News and Awards

• May 22, 2017 Electroplated batteries store more energy A new process for making pure battery electrodes improves performance
• May 16, 2017 Lithium-Ion Battery Now Can Store More Power & Energy With This New Electroplating Method In Cathode This electroplating method will help a lithium-ion battery to store 30 percent more power than a traditional cathode as it’s not containing any glue consuming space. Another advantage of this method is, it can charge faster because current can pass directly through the cathode and doesn’t have to navigate around the inactive glue or slurry's porous structure.
• May 15, 2017 Electroplating Method for Improved Energy and High-Power Batteries It can charge and discharge quicker as well, as the current can pass directly through it and not have to steer around the inactive glue or via the slurry’s porous structure. It also has the benefit of being more stable.
• May 12, 2017 Electroplating lithium-ion battery cathodes could yield higher-performing batteries Researchers at the Frederick Seitz Materials Research Lab at the University of Illinois, Xerion Advanced Battery Corporation, and Nanjing University recently developed a method to electroplate lithium-ion battery cathodes—a process that could manufacture higher-performing, lower-cost lithium-ion batteries in the future.
• May 12, 2017 High-energy, High-power, All-solid Lithium Ion Electrode Xerion Advanced Battery Corp, in collaboration with teams from University of Illinois at Urbana-Champaign and Nanjing University, have developed a revolutionary new cathode material manufacturing technique called DirectPlate™.
• May 12, 2017 Electroplating lithium transition metal oxides Materials synthesis often provides opportunities for innovation. We demonstrate a general low-temperature (260°C) molten salt electrodeposition approach to directly electroplate the important lithium-ion (Li-ion) battery cathode materials LiCoO2, LiMn2O4, and Al-doped LiCoO2. The crystallinities and electrochemical capacities of the electroplated oxides are comparable to those of the powders synthesized at much higher temperatures (700° to 1000°C). This new growth method significantly broadens the scope of battery form factors and functionalities, enabling a variety of highly desirable battery properties, including high energy, high power, and unprecedented electrode flexibility.
• December 19, 2016 Xerion Advanced Battery Corp. moves to Kettering, OH Xerion Advanced Battery Corp. recently relocated its operations from Illinois and headquarters from Colorado into its new headquarters in the Miami Valley Research Park.
• December 12, 2016 NSF awards contract to Xerion Advanced Battery Corp. SBIR Phase I: High-performance flexible batteries for electronic wearables
• September 2014 USABC awards contract to Xerion Advanced Battery Corp. USABC awards contract to Xerion Advanced Battery Corp. for next generation PHEV battery technology development.
• October 2014 DLA awards contract to Xerion Advanced Battery Corp. Advanced Battery Manufacturing Technologies
• August 2014 NASA awards contract to Xerion Advanced Battery Corp. Highly Conductive Polymer Electrolyte Impregnated 3D Li-Metal Negative Electrode
• July 2011 University of Illinois licenses technology to Xerion Advanced Battery Corp. University of Illinois licenses 3D cathode technology to Xerion Advanced Battery Corp. for commercialization of the ultra-rapid charging technology.
• March 2011 University of Illinois publishes paper on 3D battery electrode in Nature Nanotechnology Three-dimensional bicontinuous ultrafast-charge and -discharge bulk battery electrodes

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