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    • 5. 发明授权
    • CMC to metal attachment mechanism
    • CMC到金属附件机构
    • US07722317B2
    • 2010-05-25
    • US11698232
    • 2007-01-25
    • Anthony L. SchiavoDouglas A. KellerMalberto F. GonzalezDavid C. Radonovich
    • Anthony L. SchiavoDouglas A. KellerMalberto F. GonzalezDavid C. Radonovich
    • F01D25/26
    • F01D25/246F05D2300/21F05D2300/603Y10T29/49321
    • A CMC wall (20F) may be attached to a metal wall (22F) by a plurality of bolts (28A, 28B, 28C) passing through respective holes (24A, 24B, 24C) in the CMC wall (20F) and holes in the metal wall (22F), clamping the walls (20F, 22F) together with a force that allows sliding thermal expansion but does not allow vibrational shifting. Distal ones of the holes (24A, 24B) in the CMC wall (20F) or in the metal wall (22F) are elongated toward a central one of the bolts (24C) or at alternate angles to guide differential thermal expansion (20T) of the CMC wall (20F) versus the metal wall (22F) between desired cold and hot geometries. A second CMC wall (20R) may be mounted similarly to a second metal wall (22R) by pins (39A, 39B, 39C) that allow expansion of the CMC component (201) in a direction normal to the walls (20F, 20R).
    • 通过穿过CMC壁(20F)中的相应孔(24A,24B,24C)的多个螺栓(28A,28B,28​​C)将CMC壁(20F)连接到金属壁(22F)上, 金属壁(22F),通过允许滑动热膨胀但不允许振动移动的力将壁(20F,22F)夹紧在一起。 在CMC壁(20F)或金属壁(22F)中的孔中的远端(24A,24B)朝向螺栓(24C)的中心一个或相互交替的角度拉长,以引导差动热膨胀(20T) CMC壁(20F)与期望的冷和热几何之间的金属壁(22F)相对。 第二CMC壁(20R)可以通过销(39A,39B,39C)与第二金属壁(22R)类似地安装,该销(39A,39B,39C)允许CMC部件(201)沿垂直于壁(20F,20R)的方向膨胀, 。
    • 6. 发明授权
    • CMC vane assembly apparatus and method
    • CMC叶片装配装置及方法
    • US08292580B2
    • 2012-10-23
    • US12479047
    • 2009-06-05
    • Anthony L. SchiavoMalberto F. GonzalezKuangwei HuangDavid C. Radonovich
    • Anthony L. SchiavoMalberto F. GonzalezKuangwei HuangDavid C. Radonovich
    • F01D5/08F01D5/18
    • F01D9/041F01D5/189F01D5/282F01D5/284F05D2300/21F05D2300/603Y10T29/49323
    • A metal vane core or strut (64) is formed integrally with an outer backing plate (40). An inner backing plate (38) is formed separately. A spring (74) with holes (75) is installed in a peripheral spring chamber (76) on the strut. Inner and outer CMC shroud covers (46, 48) are formed, cured, then attached to facing surfaces of the inner and outer backing plates (38, 40). A CMC vane airfoil (22) is formed, cured, and slid over the strut (64). The spring (74) urges continuous contact between the strut (64) and airfoil (66), eliminating vibrations while allowing differential expansion. The inner end (88) of the strut is fastened to the inner backing plate (38). A cooling channel (68) in the strut is connected by holes (69) along the leading edge of the strut to peripheral cooling paths (70, 71) around the strut. Coolant flows through and around the strut, including through the spring holes.
    • 金属叶片芯或支柱(64)与外背板(40)整体形成。 内侧背板(38)分别形成。 具有孔(75)的弹簧(74)安装在支柱上的周边弹簧室(76)中。 内部和外部CMC护罩罩(46,48)形成,固化,然后连接到内侧和外侧背板(38,40)的相对表面。 形成CMC叶片翼型件(22),固化并滑过支柱(64)。 弹簧(74)促使支柱(64)和翼型件(66)之间的连续接触,消除振动,同时允许不同的膨胀。 支柱的内端(88)固定在内背板(38)上。 支柱中的冷却通道(68)通过沿着支柱的前缘的孔(69)连接到围绕支柱的周边冷却路径(70,71)。 冷却液通过支柱和其周围流动,包括通过弹簧孔。
    • 7. 发明申请
    • CMC to metal attachment mechanism
    • CMC到金属附件机构
    • US20080178465A1
    • 2008-07-31
    • US11698232
    • 2007-01-25
    • Anthony L. SchiavoDouglas A. KellerMalberto F. GonzalezDavid C. Radonovich
    • Anthony L. SchiavoDouglas A. KellerMalberto F. GonzalezDavid C. Radonovich
    • B21K25/00
    • F01D25/246F05D2300/21F05D2300/603Y10T29/49321
    • A CMC wall (20F) may be attached to a metal wall (22F) by a plurality of bolts (28A, 28B, 28C) passing through respective holes (24A, 24B, 24C) in the CMC wall (20F) and holes in the metal wall (22F), clamping the walls (20F, 22F) together with a force that allows sliding thermal expansion but does not allow vibrational shifting. Distal ones of the holes (24A, 24B) in the CMC wall (20F) or in the metal wall (22F) are elongated toward a central one of the bolts (24C) or at alternate angles to guide differential thermal expansion (20T) of the CMC wall (20F) versus the metal wall (22F) between desired cold and hot geometries. A second CMC wall (20R) may be mounted similarly to a second metal wall (22R) by pins (39A, 39B, 39C) that allow expansion of the CMC component (201) in a direction normal to the walls (20F, 20R).
    • CMC壁(20F)可以通过多个通过CMC中的相应孔(24A,24B,24C)的螺栓(28A,28B,28​​C)附接到金属壁(22F) 壁(20F)和金属壁(22F)中的孔,通过允许滑动热膨胀但不允许振动移动的力将壁(20F,22F)夹紧在一起。 在CMC壁(20F)或金属壁(22F)中的孔中的远端(24A,24B)朝着中心的一个螺栓(24C)或交替的角度被拉长以引导差热 在所需的冷和热几何形状之间的CMC壁(20F)与金属壁(22F)的膨胀(20T)。 第二CMC壁(20R)可以通过销(39A,39B,39C)类似于第二金属壁(22 R)安装,其允许CMC部件(201)沿垂直于壁的方向膨胀 (20F,20R)。
    • 8. 发明申请
    • CMC Vane Assembly Apparatus and Method
    • CMC叶片装配和方法
    • US20100068034A1
    • 2010-03-18
    • US12479047
    • 2009-06-05
    • Anthony L. SchiavoMalberto F. GonzalezKuangwei HuangDavid C. Radonovich
    • Anthony L. SchiavoMalberto F. GonzalezKuangwei HuangDavid C. Radonovich
    • F01D25/12F01D9/02B23P11/00
    • F01D9/041F01D5/189F01D5/282F01D5/284F05D2300/21F05D2300/603Y10T29/49323
    • A metal vane core or strut (64) is formed integrally with an outer backing plate (40). An inner backing plate (38) is formed separately. A spring (74) with holes (75) is installed in a peripheral spring chamber (76) on the strut. Inner and outer CMC shroud covers (46, 48) are formed, cured, then attached to facing surfaces of the inner and outer backing plates (38, 40). A CMC vane airfoil (22) is formed, cured, and slid over the strut (64). The spring (74) urges continuous contact between the strut (64) and airfoil (66), eliminating vibrations while allowing differential expansion. The inner end (88) of the strut is fastened to the inner backing plate (38). A cooling channel (68) in the strut is connected by holes (69) along the leading edge of the strut to peripheral cooling paths (70, 71) around the strut. Coolant flows through and around the strut, including through the spring holes.
    • 金属叶片芯或支柱(64)与外背板(40)整体形成。 内侧背板(38)分别形成。 具有孔(75)的弹簧(74)安装在支柱上的周边弹簧室(76)中。 内部和外部CMC护罩罩(46,48)形成,固化,然后连接到内侧和外侧背板(38,40)的相对表面。 形成CMC叶片翼型件(22),固化并滑过支柱(64)。 弹簧(74)促使支柱(64)和翼型件(66)之间的连续接触,消除振动,同时允许不同的膨胀。 支柱的内端(88)固定在内背板(38)上。 支柱中的冷却通道(68)通过沿着支柱的前缘的孔(69)连接到围绕支柱的周边冷却路径(70,71)。 冷却液通过支柱和其周围流动,包括通过弹簧孔。