The impact of the proposed technology spans most areas of importance to NASA's scientific missions, including: aerospace, weather forecasting, cosmology, combustion, climate research, and chemistry, among others. To this date, five of the Top NASA HPC applications have enlisted as partners of the project to become early adopters of the technology. This fact speaks clearly about the interest that the NASA community has shown on the potential uses and benefits of infusing the knowledge generated from this project into NASA. Furthermore, once the technology is fully operational, it will benefit tens of thousands of users, who will see substantially increased performance in their regular, day-to-day runs, as well as in their massive, supercomputer-based production runs. One of the lead developers of NASA's Top Codes mentions that this technology "can be considered critical in achieving the next generation of so-called exascale software applications, [and] in turn, these efforts will enable scientific and engineering breakthroughs previously considered computationally intractable".
The resulting technology will increase the efficiency of memory access in most modern computer architectures, thus directly enabling unprecedented speedups in memory-access-bound HPC applications. With a significant fraction of HPC codes belonging to this "memory-bound" category, numerous scientists, developers, researchers, and complete industries will benefit, in areas as varied as aerospace, climate research, molecular dynamics, chemistry, weather forecasting, energy, civil engineering, geophysics, and life sciences, among others.