Atomic, Molecular, & Optical Physics

The Atomic, Molecular and Optical physics (AMO) group at Georgia Tech is a strong and diverse group that has made pioneering contributions in the areas of ultracold atomic physics, quantum degenerate gases, quantum optics, quantum information, ultrafast atomic physics and ultrafast laser metrology.

In the last few decades, advances in laser technology and the invention of laser cooling and trapping techniques for atoms and molecules have opened entirely new, rapidly expanding frontiers of AMO science. These developments have been recognized by 4 recent Nobel prizes: laser-cooling and trapping (1997), Bose-Einstein condensations (2001), optical clocks (2005) and quantum control of ions and cavity QED (2012).

These advances and inventions have provided dramatically more powerful tools for the investigation of long-standing problems in AMO science, including foundational questions in quantum mechanics, studies of atom-light interactions, precision tests of fundamental physics and symmetries (including searches for electric dipole moments, g-2, etc.), and frequency and length and magnetic field metrology.  In addition, these advances have led to new areas of research including the investigations of quantum degenerate gases, quantum information and computing, and ultrafast phenomena in atoms and molecules.

Technological applications that derive from work in atomic physics include precision sensors for inertial sensing and navigation, magnetic and electric field sensing, atomic clocks and emerging quantum technologies including quantum information processors and quantum communication networks.

Additionally, AMO science contributes to investigations in other areas of physics including tests of general relativity, fundamental symmetries of the Standard Model and many-body physics including condensed matter and nuclear physics. Ultra-cold atoms in particular provide new tools to construct quantum simulators to investigate important problems in condensed matter physics including exotic magnetic order thought to arise in a wide variety of frustrated magnetic materials and unconventional superconductors.

Altogether, these advances have been truly transformative for the field of AMO science and have led to a significant expansion of AMO research programs world-wide. The Georgia Tech group has provided many impactful contributions to the field and enjoys a strong reputation including being  ranked as one of the top 15 AMO departments in the nation in the 2005 US News and World Report surveys.

Faculty Members:
Name Research Interests Research Website
Ken Brown

Quantum information, ion traps, and cold molecular ions

Brown Lab
Michael Chapman

Contemporary quantum mechanics, manipulating the quantum behavior of single atoms and photons

Atom Trapping & Quantum Computing Laboratory Website
Paul Goldbart

Soft random matter, superconductivity, superfluidity, nanoscience, ultracold gases, quantum information, theoretical physics.

Research website
James Gole

Physical phenomena which fall at the interface of chemical and condensed matter physics and material science

Professor Gole's group is...

Brian Kennedy

theoretical physics, quantum optics, atomic physics


Thomas Orlando

Electron and photon stimulated interface & surface processes. Environmental Chem. & planetary surface science. Biophysical Chem.


Orlando Lab Website
Colin Parker Parker Lab Homepage
Michael Pustilnik

Transport and correlations in low-dimensional systems...

Chandra Raman

Quantum gases, Bose-Einstein condensation, single molecule biophysics

My group investigates macroscopic quantum mechanics using ultralow...

Bose-Einstein Condensation Laboratory
Shina Tan

Ultracold atoms and molecules, Superfluidity, Superconductivity

There is a unifying theme across multiple fields of physics: if some...

Rick Trebino

The development of more powerful devices for manipulating and measuring potentially very complex light with ultrafast variations.

 Over 200...

Turgay Uzer

Theoretical atomic, molecular, and chemical physics with nonlinear dynamics and chaos, Quantal, classical or semiclassical methods