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    • 98. 发明授权
    • Systems and methods for storing and/or transmitting electrical energy
    • 用于存储和/或传输电能的系统和方法
    • US08723371B2
    • 2014-05-13
    • US12871205
    • 2010-08-30
    • Tessa Durakis Green
    • Tessa Durakis Green
    • H01B1/00
    • H01M8/188H01M8/20Y02E60/528
    • According to some embodiments, systems and or methods may be provided to transport electrical energy from a first location having an electrical energy source to a second location, remote from the first location and having a load to accept electrical energy. A first pipeline between the first and second locations may include a first chamber containing a cathodic fluid. A second pipeline between the first and second locations may include a second chamber containing an anodic fluid, and at least of a portion of said first and second pipelines include a contiguous area. A membrane may separate the cathodic and anodic fluids at said contiguous area to exchange electrical energy between said fluids and create an electrochemical storage cell across said membrane. By utilizing additional alternating layers of said electrolyte, casing and membrane multiple cells may be created.
    • 根据一些实施例,可以提供系统和/或方法以将电能从具有电能源的第一位置传送到远离第一位置的第二位置,并具有负载以接受电能。 第一和第二位置之间的第一管道可以包括含有阴极流体的第一室。 在第一和第二位置之间的第二管道可以包括含有阳极流体的第二室,并且所述第一和第二管道的至少一部分包括连续的区域。 膜可以在所述连续区域处分离阴极和阳极流体,以在所述流体之间交换电能,并在所述膜上产生电化学存储单元。 通过利用所述电解质的附加交替层,可以产生套管和膜多个电池。
    • 99. 发明授权
    • High energy density redox flow device
    • 高能量密度氧化还原流量装置
    • US08722227B2
    • 2014-05-13
    • US13975474
    • 2013-08-26
    • Massachusetts Institute of Technology
    • Yet-Ming ChiangW. Craig CarterBryan Y. HoMihai DudutaPimpa Limthongkul
    • H01M4/36
    • H01M8/188B60L11/1875B60L11/1898H01M8/20Y02E60/528Y02T10/705Y02T90/34
    • Redox flow devices are described in which at least one of the positive electrode or negative electrode-active materials is a semi-solid or is a condensed ion-storing electroactive material, and in which at least one of the electrode-active materials is transported to and from an assembly at which the electrochemical reaction occurs, producing electrical energy. The electronic conductivity of the semi-solid is increased by the addition of conductive particles to suspensions and/or via the surface modification of the solid in semi-solids (e.g., by coating the solid with a more electron conductive coating material to increase the power of the device). High energy density and high power redox flow devices are disclosed. The redox flow devices described herein can also include one or more inventive design features. In addition, inventive chemistries for use in redox flow devices are also described.
    • 描述了氧化还原流动装置,其中正极或负极活性材料中的至少一个是半固体或是冷凝离子存储电活性材料,并且其中至少一个电极活性材料被输送到 并且从发生电化学反应的组件产生电能。 半固体的电子导电性通过向悬浮液中添加导电颗粒和/或通过半固体中的固体的表面改性(例如,通过用更多的电子传导涂层材料涂覆固体以增加功率而增加) 的设备)。 公开了高能量密度和高功率氧化还原流量装置。 本文描述的氧化还原流动装置还可以包括一个或多个本发明的设计特征。 此外,还描述了用于氧化还原流动装置的发明化学物质。
    • 100. 发明申请
    • Composite Separators and Redox Flow Batteries Based on Porous Separators
    • 基于多孔分离器的复合分离器和氧化还原液流电池
    • US20140127542A1
    • 2014-05-08
    • US13668604
    • 2012-11-05
    • Battelle Memorial Institute
    • Bin LiXiaoliang WeiQingtao LuoZimin NieWei WangVincent L. Sprenkle
    • H01M8/02H01M8/18H01M8/20
    • H01M8/0243H01M8/0289H01M8/04186H01M8/188H01M8/20Y02E60/528
    • Composite separators having a porous structure and including acid-stable, hydrophilic, inorganic particles enmeshed in a substantially fully fluorinated polyolefin matrix can be utilized in a number of applications. The inorganic particles can provide hydrophilic characteristics. The pores of the separator result in good selectivity and electrical conductivity. The fluorinated polymeric backbone can result in high chemical stability. Accordingly, one application of the composite separators is in redox flow batteries as low cost membranes. In such applications, the composite separator can also enable additional property-enhancing features compared to ion-exchange membranes. For example, simple capacity control can be achieved through hydraulic pressure by balancing the volumes of electrolyte on each side of the separator. While a porous separator can also allow for volume and pressure regulation, in RFBs that utilize corrosive and/or oxidizing compounds, the composite separators described herein are preferable for their robustness in the presence of such compounds.
    • 具有多孔结构并且包含在基本上完全氟化的聚烯烃基质中的酸稳定的,亲水的无机颗粒的复合隔膜可用于许多应用中。 无机颗粒可以提供亲水性。 分离器的孔导致良好的选择性和导电性。 氟化聚合物骨架可导致高的化学稳定性。 因此,复合隔板的一个应用是作为低成本膜的氧化还原液流电池。 在这种应用中,与离子交换膜相比,复合分离器还可以实现额外的性能增强特征。 例如,通过平衡分离器两侧的电解液的体积,可以通过液压来实现简单的容量控制。 虽然多孔分离器还可以允许体积和压力调节,但是在使用腐蚀性和/或氧化性化合物的RFB中,本文所述的复合隔膜在其存在下的稳健性是优选的。