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    • 22. 发明申请
    • Air Cooled Turbine Component Having an Internal Filtration System
    • 具有内部过滤系统的空气冷却涡轮机组件
    • US20110067409A1
    • 2011-03-24
    • US12564166
    • 2009-09-22
    • Alexander R. Beeck
    • Alexander R. Beeck
    • F02C7/18
    • F02C7/052F01D5/08F01D9/065F05D2260/607
    • A centrifugal particle separator is provided for removing particles such as microscopic dirt or dust particles from the compressed cooling air prior to reaching and cooling the turbine blades or turbine vanes of a turbine engine. The centrifugal particle separator structure has a substantially cylindrical body with an inlet arranged on a periphery of the substantially cylindrical body. Cooling air enters centrifugal particle separator through the separator inlet port having a linear velocity. When the cooling air impinges the substantially cylindrical body, the linear velocity is transformed into a rotational velocity, separating microscopic particles from the cooling air. Microscopic dust particles exit the centrifugal particle separator through a conical outlet and returned to a working medium.
    • 提供离心式颗粒分离器,用于在到达和冷却涡轮发动机的涡轮叶片或涡轮叶片之前,从压缩的冷却空气中除去诸如微小污垢或灰尘颗粒的颗粒。 离心式颗粒分离器结构具有基本上圆柱形的主体,其具有布置在基本上圆柱形主体的周边上的入口。 冷却空气通过具有线速度的分离器入口进入离心式颗粒分离器。 当冷却空气冲击基本上圆柱形的主体时,将线速度转变成旋转速度,从微型颗粒与冷却空气分离。 微观尘埃颗粒通过锥形出口离开离心颗粒分离器并返回工作介质。
    • 23. 发明申请
    • Turbine Blade
    • 涡轮叶片
    • US20090185903A1
    • 2009-07-23
    • US12226537
    • 2007-02-13
    • Alexander R. BeeckStefan Hoffmann
    • Alexander R. BeeckStefan Hoffmann
    • F01D5/18
    • F01D5/145F01D5/186F01D5/187F01D5/189F01D9/065F02C3/16F02K3/08F05D2240/122F05D2240/124F05D2250/25F05D2260/204
    • The invention relates to a turbine blade comprising a profiled vane around which working gas flows. The working gas cross-flows a front edge of the vane and flows away on a rear edge of the vane. The vane has a first and a second channel system for guiding two media separated from the turbine blade. Combustion taking place inside is reduced in a safe manner to maintain the service life of the turbine blade and to prevent damage in the gas turbine, such that a first outlet connected to the first channel system is arranged in the region of the rear edge for blowing out the first media into the working gas and a second outlet connected to the second channel system is arranged in the region of the rear edge for blowing out the second medium.
    • 本发明涉及一种涡轮叶片,其包括工作气体围绕其流动的异型叶片。 工作气体交叉流动叶片的前边缘并在叶片的后边缘上流走。 叶片具有用于引导从涡轮叶片分离的两种介质的第一和第二通道系统。 在内部进行的燃烧以安全的方式被减少以维持涡轮机叶片的使用寿命并且防止燃气轮机中的损坏,使得连接到第一通道系统的第一出口布置在用于吹送的后边缘的区域中 将第一介质排出到工作气体中,并且连接到第二通道系统的第二出口布置在后边缘的区域中以吹出第二介质。
    • 25. 发明授权
    • Turbine component including airfoil with contour
    • 涡轮机组件包括具有轮廓的翼型
    • US09017030B2
    • 2015-04-28
    • US13280440
    • 2011-10-25
    • Alexander R. Beeck
    • Alexander R. Beeck
    • F01D5/14
    • F01D5/141F01D5/145F05D2240/127F05D2250/184F05D2250/294
    • A turbine engine airfoil structure including an airfoil adapted to extend across a gas passage, and a platform structure defining an endwall located at one end of the airfoil and positioned at a location forming a boundary of the gas passage. A saddle portion is associated with at least one airfoil surface of the airfoil, the saddle portion defining a contour having a first radially outer edge located on the at least one airfoil surface and a second radially inner edge located radially inwardly from the radially outer edge. The contour includes a curvature in a plane extending generally perpendicular to the at least one airfoil surface and passing through the saddle portion, the curvature being radially spaced from the endwall and defining an apex located between the radially outer and inner edges of the saddle portion.
    • 包括适于延伸穿过气体通道的翼型件的涡轮发动机翼型结构以及限定位于所述翼型件的一端并​​位于形成所述气体通道的边界的位置处的端壁的平台结构。 鞍座部分与翼型件的至少一个翼型件表面相关联,鞍形部分限定轮廓,该轮廓具有位于至少一个翼型表面上的第一径向外边缘和从径向外边缘径向向内定位的第二径向内边缘。 轮廓包括在大致垂直于至少一个翼面表面延伸并穿过鞍座部分的平面中的曲率,该曲率与端壁径向间隔开并限定位于鞍部的径向外边缘和内边缘之间的顶点。
    • 26. 发明授权
    • Turbine blade tip with vortex generators
    • 涡轮叶片尖端与涡流发生器
    • US08690536B2
    • 2014-04-08
    • US12892515
    • 2010-09-28
    • Alexander R. BeeckGlenn E. Brown
    • Alexander R. BeeckGlenn E. Brown
    • F01D5/20F01D5/08
    • F01D5/20F01D5/187F05D2210/33F05D2240/127F05D2250/21F05D2260/2212
    • A turbine blade for a turbine engine having a tip with one or more vortex generators for reducing tip leakage during operation of the turbine engine. The vortex generators may extend radially outward from the radially outer surface of the tip wall. The vortex generator may be positioned between a rib extending radially outward from the radially outer surface of the tip wall and an intersection between the outer surface of the tip wall and an outer surface on the pressure side. The vortex generators may include a base and three sides forming a triangular point with a first side having a larger surface are than second and third sides. One or more film cooling holes may be formed in the tip wall to provide cooling air to the tip. In one embodiment, film cooling holes may be positioned in one or more vortex generators.
    • 一种用于涡轮发动机的涡轮叶片,其具有具有一个或多个涡流发生器的尖端,用于在涡轮发动机的运行期间减少尖端泄漏。 涡流发生器可以从尖端壁的径向外表面径向向外延伸。 涡流发生器可以位于从尖端壁的径向外表面径向向外延伸的肋与尖端壁的外表面与压力侧的外表面之间的交叉点之间。 涡流发生器可以包括基部,并且形成具有比第二和第三侧更大表面的第一侧的三角形点的三个边。 可以在尖端壁中形成一个或多个薄膜冷却孔,以向尖端提供冷却空气。 在一个实施例中,膜冷却孔可以定位在一个或多个涡流发生器中。
    • 27. 发明申请
    • METHOD OF ASSEMBLING A GAS TURBINE ENGINE
    • 组装气体涡轮发动机的方法
    • US20130199038A1
    • 2013-08-08
    • US13367750
    • 2012-02-07
    • Alexander R. Beeck
    • Alexander R. Beeck
    • B23P11/00
    • F01D25/285F01D11/00F02C7/28F05D2230/60
    • A method of assembling a seal in a horizontal split plane gas turbine engine including providing a rotor assembly including a turbine blade assembly defining a forward face and a seal ring extending axially from the forward face. The rotor assembly is positioned extending through a lower compressor casing and a lower turbine casing, the positioning including tilting the rotor assembly at an angle relative to the longitudinal axis for the engine. An upper turbine casing is positioned over the tilted rotor assembly, and the upper and lower turbine casings define a circumferentially extending seal groove. The rotor assembly is moved in an axially forward direction to position the seal ring in axially overlapping relation within the seal groove. The longitudinal axis of the rotor assembly is then aligned with the longitudinal axis of the turbine engine to further position the seal ring within the seal groove.
    • 一种在水平分裂平面燃气涡轮发动机中组装密封件的方法,包括提供转子组件,转子组件包括限定前表面的涡轮叶片组件和从前表面轴向延伸的密封环。 转子组件定位成延伸穿过下压缩机壳体和下涡轮机壳体,该定位包括使转子组件相对于发动机的纵向轴线成一定角度倾斜。 上涡轮机壳体位于倾斜的转子组件上方,并且上涡轮机壳体和下涡轮机壳体限定周向延伸的密封槽。 转子组件沿轴向向前移动以将密封环定位在密封槽内的轴向重叠关系。 然后转子组件的纵向轴线与涡轮发动机的纵向轴线对齐,以将密封环进一步定位在密封槽内。
    • 28. 发明申请
    • MATEFACE GAP CONFIGURATION FOR GAS TURBINE ENGINE
    • 燃气轮机发动机功率谱配置
    • US20130004315A1
    • 2013-01-03
    • US13171691
    • 2011-06-29
    • Alexander R. BeeckShantanu P. Mhetras
    • Alexander R. BeeckShantanu P. Mhetras
    • F01D5/22
    • F01D5/143F01D5/22F01D11/003
    • In a gas turbine engine, adjoining pairs of airfoil structures include airfoils mounted to respective platforms. The platforms have side edges defining matefaces that form a mateface gap extending from an upstream edge of the platforms to a downstream edge of the platforms. A flow field of working gas adjacent to endwalls of the platform comprises streamlines extending generally transverse to the axial direction from a first airfoil toward an adjacent second airfoil. To achieve improved aerodynamic performance, the mateface gap has portions oriented transverse to the streamlines and oriented aligned with the streamlines. A step in elevation of the side edges at the transverse portion can include injected cooling flow in a direction that enhances attachment of the flow at a downstream side.
    • 在燃气涡轮发动机中,相邻的翼型结构对包括安装到相应平台的翼型件。 平台具有侧边缘,其限定了形成从平台的上游边缘延伸到平台的下游边缘的面对间隙的面。 与平台的端壁相邻的工作气体的流场包括从第一翼面朝向相邻的第二翼面大致横向于轴向方向延伸的流线。 为了实现改进的空气动力学性能,配合间隙具有横向于流线并且与流线对准的部分。 在横向部分处的侧边缘的升高台阶可以包括在增强下游侧的流动的附着方向的注入的冷却流。
    • 29. 发明授权
    • Turbine blade
    • 涡轮叶片
    • US08092175B2
    • 2012-01-10
    • US12226537
    • 2007-02-13
    • Alexander R. BeeckStefan Hoffmann
    • Alexander R. BeeckStefan Hoffmann
    • F01D5/08F04D29/58
    • F01D5/145F01D5/186F01D5/187F01D5/189F01D9/065F02C3/16F02K3/08F05D2240/122F05D2240/124F05D2250/25F05D2260/204
    • The invention relates to a turbine blade comprising a profiled vane around which working gas flows. The working gas cross-flows a front edge of the vane and flows away on a rear edge of the vane. The vane has a first and a second channel system for guiding two media separated from the turbine blade. Combustion taking place inside is reduced in a safe manner to maintain the service life of the turbine blade and to prevent damage in the gas turbine, such that a first outlet connected to the first channel system is arranged in the region of the rear edge for blowing out the first media into the working gas and a second outlet connected to the second channel system is arranged in the region of the rear edge for blowing out the second medium.
    • 本发明涉及一种涡轮叶片,其包括工作气体围绕其流动的异型叶片。 工作气体交叉流动叶片的前边缘并在叶片的后边缘上流走。 叶片具有用于引导从涡轮叶片分离的两种介质的第一和第二通道系统。 在内部进行的燃烧以安全的方式被减少以维持涡轮机叶片的使用寿命并且防止燃气轮机中的损坏,使得连接到第一通道系统的第一出口布置在用于吹送的后边缘的区域中 将第一介质排出到工作气体中,并且连接到第二通道系统的第二出口布置在后边缘的区域中以吹出第二介质。
    • 30. 发明申请
    • Turbine Blade Damping Device with Controlled Loading
    • 具有受控加载的涡轮叶片阻尼装置
    • US20110142650A1
    • 2011-06-16
    • US12637066
    • 2009-12-14
    • Alexander R. Beeck
    • Alexander R. Beeck
    • F01D5/22
    • F01D5/22F04D29/324F04D29/668F05D2250/712F05D2260/96
    • A damping structure for a turbomachine rotor. The damping structure includes an elongated snubber element including a first snubber end rigidly attached to a first blade and extending toward an adjacent second blade, and an opposite second snubber end defining a first engagement surface positioned adjacent to a second engagement surface associated with the second blade. The snubber element has a centerline extending radially inwardly in a direction from the first blade toward the second blade along at least a portion of the snubber element between the first and second snubber ends. Rotational movement of the rotor effects relative movement between the first engagement surface and the second engagement surface to position the first engagement surface in frictional engagement with the second engagement surface with a predetermined damping force determined by a centrifugal force on the snubber element.
    • 涡轮机转子的阻尼结构。 阻尼结构包括细长的缓冲元件,其包括刚性地连接到第一叶片并朝向相邻的第二叶片延伸的第一缓冲端,以及相对的第二缓冲端,限定了与第二叶片相关联的第二接合表面定位的第一接合表面 。 缓冲元件具有沿第一和第二缓冲器端部之间的缓冲元件的至少一部分沿着从第一刀片朝向第二刀片的方向径向向内延伸的中心线。 转子的旋转运动影响第一接合表面和第二接合表面之间的相对运动,以使第一接合表面与第二接合表面摩擦接合,并以由缓冲件上的离心力确定的预定阻尼力。