mhurhangee/ep-ind-claims huggingface dataset:
An audio processing method for automatic speech recognition, ASR, said method comprising: for each audio segment of multiple audio segments in an audio stream comprising audio data of multiple audio programs, each audio segment comprising speech of a single speaker: obtaining a speaker identifier of a speaker of said audio segment; determining a speaker domain identifier for said audio segment by determining a program domain identifier associated with said speaker identifier; and associating said speaker identifier, said speaker domain identifier and a program domain identifier with said audio segment to enable generation of ASR adaptation parameters based on said speaker identifier, said speaker domain identifier and said program domain identifier, wherein said program domain identifier is associated with an audio program of said multiple audio programs, and said audio segment comprises audio data of said audio program. obtaining a speaker identifier of a speaker of said audio segment; determining a speaker domain identifier for said audio segment by determining a program domain identifier associated with said speaker identifier; and associating said speaker identifier, said speaker domain identifier and a program domain identifier with said audio segment to enable generation of ASR adaptation parameters based on said speaker identifier, said speaker domain identifier and said program domain identifier, wherein said program domain identifier is associated with an audio program of said multiple audio programs, and said audio segment comprises audio data of said audio program.
A method for lyophilising an exosome, the method comprising the steps of: (a) providing an exosome suspension in a lyophilisation buffer comprising trehalose at a concentration of 4% w/v; (b) freezing the exosome suspension; and (c) removing water from the frozen suspension by freeze drying; in which the lyophilised exosome exhibits at least one biological activity of an exosome. (a) providing an exosome suspension in a lyophilisation buffer comprising trehalose at a concentration of 4% w/v; (b) freezing the exosome suspension; and (c) removing water from the frozen suspension by freeze drying;
Sensor assembly for use with a master cylinder having an input side actuation element and a negative pressure region (36, 38) for communicating with a negative pressure brake booster, the sensor assembly comprising the following: a negative pressure sensor for detecting a negative pressure in the negative pressure region (36, 38) of the master cylinder; at least one additional sensor (56, 90) for detecting a signal transmitter which is rigidly coupled to the actuation element of the master cylinder; and a housing which receives the negative pressure sensor and the at least one additional sensor (56, 90), the housing having a housing opening which allows the negative pressure sensor to communicate with the negative pressure region (36, 38) of the master cylinder, and a fastening arrangement for attaching the housing to the outer side of the master cylinder. a negative pressure sensor for detecting a negative pressure in the negative pressure region (36, 38) of the master cylinder; at least one additional sensor (56, 90) for detecting a signal transmitter which is rigidly coupled to the actuation element of the master cylinder; and a housing which receives the negative pressure sensor and the at least one additional sensor (56, 90), the housing having a housing opening which allows the negative pressure sensor to communicate with the negative pressure region (36, 38) of the master cylinder, and a fastening arrangement for attaching the housing to the outer side of the master cylinder.
A slip for supporting a member, the slip comprising two or more rolling elements for gripping the member, wherein said rolling elements are able to roll along a surface of the slip, characterised in that said rolling elements are able to contact each other and each rolling element is associated with a respective ramp.
An anchoring socket for the temporary fixing of a bracket for scaffolding and shuttering boards on a partial structure, comprising a housing with an opening temporarily closable with a lid, an insertion region adjoining the opening for a hook on the bracket, and a receiving region of the hook in a hung-in position, said receiving region being located behind the insertion region, wherein the housing comprises two side walls, a ceiling wall connecting the side walls at the top and, at the bottom, a bottom wall lowered towards the insertion region, and a back wall, characterized in that the housing consists of two case halves (13, 15), said case halves (13, 15) each comprising one side wall, the ceiling wall, the bottom wall, and the back wall, wherein the case halves (13, 15) consist of steel and are manufactured by a punching and forming process in a single or in more than one progressive tool and the case halves (13, 15) are connected to each other along the bottom wall, the back wall, and the ceiling wall by the crimping of flange-like edge regions in the progressive tool. wherein the housing comprises two side walls, a ceiling wall connecting the side walls at the top and, at the bottom, a bottom wall lowered towards the insertion region, and a back wall, characterized in that the housing consists of two case halves (13, 15), said case halves (13, 15) each comprising one side wall, the ceiling wall, the bottom wall, and the back wall, wherein the case halves (13, 15) consist of steel and are manufactured by a punching and forming process in a single or in more than one progressive tool and the case halves (13, 15) are connected to each other along the bottom wall, the back wall, and the ceiling wall by the crimping of flange-like edge regions in the progressive tool.
A surgical clip applier, comprising: a housing; at least one handle pivotably connected to the housing; a channel assembly extending distally from the housing; a clip carrier disposed within the channel assembly and defining a channel therein; a plurality of clips slidably disposed within the channel of the clip carrier; a jaw assembly including a pair of jaws extending from an end of the channel assembly, opposite the housing, the jaw assembly configured to accommodate a clip therein and being operable to effect formation of the clip in response to movement of the at least one handle; a clip pusher bar slidably supported within at least one of the housing and the channel assembly, the clip pusher bar having a first end operatively connected to the at least one handle and at least one flexible tab; and a camming plate slidably supported within the channel assembly and configured to effectuate closure of the pair of jaws, the camming plate including a lost motion portion, the at least one flexible tab of the clip pusher bar being configured to engage the lost motion portion during an initial movement of the clip pusher bar to cause the camming plate to move with the clip pusher bar; characterised in that the channel assembly further includes a camming surface configured to disengage the at least one flexible tab from the lost motion portion during a subsequent movement of the clip pusher bar to allow the clip pusher bar to move relative to the camming plate. a housing; at least one handle pivotably connected to the housing; a channel assembly extending distally from the housing; a clip carrier disposed within the channel assembly and defining a channel therein; a plurality of clips slidably disposed within the channel of the clip carrier; a jaw assembly including a pair of jaws extending from an end of the channel assembly, opposite the housing, the jaw assembly configured to accommodate a clip therein and being operable to effect formation of the clip in response to movement of the at least one handle; a clip pusher bar slidably supported within at least one of the housing and the channel assembly, the clip pusher bar having a first end operatively connected to the at least one handle and at least one flexible tab; and a camming plate slidably supported within the channel assembly and configured to effectuate closure of the pair of jaws, the camming plate including a lost motion portion, the at least one flexible tab of the clip pusher bar being configured to engage the lost motion portion during an initial movement of the clip pusher bar to cause the camming plate to move with the clip pusher bar; characterised in that the channel assembly further includes a camming surface configured to disengage the at least one flexible tab from the lost motion portion during a subsequent movement of the clip pusher bar to allow the clip pusher bar to move relative to the camming plate.
Method for the manufacture of a component, with the following process steps: a) creation of a flat component layer on a base surface made of a metal material above its melting temperature; b) introducing shear stresses into the component layer created in step a) by means of a friction pin rotating about an axis of rotation, which presses with a predetermined force against an outer surface of the component layer located opposite the base surface and is moved along the entire outer surface of the component layer wherein the axis of rotation of the friction pin extends transversely to the outer surface of the component layer and the friction pin is attached to the outer surface of the component layer with an end face extending transversely to the axis of rotation, wherein the end face has in the area of the axis of rotation a recess and a ring-shaped contact area which surrounds the recess and which is pressed to the outer surface of the component layer; and c) repeat step a) on the outer surface as base surface. a) creation of a flat component layer on a base surface made of a metal material above its melting temperature; b) introducing shear stresses into the component layer created in step a) by means of a friction pin rotating about an axis of rotation, which presses with a predetermined force against an outer surface of the component layer located opposite the base surface and is moved along the entire outer surface of the component layer wherein the axis of rotation of the friction pin extends transversely to the outer surface of the component layer and the friction pin is attached to the outer surface of the component layer with an end face extending transversely to the axis of rotation, wherein the end face has in the area of the axis of rotation a recess and a ring-shaped contact area which surrounds the recess and which is pressed to the outer surface of the component layer; and c) repeat step a) on the outer surface as base surface.
An inflator for a protective device in a vehicle, comprising an igniter sleeve which at least partially encloses an igniter and an igniter chamber filled with a booster charge and is adjacent to a first combustion chamber filled with fuel, wherein the igniter sleeve includes a marker distant from its central axis B or extending non-symmetrically from the central axis B which indicates a predetermined orientation of the igniter sleeve, characterized in that the igniter sleeve is arranged offset with respect to a central axis A of a diffuser and a bottom of the igniter sleeve is opposed to a ceiling portion of the diffuser, wherein the igniter sleeve bottom has a slant adapted to a curvature of the ceiling portion of the diffuser such that the igniter sleeve fits below the ceiling portion of the diffuser at the predetermined orientation only.
A fuel cell stack comprising: cell modules each formed by stacking a plurality of fuel cells each including a membrane electrode assembly having an insulating member at an outer periphery portion thereof and paired separators (40, 41) sandwiching the membrane electrode assembly, and by attaching the insulating members of adjacent ones of the fuel cells together; characterized by a seal plate (P1, P2, P3, P4, P5, P6, P7, P8, P9) interposed between the stacked cell modules, wherein the seal plate (P1, P2, P3, P4, P5, P6, P7, P8, P9) includes a plurality of manifold holes (M1, M2, M3, M4, M5, M6, M7, M8, M9) from which two kinds of power-generation gases flow separately in and out to flow through the fuel cells, and a first seal member (51, 52, 53, 54) provided along a peripheral portion of each of the manifold holes (M1, M2, M3, M4, M5, M6, M7, M8, M9) to seal a corresponding one of the power-generation gases flowing through the manifold hole (M1, M2, M3, M4, M5, M6, M7, M8, M9). cell modules each formed by stacking a plurality of fuel cells each including a membrane electrode assembly having an insulating member at an outer periphery portion thereof and paired separators (40, 41) sandwiching the membrane electrode assembly, and by attaching the insulating members of adjacent ones of the fuel cells together; characterized by a seal plate (P1, P2, P3, P4, P5, P6, P7, P8, P9) interposed between the stacked cell modules, wherein the seal plate (P1, P2, P3, P4, P5, P6, P7, P8, P9) includes a plurality of manifold holes (M1, M2, M3, M4, M5, M6, M7, M8, M9) from which two kinds of power-generation gases flow separately in and out to flow through the fuel cells, and a first seal member (51, 52, 53, 54) provided along a peripheral portion of each of the manifold holes (M1, M2, M3, M4, M5, M6, M7, M8, M9) to seal a corresponding one of the power-generation gases flowing through the manifold hole (M1, M2, M3, M4, M5, M6, M7, M8, M9).
Carabiner comprising: - a C-shaped body, - a gate mounted rotatable, with respect to the body, between an open position and a closed position, the gate moving toward a connecting portion of the body when the gate moves from the closed position to the open position, the gate defining a cavity designed to house a spring, - a pusher pressing on the body, the pusher fitting in a dedicated space of the body to block one end of the pusher; - a spring installed in the cavity of the gate and pressing on the gate and on the pusher to bias the gate in rotation to the closed position, the spring being a coil spring having a spring axis extending along the longitudinal axis of the cavity, carabiner characterised in that the spring and the pusher are fixedly mounted on one another to form a monolithic assembly. - a C-shaped body, - a gate mounted rotatable, with respect to the body, between an open position and a closed position, the gate moving toward a connecting portion of the body when the gate moves from the closed position to the open position, the gate defining a cavity designed to house a spring, - a pusher pressing on the body, the pusher fitting in a dedicated space of the body to block one end of the pusher; - a spring installed in the cavity of the gate and pressing on the gate and on the pusher to bias the gate in rotation to the closed position, the spring being a coil spring having a spring axis extending along the longitudinal axis of the cavity,
A method of supporting a composite compaction system comprising: Holding a number of morphable bag supports of the composite compaction system in a retracted state; placing a contact face of a vacuum bag of the composite compaction system in contact with a material on a support structure; and placing the number of morphable bag supports in an engaged state to conform to the support structure; wherein holding the number of morphable bag supports in the retracted state comprises applying vacuum to pressure chambers (236, 240) within the number of morphable bag supports. Holding a number of morphable bag supports of the composite compaction system in a retracted state; placing a contact face of a vacuum bag of the composite compaction system in contact with a material on a support structure; and placing the number of morphable bag supports in an engaged state to conform to the support structure; wherein holding the number of morphable bag supports in the retracted state comprises applying vacuum to pressure chambers (236, 240) within the number of morphable bag supports.
Direct drive generator for a wind turbine comprising a stator having at least one stator element for the power generation and a rotor disposed inside the stator pivotable around a centre axis of the generator and having at least one rotor element for the power generation, the generator having an air gap between the stator element and the rotor element, characterised in that the stator comprises - a front and a rear ring-shaped supporting element (26, 27) and - stator segments being attached to the front and the rear ring-shaped supporting elements (26, 27) of the stator, wherein the junctions (50, 51) between the front and the rear ring-shaped supporting elements (26, 27) of the stator and the stator segments are located at a radius in relation to the centre axis of the generator which is smaller than the radius of the air gap between the stator element and the rotor element, wherein the front and rear ring-shaped supporting elements (26, 27) have radii which are smaller than the air gap radius. - a front and a rear ring-shaped supporting element (26, 27) and - stator segments being attached to the front and the rear ring-shaped supporting elements (26, 27) of the stator, wherein the junctions (50, 51) between the front and the rear ring-shaped supporting elements (26, 27) of the stator and the stator segments are located at a radius in relation to the centre axis of the generator which is smaller than the radius of the air gap between the stator element and the rotor element, wherein the front and rear ring-shaped supporting elements (26, 27) have radii which are smaller than the air gap radius.
A multipoint spark plug configured to ignite an air-fuel mixture in a combustion chamber of an engine, comprising: a main body portion inserted into an insertion hole of the engine such that a tip end portion thereof opposes the combustion chamber; an electrode holding portion provided on the tip end portion; and electrodes (12, 13) held by the electrode holding portion, the electrodes (12, 13) projecting into the combustion chamber from the electrode holding portion so as to form a plurality of ignition gaps, wherein the electrodes (12, 13) include side electrodes and an intermediate electrode, the side electrodes being provided in a pair and disposed via a gap in a lengthwise direction of the tip end portion, the intermediate electrode being provided in the gap between the pair of side electrodes such that the plurality of ignition gaps are formed in the lengthwise direction of the tip end portion, and the multipoint spark plug being characterized in that the main body portion is formed in a flattened shape, and the electrode holding portion is formed from separate parts that hold the side electrodes and the intermediate electrode, respectively, so as to insulate the side electrodes and the intermediate electrode from the main body portion, the electrode holding portion projecting into the combustion chamber from the tip end portion. a main body portion inserted into an insertion hole of the engine such that a tip end portion thereof opposes the combustion chamber; an electrode holding portion provided on the tip end portion; and electrodes (12, 13) held by the electrode holding portion, the electrodes (12, 13) projecting into the combustion chamber from the electrode holding portion so as to form a plurality of ignition gaps, wherein the electrodes (12, 13) include side electrodes and an intermediate electrode, the side electrodes being provided in a pair and disposed via a gap in a lengthwise direction of the tip end portion, the intermediate electrode being provided in the gap between the pair of side electrodes such that the plurality of ignition gaps are formed in the lengthwise direction of the tip end portion, and the multipoint spark plug being characterized in that the main body portion is formed in a flattened shape, and the electrode holding portion is formed from separate parts that hold the side electrodes and the intermediate electrode, respectively, so as to insulate the side electrodes and the intermediate electrode from the main body portion, the electrode holding portion projecting into the combustion chamber from the tip end portion.
Method for automated defect detection during borescoping of an engine, in which a video borescope is inserted into an engine in such a way that, during rotation of an engine shaft (83, 86), the engine blades of an engine stage (81, 84, 85, 87) which are secured to said engine shaft are moved successively through the image region of the video borescope, wherein the following steps are carried out: - Identifying a possible defect on an engine blade by image recognition on the basis of a frame of the video borescope; - Detecting the movement of the engine blades in the image region of the video borescope by comparing in each case two successive frames (10, 10'); - Tracking the possible defect on the video image along the detected movement by optical image recognition on the basis of the frames (10, 10') used for detecting the movement; - If the trace of a possible defect on the video image corresponds to the detected movement in terms of direction and speed over a predefined length: identifying the possible defect as an actual defect. - Identifying a possible defect on an engine blade by image recognition on the basis of a frame of the video borescope; - Detecting the movement of the engine blades in the image region of the video borescope by comparing in each case two successive frames (10, 10'); - Tracking the possible defect on the video image along the detected movement by optical image recognition on the basis of the frames (10, 10') used for detecting the movement; - If the trace of a possible defect on the video image corresponds to the detected movement in terms of direction and speed over a predefined length: identifying the possible defect as an actual defect.