Alternative Energy Materials, LLC

Alternative Energy Materials, LLC is a small, for-profit limited liability company registered in SAM.gov that specializes in advanced materials research and development, with a particular focus on ceramic manufacturing technologies and electrolyzer systems. Based in Pullman, Washington, the company appears to be engaged in cutting-edge research at the intersection of materials science, energy production, and advanced manufacturing technologies. The firm provides sophisticated research and development services to civilian federal agencies, particularly in fields related to energy, materials science, and technology innovation.

The company's federal contract work, as evidenced by its NASA Small Business Technology Transfer (STTR) Phase I award, involves developing specialized research technologies. Specifically, the firm was awarded a $145,000 firm fixed-price purchase order to conduct research on high power density pressurized monolithic zirconia electrolyzers. This contract was a total small business set-aside, indicating the company's commitment to supporting federal innovation through small business channels. The project aims to support NASA's hydrogen production and storage initiatives, demonstrating the company's capability to contribute to space exploration technology development.

Alternative Energy Materials, LLC has secured multiple federal grant awards that underscore its research capabilities. The National Science Foundation awarded the company a $274,915 Small Business Innovation Research (SBIR) Phase I grant to develop an innovative additive manufacturing technique for fabricating multifunctional ceramic monoliths. Additionally, the U.S. Department of Energy's Office of Science provided a $200,000 project grant for durability testing of vanadia and yttria co-doped zirconia electrode materials. These grants focus on advancing manufacturing technologies for ceramic materials, with potential applications in energy, defense, and healthcare sectors. The research aims to improve manufacturing processes, increase throughput, and develop high-precision ceramic fabrication techniques that can produce complex internal structures and combine multiple functional materials in a single layer.