Chapter 8 Rotational Motion
... in the same sense as the rotation. Your extended thumb points along the axis in the direction of the angular velocity. ...
... in the same sense as the rotation. Your extended thumb points along the axis in the direction of the angular velocity. ...
Chapter 8 Rotational Motion
... in the same sense as the rotation. Your extended thumb points along the axis in the direction of the angular velocity. ...
... in the same sense as the rotation. Your extended thumb points along the axis in the direction of the angular velocity. ...
mi11sol
... A. Review of Basic Ideas: Spinning around When we want to describe the movement of an object we can talk about its velocity and its acceleration. But what about something like a CD which stays in the same place but spins around? Different points on the CD are moving at different velocities, but they ...
... A. Review of Basic Ideas: Spinning around When we want to describe the movement of an object we can talk about its velocity and its acceleration. But what about something like a CD which stays in the same place but spins around? Different points on the CD are moving at different velocities, but they ...
Motion, Forces, and Simple Machines
... States: An object at rest stays at rest unless an unbalanced force acts on it. *An object moving in a straight line at constant speed will continue doing that unless acted on by a force. This force is called friction. It is a force that resists motion between 2 surfaces that are in contact. It alway ...
... States: An object at rest stays at rest unless an unbalanced force acts on it. *An object moving in a straight line at constant speed will continue doing that unless acted on by a force. This force is called friction. It is a force that resists motion between 2 surfaces that are in contact. It alway ...
Chapter 10
... d) At the final speed, with what force does the fly (m = 0.01 kg, r = 0.50 m) need to hold on, so that it won’t fall off? (Note difference between angular and centripetal acceleration). ...
... d) At the final speed, with what force does the fly (m = 0.01 kg, r = 0.50 m) need to hold on, so that it won’t fall off? (Note difference between angular and centripetal acceleration). ...
Study Guide
... gravity. Since the downward direction is negative, the acceleration of the pebble is -9.8m/s2. The pebble is not decelerating. Since its velocity and acceleration both point downward, the magnitude of the pebble’s velocity is increasing, not decreasing. The displacement y traveled by the pebble as a ...
... gravity. Since the downward direction is negative, the acceleration of the pebble is -9.8m/s2. The pebble is not decelerating. Since its velocity and acceleration both point downward, the magnitude of the pebble’s velocity is increasing, not decreasing. The displacement y traveled by the pebble as a ...
Multiple choice questions Answer all of the following questions
... A bicycle is moving at a speed v = 12.6 m/s. The wheels of the bicycle roll without slipping. A small stone is stuck to one of the tires. At the instant the stone is at point A in the figure, it comes free. The velocity of the stone (magnitude and direction) relative to the earth just after release ...
... A bicycle is moving at a speed v = 12.6 m/s. The wheels of the bicycle roll without slipping. A small stone is stuck to one of the tires. At the instant the stone is at point A in the figure, it comes free. The velocity of the stone (magnitude and direction) relative to the earth just after release ...
Circular Motion
... remove the centripetal force, it will fly off in a straight line in whatever direction it happens to be going at that moment. Centripetal acceleration is found using the following equations: ac= v2/r= 4π2r/T2 ...
... remove the centripetal force, it will fly off in a straight line in whatever direction it happens to be going at that moment. Centripetal acceleration is found using the following equations: ac= v2/r= 4π2r/T2 ...
Physics of Rolling Ball Coasters
... is easier than pulling a handle in the center of the door, and than pulling at any other angle. Why? When causing an object to rotate, it is important where and how the force is applied, in addition to the magnitude. Torque is a turning or twisting force, and it is a measure of a force's tendency to ...
... is easier than pulling a handle in the center of the door, and than pulling at any other angle. Why? When causing an object to rotate, it is important where and how the force is applied, in addition to the magnitude. Torque is a turning or twisting force, and it is a measure of a force's tendency to ...
Precession
Precession is a change in the orientation of the rotational axis of a rotating body. In an appropriate reference frame it can be defined as a change in the first Euler angle, whereas the third Euler angle defines the rotation itself. In other words, the axis of rotation of a precessing body itself rotates around another axis. A motion in which the second Euler angle changes is called nutation. In physics, there are two types of precession: torque-free and torque-induced.In astronomy, ""precession"" refers to any of several slow changes in an astronomical body's rotational or orbital parameters, and especially to Earth's precession of the equinoxes. (See section Astronomy below.)