mhurhangee/ep-ind-claims huggingface dataset:
A sump assembly for use in a gas turbine engine, the sump assembly comprising' a housing arranged around a central axis of the sump assembly to define a sump cavity, the housing formed to include a vent passageway that extends through the housing and opens into the sump cavity, a shaft assembly located in the sump cavity and formed to define a seal gap configured to direct high-pressure gasses radially outward away from the shaft assembly and into the sump cavity, and a windage-suppressor shroud located in the sump cavity and arranged around the shaft assembly to direct the high-pressure gasses from the seal gap to the vent passageway formed in the housing, the windage-suppressor shroud formed to include a guide passageway that includes a guide inlet aligned axially with the seal gap and a guide outlet aligned with the vent passageway formed in the housing; characterised in that the shaft assembly includes an inner shaft unit mounted to rotate about the central axis and an outer shaft unit mounted to rotate about the central axis, the outer shaft unit is arranged circumferentially around at least a portion of the inner shaft unit to define the seal gap.
A nozzle (12; 14) comprising: an annular wall defining a fluid flow passage and including a base portion and an adjoining exit portion, the exit portion including undulations in a generally radial direction that provide lobes and troughs each respectively including trailing edges (40, 42), the trough trailing edges recessed from the lobe trailing edges in a generally axial direction, the lobe trailing edges form apexes with the apexes provided on tabs, and troughs extending radially inward in an axial direction towards the trough trailing edges; wherein the base portion includes a contour with an imaginary surface extending axially in the direction of the contour, the lobes extending radially outwardly of the imaginary surface and the troughs extending radially inwardly of the imaginary surface; each lobe has the same shape as each of the other lobes and each trough has the same shape as each of the other troughs; and in that the troughs are recessed from the lobes in the generally axial direction, the lobes extending radially outwardly at a lobe angle, defined as the mean angle of lobe in the axial direction, approximately between 0 and 26 degrees; the lobes are radially spaced from the imaginary surface at approximately a height, the lobes breaking the imaginary surface and defining a width defined as the distance between apexes of adjacent lobes, the height divided by the width defining a maximum ratio of 0.2; an axial contour of each lobe is a cosine shape; and the lobes and troughs provide a sinusoidal circumferential contour. an annular wall defining a fluid flow passage and including a base portion and an adjoining exit portion, the exit portion including undulations in a generally radial direction that provide lobes and troughs each respectively including trailing edges (40, 42), the trough trailing edges recessed from the lobe trailing edges in a generally axial direction, the lobe trailing edges form apexes with the apexes provided on tabs, and troughs extending radially inward in an axial direction towards the trough trailing edges; wherein the base portion includes a contour with an imaginary surface extending axially in the direction of the contour, the lobes extending radially outwardly of the imaginary surface and the troughs extending radially inwardly of the imaginary surface; each lobe has the same shape as each of the other lobes and each trough has the same shape as each of the other troughs; and in that the troughs are recessed from the lobes in the generally axial direction, the lobes extending radially outwardly at a lobe angle, defined as the mean angle of lobe in the axial direction, approximately between 0 and 26 degrees; the lobes are radially spaced from the imaginary surface at approximately a height, the lobes breaking the imaginary surface and defining a width defined as the distance between apexes of adjacent lobes, the height divided by the width defining a maximum ratio of 0.2; an axial contour of each lobe is a cosine shape; and the lobes and troughs provide a sinusoidal circumferential contour.
A threaded spindle (20, 30), having at least one substantially cylindrical first region carrying a thread groove, characterized in that • a blank for the threaded spindle (20, 30) is made of bainitic steel, • in the first region, a core shell is defined as a cylinder-jacket-shaped volume region which extends radially inwards from the core diameter (d TG) of the threaded spindle and has a thickness (d K) which corresponds to the thread height (t TG), • the thread groove, measured in Vickers hardnesses on the thread flanks, is between 3% and 12%, preferably 7.5% on average, more ductile than the core shell, determined in Vickers hardnesses in a cross-section polish. • a blank for the threaded spindle (20, 30) is made of bainitic steel, • in the first region, a core shell is defined as a cylinder-jacket-shaped volume region which extends radially inwards from the core diameter (d TG) of the threaded spindle and has a thickness (d K) which corresponds to the thread height (t TG), • the thread groove, measured in Vickers hardnesses on the thread flanks, is between 3% and 12%, preferably 7.5% on average, more ductile than the core shell, determined in Vickers hardnesses in a cross-section polish.
A method for predicting short-term cloud coverage, the method comprising: calculating, by a computer, an estimated cloud velocity field at a current time value based on a plurality of sky images; determining, by the computer, a segmented cloud model based on the plurality of sky images; determining, by the computer, a future sun location corresponding to a future time value; determining, by the computer, a plurality of sun pixel locations at the future time value based on the future sun location; applying, by the computer, a back-propagation algorithm to the plurality of sun pixel locations using the estimated cloud velocity field to yield a plurality of propagated sun pixel locations corresponding to a previous time value; and predicting, by the computer, cloud coverage for the future sun location based on the plurality of propagated sun pixel locations and the segmented cloud model.
A method for manufacturing a substrate-integrated gasket, the method integrating a fiber substrate which is constructed by a pulp fiber having cellulose as a main component and a gasket body which is constructed by a rubber-like elastic body according to a rubber impregnation, wherein a plurality of substrate-integrated gaskets are obtained by executing an injection molding by plural stages of rubber metal molds, and wherein said rubber material is filled in plural stages of metal mold cavities by passing the rubber material through said fiber substrate in which a rubber material flow channel in said metal mold is closed by the injection pressure.
A thermoplastic composition consisting of a polyolefin backbone containing a residue of at least one unsaturated monomer and a plurality of polyamide grafts, and also another component, wherein: - the polyamide grafts are attached to the polyolefin backbone by the residue of the unsaturated monomer comprising a function capable of reacting via a condensation reaction with a polyamide having at least one amine end group and/or at least one carboxylic acid end group, - the residue of the unsaturated monomer is attached to the backbone by grafting or copolymerization, characterized in that the other component consists of platy nanofillers, said nanofillers being phyllosilicates and representing from 1% to 6.5% by weight of the composition. - the polyamide grafts are attached to the polyolefin backbone by the residue of the unsaturated monomer comprising a function capable of reacting via a condensation reaction with a polyamide having at least one amine end group and/or at least one carboxylic acid end group, - the residue of the unsaturated monomer is attached to the backbone by grafting or copolymerization,
A frame for use in manufacturing, the frame comprising: a first frame comprising: a first plurality of magnets secured to the first frame; a first plurality of pins secured to the first frame, wherein the first plurality of pins are positioned around the first frame for securing a material extending across a center area of the first frame; a first aperture extending through the first frame; a second frame configured to coextensively mate with the first frame, the second frame comprising: a second plurality of magnets secured to the second frame, wherein the first plurality of magnets and the second plurality of magnets are cooperatively positioned to magnetically attract the first frame and the second frame in the coextensively mated configuration; a solid portion of the second frame configured to align with the first aperture of the first frame when in the coextensively mated configuration with the second frame; an alignment tab extending from the frame when the second frame is coextensively mated with the first frame; and an ejection pin that is configured to separate the first frame from the second frame by pushing the first frame away from the second frame by applying pressure to the ejection pin.
A ball type constant velocity joint for a vehicle, comprising: an inner race installed at an end of a shaft; an outer race installed outside the inner race; a plurality of balls for transmitting rotational power of the inner race to the outer race; and a cage having windows for supporting the balls, and wherein a ball track of the outer race is divided into two sections consisting of an outer race radial track (33B1) and an outer race linear track (33B2) contiguous to the outer race radial track (33B1), and a ball track of the inner race is divided into two sections consisting of an inner race radial track (35B1) and an inner race linear track (35B2) contiguous to the inner race radial track (35B1), characterized in that, when a joint angle is not created, a rotation center (O1A) of the outer race radial track (33B1) and a rotation center of the inner race radial track (35B1) are positioned at the same point on a vertical center axis and have the same vertical offset amount (f1, f2). an inner race installed at an end of a shaft; an outer race installed outside the inner race; a plurality of balls for transmitting rotational power of the inner race to the outer race; and a cage having windows for supporting the balls, and wherein a ball track of the outer race is divided into two sections consisting of an outer race radial track (33B1) and an outer race linear track (33B2) contiguous to the outer race radial track (33B1), and a ball track of the inner race is divided into two sections consisting of an inner race radial track (35B1) and an inner race linear track (35B2) contiguous to the inner race radial track (35B1), characterized in that, when a joint angle is not created, a rotation center (O1A) of the outer race radial track (33B1) and a rotation center of the inner race radial track (35B1) are positioned at the same point on a vertical center axis and have the same vertical offset amount (f1, f2).
A combination of a Src-family kinase inhibitor and a KRAS G12C inhibitor; for use in a method of treating cancer in a subject in need thereof, comprising administering to the subject a therapeutically effective amount of the combination of a Src-family kinase inhibitor and a KRAS G12C inhibitor, wherein the Src-family kinase inhibitor is dasatinib, wherein the KRas G12C inhibitor is: or a pharmaceutically acceptable salt thereof, and wherein the cancer is non-small cell lung cancer. wherein the Src-family kinase inhibitor is dasatinib, wherein the KRas G12C inhibitor is: or a pharmaceutically acceptable salt thereof, and wherein the cancer is non-small cell lung cancer.
A multi-action capacitive switch device, comprising: a surface comprising a capacitive sensing area; a plunger comprising a conductive path, the conductive path in contact with the capacitive sensing area; a structure of flexible conductive material in contact with the conductive path of the plunger; a capacitive touch detector; and an actuation detector, the structure of flexible conductive material connecting with the capacitive touch detector and, when the device is actuated, the plunger causing the structure to connect with the actuation detector, wherein the capacitive sensing area detects a touch and transfers a capacitance change down the conductive path to the structure of flexible conductive material, and the structure transfers the capacitance change to the capacitive touch detector. a surface comprising a capacitive sensing area; a plunger comprising a conductive path, the conductive path in contact with the capacitive sensing area; a structure of flexible conductive material in contact with the conductive path of the plunger; a capacitive touch detector; and an actuation detector,
Press device having a device for filling of a mold of the press device with at least two different materials, comprising - a cavity to be filled with the at least two materials (124, 126, 128) and - a filling unit for discharging the at least two materials (124, 126, 128) for the purpose of introducing these materials (124, 126, 128) into different regions of the cavity, wherein the filling unit (18, 24, 120) dispenses at least one free-flowing material, present in powder form, - wherein the filling unit has at least two separate chambers (130, 132, 134) or at least two chamber regions of a common chamber for simultaneous feeding of the at least two materials (124, 126, 128), directly adjoining one another or in separate locations, for parallel, locally separate filling thereof into the cavity as at least partly distinguishable layers, and - comprising a relative rotary motion between the filling unit and the cavity, preferably about a common axis, preferably about a common center axis, during a filling operation; characterized in that during the filling operation the filling unit and the cavity and/or a base of the cavity are movable in a translational manner relative to one another, preferably movable away from one another along the center axis. - a cavity to be filled with the at least two materials (124, 126, 128) and - a filling unit for discharging the at least two materials (124, 126, 128) for the purpose of introducing these materials (124, 126, 128) into different regions of the cavity, wherein the filling unit (18, 24, 120) dispenses at least one free-flowing material, present in powder form, - wherein the filling unit has at least two separate chambers (130, 132, 134) or at least two chamber regions of a common chamber for simultaneous feeding of the at least two materials (124, 126, 128), directly adjoining one another or in separate locations, for parallel, locally separate filling thereof into the cavity as at least partly distinguishable layers, and - comprising a relative rotary motion between the filling unit and the cavity, preferably about a common axis, preferably about a common center axis, during a filling operation;
Method to manufacture a mattress that is adapted to a specific person, comprising a base part provided with a recess and three inserts (3, 4, 5) that fit in the recess, the method comprising the following steps: a) determination of the anthropometric data of the person, at least insofar they relate to the zone from the shoulders to the hips of the person; b) determination of target values for the optimum compression distance in the shoulder, waist and hip zones indicating how far said mattress has to be compressed in the shoulder, waist and hip zones, so that the spine of the person lying sideways on the mattress has the same shape as standing in the upright position; c) determination of the deformation characteristics that a mattress must have at these positions, so that the mattress at least approximately minimally deforms over the determined optimum compression distances when the person is lying on the mattress; d) selection of inserts (3, 4, 5) to be used from a list or stock of possible inserts (3, 4, 5), which in combination with the base part have the desired deformation characteristics at these positions and when this person is lying sideways on the mattress, the degree of compression in the shoulder, waist and hip zones is equal to said target values; e) fitting of the selected inserts (3, 4, 5) in the base part at the positions of the shoulders, the waist and the hips. wherein the method is characterised in that the anthropometric data of the person are determined by measuring the total weight of the person by weighing, determining the shape of the side and back outlines of the body of the person, and then determining the weight distribution by means of an arithmetic method that attributes a part of the measured weight to a part of the body on the basis of the measured outlines. a) determination of the anthropometric data of the person, at least insofar they relate to the zone from the shoulders to the hips of the person; b) determination of target values for the optimum compression distance in the shoulder, waist and hip zones indicating how far said mattress has to be compressed in the shoulder, waist and hip zones, so that the spine of the person lying sideways on the mattress has the same shape as standing in the upright position; c) determination of the deformation characteristics that a mattress must have at these positions, so that the mattress at least approximately minimally deforms over the determined optimum compression distances when the person is lying on the mattress; d) selection of inserts (3, 4, 5) to be used from a list or stock of possible inserts (3, 4, 5), which in combination with the base part have the desired deformation characteristics at these positions and when this person is lying sideways on the mattress, the degree of compression in the shoulder, waist and hip zones is equal to said target values; e) fitting of the selected inserts (3, 4, 5) in the base part at the positions of the shoulders, the waist and the hips.
Method for operating a forestry cable winch which has a cable drum driven by a drive motor and on which a cable is wound, and a cable ejector roller driven by a further drive motor for the cable, wherein the cable is guided from the cable drum to the cable ejector roller and is deflected at the cable ejector roller, wherein the drive motor of the cable drum and the further drive motor of the cable ejector roller are operated in such a manner that, when unwinding the cable from the cable drum and when winding the cable onto the cable drum, a minimum cable preload, in particular a constant minimum cable preload, is generated in the portion of the cable between the cable drum and the cable ejector roller, characterized in that the drive motor of the cable drum is configured as a hydraulic motor which is connected by means of a first pressure medium line and a second pressure medium line to a directional control valve device that controls the drive motor, and in that the further drive motor of the cable ejector roller is configured as a hydraulic motor which is connected by means of a first connection line and a second connection line to a further directional control valve device that controls the further drive motor, wherein the directional control valve device that controls the drive motor of the cable drum and the further directional control valve device that controls the further drive motor of the cable ejector roller are operated in such a manner that, when unwinding the cable from the cable drum and when winding the cable onto the cable drum, the minimum cable preload, in particular a constant minimum cable preload, is generated in the portion of the cable between the cable drum and the cable ejector roller, wherein the directional control valve device and the further directional control valve device are supplied with pressure medium by a pump device which is adjustable in terms of the delivery quantity, and the further directional control valve device that controls the further drive motor, configured as a hydraulic motor, of the cable ejector roller, when winding the cable and when unwinding the cable is activated in the direction of an unwinding control position in which a delivery line of the pump device is connected to the first connection line, and the second connection line is connected to a tank line.
A stretchable textile article comprising a plurality of discrete textile members (22, 24), each textile member (22, 24) extending between a first end and a second end, the first ends of the textile members (22, 24) being joined together, the second ends of the textile members (22, 24) being joined together, wherein the plurality of textile members (22, 24) includes at least one first textile member and at least one second textile member, characterised in that the or each first textile member includes a textile zone configured to have an increasing stretch property away from the first end towards the second end, and the or each second textile member includes a textile zone configured to have an increasing stretch property away from the second end towards the first end, wherein the stretchable textile article further includes a compressible textile member arranged to interconnect the first and second textile members (22, 24) so that, in use, stretch of the stretchable textile article in an orientation extending between the joined first ends and the joined second ends causes compression of the compressible textile member.
Filtering device, in particular gas filter, for example air filter, having an annular filter element which features a filter medium body through which the fluid to be cleaned can flow in the radial direction, having at least one sealing element disposed on the front face of the filter medium body for sealing with respect to a housing component of a filter housing accommodating the filter element, wherein the sealing element features at least one notch, wherein a receiving groove on the housing component engages over the sealing element and a supporting rib of the housing component projects into the notch, characterized in that the sealing element features supporting walls (21, 22) surrounding the notch which, both on the side facing the notch and on the side facing away from the notch, form a supporting surface on which a side wall (16, 17) each of the receiving groove or the support rib rest in the radial direction - relative to the longitudinal axis of the filter element.