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RandomConcepts
| Question | Answer |
|---|---|
| Steiner's theorem, also known as the parallel axis theorem, finds this quantity | Moment of Inertia (not inertia) |
| Its conservation leads to an orbiting body increasing its velocity when closer to the Body it is orbiting, the result seen in Kepler's second law. | Angular Momentum |
| Rotational analogue of mass, I | Moment of Inertia (not inertia) |
| This property must differ for two electrons in the same orbital. (Pauli Exclusion Principle) | Spin |
| Its derivative with respect to time is torque | Angular Momentum |
| This quantity is unchanged according to the Stretch Rule. | Moment of Inertia (not inertia) |
| A measure of a body’s resistance to changes in its rotation | Moment of Inertia (not inertia) |
| It is equal to the product of moment of inertia and angular velocity. | Angular Momentum |
| The rotational analog of momentum. Denoted L | Angular Momentum |
| Evidence for it came from the Stern-Gerlach Experiment. | Spin |
| The angular momentum of a sub-atomic particle. | Spin |
| The De Broglie Wavelength equals Plank's constant divided by this. (Or this equals Plank's Constant divided by wavelength) | (linear)momentum |
| Usually represented by "p". Product of mass and velocity. | (linear)momentum |
| Change in this quantity is called impulse | (linear)momentum |
| conserved in elastic and inelastic collisions | (linear)momentum |