The experimental capabilities in atomic physics have seen dramatic progress in the past two decades since the introduction of laser cooling techniques. The progress led to new scientific discoveries like realization of dilute Bose-Einstein condensates and degenerate Fermi gas, and technological advances in precision measurements. The experimental progress has also provided a broad basis for experimental realization of quantum information science in atomic systems.

The current experiments, while incorporating cutting-edge technologies in laser systems and optical components, are mostly performed using conventional optical setups using discrete optical elements. Practical systems leveraging these experimental progress requires higher level of integration, either to provide portability for atom-based sensors or to realize a new level of complex functionality in quantum information processing experiments.

Recent progress in microsystems technology has allowed realization of highly functional systems with unprecedented level of integration across various domains of physics. Micro-electromechanical systems (MEMS) technology allows miniaturization and integration of mechanical, optical, RF and fluidic components, enabling highly functional integrated systems on a chip. Proper adaptation of these integration technologies to atomic systems has the potential to dramatically increase the practical viability of atomic sensors and quantum information processors.

The Workshop on Integrated Atomic Systems will bring experts from the areas of atomic (and trapped ion) physics, MEMS technology, packaging and microsystems integration to explore opportunities for creating highly functional systems based on the advances in atomic physics.