mhurhangee/ep-ind-claims huggingface dataset:
A steam turbine, comprising: an outer casing; an inner casing provided inside the outer casing; a nozzle box having a circular ring-shaped steam passage into which steam is led from a steam inlet pipe and having, on a downstream portion of the steam passage, a plurality of first-stage nozzles in a circumferential direction, the steam passage being provided inside the inner casing; a second-stage nozzle side structure in a cylindrical shape being separable from and combined with the nozzle box and having a plurality of second-stage nozzles in a circumferential direction, the second-stage nozzle side structure being provided inside the inner casing; at least a pair of abutment surfaces (31a, 41a) abutting each other and configured to seal, the surfaces being respectively provided in the nozzle box and the second-stage nozzle side structure, the abutment surfaces (31a, 41a) having a predetermined angle, in a meridian cross section, with respect to a direction parallel to the axial direction of the turbine rotor; and a seal member provided in a part of a gap between the nozzle box and the second-stage nozzle side structure, the gap being formed by combining the nozzle box and the second-stage nozzle side structure; characterized in that the first-stage nozzles are welded directly to the downstream portion of the steam passage. an outer casing; an inner casing provided inside the outer casing; a nozzle box having a circular ring-shaped steam passage into which steam is led from a steam inlet pipe and having, on a downstream portion of the steam passage, a plurality of first-stage nozzles in a circumferential direction, the steam passage being provided inside the inner casing; a second-stage nozzle side structure in a cylindrical shape being separable from and combined with the nozzle box and having a plurality of second-stage nozzles in a circumferential direction, the second-stage nozzle side structure being provided inside the inner casing; at least a pair of abutment surfaces (31a, 41a) abutting each other and configured to seal, the surfaces being respectively provided in the nozzle box and the second-stage nozzle side structure, the abutment surfaces (31a, 41a) having a predetermined angle, in a meridian cross section, with respect to a direction parallel to the axial direction of the turbine rotor; and a seal member provided in a part of a gap between the nozzle box and the second-stage nozzle side structure, the gap being formed by combining the nozzle box and the second-stage nozzle side structure; characterized in that the first-stage nozzles are welded directly to the downstream portion of the steam passage.
Oxo-1-imidazolidinyl imidazothiadiazole derivatives according to formula, their geometrical isomers, enantiomers, diastereomers and mixtures, or a pharmaceutically acceptable salt thereof, wherein R 1 is a C 1-4 alkyl or a C 2-4 alkenyl optionally substituted by one or more halogen substituents; R 2 is either a halogen or a C 1-4 alkyl containing at least one halogen substituent; R 3 is a C 1-4 alkyl containing at least one hydroxy or an alkoxy substituent; R 4 is either hydrogen or a methyl group. R 1 is a C 1-4 alkyl or a C 2-4 alkenyl optionally substituted by one or more halogen substituents; R 2 is either a halogen or a C 1-4 alkyl containing at least one halogen substituent; R 3 is a C 1-4 alkyl containing at least one hydroxy or an alkoxy substituent; R 4 is either hydrogen or a methyl group.
An isolation valve for use in a wellbore, comprising: a housing; a piston longitudinally movable relative to the housing; a flapper carried by the piston for operation between an open position and a closed position, the flapper operable to isolate an upper portion of a bore of the valve from a lower portion of the bore in the closed position; an opener connected to the housing for opening the flapper; and an abutment configured to receive the flapper in the closed position; characterized in that the abutment is independently movable from the piston, thereby retaining the flapper in the closed position. a housing; a piston longitudinally movable relative to the housing; a flapper carried by the piston for operation between an open position and a closed position, the flapper operable to isolate an upper portion of a bore of the valve from a lower portion of the bore in the closed position; an opener connected to the housing for opening the flapper; and an abutment configured to receive the flapper in the closed position; characterized in that the abutment is independently movable from the piston, thereby retaining the flapper in the closed position.
A method comprising: presenting, by a processing device (102, 402), a live event wholly or partially provided to the processing device by an event platform (106, 404), the live event having at least one participant engaged in the live event via an event application on the processing device (102, 402) and communicating, from within the event application, with a viewer watching a stream of the live event on a viewer device, wherein the processing device (102, 402), the viewer device and the event platform (106, 404) are communicatively connected via a network; presenting by the event application, within a native messaging interface provided by the event platform (106, 404) and associated with the live event, one or more participant messages received from the at least one participant; and presenting, within the native messaging interface and integrated with the one or more participant messages, one or more viewer messages entered by the viewer of the stream via a non-native messaging interface that is non-native to the event platform and different from the native interface provided by the event platform (106, 404). presenting, by a processing device (102, 402), a live event wholly or partially provided to the processing device by an event platform (106, 404), the live event having at least one participant engaged in the live event via an event application on the processing device (102, 402) and communicating, from within the event application, with a viewer watching a stream of the live event on a viewer device, wherein the processing device (102, 402), the viewer device and the event platform (106, 404) are communicatively connected via a network; presenting by the event application, within a native messaging interface provided by the event platform (106, 404) and associated with the live event, one or more participant messages received from the at least one participant; and presenting, within the native messaging interface and integrated with the one or more participant messages, one or more viewer messages entered by the viewer of the stream via a non-native messaging interface that is non-native to the event platform and different from the native interface provided by the event platform (106, 404).
A racket comprising: a frame having a head (8; 46; 58; 70; 86; 100) formed from a fiber reinforced resin and with the head (8; 46; 58; 70; 86; 100) being hollow, wherein the hollow head (8; 46; 58; 70; 86; 100) includes an inside part (16; 50; 62; 74; 90), an outside part (18; 52; 68; 80; 96) and two middle parts (20; 54; 66; 78; 94), wherein the inside part (16; 50; 62; 74; 90), the outside part (18; 52; 68; 80; 96) and the two middle parts (20; 54; 66; 78; 94) each have an inner surface forming inner surfaces of the frame; and a foam (6; 48; 60; 72; 88; 102; 114) joined to a part of one of the inner surfaces of the frame and containing bubbles, characterized in that the foam (6; 48; 60; 72; 88; 102; 114) partially occupies a space of the frame, in that air is present in the remaining portion of the space of the frame, and in that, in a cross section of the racket, a ratio P of an area of the foam (6; 48; 60; 72; 88; 102; 114) to an area S1 of the space of the frame is equal to or greater than 5% and equal to or less than 50%, said area S1 of the space of the frame being an area surrounded by the inner surfaces of the frame and the ratio P being measured at a cross section perpendicular to a direction in which the frame extends at a position where the foam (6; 48; 60; 72; 88; 102; 114) is present in the frame. a frame having a head (8; 46; 58; 70; 86; 100) formed from a fiber reinforced resin and with the head (8; 46; 58; 70; 86; 100) being hollow, wherein the hollow head (8; 46; 58; 70; 86; 100) includes an inside part (16; 50; 62; 74; 90), an outside part (18; 52; 68; 80; 96) and two middle parts (20; 54; 66; 78; 94), wherein the inside part (16; 50; 62; 74; 90), the outside part (18; 52; 68; 80; 96) and the two middle parts (20; 54; 66; 78; 94) each have an inner surface forming inner surfaces of the frame; and a foam (6; 48; 60; 72; 88; 102; 114) joined to a part of one of the inner surfaces of the frame and containing bubbles, characterized in that the foam (6; 48; 60; 72; 88; 102; 114) partially occupies a space of the frame, in that air is present in the remaining portion of the space of the frame, and in that, in a cross section of the racket, a ratio P of an area of the foam (6; 48; 60; 72; 88; 102; 114) to an area S1 of the space of the frame is equal to or greater than 5% and equal to or less than 50%, said area S1 of the space of the frame being an area surrounded by the inner surfaces of the frame and the ratio P being measured at a cross section perpendicular to a direction in which the frame extends at a position where the foam (6; 48; 60; 72; 88; 102; 114) is present in the frame.
An assembly for an aircraft propulsion system, comprising: a nozzle extending axially along and circumferentially about an axial centerline, the nozzle including a nozzle panel and a nozzle fairing fixedly connected to the nozzle panel at an axial end of the nozzle; the nozzle configured with an internal flow passage radially between the nozzle panel and the nozzle fairing, the internal flow passage extending axially within the nozzle to an outlet, characterised in that the outlet is between the nozzle panel and the nozzle fairing at the axial end of the nozzle. a nozzle extending axially along and circumferentially about an axial centerline, the nozzle including a nozzle panel and a nozzle fairing fixedly connected to the nozzle panel at an axial end of the nozzle; the nozzle configured with an internal flow passage radially between the nozzle panel and the nozzle fairing, the internal flow passage extending axially within the nozzle to an outlet, characterised in that the outlet is between the nozzle panel and the nozzle fairing at the axial end of the nozzle.
A solid electrolyte material comprising Li, Sm, O, and X, wherein X is at least one element selected from the group consisting of Cl, Br, and I, the solid electrolyte material is denoted by Composition formula below, Li 2+b-3a (Sm 1-x M x) a OX b wherein M is at least one element selected from the group consisting of Y, La, and Gd, and mathematical formulae below 1.0 ≤ a ≤ 2.17 1.5 ≤ b ≤ 6.0, and 0 ≤ x ≤ 0.5 are satisfied. Li, Sm, O, and X, wherein X is at least one element selected from the group consisting of Cl, Br, and I, the solid electrolyte material is denoted by Composition formula below, Li 2+b-3a (Sm 1-x M x) a OX b wherein M is at least one element selected from the group consisting of Y, La, and Gd, and mathematical formulae below 1.0 ≤ a ≤ 2.17 1.5 ≤ b ≤ 6.0, and 0 ≤ x ≤ 0.5 X is at least one element selected from the group consisting of Cl, Br, and I, the solid electrolyte material is denoted by Composition formula below, Li 2+b-3a (Sm 1-x M x) a OX b wherein M is at least one element selected from the group consisting of Y, La, and Gd, and mathematical formulae below 1.0 ≤ a ≤ 2.17 1.5 ≤ b ≤ 6.0, and 0 ≤ x ≤ 0.5
Cover module (04, 05, 09, 19, 29, 48, 60) for arrangement on the inside of the roof of a vehicle, the cover module (04, 05, 09, 19, 29, 48, 60) at least partly, in particular substantially completely, covering the inside of the roof in the region of the sheet metal bodywork, and all the functional elements to be provided in the region above the head of the passengers in the vehicle being ready pre-mounted on the cover module (04, 05, 09, 19, 29, 48, 60), having a cut-out in the region in front of the windscreen, in which there is arranged a rear view device (06, 11, 36, 53, 64) with a mirror element, with which the driver is able to observe the following traffic, characterized in that on the cover module (04, 05, 09, 19, 29, 48, 60) there is provided at least one contact-making element, for example a connector strip, by means of contacting which it is possible for a plurality of functional elements of the cover module (04, 05, 09, 19, 29, 48, 60) to make contact with the electrical wiring system and/or the electronic data bus of the vehicle via a functionally complementary contact-making element arranged on the inside of the roof, wherein the contact-making element is configured and arranged in such a way that contact is made with the functionally complementary contact-making element by fixing the cover module (04, 05, 09, 19, 29, 48, 60) to the inside of the roof, wherein the cover module (48, 60) also has an antenna supporting element (57, 68), wherein the surface of the antenna supporting element terminates substantially flush with the upper side of the roof, and wherein an antenna is arranged directly or indirectly on the lower side of the antenna supporting element, located opposite the surface of the antenna supporting element (57, 68), as a functional element, wherein an optical and/or an acoustic sensor (22, 23, 55, 66) is also provided in the cover module (19, 48, 60) as a functional element, with which video data and/or audio data in the passenger compartment can be acquired.
An illumination module, comprising: an array of vertical cavity surface emitting lasers (VCSELs) emitting light; a driver configured to provide current to the array of VCSELs; and an optical element configured to receive the light emitted by the array of VCSELs and output a light pattern from the illumination module, wherein the array of VCSELs is segmented into a first segment of VCSELs configured to emit light and a second segment of VCSELs configured to detect light emitted by the first segment of VCSELs, wherein at least one VCSEL in the first segment of VCSELs comprises a multi-junction VCSEL, wherein the VCSELs in the first segment of VCSELs share a first common cathode and a first common anode; and wherein the VCSELs in the second segment of VCSELs share the first common cathode with the VCSELs in the first segment of VCSELs and further share a second common anode separate from the first common anode. an array of vertical cavity surface emitting lasers (VCSELs) emitting light; a driver configured to provide current to the array of VCSELs; and an optical element configured to receive the light emitted by the array of VCSELs and output a light pattern from the illumination module, wherein the array of VCSELs is segmented into a first segment of VCSELs configured to emit light and a second segment of VCSELs configured to detect light emitted by the first segment of VCSELs, wherein at least one VCSEL in the first segment of VCSELs comprises a multi-junction VCSEL, wherein the VCSELs in the first segment of VCSELs share a first common cathode and a first common anode; and wherein the VCSELs in the second segment of VCSELs share the first common cathode with the VCSELs in the first segment of VCSELs and further share a second common anode separate from the first common anode.
A method for wireless communication, the method being performed by a user equipment, UE, and comprising receiving, from a base station, a downlink control message that comprises a grant for communication with the base station and an indication of which component carrier to use for transmission of uplink control information, UCI, on a shared channel, wherein the downlink control message comprises scheduling information for an uplink shared channel transmission on a first component carrier, and wherein the indication indicates a second component carrier different from the first component carrier; determining a set of uplink channel resources on the first or second component carrier for transmission of the UCI based at least in part on the indication received in the downlink control message and a channel configuration of the UE; and transmitting, to the base station, an uplink message that comprises the UCI via the determined component carrier based at least in part on the determined set of uplink channel resources. receiving, from a base station, a downlink control message that comprises a grant for communication with the base station and an indication of which component carrier to use for transmission of uplink control information, UCI, on a shared channel, wherein the downlink control message comprises scheduling information for an uplink shared channel transmission on a first component carrier, and wherein the indication indicates a second component carrier different from the first component carrier; determining a set of uplink channel resources on the first or second component carrier for transmission of the UCI based at least in part on the indication received in the downlink control message and a channel configuration of the UE; and transmitting, to the base station, an uplink message that comprises the UCI via the determined component carrier based at least in part on the determined set of uplink channel resources.
A dual mode current collector, comprising: a mounting frame for attachment to a vehicle, the mounting frame comprising a plurality of legs and a pivot shaft extending between the plurality of legs along a pivot axis; a first current collector, comprising: a first housing pivotally connected to the pivot shaft of the mounting frame; a first shoe arm connected to the first housing; and a first shoe attached to the first shoe arm, the first shoe having at least one conductor surface (332, 334) configured to engage a top side of a first conductive body; a second current collector, comprising: a second housing pivotally connected to the pivot shaft of the mounting frame; a second shoe arm connected to the second housing; and a second shoe attached to the second shoe arm, the second shoe having at least one conductor surface (332, 334) configured to engage an underside of a second conductive body; a first actuator connected to the mounting frame and to the first current collector, the first actuator configured to rotate the first current collector about the pivot axis; and a second actuator connected to the mounting frame and to the second current collector, the second actuator configured to rotate the second current collector about the pivot axis. a mounting frame for attachment to a vehicle, the mounting frame comprising a plurality of legs and a pivot shaft extending between the plurality of legs along a pivot axis; a first current collector, comprising: a first housing pivotally connected to the pivot shaft of the mounting frame; a first shoe arm connected to the first housing; and a first shoe attached to the first shoe arm, the first shoe having at least one conductor surface (332, 334) configured to engage a top side of a first conductive body; a first housing pivotally connected to the pivot shaft of the mounting frame; a first shoe arm connected to the first housing; and a first shoe attached to the first shoe arm, the first shoe having at least one conductor surface (332, 334) configured to engage a top side of a first conductive body; a second current collector, comprising: a second housing pivotally connected to the pivot shaft of the mounting frame; a second shoe arm connected to the second housing; and a second shoe attached to the second shoe arm, the second shoe having at least one conductor surface (332, 334) configured to engage an underside of a second conductive body; a second housing pivotally connected to the pivot shaft of the mounting frame; a second shoe arm connected to the second housing; and a second shoe attached to the second shoe arm, the second shoe having at least one conductor surface (332, 334) configured to engage an underside of a second conductive body; a first actuator connected to the mounting frame and to the first current collector, the first actuator configured to rotate the first current collector about the pivot axis; and a second actuator connected to the mounting frame and to the second current collector, the second actuator configured to rotate the second current collector about the pivot axis.
Squirrel-cage rotor for an electrical asynchronous machine, having: a laminated core comprising a large number of sheet-metal laminates stacked next to one another in the axial direction; a squirrel cage; wherein short-circuiting bars of the squirrel cage extend through the laminated core in the axial direction and are each connected to one another by a short-circuiting ring at end faces of the laminated core; wherein a supporting disc is arranged axially between one of the short-circuiting rings and an adjacent axially outermost one of the sheet-metal laminates, which supporting disc is formed parallel to the sheet-metal laminates in a central region and is bent axially away from the laminated core in a region close to the edge, characterized in that the region close the edge runs through the adjoining short-circuiting ring and projects beyond the short-circuiting ring in the axial direction, and in that the parts of the region close to the edge which project axially beyond the short-circuiting ring are designed as vanes which convey cooling fluid. a laminated core comprising a large number of sheet-metal laminates stacked next to one another in the axial direction; a squirrel cage; wherein short-circuiting bars of the squirrel cage extend through the laminated core in the axial direction and are each connected to one another by a short-circuiting ring at end faces of the laminated core; wherein a supporting disc is arranged axially between one of the short-circuiting rings and an adjacent axially outermost one of the sheet-metal laminates, which supporting disc is formed parallel to the sheet-metal laminates in a central region and is bent axially away from the laminated core in a region close to the edge, characterized in that the region close the edge runs through the adjoining short-circuiting ring and projects beyond the short-circuiting ring in the axial direction, and in that the parts of the region close to the edge which project axially beyond the short-circuiting ring are designed as vanes which convey cooling fluid.