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    • 1. 发明授权
    • Lamellate CMC structure with interlock to metallic support structure
    • 层状CMC结构与金属支撑结构互锁
    • US07247002B2
    • 2007-07-24
    • US11169477
    • 2005-06-29
    • Harry A. AlbrechtYevgeniy ShteymanJay A. MorrisonDaniel G. Thompson
    • Harry A. AlbrechtYevgeniy ShteymanJay A. MorrisonDaniel G. Thompson
    • F01D9/00
    • F01D5/147F04D29/388F05D2230/23F05D2300/601F05D2300/603F05D2300/614
    • A component (10) for a gas turbine engine formed of a stacked plurality of ceramic matrix composite (CMC) lamellae (12) supported by a metal support structure (20). Individual lamellae are supported directly by the support structure via cooperating interlock features (30, 32) formed on the lamella and on the support structure respectively. Mating load-transferring surfaces (34, 36) of the interlock features are disposed in a plane (44) oblique to local axes of thermal growth (38, 40) in order to accommodate differential thermal expansion there between with delta alpha zero expansion (DAZE). Reinforcing fibers (62) within the CMC material may be oriented in a direction optimized to resist forces being transferred through the interlock features. Individual lamellae may all have the same structure or different interlock feature shapes and/or locations may be used in different groups of the lamellae. Applications for this invention include an airfoil assembly (10) and a ring segment assembly (82).
    • 一种用于由由金属支撑结构(20)支撑的层叠多个陶瓷基体复合(CMC)薄片(12)形成的燃气涡轮发动机的部件(10)。 单独的薄片通过分别形成在薄片上和支撑结构上的协同互锁特征(30,32)由支撑结构直接支撑。 互锁特征的接合载荷传递表面(34,36)设置在与热生长(38,40)的局部轴线倾斜的平面(44)中,以便在其间容纳差分热膨胀,其中Δα零膨胀(DAZE )。 可以在CMC材料内的增强纤维(62)沿着优化的方向定向以抵抗通过互锁特征传递的力。 单个薄片都可以具有相同的结构或不同的互锁特征形状,和/或位置可以用于不同的薄片组。 本发明的应用包括翼型组件(10)和环形段组件(82)。
    • 7. 发明授权
    • Ceramic matrix composite airfoil trailing edge arrangement
    • 陶瓷基复合翼面后缘布置
    • US07066717B2
    • 2006-06-27
    • US10830384
    • 2004-04-22
    • Jay A. MorrisonHarry A. AlbrechtYevgeniy ShteymanThomas Barrett Jackson
    • Jay A. MorrisonHarry A. AlbrechtYevgeniy ShteymanThomas Barrett Jackson
    • F03D3/02
    • F01D5/187F01D5/282F01D5/284F05D2300/603F05D2300/615Y10T29/49337Y10T29/49341
    • An airfoil (30) having a continuous layer of ceramic matrix composite (CMC) material (34) extending from a suction side (33) to a pressure side (35) around a trailing edge portion (31). The CMC material includes an inner wrap (36) extending around an inner trailing edge portion (38) and an outer wrap (40) extending around an outer trailing edge portion (42). A filler material (44) is disposed between the inner and outer wraps to substantially eliminate voids in the trailing edge portion. The filler material may be pre-processed to an intermediate stage and used as a mandrel for forming the outer trailing edge portion, and then co-processed with the inner and outer wraps to a final form. The filler material may be pre-processed to include a desired mechanical feature such as a cooling passage (22) or a protrusion (48). The filler material may include an upper layer (77) and a lower layer (78) separated by an intermediate layer (76) that extends to between the inner wrap and the outer wrap along the suction and/or pressure sides.
    • 具有从吸力侧(33)延伸到围绕后缘部分(31)的压力侧(35)的陶瓷基质复合材料(CMC)材料(CMC)的连续层的翼型件30。 CMC材料包括围绕内部后缘部分(38)延伸的内部包裹物(36)和围绕外部后缘部分(42)延伸的外部包裹物(40)。 填充材料(44)设置在内层和外层之间,以基本上消除后缘部分中的空隙。 填充材料可以预处理到中间阶段,并且用作形成外后缘部分的心轴,然后与内包层和外包层共处理成最终形式。 填充材料可以被预处理以包括期望的机械特征,例如冷却通道(22)或突起(48)。 填充材料可以包括上层(77)和由中间层(76)分开的下层(78),中间层(76)沿着吸力和/或压力侧延伸到内包层和外包裹层之间。
    • 8. 发明授权
    • Cooling fluid preheating system for an airfoil in a turbine engine
    • 涡轮发动机翼型的冷却液预热系统
    • US07217088B2
    • 2007-05-15
    • US11049239
    • 2005-02-02
    • Harry A. AlbrechtYevgeniy Shteyman
    • Harry A. AlbrechtYevgeniy Shteyman
    • F03B11/02
    • F01D5/18F05D2240/81F05D2260/205F05D2300/603
    • A platform cooling system usable in a turbine engine together with an airfoil for preheating cooling fluids before the cooling fluids enter a cooling system in the airfoil in a turbine engine. The platform cooling system includes cooling channels in either the ID or OD platforms, or both, of the airfoil. The channels transfer heat to the cooling fluids flowing through the platform cooling system and thereby heat the cooling fluids. The preheated cooling fluids are particularly useful with cooling composite ceramic airfoils, which are susceptible to damage from large temperature gradients developed between combustion gases outside the airfoil and cooling fluids inside the airfoil. The platform cooling system may be combined with an airfoil cooling system to create a serial cooling system in which cooling fluids may enter the platform and flow through the platform and airfoil without being supplemented with additional cooling fluids along the flow path.
    • 一种平台冷却系统,其可用于涡轮发动机和翼型件,用于在冷却流体进入涡轮发动机的翼型中的冷却系统之前预热冷却流体。 平台冷却系统包括翼型的ID或OD平台或两者的冷却通道。 通道将热量传递到流过平台冷却系统的冷却流体,从而加热冷却流体。 预热的冷却流体特别适用于冷却复合陶瓷翼型件,这些翼型件易受到在翼型外部的燃烧气体和翼型内的冷却流体之间产生的大的温度梯度的损害。 平台冷却系统可以与翼型冷却系统组合以产生串联冷却系统,其中冷却流体可以进入平台并流过平台和翼型件,而不沿着流动路径补充另外的冷却流体。