Rotation

Of course. Torque is the product of the (force) times (its distance from the axle).

If the force you have doesn't produce enough torque, you simply apply the same

force farther from the axle, and that increases the torque.

That's why, if you can't crack the nut with the wrench you have and the

strength you have, you slip a piece of pipe over the handle and make the

wrench look twice as long. In that way, you have temporarily transformed the

wrench into a "Persuader", and the nut is highly likely then to be persuaded.

If you can arrange for the small force to be exerted at a long enough distance

from the axle, it can apply as much or more torque than the larger force can

when applied closer in.

The right-hand rule for angular displacement states that if you align your fingers in the direction of rotation, your thumb points in the direction of the angular displacement vector. This rule helps determine the direction of rotation or angular displacement in a given scenario.

The relationship between radial force and angular velocity squared is described by the centripetal force equation, which states that the radial force required to keep an object moving in a circular path is equal to the mass of the object times the square of its angular velocity, multiplied by the radius of the circular path. This relationship shows that an increase in angular velocity will result in a corresponding increase in the radial force needed to maintain the object's circular motion.

Linear kinematics refers to the motion of an object along a straight line, where variables like position, velocity, and acceleration are in one dimension. Angular kinematics, on the other hand, deals with the motion of an object in a circular path, where variables like angular displacement, angular velocity, and angular acceleration are used to describe the motion in a rotational system.

When multiple forces acting on an object cancel each other out, resulting in a net force of zero, but those forces are not aligned to pass through the object's center of mass, causing a torque to be present. This situation can occur when forces are exerted at different distances from the center of mass, creating a rotational effect even though the object remains stationary.

Centrifugal force is a fictitious force that appears in a rotating frame of reference. It tends to push objects away from the center of rotation. This effect is often observed in mechanical systems like centrifuges and amusement park rides.

One example of centripetal acceleration is when a car goes around a curve on a road. The car accelerates towards the center of the curve due to the centripetal force required to keep it moving in a curved path.

Torque is the combination of perpendicular distance and weight; it is not a true force

no angular acceleration is not producd by torque is a factor of torque T= anguar aceleration X momentum

I say yes, because torque is another word for a couple that is equivalent to two equal parallel forces in opposite directions but separated by a distance. Torque acting on an inertia produces angular acceleration exactly as a force acting on a mass produces linear acceleration. Actually the answer above does not make much sense to me. Angular momentum is the angular rotation speed times the inertia. Finally inertia is the sum of all the bits of mass each multiplied by the square of distance from the inertial centre.

Yes, centripetal force is required to maintain rotational motion by pulling an object towards the center of the rotation. Without centripetal force, the object would move in a linear path rather than rotating.

Magnetic moment refers to the property of a magnet or a current-carrying loop to produce a magnetic field, while angular momentum is a measure of the rotational motion of an object. In terms of physical quantity, magnetic moment is a vector quantity, while angular momentum is a vector quantity as well.

The angular momentum of the mass m with respect to the origin, in this case, would be zero. This is because the mass is moving parallel to the x-axis, so its position vector relative to the origin does not change with time. As angular momentum is defined as the cross product of the position vector and the linear momentum, and in this case, the position vector does not change, the angular momentum is zero.

The angular velocity of the ferris wheel is 2π radians every 8 seconds, which is equivalent to 0.7854 radians per second. The centripetal acceleration is calculated using the formula a = rω^2, where r is the radius and ω is the angular velocity. Substituting the values, we get a = 12 m * (0.7854 rad/s)^2 ≈ 7.46 m/s^2.

A force is a push or pull that causes a change in an object's linear motion, such as moving it in a straight line. A torque is a twisting force that causes an object to rotate around an axis. While a force can change an object's position, a torque specifically affects its orientation or rotational motion.

Centrifugal force and centripetal force are both related to inertia. Centrifugal force is the outward "apparent" force experienced in a rotating frame of reference, caused by inertia trying to keep an object moving in a straight line. Centripetal force is the inward force that keeps an object moving in a circular path, acting in opposition to the centrifugal force and also related to inertia as it is required to overcome an object's tendency to move in a straight line.

Axis rotation refers to the process of rotating an object around a specific axis or line. This type of rotation can occur in various dimensions, such as 2D or 3D, and is commonly used in mathematics and computer graphics to manipulate objects. Axis rotation allows for precise control over the orientation of an object in space.

To increase the torque of a given force, you can increase the distance from the pivot point (lever arm). This is because torque is the product of force and lever arm length. Increasing either the force or the lever arm length will increase the torque.

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.

The acceleration that occurs in circular motion is called centripetal acceleration. It is directed towards the center of the circle and is responsible for keeping an object moving in a circular path. Centripetal acceleration is required because the direction of an object's velocity is constantly changing in circular motion.

No, the Earth spins at a constant rate, typically around 1,000 miles per hour at the equator, while airplanes travel at variable speeds depending on the aircraft and conditions. Generally, airplanes fly much slower than the speed at which the Earth rotates.

No, angular displacement refers to the change in angle of an object relative to a reference point, while angular velocity is the rate at which an object changes its angle over time. Angular displacement is a scalar quantity, measured in radians, while angular velocity is a vector quantity with direction and magnitude, measured in radians per second.

Angular momentum is maintained in such a case - and in fact in all cases, unless angular momentum is transferred to, or from, another body. This means it must rotate faster.

Angular momentum is maintained in such a case - and in fact in all cases, unless angular momentum is transferred to, or from, another body. This means it must rotate faster.

Angular momentum is maintained in such a case - and in fact in all cases, unless angular momentum is transferred to, or from, another body. This means it must rotate faster.

Angular momentum is maintained in such a case - and in fact in all cases, unless angular momentum is transferred to, or from, another body. This means it must rotate faster.