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    • 51. 发明申请
    • THERMAL INSPECTION SYSTEM AND METHOD
    • 热检查系统和方法
    • US20090255332A1
    • 2009-10-15
    • US12101285
    • 2008-04-11
    • Ronald Scott BunkerNirm Velumylum Nirmalan
    • Ronald Scott BunkerNirm Velumylum Nirmalan
    • G01F1/68G01K13/00
    • G01K17/00G01F1/68G01K17/20
    • A thermal inspection method is provided for a component comprising at least one complex internal passage arrangement defining at least one opening. The thermal inspection method includes flowing a fluid through the at least one complex internal passage arrangement. The fluid has an initial temperature that differs from an initial temperature of the component. The thermal inspection method further includes measuring a thermal response of the component to the fluid flow and analyzing the thermal response to determine a number of heat transfer coefficients {hlmn} corresponding to respective locations {l,m,n} within the complex internal passage arrangement. The thermal inspection method further includes using the heat transfer coefficients {hlmn} to determine at least one of (a) a flow rate through respective ones of the at least one opening, and (b) a cross-sectional area for respective ones of the at least one opening.
    • 为包括限定至少一个开口的至少一个复杂内部通道装置的部件提供热检查方法。 热检查方法包括使流体流过至少一个复杂的内部通道装置。 流体具有不同于组件的初始温度的初始温度。 热检测方法还包括测量部件对流体流的热响应并分析热响应以确定与复合内通道装置内的各个位置{1,m,n}对应的多个传热系数{hlmn} 。 热检测方法还包括使用传热系数(hlmn)来确定(a)通过至少一个开口中的相应的一个开口的流量中的至少一个,和(b)相应的一个开口的横截面积 至少一个开口。
    • 54. 发明申请
    • Film cooled slotted wall and method of making the same
    • 薄膜开槽壁及其制作方法
    • US20080057271A1
    • 2008-03-06
    • US11511840
    • 2006-08-29
    • Ronald Scott Bunker
    • Ronald Scott Bunker
    • B32B3/10
    • F01D5/186F05D2260/202Y10T428/24273Y10T428/24298Y10T428/24322
    • An article includes a substrate having a first surface and a second surface; a slot disposed in the second surface, the slot having a bottom surface substantially parallel to the second surface, a first sidewall, and a second sidewall, wherein the first sidewall is substantially perpendicular to the second surface and wherein the first sidewall includes a plurality of beveled edge portions in physical communication with the second surface and the bottom surface; and a plurality of passage holes extending through the substrate from the first surface to the bottom surface, wherein the plurality of passage holes are aligned within the slot such that at least one beveled edge portion is disposed between two passage holes.
    • 一种制品包括具有第一表面和第二表面的基底; 设置在所述第二表面中的槽,所述槽具有基本上平行于所述第二表面的底表面,第一侧壁和第二侧壁,其中所述第一侧壁基本上垂直于所述第二表面,并且其中所述第一侧壁包括多个 与第二表面和底表面物理连通的斜边缘部分; 以及多个通孔,从所述第一表面延伸到所述底表面,其中所述多个通孔在所述槽内对齐,使得至少一个倾斜边缘部分设置在两个通孔之间。
    • 57. 发明授权
    • Turbo recuperator device
    • 涡轮换热装置
    • US06978621B2
    • 2005-12-27
    • US10331342
    • 2002-12-31
    • Ronald Scott BunkerChellappa Balan
    • Ronald Scott BunkerChellappa Balan
    • F01D13/02F02C3/04F02C6/08F02C6/18F02C7/12F02C7/18
    • F02C6/08F01D13/02F02C3/04F02C6/18F02C7/12F02C7/18F05D2260/205
    • A device and method for recuperating a gas turbine engine comprises a compressor being configured to receive a coolant fluid stream, to compress the coolant fluid stream and to discharge the compressed coolant fluid stream to a turbine in fluid communication with the compressor. The compressed coolant fluid stream undergoing thermal exchange within the turbine, exit the turbine thereafter. A source of a working fluid stream is in fluid communication with the turbine. The working fluid stream is fluidly isolated from a portion of the coolant fluid stream and undergoing thermodynamic expansion through the turbine to extract energy therefrom. Where desired, the entire coolant fluid stream is fluidly isolated from the working fluid stream. At least a portion of the coolant fluid stream is channeled downstream of the turbine to supply a preheated process fluid stream to an adjacent system.
    • 一种用于回收燃气涡轮发动机的装置和方法,包括压缩机,其构造成接收冷却剂流体流,以压缩冷却剂流体流并将压缩的冷却剂流体流排放到与压缩机流体连通的涡轮机。 在涡轮机内进行热交换的压缩的冷却剂流体流随后离开涡轮机。 工作流体流的源与涡轮流体连通。 工作流体流与冷却剂流体流的一部分流体隔离,并通过涡轮进行热力学膨胀,以从其中提取能量。 如果需要,整个冷却剂流体流与工作流体流流体隔离。 冷却剂流体流的至少一部分被引导到涡轮机的下游,以向相邻的系统提供预热的过程流体流。
    • 58. 发明授权
    • Fiber cooling of fuel cells
    • 燃料电池的光纤冷却
    • US06953633B2
    • 2005-10-11
    • US10212541
    • 2002-08-06
    • Ronald Scott Bunker
    • Ronald Scott Bunker
    • H01M8/02H01M8/00H01M8/04H01M8/08H01M8/10H01M8/12H01M8/24
    • H01M8/2432H01M8/0258H01M8/026H01M8/04089H01M8/241H01M8/243
    • Fuel cells for example solid oxide fuel cells require cooling to maintain temperature levels and remove thermal energy generated by the fuel cells. The present invention provides a fuel cell assembly comprising at least one fuel cell. The fuel cell comprises an anode, a cathode, an electrolyte interposed therebetween, an interconnect which is in intimate contact with at least one of the anode, the cathode and the electrolyte; at least one fluid flow channel which is disposed within the fuel cell, and at least one fiber which is disposed within the fluid flow channel. The fiber disposed within the fluid flow channel disrupts a fluid flow during travel of the fluid within the fluid flow channel to generate unsteady wakes. These unsteady wakes enhance the local heat transfer characteristics adjacent to at least one fiber. A higher Reynolds number enhances the heat transfer characteristics proportionately. Enhanced heat transfer characteristics increase the ability to remove heat more efficiently and more effectively.
    • 燃料电池例如固体氧化物燃料电池需要冷却以维持温度水平并消除由燃料电池产生的热能。 本发明提供一种包括至少一个燃料电池的燃料电池组件。 燃料电池包括阳极,阴极,介于其间的电解质,与阳极,阴极和电解质中的至少一个紧密接触的互连; 布置在燃料电池内的至少一个流体流动通道和设置在流体流动通道内的至少一个纤维。 布置在流体流动通道内的纤维在流体流动通道内的流体行进期间破坏流体流动,以产生不稳定的唤醒。 这些不稳定的醒来增强了与至少一根纤维相邻的局部传热特性。 雷诺数越高,按比例提高传热特性。 增强的传热特性增加了更有效和更有效地去除热量的能力。