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    • 6. 发明申请
    • Seal Structures for Solid Oxide Fuel Cell Devices
    • 固体氧化物燃料电池装置的密封结构
    • US20100297534A1
    • 2010-11-25
    • US12864149
    • 2009-01-27
    • Thomas Dale KetchamJohn Stephen RosettieDell Joseph St. JulienSujanto Widjaja
    • Thomas Dale KetchamJohn Stephen RosettieDell Joseph St. JulienSujanto Widjaja
    • H01M2/08H01M8/00
    • H01M8/0273H01M2008/1293Y02P70/56
    • Disclosed are seals and seal structures for use in electrochemical devices such as solid oxide fuel cell devices. Exemplary seal structures are configured such that at least a portion of the interface between the seal and electrolyte sheet deviates from planarity by extending either (i) upwardly and inwardly (ii) or downwardly and inwardly, toward the active portion of the electrolyte sheet surface where one or more device electrodes are deposited. By angling the seal portion of the electrolyte sheet, the sharpness of any resulting bends or deformations that may occur during use can be reduced, thus reducing the likelihood of any cracks forming in the typically high stress regions of the electrolyte sheet. Further, preferably at least a portion of the electrolyte sheet contacting the seal composition, the seal-electrolyte interface may deviate from planarity by at least 0.1 mm from the seal-electrolyte interface, where the deviation from planarity extends normal to the seal or inwardly toward the active surface region of the electrolyte sheet. Also disclosed are methods for manufacturing the inventive seal structures and electrochemical device assemblies comprising same.
    • 公开了用于电化学装置例如固体氧化物燃料电池装置的密封件和密封结构。 示例性的密封结构被配置成使得密封和电解质片之间的界面的至少一部分通过(i)向上和向内(ii)或向下和向内延伸朝向电解质片表面的有效部分而偏离平面度, 沉积一个或多个器件电极。 通过使电解质片的密封部分倾斜,可以减少在使用期间可能发生的任何所得到的弯曲或变形的锐度,从而降低在电解质片的典型高应力区域中形成任何裂纹的可能性。 此外,优选地,与密封组合物接触的电解质片的至少一部分,密封 - 电解质界面可能偏离与密封电解质界面至少0.1mm的平面度,其中平面度的偏离垂直于密封或向内朝向 电解质片的活性表面区域。 还公开了用于制造本发明的密封结构的方法和包括其的电化学装置组件。
    • 7. 发明授权
    • Systems and methods for measuring the specific modulus of cellular ceramic bodies
    • 用于测量细胞陶瓷体的比模量的系统和方法
    • US08074518B2
    • 2011-12-13
    • US12197429
    • 2008-08-25
    • John David HelfinstineRobert A McIntoshLisa M NoniZhiqiang ShiSujanto WidjajaDavid John Worthey
    • John David HelfinstineRobert A McIntoshLisa M NoniZhiqiang ShiSujanto WidjajaDavid John Worthey
    • G01N29/07
    • G01H5/00
    • Systems (50) and methods for measuring and displaying a visual and/or graphical representation of the specific modulus (E/ρ) of a cellular ceramic body (10), such as those used to form particulate filters, are disclosed. The ultrasonic measurement system employs an ultrasonic transmitter (52T) and an ultrasonic receiver (52R) adjacent to, but spaced apart from respective ends (16, 18) of the ceramic body. Multiple ultrasonic waves (80) are sent through corresponding multiple longitudinal portions (12P) of the honeycomb structure (12), where adjacent longitudinal portions overlap. Time of flight (TOF) measurements (TOF1, TOF2), along with other parameters describing the ceramic body, allow for the measurement of the sonic speed (cmat) of the ultrasonic waves that pass through the ceramic body as well as the attenuation (IR). The specific modulus is then calculated from the square of the sonic speed (C2mat). The high resolution of the ultrasonic measurements allows for improved evaluation of the manufacturing process.
    • 公开了用于测量和显示细胞陶瓷体(10)的比模量(E /&rgr)的视觉和/或图形表示的系统(50)和方法,例如用于形成微粒过滤器的那些。 超声波测量系统采用与陶瓷体的相应端部(16,18)相邻但间隔开的超声波发射器(52T)和超声波接收器(52R)。 多个超声波(80)通过蜂窝结构(12)的相应的多个纵向部分(12P)发送,其中相邻的纵向部分重叠。 飞行时间(TOF1,TOF2)以及描述陶瓷体的其他参数允许测量通过陶瓷体的超声波的声速(cmat)以及衰减(IR )。 然后根据声速(C2mat)的平方来计算比模量。 超声波测量的高分辨率允许改进制造过程的评估。
    • 8. 发明申请
    • SYSTEMS AND METHODS FOR MEASURING THE SPECIFIC MODULUS OF CELLULAR CERAMIC BODIES
    • 用于测量细胞陶瓷体的特定模量的系统和方法
    • US20100043556A1
    • 2010-02-25
    • US12197429
    • 2008-08-25
    • John David HelfinstineRobert A. McIntoshLisa M. NoniZhiqiang ShiSujanto WidjajaDavid John Worthey
    • John David HelfinstineRobert A. McIntoshLisa M. NoniZhiqiang ShiSujanto WidjajaDavid John Worthey
    • G01H5/00
    • G01H5/00
    • Systems (50) and methods for measuring and displaying a visual and/or graphical representation of the specific modulus (E/ρ) of a cellular ceramic body (10), such as those used to form particulate filters, are disclosed. The ultrasonic measurement system employs an ultrasonic transmitter (52T) and an ultrasonic receiver (52R) adjacent to, but spaced apart from respective ends (16, 18) of the ceramic body. Multiple ultrasonic waves (80) are sent through corresponding multiple longitudinal portions (12P) of the honeycomb structure (12), where adjacent longitudinal portions overlap. Time of flight (TOF) measurements (TOF1, TOF2), along with other parameters describing the ceramic body, allow for the measurement of the sonic speed (cmat) of the ultrasonic waves that pass through the ceramic body as well as the attenuation (IR). The specific modulus is then calculated from the square of the sonic speed (C2mat). The high resolution of the ultrasonic measurements allows for improved evaluation of the manufacturing process.
    • 公开了用于测量和显示细胞陶瓷体(10)的比模量(E /&rgr)的视觉和/或图形表示的系统(50)和方法,例如用于形成微粒过滤器的那些。 超声波测量系统采用与陶瓷体的相应端部(16,18)相邻但间隔开的超声波发射器(52T)和超声波接收器(52R)。 多个超声波(80)通过蜂窝结构(12)的相应的多个纵向部分(12P)发送,其中相邻的纵向部分重叠。 飞行时间(TOF1,TOF2)以及描述陶瓷体的其他参数允许测量通过陶瓷体的超声波的声速(cmat)以及衰减(IR )。 然后根据声速(C2mat)的平方来计算比模量。 超声波测量的高分辨率允许改进制造过程的评估。
    • 10. 发明申请
    • BEZEL PACKAGING FOR SEALED GLASS ASSEMBLIES AND A GLASS ASSEMBLY THEREFOR
    • 密封玻璃组件的贝类包装及其玻璃组件
    • US20110019351A1
    • 2011-01-27
    • US12922987
    • 2009-03-30
    • John Frederick BayneYabei GuGlenn Vertner MorganButchi Reddy VaddiJamie Todd WestbrookSujanto Widjaja
    • John Frederick BayneYabei GuGlenn Vertner MorganButchi Reddy VaddiJamie Todd WestbrookSujanto Widjaja
    • H05K7/00H01J5/02
    • G02F1/133308F21Y2105/00F21Y2115/15H01L51/5237
    • Methods and assemblies related to frame or bezel packaging of a sealed glass assembly, such as a fit-sealed OLED device, such as an OLED display panel. The frame or bezel packaging may have one or more of (a) rounded or chamfered corners, (a) a cover, (b) a reinforced lead edge, (c) openings or cutouts in the back panel to conserve material and lighten the bezel, and (d) a shock absorbent intermediate layer of low modulus of elasticity material applied between the sealed glass assembly and the back and/or sides of the frame or bezel. The frame or bezel design may include a gap between the sealed glass assembly and the back panel of the bezel. The gap may be filled at least in part with low modulus of elasticity backing material. The glass package may have one or more of (a) rounded or chamfered corners, (b) rounded or chamfered edges, (c) a low modulus of elasticity material applied around its periphery or portions of its periphery, such as on the corners only, (d) a shortened lead end, and (e) a thickened lead end.
    • 与密封玻璃组件的框架或边框包装相关的方法和组件,例如适合密封的OLED装置,例如OLED显示面板。 框架或边框包装可以具有(a)圆形或倒角的一个或多个,(a)盖,(b)加强的引线边缘,(c)后面板中的开口或切口以节省材料并减轻边框 ,和(d)在密封的玻璃组件和框架或表圈的背面和/或侧面之间施加低弹性材料材料的吸震中间层。 框架或边框设计可以包括密封的玻璃组件和边框的后面板之间的间隙。 间隙可以至少部分地用低弹性背衬材料填充。 玻璃包装可以具有一个或多个(a)圆形或倒角,(b)圆形或倒角边缘,(c)围绕其周边或其周边部分施加的低弹性材料,例如仅在拐角上 ,(d)缩短的引线端,(e)增厚的引线端。