Researchers have developed battery anodes made of an asphalt derivative that has the capability of charging lithium metal batteries 10–20 times faster than current lithium batteries already on the market. The material also helps prevent formation of dendrites.
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‘Rubber material’ discovered that could lead to scratch-proof paint for car, defects in next-generation solar cells can be healed with light, and other materials stories that may be of interest for September 13, 2017.
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Researchers have uncovered a process to increase the safety of future lithium batteries. By adding nanodiamonds to an electrolyte solution, they were able to prevent dendrite growth, a major cause of lithium battery fires.
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New research from MIT shows that firmness isn’t the most important parameter for developing a solid electrolyte that is effective against dendrite formation—instead, a defect-free surface, which doesn’t provide a place for dendrites to form, is key to a better battery.
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Transformer-like carbon nanostructure engineered, solar material for producing clean hydrogen fuel, and other materials stories that may be of interest for June 28, 2017.
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Researchers at the University of California, Riverside, have devised a technique to convert recycled glass bottles into nanosilicon anodes for next-gen lithium-ion batteries with the capacity to store almost four times as much energy as conventional anodes.
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A team of researchers at the University of Texas at Austin is trying to revolutionize the battery world with a new and improved all-solid-state sodium-ion battery that has three times higher energy density than today’s lithium-ions.
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Researchers at Georgia Institute of Technology have devised a technique to transform bulk materials into oxide nanowires at room temperature and pressure, without the use of catalysts, toxic chemicals, or expensive processes.
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Researchers at the University of Maryland have designed a way to insert an ultrathin layer of aluminum oxide in between a garnet ceramic electrolyte and electrodes of solid-state batteries, decreasing impedance by 300-fold and allowing the energy to flow.
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Just as in 2015 and 2016, I’m going to peer into my crystal ball and make some predictions about what will be big in the materials science world in the coming year.
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