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[[Image:20070321-003722_pritchard-squeezing.png|frame|right|Prof. Dave Pritchard demonstrating classical squeezing with a parametrically driven pendulum oscillator [http://cua.mit.edu/8.422/VIDEO-pritchard-demonstrating-classical-squeezing-14feb05.avi see video]]]
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[[Image:20070321-003722_pritchard-squeezing.png|frame|right|Prof. Dave Pritchard demonstrating classical squeezing with a parametrically driven pendulum oscillator [[Pritchard_demonstrating_classical_squeezing|(see video)]] ]]
  
 
This material is from [http://cua.mit.edu/8.422 MIT 8.422 Atomic Physics II] and is only in <font color=red>DRAFT</font> form at the present. This material will be actively edited around when coresponding subjects are discussed in class.
 
This material is from [http://cua.mit.edu/8.422 MIT 8.422 Atomic Physics II] and is only in <font color=red>DRAFT</font> form at the present. This material will be actively edited around when coresponding subjects are discussed in class.

Revision as of 21:37, 29 July 2015

MIT Atomic Physics

Welcome to the MIT Aomic Physics Wiki. This is a collection of reference material that you can edit. Please contribute new content, as well as comments on and improvements to existing material. Our goal is to develop a helpful resource for all students in the field of modern atomic physics.


Part I Course Notes (8.421)

This material is from MIT 8.421 Atomic Physics I and is only in DRAFT form at the present. You are welcome to edit to correct mistakes and add content.

Old MIT 8.421 Course Notes (pre-2008) ; Bibliographic references (needs to be moved into individual chapters)

Part II Course Notes (8.422)

Prof. Dave Pritchard demonstrating classical squeezing with a parametrically driven pendulum oscillator (see video)

This material is from MIT 8.422 Atomic Physics II and is only in DRAFT form at the present. This material will be actively edited around when coresponding subjects are discussed in class.

Sample Topics

<random count=4> Interferometer shot noise limit Non-classical states of light Squeezed light interferometry Interferometer Heisenberg limit Introduction to Atomic Physics Photons and statistics Single photons Entangled Photons Interferometry and metrology Derivation of the optical Bloch equations Steady state solutions of the optical Bloch equations Unraveling quantum open system dynamics Laser cooling of trapped ions Quantum computation and trapped ions Quantum control and trapped ions Optical Molasses Beam Slowing Magneto-Optical Traps Van der Waals interaction Casimir interaction Resonant scattering The operator sum representation of open quantum system dynamics </random>

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