Probably on the axle??
To impart the greatest momentum to an object, you would need to apply the greatest force over the longest time interval. This can be achieved by increasing both the force and the duration of contact between the object and the force. This would result in a greater change in the object's momentum.
A larger wheel radius typically requires less effort to turn the wheel because the larger radius provides a mechanical advantage, allowing the force to be applied further from the center of the wheel. This results in a greater leverage effect, reducing the amount of force needed to turn the wheel. Conversely, a smaller wheel radius would require more effort to turn the wheel due to the decreased leverage effect.
The net force would be the difference between the applied force and the air resistance. If the applied force is greater than the air resistance, then the net force would be in the direction of the applied force. If the air resistance is greater than the applied force, then the net force would be in the opposite direction.
To give a large boulder a larger acceleration, you would need to apply a greater force to overcome the boulder's inertia. Increasing the force applied to the boulder by pushing, pulling, or using a mechanical device capable of exerting more force would result in a larger acceleration.
A lever would be the best type of simple machine to use to pry open a can. By using a lever, you can apply a small force over a longer distance to generate a greater force at the pivot point, making it easier to open the can.
To impart the greatest momentum to an object, you would need to apply the greatest force over the longest time interval. This can be achieved by increasing both the force and the duration of contact between the object and the force. This would result in a greater change in the object's momentum.
A wheel requires a smaller amount of force to be moved than an axle. Combined, a minimal amount of force is used to move the wheel and in turn is transferred from the wheel to the attached axle, to move the axle. Alone the axle would require a greater amount of force for it to be turned.
I'm not a scientist but I would say the greater the force, the greater the erosion. A larger wave has more mass, and would exert more force on what it hits. The greater force would have greater potential for knocking particles loose from what it hits - erosion. The speed of the wave would have a similar effect - greater speed equals greater fore and greater erosion.
A larger wheel radius typically requires less effort to turn the wheel because the larger radius provides a mechanical advantage, allowing the force to be applied further from the center of the wheel. This results in a greater leverage effect, reducing the amount of force needed to turn the wheel. Conversely, a smaller wheel radius would require more effort to turn the wheel due to the decreased leverage effect.
Possibly bad wheel bearing.
The deformation would increase because the force increases.
The net force would be the difference between the applied force and the air resistance. If the applied force is greater than the air resistance, then the net force would be in the direction of the applied force. If the air resistance is greater than the applied force, then the net force would be in the opposite direction.
force
The greater the mass, the greater the force of gravity.
To give a large boulder a larger acceleration, you would need to apply a greater force to overcome the boulder's inertia. Increasing the force applied to the boulder by pushing, pulling, or using a mechanical device capable of exerting more force would result in a larger acceleration.
The wheel and axle would be multiplying distance.
A lever would be the best type of simple machine to use to pry open a can. By using a lever, you can apply a small force over a longer distance to generate a greater force at the pivot point, making it easier to open the can.