HyperSolar, Inc. Announces its Generation 1 Device Design
February 20, 2019 at 08:55 am EST
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HyperSolar, Inc. announced that its Generation 1 device design can be extended for production of hydrogen, chlorine and sodium hydroxide using waste brine and/or sea water in replacement of clean water. HyperSolar’s development team working with the University of Iowa Chemical Engineering Department demonstrated a successful production of hydrogen along with sodium hydroxide and chlorine as byproducts from simulated sea water. The process uses HyperSolar’s proprietary Gen 1 design and coating technology with the modification being an alternative catalyst to produce chlorine instead of oxygen from the anode side. This demonstration corroborates further extension of the versatility of HyperSolar’s device design. With production of valuable chemicals alongside hydrogen, the cost of green hydrogen for transportation can be lowered. This is consistent with findings from a recent article published in Environmental Science and Technology by a group from MIT demonstrating a modeled chlor-alkali electrolysis process that produces valuable chemicals such as sodium hydroxide and chlorine from desalination waste brines. Reuse of the waste brines to produce useful and valuable chemicals can be a sustainable solution to a greener environment and also an approach to offset costs and add additional revenue streams. HyperSolar’s GEN 1 device employing chlor-alkali electrolysis to produce hydrogen as product and chlorine and sodium hydroxide as byproducts from salt water offers great potential for more economical production of hydrogen while providing greener solutions to treat waste brines.
SunHydrogen, Inc. is a technology company. The Company is engaged in the development of technologies to make, store, and use green hydrogen across a range of industrial applications. Its core technology SunHydrogen Panel is in development and uses sunlight and any source of water to produce low-cost green hydrogen. Its SunHydrogen Panels produces green hydrogen. Its core technology is a self-contained, nanoparticle-based hydrogen generator that mimics photosynthesis to split water molecules, resulting in hydrogen. Its technology has the capacity to disrupt existing energy economies across a range of sectors including transportation, industry, and shipping where fossil fuels are predominantly used. Its solution Photoelectrosynthetically Active Heterostructures (PAH) nanoparticle is a microscopic machine, composed of multiple layers enabling the solar electrolysis reaction to take place.