The National Aeronautic and Space Administration (NASA) seeks to dramatically improve state-of-the art systems for water recovery and management for human health and habitation in space flight and travel. In particular, a long-term goal is to increase water recovery from wastewaters to create a closed-loop water recycling system. Currently, in the Water Recovery System (WRS) used on the International Space Station (ISS) only 70% of the wastewater generated is recovered; the remaining 30% of the water is brine that is stored for later disposal. Under this system, wastewater recycling is dependent on resupply of water from the ground to the ISS. Since NASA has retired the space shuttle fleet, the need to minimize use of ground-based resources is a higher priority. As a result, NASA faces the challenge of either developing new wastewater recycling systems or optimizing existing ones to maximize water recovery. Current osmotic processes – both reverse osmosis (RO) and forward osmosis (FO) – offer the potential to increase water recovery from wastewaters consisting of raw urine, pre-treated urine, and urine brines. However, commercial RO and FO membranes rapidly degrade in the presence of the acidic pre-treated urine and urine brines. Additionally, these commercial RO and FO membranes are flawed in that they are not a sufficient barrier to small organic compounds commonly found in urine, such as urea. In this research project, our lab at Arizona State University will develop a new class of corrosion-resistant Molecular Sieve Inclusion Nanocomposite (MoSIN) membranes and we will demonstrate their effectiveness for recovering water from urine and urine brine solutions through osmotic processes.