Category: Energy Management
Boron Nitride Nanotubes
Boron nitride nanotubes are a new material that has been studied for use in strengthening lightweight materials, such as plastics and polymers. It is also being researched for use in electronics, aerospace engineering, and medicine. The Boron Nitride Nanotubes market has grown steadily over the past few years.
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Nissan EV Battery
Nissan is currently the only automaker with a complete lineup of electric vehicles, including full-electric cars, plug-in hybrids, and zero-emission light commercial vehicles. The company’s goal is to be an industry leader in advanced energy and zero-emission mobility by 2030. As a leader in developing new battery technologies to improve efficiency and power for their lineup of vehicles, use of rare earth metals and near rare earth metals such as boron and lithium is at the heart of the battery power program. But batteries have a limited lifespan. Once it comes to recycling, there is too much waste. Nissan is tackling this problem with Waseda University to produce breakthrough innovations in Electric Vehicles technology.
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Boron Advanced Energy: Special Report
Borate Today’s Special Report on Advanced Energy looks into the issues surrounding this hot topic and examines how Boron and Borates can support initiatives and innovations to improve energy supplies and energy management systems. This free report is available for download today and covers the following topics:
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The Future of Solar: Boron and Energy Efficiency
Energy transition is a hot topic these days, and one way that scientists have been working on reducing our dependence on fossil fuels has been through solar panels. Boron plays an integral role in the efficiency of solar panels- without it, photovoltaic cells would not be able to convert light into electricity as efficiently.
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Hydrogen Boron Fusion – Creating New Energy
Hydrogen-Boron 11 fusion -Boron Hydrogen Fusion – has always been the ultimate fusion reaction. It does not create radioactive waste and its fuels are both abundant in nature and non-radioactive. Few other researchers had studied this reaction as it was considered scientifically too difficult. The temperatures required to ignite the reaction are more than 100 times higher than that of the sun – a technical hurdle that has held back practical energy generation for decades.
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