NASA Commercial applications include next-generation Cryogenic Telescopes (JWST, WFIRST) and future Lunar and deep space Missions. There will be many lander, rover, and, eventually manned missions to explore the ices at the Lunar poles in the coming decades. Technology must be developed to build and test these complex, dynamic systems that must comfortably operate as low as 25K (Hermite Crater on the Moon). We believe that these techniques will be a critical enabling technology for these challenging and exciting missions. This innovation will also open the door for smaller, low-budget projects to take advantage of this risk-reducing metrology system. The modularity of the system will allow entire small and nano-satellites to be completely surveyed for alignment verification purposes throughout the integration process. Measuring the large scale setup and configuration of manufacturing systems at the micron level at a distance without interfering with the system will be a very valuable capability. The analytical and engineering techniques developed in Phase one and two of this proposal will allow measuring devices to peer into harsh or toxic environments such as hermetically-sealed beryllium machining centers. There are also many harsh and toxic environments in nuclear facilities, aerospace manufacturing and electronics manufacturing processes that require the precise, non-contact measurement and control of large scale systems.