This is the second of a two-semester subject sequence beginning with Atomic and Optical Physics I (8.421) that provides the foundations for contemporary research in selected areas of atomic and optical physics. Topics covered include non-classical states of light–squeezed states; multi-photon proces…
In this lecture, the professor discussed ideal Bose gases, weakly interacting homogenous Bose gas, inhomogenous Bose gas, etc.
In this lecture, the professor discussed cold fermions, cooper pairing, experimental realization of the BEC-BCS Crossover, etc.
In this lecture, the professor discussed ion traps, quantum computation with ions, etc.
In this video, the professor discussed dipole traps, energy conservation, electric vs. magnetic forces, etc.
In this lecture, the professor discussed magnetic trapping and evaporative cooling.
In this video, the professor discussed combined state of atom and electromagnetic field, dressed basis, laser field, etc.
In this video, the professor discussed applications of the spontaneous force.
In this video, the professor discussed light forces, mechanical forces, radiation pressure force, reactive forces.
In this lecture, the professor discussed motivation for single quantum systems, QMCWF, and models for dephasing.
In this video, the professor discussed steady state solutions.
In this lecture, the professor discussed spectrum and intensity of emitted light.
In this lecture, the professor focused on the derivation of optical Bloch equations.
In this lecture, the professor discussed Resonant scattering.
In this video, the professor continued to talk about Casimir interactions and discussed Casimir force.
In this lecture, the professor discussed van der Waals and Casimir interactions.
In this lecture, the professor discussed Feyman diagrams for light-atom interactions.
In this lecture, the professor discussed g(2) for atoms and light, classical vs. quantum statistics, etc.
In this lecture, the professor first talked about "Ion trapped in a solid", then discussed metrology, shot noise and Heisenberg limit.
In this lecture, the professor discussed classical squeezing, squeezed quantum states, the displacement operator and electric field of squeezed states.
In this lecture, the professor continued to talk about Bell inequality and discussed quantum metrology.
In this lecture, the professor continued to talk about single photons, Mach-Zehnder interferometer, etc.
In this lecture, the professor discussed phase shifters and beam splitters, Mach-Zehnder interferometer, etc.
In this lecture, the professor discussed entanglement, entangled states, Bell inequality, etc.
In this lecture, the professor discussed fluctuations and noise, and the single photon.
In this lecture, the professor discussed Homodyne detection and teleportation of light.
In this lecture, the professor discussed QED Hamiltonian starting from electromagnetism.
In this lecture, the professor discussed single mode light, thermal states, coherent states, etc.
This lecture provides a general overview of atomic, molecular, and optical (AMO) physics.