The period of precession for this gyroscope is the time it takes for the gyroscope to complete one full rotation around its axis due to an external force.
The direction of precession of a gyroscope is perpendicular to the axis of rotation.
All I know is that if the Gyroscope's wheel is heavier it will precess faster and if it spins faster it will precess slower. But I'm not sure if slower or faster precession creates a more stable gyroscope.
In a free gyroscope, tilt refers to the angular displacement of the spinning axis from its original vertical position, while drift refers to the slow rotation of the spinning axis over time due to external factors such as friction or unbalanced forces. Tilt can be corrected by precession or nutation, while drift can be minimized through careful design and balancing of the gyroscope.
" Why does a tilted gyroscope not fall?In: Physics [Recategorize]Picture a spinning gyroscope that has its axis of rotation tilted with respect to gravity. As the gyroscope spins, the direction its axis is pointing is moving. It is describing a circle. That's called precession. Gravity is pulling down (applying a torque) on the gyroscope and trying to pull the top over. Gravity is trying to change the alignment of the axis of rotation. But because the gyro is spinning, because it has what is called angular momentum, gravity can't pull the top straight down. Instead, the force acts 90 degrees later in the direction of rotation. The "down" force is combined with the "spinning" force to create a "sideways" force. The result is that the axis of rotation moves a little bit to the side. In the next instant, gravity, which is still pulling, tries to bring it down, but the spin, that angular momentum, again combines with the gravitational force and another bit of "sideways" force shifts the axis again. In each instant of time, the force of gravity and the gyroscope's spin result in a dynamic that constantly shifts the axis or rotation a bit more to the side. Momentum is conserved in this phenomenon. In an experiment, a top spinning in one direction and tilted as it spins will exhibit precession in a given direction. If the top is spinning in the other direction, precession will be the opposite that it was with the first top. The Wikipedia article on precession has a picture of a gyroscope that has a bit of animation to (hopefully) make it clearer."Stole this but it works for your question too, also linked to it in the related section.
When force is applied to a spinning gyroscope, it will experience a change in its orientation known as precession. The gyroscope will rotate around a different axis perpendicular to the applied force, causing it to maintain its original orientation in space.
The direction of precession of a gyroscope is perpendicular to the axis of rotation.
Precession is a change in the orientation of the rotational axis of a rotating body. It can be used to describe the rotation of everything from a simple gyroscope to the rotation of a planet. 420
All I know is that if the Gyroscope's wheel is heavier it will precess faster and if it spins faster it will precess slower. But I'm not sure if slower or faster precession creates a more stable gyroscope.
Precession, which in this case refers to a movement of Earth's axis. A full "turn" takes about 26,000 years.
In a free gyroscope, tilt refers to the angular displacement of the spinning axis from its original vertical position, while drift refers to the slow rotation of the spinning axis over time due to external factors such as friction or unbalanced forces. Tilt can be corrected by precession or nutation, while drift can be minimized through careful design and balancing of the gyroscope.
" Why does a tilted gyroscope not fall?In: Physics [Recategorize]Picture a spinning gyroscope that has its axis of rotation tilted with respect to gravity. As the gyroscope spins, the direction its axis is pointing is moving. It is describing a circle. That's called precession. Gravity is pulling down (applying a torque) on the gyroscope and trying to pull the top over. Gravity is trying to change the alignment of the axis of rotation. But because the gyro is spinning, because it has what is called angular momentum, gravity can't pull the top straight down. Instead, the force acts 90 degrees later in the direction of rotation. The "down" force is combined with the "spinning" force to create a "sideways" force. The result is that the axis of rotation moves a little bit to the side. In the next instant, gravity, which is still pulling, tries to bring it down, but the spin, that angular momentum, again combines with the gravitational force and another bit of "sideways" force shifts the axis again. In each instant of time, the force of gravity and the gyroscope's spin result in a dynamic that constantly shifts the axis or rotation a bit more to the side. Momentum is conserved in this phenomenon. In an experiment, a top spinning in one direction and tilted as it spins will exhibit precession in a given direction. If the top is spinning in the other direction, precession will be the opposite that it was with the first top. The Wikipedia article on precession has a picture of a gyroscope that has a bit of animation to (hopefully) make it clearer."Stole this but it works for your question too, also linked to it in the related section.
The Earth is a spinning top (gyro) with a different moment of inertia about the spin axis than the other two axis. Therefore, it acts like a spinning top with both precession and nutation. Precession of the polar axis (relative to a 'fixed' distant star) forms a cone. The precession period (~26,000years) is the time it takes for the cone to be traced. Nutation occurs normal to the precession cone and has a much faster period (~18.6yrs).
The next precession of the Earth's axis is already in progress and it occurs over a period of about 26,000 years. The exact timing of when one precession cycle ends and another begins is not easily pinpointed.
The angle of the axis of rotation does not change. It always points to what is known as the celestial north, though it does wobble slowly making a full wobble, or circle about every 26,000 years. This is called precession. It is like a gyroscope. See the link below for an image of precession
When force is applied to a spinning gyroscope, it will experience a change in its orientation known as precession. The gyroscope will rotate around a different axis perpendicular to the applied force, causing it to maintain its original orientation in space.
Picture a spinning gyroscope that has its axis of rotation tilted with respect to gravity. As the gyroscope spins, the direction its axis is pointing is moving. It is describing a circle. That's called precession. Gravity is pulling down (applying a torque) on the gyroscope and trying to pull the top over. Gravity is trying to change the alignment of the axis of rotation. But because the gyro is spinning, because it has what is called angular momentum, gravity can't pull the top straight down. Instead, the force acts 90 degrees later in the direction of rotation. The "down" force is combined with the "spinning" force to create a "sideways" force. The result is that the axis of rotation moves a little bit to the side. In the next instant, gravity, which is still pulling, tries to bring it down, but the spin, that angular momentum, again combines with the gravitational force and another bit of "sideways" force shifts the axis again. In each instant of time, the force of gravity and the gyroscope's spin result in a dynamic that constantly shifts the axis or rotation a bit more to the side. Momentum is conserved in this phenomenon. In an experiment, a top spinning in one direction and tilted as it spins will exhibit precession in a given direction. If the top is spinning in the other direction, precession will be the opposite that it was with the first top. The Wikipedia article on precession has a picture of a gyroscope that has a bit of animation to (hopefully) make it clearer.
Procession of the Equinox