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    • 2. 发明授权
    • High temperature rechargeable battery for greenhouse gas decomposition and oxygen generation
    • 用于温室气体分解和氧气生成的高温可充电电池
    • US08658311B2
    • 2014-02-25
    • US13708541
    • 2012-12-07
    • Bruce S. KangHuang Guo
    • Bruce S. KangHuang Guo
    • H01M10/0525
    • H01M8/06C25B1/02C25B9/00H01M4/38H01M4/48H01M4/9025H01M12/08Y02E60/128Y02P20/133
    • Instead of CCS technique, a possible approach to mitigate the greenhouse gas (GHG) emission is to decompose it into useful products. This invention shows a high temperature rechargeable battery system for decomposition of oxygen-containing gases (e.g CO2/H2O, NOx, SOx, in particular GHG), oxygen generation, and energy storage by using ODF/La2NiO4-based materials in Li/Ti/Mg—CO2 battery architecture. Different from ionic Lithium conducting electrolyte, the invention has a higher ionic oxygen conducting electrolyte to work efficiently at higher temperature without sacrificing safety. During battery discharge, GHG can be decomposed into syngas (CO+H2) or solid carbon, while renewable energy (e.g. solar/wind power) could be used to charge the battery and generate oxygen. The energy consumption for GHG decomposition is self-sustainable and the byproducts (i.e. carbon/syngas and oxygen) have good market values. The adoption of cost effective materials other than Lithium is significant for scaled-up applications and represents an entirely new approach.
    • 而不是CCS技术,减轻温室气体(GHG)排放的可能方法是将其分解为有用的产品。 本发明示出了通过在Li / Ti / Al 2 O 3中使用基于ODF / La2NiO4的材料来分解含氧气体(例如CO 2 / H 2 O,NO x,SO x,特别是GHG),产生氧气和储能的高温可再充电电池系统。 Mg-CO2电池架构。 与离子导电电解质不同,本发明具有较高的离子导电电解质,可在较高温度下有效地工作,而不会牺牲安全性。 在电池放电期间,GHG可以分解为合成气(CO + H2)或固体碳,而可再生能源(例如太阳能/风力发电)可用于对电池充电并产生氧气。 GHG分解的能源消耗是可持续的,副产物(即碳/合成气和氧气)具有良好的市场价值。 采用锂以外的成本效益材料对于扩大应用是重要的,并且是一种全新的方法。
    • 3. 发明申请
    • HIGH TEMPERATURE RECHARGEABLE BATTERY FOR GREENHOUSE GAS DECOMPOSITION AND OXYGEN GENERATION
    • US20130122381A1
    • 2013-05-16
    • US13708541
    • 2012-12-07
    • Bruce S. KangHuang Guo
    • Bruce S. KangHuang Guo
    • H01M8/06C25B9/00C25B1/02
    • H01M8/06C25B1/02C25B9/00H01M4/38H01M4/48H01M4/9025H01M12/08Y02E60/128Y02P20/133
    • This invention shows a high temperature rechargeable battery system for energy storage, oxygen generation, and decomposition of oxygen-containing gases (e.g. CO2/H2O, NOR, SOx, in particular greenhouse gas (GHG)) by using ODF/La2NiO4-based materials in Li/Ti/Mg-CO2 battery architecture. Different from ionic Lithium conducting electrolyte, the invention has a higher ionic oxygen conducting electrolyte to work efficiently at elevated temperature without sacrificing safety. During battery discharge, GHG can be decomposed into syngas (CO+H2) or solid carbon, while renewable energy (e.g. solar or wind power) can be used to charge the battery and generate oxygen. The energy consumption for GHG decomposition is self-sustainable and the byproducts (i.e. carbon/syngas and oxygen) have good market values. The adoption of cost effective materials other than Lithium is significant for scaled-up applications and represents an entirely new approach.With carbon capture and sequestration becoming a key element in worldwide efforts to control/minimize CO2 emission, it can be anticipated that large amount of CO2 will become available for use as feedstock for innovative conversions into synthetic fuels. This invention shows a high temperature rechargeable battery system for decomposition of oxygen containing gases (in particular greenhouse gas (GHG)), oxygen generation, and energy storage by using ODF/La2NiO4-based materials in a rechargeable Li/Ti/Mg-CO2 battery architecture. Different from traditional Lithium ion conducting electrolyte, the invention has a higher ionic oxygen conducting electrolyte, which can work efficiently at higher temperature without sacrificing safety. During battery discharge, GHG such as CO2/H2O, NOx and SOx can be decomposed into syngas (CO+H2) or solid carbon. Whereas, solar, wind or other renewable energy can be used to charge the battery and generate oxygen. The energy consumption for GHG decomposition is self-sustainable with the integrated system and the byproducts (i.e. solid carbon, syngas (CO+H2), O2) have good market values. The adoption of cost effective materials other than Lithium is significant for scaled-up applications and represents an entirely new approach.