In this project the principle investigator studied the theory of collective effects in ultracold gases, developing new insight into the quantum mechanics of interacting particles.  Much of the research focussed on techniques used to experimentally probe these systems.  For example, he quantified the accuracy of "time-of-flight expansion," enabling future experiments to make more precise statements about the fundamentals of quantum interactions.  Similarly, he analyzed a number of spectroscopic probes, showing how important correlations become encoded.  The principle intellectual merit of this line of research comes from learning about the basic rules that govern the world around us.  One cannot control what one does not understand.

This research project included a number of facets designed to provide broader impact.  First, at least four graduate students received extensive training as part of the project.   Second, the PI was involved in a number of important educational programs, including national efforts aimed at improving the training of middle/highschool science teachers (PhysTEC) and more general efforts to improve the education of undergraduate physics students in order to better meet national needs(SPIN-UP).  He has been part of an outreach programs aimed at a local middle school, and has found ways to help support the outreach efforts of Cornell undergraduate students.  Moreover the scientific results from this study (particularly those on pseudogaps) have the potential to broadly influence atomic, nuclear, condensed matter, and astrophysics.

Last Modified: 08/01/2011
Modified by: Erich J Mueller