High-rate microbial production of nitrous oxide for energy generation
This project joins the fields of space propulsion and environmental biotechnology to develop a bioreactor that converts waste nitrogen into nitrous oxide that is subsequently decomposed into nitrogen and oxygen for thermal power generation. The goal is to develop a low-cost technique that removes nitrogen from water and produces oxygen as a byproduct instead of nitrous oxide, a potent greenhouse gas.
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Stanford researcher searches for economical ways of recovering valuable products from wastewater.
A group led by Stanford PhD student Yaniv Scherson and advised by Stanford Woods Institute Senior Fellow Craig Criddle won a U.S. Department of Energy regional competition with a new process that removes nitrogen from wastewater while generating energy.
Postdoctoral scholar Yaniv Scherson named to list of rising energy-sector stars for work – started through Woods's Environmental Venture Projects program – to create electricity from sewage.
The Stanford chemical engineer’s pioneering work to turn wastewater into a source of valuable resources continues a long line of related research supported by the Woods Institute
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A new research facility will test processes for recovering clean water, energy and valuable materials.
Stanford professors devise a new approach for cleaning wastewater.
Billions of years ago, when Earth’s atmosphere reeked of unbreathable gases, microbes evolved in the absence of oxygen. As Earth matured and the nitrogen-oxygen atmosphere formed, these anaerobic, or oxygen-averse, bacteria retreated into the mud of the ocean floor and other environments where they would be safe from oxygen-rich air.