Beautiful Angular Momentum Formula Derivation
The angular momentum is zero L 0 if the linear momentum is zero p 0 or if the particle is at the origin 0 or if and are parallel or antiparallel to each other 0 0 or 1800.
Angular momentum formula derivation. Written in this way the numerator is the electrons angular momentum squared mvr2. 1 Since Angular Velocity Angular displacement Time -1 M 0 L 0 T 0 T -1 The dimensional formula of Angular Velocity M 0. The angular momentum formula is the rotational equivalent to the linear momentum.
About Press Copyright Contact us Creators Advertise Developers Terms Privacy Policy Safety How YouTube works Test new features Press Copyright Contact us Creators. Angular momentum is defined mathematically as LIω or Lrxp. Derivation Of Angular Momentum From De Broglie Equation Atomic Structure of Class 11 According to Bohrs model the electron revolves around the nucleus in circular orbits.
Which is the moment of inertia times the angular velocity or the radius of the object crossed with the linear momentum. Formula to calculate angular momentum L mvr where m mass v velocity and r radius. At thispoint Bohr made an assumption that departs radically from concepts of classical mechanicsBohrs assumption called the quantum hypothesis asserts that the angular momentum mvr canonly take on certain values which are whole-number multiples of h2π.
It is not true. Torque can be defined as the time rate of change of angular momentum. There is another type of angular momentum called spin angular momentum more often shortened to spin represented by the spin operator Spin is often depicted as a particle literally spinning around an axis but this is only a metaphor.
In a closed system angular momentum is conserved in all directions after a collision. L r p In the book there is no explanation why this formula should be true. However linear momentum had only 2 variables that are mass and speed.
What is Angular Momentum Formula. In three dimensions the angular momentum for a point particle is a pseudovector r p the cross product of the particles position vector r relative to some origin and its momentum vector. It is defined as the cross product of the position vector of rotating mass with respect to point of rotation and linear momentum of the mass.