The instrument creates extremely cold conditions in the microgravity environment of the ISS, leading to the formation of Bose Einstein Condensates (BECs) that are orders of magnitude colder than those that are created in laboratories on Earth. In a space-based laboratory, up to 10 seconds interaction times and as low as 1 picokelvin temperatures are achievable, and it could lead to exploration of unknown quantum mechanical phenomena and test some of the most fundamental laws of physics. These experiments are best done in a freely falling environment, because it is more conducive to uninhibited formation of BECs. Ground based experiments suffer from the effect of the condensate interacting asymmetrically with the apparatus, interfering with the time evolution of the condensate. In orbit, experiments can last much longer because freefall is sustained indefinitely. NASA 's JPL scientists state that the CAL investigation could advance knowledge in the development of extremely sensitive quantum detectors, which could be used for monitoring the gravity of Earth and other planetary bodies, or for building advanced navigation devices.