multiplied by the length of the lever to produce a torque. If you have a very long lever, then you are multiplying your pushing force by a big number and can produce a big torque. It's an easy way to get a large force with little effort.
An angular force would produce a large torque like angular momentum of a spinning wheel.
Yes, it is possible for a smaller force to have a large torque because it is usually located at a much greater distance from the center of rotation. Torque is calculated by multiplying the distance by the force.
It applies a small amount of force to produce a large amount of force.
When you apply a force to a mass you produce acceleration. "Tiny" and "large" are not well defined here, but the basic equation is F = ma, so if the forces are proportional to the masses in each case (for example, a 0.1 N force applied to a 0.1 g object and a 1000 N force applied to a 1000 g object) then you will produce the same acceleration for both objects.
They need torque in order to pull a heavy load. The bigger the engine the more torque it can produce. The use of Turbo Chargers & computer management has made it possible to downsize truck engines somewhat but they are still very large when compared to an automobile engine.
A larger handle provides more leverage, making it easier to apply force and turn the nut. This leverage increases the torque applied to the nut, requiring less effort from the person turning the wrench.
The Union Pacific Big Boy locomotive, known for its massive size and power, can produce around 135,375 pounds of tractive effort, which translates to significant torque. This immense force is primarily due to its articulated design and large driving wheels, allowing it to pull heavy freight loads across steep gradients. The exact torque can vary depending on speed and load conditions, but its overall design is engineered for maximum pulling power.