Faraday Technology, Inc. — National Aeronautics and Space Administration SBIR Phase I: S14

Description

This program will address the stated need from the National Space Weather Strategy and Action plan to ldquo;enhance the Protection of National Security, Homeland Security, and Commercial Assets and Operations against the Effects of Space Weatherrdquo;. Specifically, we will develop and deploy robust and autonomous space weather charge mitigation technology by applying durable and highly emissive composite coatings onto spacecraft components such as solar arrays. In Phase I we will optimize and develop a scalable electrophoretic deposition approach to apply tunable erosion resistant and highly emissive passive coatings consisting of mixtures of low work function material and hard/conductive boron doped diamond materials. The coating properties will further be tuned according to the technical constraints and needs specific to the locations of interest on the spacecraft that require high emissivity and erosion resistant coatings, which will be identified in the beginning of Phase I. The coating development activities will be guided by an evaluation of the electron-emitting properties of the coating before and after Xenon ion sputtering, across a broad range of energies, and identify first and second crossover energies, maximum yields, and energies of maximum yields. Finally, we will estimate the feasibility of transitioning this technology to pertinent spacecraft components of interest to NASA and our Phase II commercialization partners. In Phase II, Faraday, USU, and commercial partners will apply the optimized coatings to testable components and expose them to simulated launch conditions, space weather, ionospheric charging, and ion sputtering erosion and deliver a prototype to NASA. Success in meeting these criteria will provide technical/economic validation and accelerate transition toward establishing commercial adoption of the technology to meet NASA and other commercial applications within Phase III.