In quantum mechanics, the square of this quantity is equal to h-bar squared times n times quantity n plus one, and the g-factor gives the ratio of the magnetic moment to this quantity. One form of Kepler's Second Law states that this quantity divided by 2 m is equal to the rate of sweeping out area. In the Bohr model, this quantity for the electron is equal to the principal quantum number times h-bar. The vector of this quantity traces out a circle in (*) precession, and the time derivative of this quantity is equal to the torque. The conservat
In quantum mechanics, the square of this quantity is equal to h-bar squared times n times quantity n plus one, and the g-factor gives the ratio of the magnetic moment to this quantity. One form of Kepler's Second Law states that this quantity divided by 2 m is equal to the rate of sweeping out area. In the Bohr model, this quantity for the electron is equal to the principal quantum number times h-bar. The vector of this quantity traces out a circle in (*) precession, and the time derivative of this quantity is equal to the torque. The conservation of this quantity explains why a skater spins faster when pulling their arms in. For 10 points, name this physical quantity equal to the product of the moment of inertia and the angular velocity and symbolized L.
In quantum mechanics, the square of this quantity is equal to h-bar squared times n times quantity n plus one, and the g-factor gives the ratio of the magnetic moment to this quantity.
angular momentum [accept L before mention; prompt on "momentum"; do not accept "linear momentum"]