Abstract: A combustor for a gas turbine engine includes a dome structure having an outer dome connecting flange, a cowl structure, an outer liner having an outer liner connecting flange, and an inner liner having an inner liner connecting flange. At least one of (a) the outer liner connecting flange includes a bushing having an opening therethrough, or (b) the outer dome connecting flange includes a bushing having an opening therethrough. The outer dome connecting flange, the cowl structure, and the outer liner are connected together via an outer connection that includes an outer connecting member having a head and a shank. An outer surface of the head slidingly engages with at least one of (i) an inner surface of the opening of the bushing in the outer liner connecting flange, or (ii) an inner surface of the bushing in the outer dome connecting flange.

Abstract: A combustor for a gas turbine engine includes a ceramic matrix composite (CMC) dome structure, a metallic cowl structure including a single yoke outer cowl connecting flange and a single yoke inner cowl connecting flange, a CMC outer liner, and a CMC inner liner. An outer connection connects the outer cowl connecting flange, the CMC dome structure, and the CMC outer liner in an outer stacked arrangement, and an inner connection connects the inner cowl connecting flange, the CMC dome structure, and the CMC inner liner in an inner stacked arrangement.

Abstract: A printing device receives modeling data that defines a three-dimensional solid model of a component body having a plurality of faces and a plurality of edges. Each of the faces meets another face of the component body at a respective edge of the component body. The printing device interrogates one or more faces of the component body to identify one or more looped geometries, and defines a lattice exclusion area having a boundary formed based at least in part on one or more faces of the component body that correspond to the looped geometries. The printing device generates a printer output of the component body and a lattice support structure for the component body. The printer output of the lattice support structure is outside of the lattice exclusion area.

Abstract: A combustor for a gas turbine engine includes a dome structure having an outer dome connecting flange, a cowl structure, an outer liner having an outer liner connecting flange, and an inner liner having an inner liner connecting flange. At least one of (a) the outer liner connecting flange includes a bushing having an opening therethrough, or (b) the outer dome connecting flange includes a bushing having an opening therethrough. The outer dome connecting flange, the cowl structure, and the outer liner are connected together via an outer connection that includes an outer connecting member having a head and a shank. An outer surface of the head slidingly engages with at least one of (i) an inner surface of the opening of the bushing in the outer liner connecting flange, or (ii) an inner surface of the bushing in the outer dome connecting flange.

Abstract: A combustor for a gas turbine engine includes a dome structure having an outer dome connecting flange, a cowl structure, an outer liner having an outer liner connecting flange, and an inner liner having an inner liner connecting flange. At least one of (a) the outer liner connecting flange includes a bushing having an opening therethrough, or (b) the outer dome connecting flange includes a bushing having an opening therethrough. The outer dome connecting flange, the cowl structure, and the outer liner are connected together via an outer connection that includes an outer connecting member having a head and a shank. An outer surface of the head slidingly engages with at least one of (i) an inner surface of the opening of the bushing in the outer liner connecting flange, or (ii) an inner surface of the bushing in the outer dome connecting flange.

Abstract: A combustor for a gas turbine engine includes a ceramic matrix composite (CMC) dome structure, a metallic cowl structure including a single yoke outer cowl connecting flange and a single yoke inner cowl connecting flange, a CMC outer liner, and a CMC inner liner. An outer connection connects the outer cowl connecting flange, the CMC dome structure, and the CMC outer liner in an outer stacked arrangement, and an inner connection connects the inner cowl connecting flange, the CMC dome structure, and the CMC inner liner in an inner stacked arrangement.

Abstract: A combustor for a gas turbine engine includes a ceramic matrix composite (CMC) dome structure, a CMC outer liner, a CMC inner liner, and a cowl structure, that are connected together via at least one outer connection and at least one inner connection. An outer seal member is arranged to seal an outer gap between an outer liner connecting flange and an outer dome connecting flange, and an inner seal member is arranged to seal an inner gap between an inner liner connecting flange and an inner dome connecting flange.

Abstract: An apparatus relating to a component for a turbine engine which generates a hot gas fluid flow, and provides a cooling fluid flow. The component having a wall separating the hot gas fluid flow from the cooling fluid flow and having a heated surface along which the hot gas fluid flow flows and a cooled surface facing the cooling fluid flow. At least one cooling hole including a connecting passage extending from a first inlet located at the cooled surface, to a first outlet located at the heated surface, the connecting passage defining a downstream flow direction from the first inlet to the first outlet, the connecting passage comprising a metering section fluidly coupled to the first inlet and defining a metered centerline and a diffusing section, downstream of the metering section, defining a diffused centerline, and fluidly coupling the metering section to the first outlet.

Abstract: Embodiments of a combustor assembly for a turbine engine are generally provided. The combustor assembly includes a first separable portion defining a dome assembly, and a second separable portion defining a deflector assembly. The first separable portion and the second separable portion are coupled together at a fitted interface.

Abstract: A combustor for a gas turbine includes a ceramic matrix composite (CMC) dome including a swirler opening therethrough with a flare interface surface surrounding the swirler opening, a swirler assembly including (a) a secondary swirler having a threaded flare attachment portion, and (b) a flare having (i) a threaded secondary swirler attachment portion, and (ii) a dome interface wall that interfaces with the flare interface surface of the CMC dome, and a swirler-dome attachment member. The flare is connected to the secondary swirler via the threaded flare attachment portion and the threaded secondary swirler attachment portion, and the swirler-dome attachment member applies a force to the CMC dome to engage the dome interface wall and the flare interface surface so as to connect the CMC dome and the swirler assembly.

Abstract: Embodiments of a combustor assembly for a turbine engine are generally provided. The combustor assembly includes a first separable portion defining a dome assembly, and a second separable portion defining a deflector assembly. The first separable portion and the second separable portion are coupled together at a fitted interface.

Abstract: A method of forming a gas turbine engine component, the method including forming a plurality of cooling apertures in a preform structure of the component, the plurality of cooling apertures of the preform structure comprising a first cooling aperture and a second cooling aperture, wherein cross-sectional shapes of the first and second cooling apertures of the preform structure are different from one another, as measured in a same relative plane; and applying a coating to at least a portion of the preform structure to form the component, wherein a cross-sectional shape of the first and second cooling apertures of the component are approximately the same as one another, as measured in the same relative plane.

Abstract: An apparatus relating to a component for a turbine engine which generates a hot gas fluid flow, and provides a cooling fluid flow. The component having a wall separating the hot gas fluid flow from the cooling fluid flow and having a heated surface along which the hot gas fluid flow flows and a cooled surface facing the cooling fluid flow. At least one cooling hole including a connecting passage extending from a first inlet located at the cooled surface, to a first outlet located at the heated surface, the connecting passage defining a downstream flow direction from the first inlet to the first outlet, the connecting passage comprising a metering section fluidly coupled to the first inlet and defining a metered centerline and a diffusing section, downstream of the metering section, defining a diffused centerline, and fluidly coupling the metering section to the first outlet.

Abstract: An apparatus and method relating to a cooling hole of a component of a turbine engine. The component can include a wall separating the hot gas fluid flow from the cooling fluid flow and having a heated surface along which the hot gas fluid flow flows and a cooled surface facing the cooling fluid flow and at least one cooling hole comprising at least one inlet at the cooled surface, at least one outlet at the heated surface, with the outlet having a modified outlet shape.

Abstract: A combustor for a turbomachine engine includes a dome made of a ceramic matrix composite (CMC) material, the dome being secured within a support structure. The combustor includes an outer liner made of the CMC material, the outer liner being secured to the dome within the support structure. The combustor also includes an inner liner made of the CMC material, the inner liner being secured to the dome within the support structure.

Abstract: A combustor for a gas turbine includes a ceramic matrix composite (CMC) dome with a swirler mounting wall formed integral with the CMC dome, and a swirler assembly including a plurality of clevis dome attachment members for connecting the swirler assembly to the CMC dome. Bushings are arranged within a plurality of dome-side swirler assembly mounting openings of the swirler mounting wall, and the CMC dome is arranged within respective ones of the plurality of clevis dome attachment members of the swirler assembly. A swirler-dome connecting member is disposed through each of the clevis dome attachment members so as to mount the swirler assembly to the CMC dome.

Abstract: A method of forming a gas turbine engine component, the method including forming a plurality of cooling apertures in a preform structure of the component, the plurality of cooling apertures of the preform structure comprising a first cooling aperture and a second cooling aperture, wherein cross-sectional shapes of the first and second cooling apertures of the preform structure are different from one another, as measured in a same relative plane; and applying a coating to at least a portion of the preform structure to form the component, wherein a cross-sectional shape of the first and second cooling apertures of the component are approximately the same as one another, as measured in the same relative plane.

Abstract: A spillway body has an upper section and a lower section with a left vertical side and a right vertical side and an upper horizontal edge and a lower horizontal edge which join exterior and interior faces. The exterior face of the upper section is closed and contoured forming a left wedge and a similarly configured right wedge. The interior face of the upper section is open to receive a means of buoyancy. The lower section has a means of attachment adjacent the lower horizontal edge thereby allowing the apparatus to be rotatably received within a rectangular throat of a swimming pool skimmer housing to improve the movement of pool water flowing to and through said skimmer housing.

Abstract: A combustor for a turbomachine engine includes a dome made of a ceramic matrix composite (CMC) material, the dome being secured within a support structure. The combustor includes an outer liner made of the CMC material, the outer liner being secured to the dome within the support structure. The combustor also includes an inner liner made of the CMC material, the inner liner being secured to the dome within the support structure.

Abstract: A combustor for a gas turbine includes a ceramic matrix composite (CMC) dome including a swirler opening therethrough with a flare interface surface surrounding the swirler opening, a swirler assembly including (a) a secondary swirler having a threaded flare attachment portion, and (b) a flare having (i) a threaded secondary swirler attachment portion, and (ii) a dome interface wall that interfaces with the flare interface surface of the CMC dome, and a swirler-dome attachment member. The flare is connected to the secondary swirler via the threaded flare attachment portion and the threaded secondary swirler attachment portion, and the swirler-dome attachment member applies a force to the CMC dome to engage the dome interface wall and the flare interface surface so as to connect the CMC dome and the swirler assembly.