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1.发明申请公开(公告)号：US20140150386A1
公开(公告)日：2014-06-05
申请号：US13826476
申请日：2013-03-14
Applicant: William Peter Addiego , Michael Edward Badding , Paul Martin Elliott , Michael Fischer , Thomas Dale Ketcham , Denis Pavlovich Lukanin , Richard Curwood Peterson
Inventor： William Peter Addiego , Michael Edward Badding , Paul Martin Elliott , Michael Fischer , Thomas Dale Ketcham , Denis Pavlovich Lukanin , Richard Curwood Peterson
CPC classification number: F01N3/0222 , B01D46/0005 , B01D46/2403 , B01D46/2451 , B01D46/247 , B01D2046/2488 , B01D2046/2492 , B01J21/063 , C04B38/0006 , C04B38/0083 , C04B2111/00793 , F01N3/022 , F01N2330/06 , F01N2330/30 , F01N2330/40 , Y02T10/20 , C04B35/185 , C04B35/195 , C04B35/478 , C04B35/495 , C04B35/565 , C04B35/584 , C04B35/597
Abstract: Described herein is a substrate including a central longitudinal axis, a first support web, and a second support web. A sinuous web may be positioned between the first support web and the second support web. The sinuous web may include transverse web portions and bridging web portions, where the bridging web portions alternatively connect ends of adjacent transverse web portions. The sinuous web may be connected to the first support web by support legs extending between bridging web portions and a surface of the first support web. The sinuous web may be connected to the second support web by support legs extending between bridging web portions and a surface of the second support web. A support leg length to distance between transverse web portions ratio may be from about 1.0 to about 4.0.
Abstract translation: 这里描述的是包括中心纵向轴线，第一支撑腹板和第二支撑腹板的基底。 弯曲的网可以位于第一支撑腹板和第二支撑腹板之间。 弯曲腹板可以包括横向腹板部分和桥接腹板部分，其中桥接腹板部分交替地连接相邻横向腹板部分的端部。 弯曲腹板可以通过在桥接腹板部分和第一支撑腹板的表面之间延伸的支撑腿连接到第一支撑腹板。 弯曲腹板可以通过在桥接腹板部分和第二支撑腹板的表面之间延伸的支撑腿连接到第二支撑腹板。 横向腹板部分之间的距离的支撑腿长度可以为约1.0至约4.0。
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2.发明申请公开(公告)号：US20140065513A1
公开(公告)日：2014-03-06
申请号：US13597871
申请日：2012-08-29
Applicant: Michael Edward Badding , Jacqueline Leslie Brown , Katherine A. Fink , Atanas Valentinov Gagov , Cameron Wayne Tanner
Inventor： Michael Edward Badding , Jacqueline Leslie Brown , Katherine A. Fink , Atanas Valentinov Gagov , Cameron Wayne Tanner
IPC: H01M8/10 , G01N27/40 , C25B13/08 , H01M10/0562 , H01M6/36
CPC classification number: H01M8/1058 , C08J5/22 , C25B13/04 , C25B13/08 , G01N27/40 , H01G11/56 , H01M2/1646 , H01M2/166 , H01M6/18 , H01M6/36 , H01M8/1048 , H01M10/0525 , H01M10/056 , H01M10/0562 , H01M2300/0091 , Y02E60/122 , Y02E60/13 , Y02E60/521
Abstract: An ion-conducting composite electrolyte is provided comprising path-engineered ion-conducting ceramic electrolyte particles and a solid polymeric matrix. The path-engineered particles are characterized by an anisotropic crystalline structure and the ionic conductivity of the crystalline structure in a preferred conductivity direction H associated with one of the crystal planes of the path-engineered particle is larger than the ionic conductivity of the crystalline structure in a reduced conductivity direction L associated with another of the crystal planes of the path-engineered particle. The path-engineered particles are sized and positioned in the polymeric matrix such that a majority of the path-engineered particles breach both of the opposite major faces of the matrix body and are oriented in the polymeric matrix such that the preferred conductivity direction H is more closely aligned with a minimum path length spanning a thickness of the matrix body than is the reduced conductivity direction L.
Abstract translation: 提供了一种离子导电复合电解质，其包括路径工程离子导电陶瓷电解质颗粒和固体聚合物基质。 路径工程化颗粒的特征在于各向异性晶体结构，并且在与路径工程化颗粒的一个晶面相关联的优选导电方向H上的晶体结构的离子电导率大于晶体结构的离子电导率 与路径工程化颗粒的另一个晶面相关联的导电方向L减小。 路径设计的颗粒的尺寸和尺寸设置在聚合物基体中，使得大部分路径工程化的颗粒破坏基体的相对的主面，并且在聚合物基体中取向，使得优选的导电方向H更多 与沿导电方向减小的矩阵体的厚度的最小路径长度紧密对齐。
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公开(公告)号：US20130330640A1
公开(公告)日：2013-12-12
申请号：US13842247
申请日：2013-03-15
Applicant: Michael Edward Badding , Yanming Cui , Lin He , Zhaoyin Wen , Xiangwei Wu Wu
Inventor： Michael Edward Badding , Yanming Cui , Lin He , Zhaoyin Wen , Xiangwei Wu Wu
IPC: H01M4/90
CPC classification number: H01M4/9016 , H01M4/8605 , H01M4/88
Abstract: A cathode current collector includes a porous metallic or conductive ceramic support and an oxide catalyst in the form of nanowires formed over the support. The nanowire catalyst may be oriented substantially perpendicular to surfaces of the substrate. An example oxide catalyst is cobalt oxide, and an example substrate is nickel foam.
Abstract translation: 阴极集电器包括多孔金属或导电陶瓷载体和形成在载体上的纳米线形式的氧化物催化剂。 纳米线催化剂可以基本上垂直于衬底的表面定向。 示例性氧化物催化剂是氧化钴，并且示例性基材是镍泡沫。
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公开(公告)号：US20130256598A1
公开(公告)日：2013-10-03
申请号：US13852048
申请日：2013-03-28
Applicant: Bruce Gardiner Aitken , Michael Edward Badding , Nicholas Francis Borrelli , Nadja Teresia Lonnroth
Inventor： Bruce Gardiner Aitken , Michael Edward Badding , Nicholas Francis Borrelli , Nadja Teresia Lonnroth
CPC classification number: C03C14/006 , C03B19/02 , C03B19/06 , C03B2201/62 , C03C3/066 , C03C3/068 , C03C3/14 , C03C3/145 , C03C3/15 , C03C3/19 , C03C3/23 , C03C3/247 , C03C4/12 , C03C8/24 , C03C17/007 , C03C2204/00 , C03C2214/04 , C03C2214/16 , C03C2217/452 , C03C2217/47 , C03C2217/48 , C09K11/02 , C09K11/7774 , H01L33/50 , H01L33/501 , H01L2224/48091 , H01L2924/181 , H01L2924/00014 , H01L2924/00012
Abstract: Embodiments are directed to glass frits containing phosphors that can be used in LED lighting devices and for methods associated therewith for making the phosphor containing glass frit and their use in glass articles, for example, LED devices.
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5.发明授权Stress reducing mounting for electrolyte sheet assembly in a solid oxide fuel cell 失效用于固体氧化物燃料电池中的电解质片组件的减压安装公开(公告)号：US07803494B2
公开(公告)日：2010-09-28
申请号：US11233679
申请日：2005-09-23
Applicant: Michael Edward Badding , Jeffrey Earl Cortright , John David Helfinstine , Thomas Dale Ketcham , Scott Christopher Pollard , Irene M. Slater , Dell Joseph St Julien , Sujanto Widjaja
Inventor： Michael Edward Badding , Jeffrey Earl Cortright , John David Helfinstine , Thomas Dale Ketcham , Scott Christopher Pollard , Irene M. Slater , Dell Joseph St Julien , Sujanto Widjaja
CPC classification number: H01M8/2425 , H01M8/0271 , H01M8/0289 , H01M8/1226 , H01M2008/1293
Abstract: A stress reducing mounting for an electrolyte sheet assembly in a solid electrolyte fuel cell is provided that includes a support frame or manifold having an inner edge portion that supports a peripheral portion of the sheet assembly, a seal that affixes an edge of the peripheral portion to the frame or manifold, and a stress reducer disposed around the peripheral portion of the electrolyte sheet and the frame or manifold that reduces tensile stress in the peripheral portion of the electrolyte sheet when the peripheral portion is bent by pressure differentials or thermal differential expansion. The stress reducer is at least one of a convex curved surface on the inner edge portion of the frame or manifold that makes area contact with the peripheral portion when it bends in response to a pressure differential or thermal differential expansion, and a stiffening structure on the sheet peripheral portion that renders the ceramic sheet material forming the peripheral portion more resistant to bending. The stress reducing mounting reduces cracking in the electrolyte sheet at the peripheral portions due to tensile forces.
Abstract translation: 提供了一种用于固体电解质燃料电池中的电解质片组件的减压安装件，其包括：支撑框架或歧管，其具有支撑片组件的周边部分的内边缘部分，将周边部分的边缘固定到 框架或歧管，以及设置在电解质片和框架或歧管的周边部分周围部分周围部分被压力差或热差膨胀而弯曲的电解质片的周边部分中的拉伸应力的应力减小器。 所述减压器是在所述框架或歧管的内缘部分上的凸曲面中的至少一个，当所述框架或歧管的内边缘部分响应于压差或热差膨胀而弯曲时与所述周边部分进行区域接触，并且所述加强结构 使得形成周边部分的陶瓷片材更耐弯曲的片材周边部分。 降低应力的安装减少了由于张力而在周边部分的电解质片断裂。
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Patent Agency Ranking
公开(公告)号：US07781120B2
公开(公告)日：2010-08-24
申请号：US11804020
申请日：2007-05-16
Applicant: Michael Edward Badding , Jacqueline Leslie Brown , Cameron Wayne Tanner
CPC classification number: H01M8/0273 , H01M8/0258 , H01M8/0267 , H01M8/0276 , H01M8/0286 , H01M8/1213 , H01M8/1246 , H01M8/242 , H01M8/2425 , H01M8/2483 , Y02E60/525 , Y02P70/56 , Y10T29/49108
Abstract: A solid oxide fuel cell device assembly comprising: (i) at least one solid oxide fuel cell device including one electrolyte sheet sandwiched between at least one pair of electrodes; and (ii) a non-steel frame fixedly attached to said at least one fuel cell device without a seal located therebetween.
Abstract translation: 一种固体氧化物燃料电池器件组件，包括：（i）至少一个固体氧化物燃料电池器件，其包括夹在至少一对电极之间的一个电解质片; 和（ii）固定地连接到所述至少一个燃料电池装置的非钢框架，而不设置在其间的密封件。
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公开(公告)号：US20080131739A1
公开(公告)日：2008-06-05
申请号：US11634282
申请日：2006-12-05
Applicant: Michael Edward Badding , Sasha Marjanovic
Inventor： Michael Edward Badding , Sasha Marjanovic
CPC classification number: H01M8/12 , C03C3/062 , C03C3/087 , C03C3/091 , C03C10/0018 , C03C10/0036 , C03C14/006 , C03C27/00 , H01M4/9033 , H01M8/0273 , H01M8/0276 , H01M8/0282 , H01M8/245 , H01M8/2485 , Y02P70/56 , Y10T29/49826
Abstract: A solid oxide fuel cell that is resistant to seal delamination is disclosed. The solid oxide fuel cell comprises, either individually or in combination, a solid electrically non-conductive frame, a seal structure comprising a material capable of preventing a transfer of charge across the seal during fuel cell operation, and a seal comprising a glass frit that is substantially free of oxides of lithium, sodium, or both lithium and sodium. Methods for manufacturing a solid oxide fuel cell are also disclosed.
Abstract translation: 公开了耐密封分层的固体氧化物燃料电池。 固体氧化物燃料电池单独地或组合地包括固体不导电的框架，密封结构包括能够防止在燃料电池操作期间通过密封转移电荷的材料，以及包括玻璃料的密封件， 基本上不含锂，钠或锂和钠两者的氧化物。 还公开了制造固体氧化物燃料电池的方法。
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公开(公告)号：US10411288B2
公开(公告)日：2019-09-10
申请号：US13306011
申请日：2011-11-29
Applicant: Bruce Gardiner Aitken , Michael Edward Badding , George Halsey Beall , Curtis Robert Fekety , Lanrik Wayne Kester , Robert Michael Morena , Zhen Song
Inventor： Bruce Gardiner Aitken , Michael Edward Badding , George Halsey Beall , Curtis Robert Fekety , Lanrik Wayne Kester , Robert Michael Morena , Zhen Song
IPC: H01M10/0562 , C03C3/16 , C03C3/253 , C04B35/447 , H01M10/0525 , C03B19/06 , B82Y30/00 , C03C8/14 , C03C8/20
Abstract: A method of forming a solid, dense, hermetic lithium-ion electrolyte membrane comprises combing an amorphous, glassy, or low melting temperature solid reactant with a refractory oxide reactant to form a mixture, casting the mixture to form a green body, and sintering the green body to form a solid membrane. The resulting electrolyte membranes can be incorporated into lithium-ion batteries.
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9.发明授权公开(公告)号：US09502729B2
公开(公告)日：2016-11-22
申请号：US13597871
申请日：2012-08-29
Applicant: Michael Edward Badding , Jacqueline Leslie Brown , Katherine A. Fink , Atanas Valentinov Gagov , Cameron Wayne Tanner
Inventor： Michael Edward Badding , Jacqueline Leslie Brown , Katherine A. Fink , Atanas Valentinov Gagov , Cameron Wayne Tanner
IPC: H01M8/10 , G01N27/40 , C25B13/08 , H01M10/0562 , H01M6/36 , C08J5/22 , H01M2/16 , H01M10/0525 , H01M10/056 , H01M6/18 , C25B13/04 , H01G11/56
CPC classification number: H01M8/1058 , C08J5/22 , C25B13/04 , C25B13/08 , G01N27/40 , H01G11/56 , H01M2/1646 , H01M2/166 , H01M6/18 , H01M6/36 , H01M8/1048 , H01M10/0525 , H01M10/056 , H01M10/0562 , H01M2300/0091 , Y02E60/122 , Y02E60/13 , Y02E60/521
Abstract: An ion-conducting composite electrolyte is provided comprising path-engineered ion-conducting ceramic electrolyte particles and a solid polymeric matrix. The path-engineered particles are characterized by an anisotropic crystalline structure and the ionic conductivity of the crystalline structure in a preferred conductivity direction H associated with one of the crystal planes of the path-engineered particle is larger than the ionic conductivity of the crystalline structure in a reduced conductivity direction L associated with another of the crystal planes of the path-engineered particle. The path-engineered particles are sized and positioned in the polymeric matrix such that a majority of the path-engineered particles breach both of the opposite major faces of the matrix body and are oriented in the polymeric matrix such that the preferred conductivity direction H is more closely aligned with a minimum path length spanning a thickness of the matrix body than is the reduced conductivity direction L.
Abstract translation: 提供了一种离子导电复合电解质，其包括路径工程离子导电陶瓷电解质颗粒和固体聚合物基质。 路径工程化颗粒的特征在于各向异性晶体结构，并且在与路径工程化颗粒的一个晶面相关联的优选导电方向H上的晶体结构的离子电导率大于晶体结构的离子电导率 与路径工程化颗粒的另一个晶面相关联的导电方向L减小。 路径设计的颗粒的尺寸和尺寸设置在聚合物基体中，使得大部分路径工程化的颗粒破坏基体的相对的主面，并且在聚合物基体中取向，使得优选的导电方向H更多 与沿导电方向减小的矩阵体的厚度的最小路径长度紧密对齐。
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公开(公告)号：US08492045B2
公开(公告)日：2013-07-23
申请号：US12991748
申请日：2009-05-20
Applicant: Michael Edward Badding , William Joseph Bouton , Peng Chen , Steven Joseph Gregorski
Inventor： Michael Edward Badding , William Joseph Bouton , Peng Chen , Steven Joseph Gregorski
Abstract: According to one embodiment of the present invention a fuel cell system comprises: (i) a plurality of fuel cell packets, each packet comprising at least one fuel inlet, at least one fuel outlet, a frame, and two multi-cell fuel cell devices, the fuel cell devices situated such that an anode side of one fuel cell device faces an anode side of another fuel cell device, and the two fuel cell devices, in combination, at least partially form a fuel chamber connected to the fuel inlet and the fuel outlet; (ii) a plurality of heat exchange packets, each packet comprising at least one oxidant inlet, at least one oxidant outlet, and an internal oxidant chamber connected to the at least one oxidant inlet and the least one oxidant outlet; the heat exchange packets being parallel to and interspersed between the fuel cell packets, such that the heat exchange packets face the fuel cell packets and form, at least in part, a plurality of cathode reaction chambers between the heat exchange packets and the fuel cell packets; (iii) a housing supporting and enclosing the fuel packets and the heat exchange packets; (iv) an oxidant inlet plenum operatively connected to oxidant inlets of the heat exchange packets; (v) an oxidant exhaust plenum operatively connected to the cathode reaction chambers; (vi) an inlet fuel manifold connected to fuel inlets of the fuel cell packets; and (vii) an exhaust fuel manifold connected to the fuel outlets of the fuel cell packets.
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