mhurhangee/ep-ind-claims huggingface dataset:
An air shut-off valve apparatus for a fuel cell system, comprising: a valve body in which an air passage is adapted to communicate with a cathode of a fuel cell stack; and a valve flap, rotatably installed at the valve body, configured to open and close the air passage; and a valve shaft configured in the valve body and axially rotatably installed at a position outside the air passage, wherein the valve flap is attached to the valve shaft at a position eccentric to a center of rotation of the valve shaft, characterized in that the valve body comprises: a main body, at which the valve flap is rotatably installed and which defines an external shape of the valve shut-off apparatus; and a sub-body with which the valve flap is brought into contact when the air passage is closed by the valve flap and which is combinable with the fuel cell stack in surface-contact, wherein the valve flap comprises: a valve plate, which is joined to the valve shaft; and a plate cover for covering the valve plate, and wherein the plate cover has a cover projection incorporated thereinto, which comes into contact with a bulkhead forming the air passage in the sub-body; the cover projection is brought into surface contact with the bulkhead in such a manner as to cover an end of the bulkhead; and an overlapping region is provided between the cover projection and an end of the bulkhead so as to enhance the airtightness of the air passage by the valve flap. a valve body in which an air passage is adapted to communicate with a cathode of a fuel cell stack; and a valve flap, rotatably installed at the valve body, configured to open and close the air passage; and a valve shaft configured in the valve body and axially rotatably installed at a position outside the air passage, wherein the valve flap is attached to the valve shaft at a position eccentric to a center of rotation of the valve shaft, characterized in that the valve body comprises: a main body, at which the valve flap is rotatably installed and which defines an external shape of the valve shut-off apparatus; and a sub-body with which the valve flap is brought into contact when the air passage is closed by the valve flap and which is combinable with the fuel cell stack in surface-contact, wherein the valve flap comprises: a valve plate, which is joined to the valve shaft; and a plate cover for covering the valve plate, and wherein the plate cover has a cover projection incorporated thereinto, which comes into contact with a bulkhead forming the air passage in the sub-body; the cover projection is brought into surface contact with the bulkhead in such a manner as to cover an end of the bulkhead; and an overlapping region is provided between the cover projection and an end of the bulkhead so as to enhance the airtightness of the air passage by the valve flap.
A method of operation of a wireless device in a wireless communications network comprising: determining one or more parameters for a Device-to-Device, D2D, communication link of the wireless device with a first wireless device; and determining one or more services supported over the D2D communication link with the first wireless device based on the one or more parameters, wherein determining the one or more parameters for the D2D communication link comprises receiving an indication of a location of the first wireless device; the method further comprising: transmitting, to a second wireless device, an indication of the one or more services supported over the D2D communication link of the wireless device with the first wireless device; determining an available power budget for the wireless device; and transmitting, to the second wireless device, an indication of the available power budget for the wireless device, wherein the indication of the available power budget for the wireless device refers to a subframe in which the transmission takes place; and wherein the indication of the available power budget for the wireless device is based on a prediction of the available power budget for the subframe in which the transmission takes place. determining one or more parameters for a Device-to-Device, D2D, communication link of the wireless device with a first wireless device; and determining one or more services supported over the D2D communication link with the first wireless device based on the one or more parameters, wherein determining the one or more parameters for the D2D communication link comprises receiving an indication of a location of the first wireless device; the method further comprising: transmitting, to a second wireless device, an indication of the one or more services supported over the D2D communication link of the wireless device with the first wireless device; determining an available power budget for the wireless device; and transmitting, to the second wireless device, an indication of the available power budget for the wireless device, transmitting, to a second wireless device, an indication of the one or more services supported over the D2D communication link of the wireless device with the first wireless device; determining an available power budget for the wireless device; and transmitting, to the second wireless device, an indication of the available power budget for the wireless device, wherein the indication of the available power budget for the wireless device refers to a subframe in which the transmission takes place; and wherein the indication of the available power budget for the wireless device is based on a prediction of the available power budget for the subframe in which the transmission takes place.
Sole (910; 1010) for a shoe, in particular a sport shoe, comprising: a. a first partial region (911; 10111) comprising particles of a first expanded thermoplastic polyurethane, eTPU; and b. a second partial region (912; 10112) comprising particles of a second eTPU; wherein c. the first partial region (911; 10111) and the second partial region (912; 10112) comprise different material properties. a. a first partial region (911; 10111) comprising particles of a first expanded thermoplastic polyurethane, eTPU; and b. a second partial region (912; 10112) comprising particles of a second eTPU; wherein c. the first partial region (911; 10111) and the second partial region (912; 10112) comprise different material properties.
Clamping body freewheel unit, having - a plurality of clamping bodies, via which a force transmission between an internal shaft and an external shaft, which can be coupled to each other via the clamping body freewheel unit, is enabled only in one of two mutually opposing rotation directions, - a cage, via which the plurality of clamping bodies of the clamping body freewheel unit are retained at a defined spacing relative to each other in a circumferential direction, and - a plurality of rolling bodies, via which the internal shaft and external shaft are supported so as to be rotatable relative to each other if the internal shaft and external shaft are coupled to each other via the clamping body freewheel unit, wherein at least some of the plurality of rolling bodies and the clamping bodies are retained together on the one cage, wherein the clamping body freewheel unit comprises three bearing rows (3a-3c) which are located beside each other along a rotation axis which is defined by the clamping body freewheel unit for the internal shaft and external shaft, and wherein, of the three bearing rows (3a-3c), two bearing rows (3a, 3b) each have a plurality of clamping bodies and one bearing row has exclusively a plurality of rolling bodies, characterized in that the clamping bodies of two adjacent bearing rows (3a, 3b) are connected to each other, particularly constructed integrally with each other, and are separated from each other locally by a slot which extends about the rotation axis at a radially external side. - a plurality of clamping bodies, via which a force transmission between an internal shaft and an external shaft, which can be coupled to each other via the clamping body freewheel unit, is enabled only in one of two mutually opposing rotation directions, - a cage, via which the plurality of clamping bodies of the clamping body freewheel unit are retained at a defined spacing relative to each other in a circumferential direction, and - a plurality of rolling bodies, via which the internal shaft and external shaft are supported so as to be rotatable relative to each other if the internal shaft and external shaft are coupled to each other via the clamping body freewheel unit, wherein at least some of the plurality of rolling bodies and the clamping bodies are retained together on the one cage, wherein the clamping body freewheel unit comprises three bearing rows (3a-3c) which are located beside each other along a rotation axis which is defined by the clamping body freewheel unit for the internal shaft and external shaft, and wherein, of the three bearing rows (3a-3c), two bearing rows (3a, 3b) each have a plurality of clamping bodies and one bearing row has exclusively a plurality of rolling bodies, characterized in that the clamping bodies of two adjacent bearing rows (3a, 3b) are connected to each other, particularly constructed integrally with each other, and are separated from each other locally by a slot which extends about the rotation axis at a radially external side.
Apparatus configured to deform a tubular work piece having a longitudinal axis, the apparatus comprising: a support for supporting a tubular work piece to be deformed; rotation means for rotating the tubular work piece about its longitudinal axis; a nozzle for directing a stream of pressurised fluid at the tubular work piece in a direction transverse to the longitudinal axis of the tubular work piece; and means for moving one or both of the tubular work piece and the nozzle relative to one another such that the stream of pressurised fluid can be aimed at a plurality of locations along the tubular work piece; wherein the pressure of the fluid directed at the tubular work piece is great enough to cause deformation of the tubular work piece but not so great that cutting of the tubular work piece can occur, characterised in that: the means for moving one or both of the tubular work piece and nozzle relative to one another is configured to enable the nozzle to move in a direction parallel to the longitudinal axis of the tubular work piece and in a direction transverse to the longitudinal axis of the tubular work piece, whereby the pressure of the fluid causes the wall of the work piece to be thinned and the length of the work piece to increase. a support for supporting a tubular work piece to be deformed; rotation means for rotating the tubular work piece about its longitudinal axis; a nozzle for directing a stream of pressurised fluid at the tubular work piece in a direction transverse to the longitudinal axis of the tubular work piece; and means for moving one or both of the tubular work piece and the nozzle relative to one another such that the stream of pressurised fluid can be aimed at a plurality of locations along the tubular work piece; wherein the pressure of the fluid directed at the tubular work piece is great enough to cause deformation of the tubular work piece but not so great that cutting of the tubular work piece can occur, characterised in that: the means for moving one or both of the tubular work piece and nozzle relative to one another is configured to enable the nozzle to move in a direction parallel to the longitudinal axis of the tubular work piece and in a direction transverse to the longitudinal axis of the tubular work piece, whereby the pressure of the fluid causes the wall of the work piece to be thinned and the length of the work piece to increase.
Attachment for a base jaw of a pressing tool for pressing fittings to produce pipe connections, comprising - an attachment body, - a pressing section, formed on the attachment body, to form half a jaw opening, and - a connecting section formed on the attachment body, to connect to the base jaw, - wherein the pressing section and the connecting section are arranged at a distance from one another, - wherein the connecting section has connection means for a form-fitting, twist-proof and releasable connection to the base jaw. and - wherein the connection means can be brought into engagement with the connection means formed on the base jaw by a rotational movement, and characterized in - that the attachment body forms the complete distal section of the base jaw, and - that the connecting section forms a substantially planar interface, at least in sections, with the base jaw. - an attachment body, - a pressing section, formed on the attachment body, to form half a jaw opening, and - a connecting section formed on the attachment body, to connect to the base jaw, - wherein the pressing section and the connecting section are arranged at a distance from one another, - wherein the connecting section has connection means for a form-fitting, twist-proof and releasable connection to the base jaw. and - wherein the connection means can be brought into engagement with the connection means formed on the base jaw by a rotational movement, and characterized in - that the attachment body forms the complete distal section of the base jaw, and - that the connecting section forms a substantially planar interface, at least in sections, with the base jaw.
A plasmonic nanoparticle-based colorimetric stress memory sensor, the sensor comprising a stress-responsive colorimetric film configured to memorize a stress the film has experienced using a plasmonic shift associated with, and characterised by, the disassembly of one-dimensional plasmonic nanoparticle chains driven by a plastic deformation of a surrounding polymer matrix.
A control method in an power and communications network convergence system comprising: wireless base stations (BS1... BS3); and direct-current grid groups, each direct-current grid group belonging to a cell (CELL1... CELL3) formed by a corresponding one of the wireless base stations (BS1... BS3), the method comprising: performing first control by each direct-current grid (gDC11... gDC33) in the direct-current grid group, the direct-current grid having a direct-current power line to which electric power devices including a power generation device and a power storage device are connected, the first control being performed, based on state information on each electric power device wirelessly communicated among the electric power devices, for reducing power fluctuations over time in the direct-current power line; performing, by a first direct-current grid of direct-current grids (gDC11... gDC13) belonging to a cell (CELL1), based on state information on each direct current grid wirelessly communicated among the direct-current grids (gDC11... gDC13), second control for interchanging power with a second direct-current grid belonging to the cell (CELL1); and if a power situation of a first direct-current grid group belonging to a first cell (CELL1) and a power situation of a second direct-current grid group belonging to a second cell (CELL2) satisfy a first preset condition, performing, by the first direct-current grid group, third control for interchanging power with the second direct-current grid group. performing first control by each direct-current grid (gDC11... gDC33) in the direct-current grid group, the direct-current grid having a direct-current power line to which electric power devices including a power generation device and a power storage device are connected, the first control being performed, based on state information on each electric power device wirelessly communicated among the electric power devices, for reducing power fluctuations over time in the direct-current power line; performing, by a first direct-current grid of direct-current grids (gDC11... gDC13) belonging to a cell (CELL1), based on state information on each direct current grid wirelessly communicated among the direct-current grids (gDC11... gDC13), second control for interchanging power with a second direct-current grid belonging to the cell (CELL1); and if a power situation of a first direct-current grid group belonging to a first cell (CELL1) and a power situation of a second direct-current grid group belonging to a second cell (CELL2) satisfy a first preset condition, performing, by the first direct-current grid group, third control for interchanging power with the second direct-current grid group.
An integrated vascular delivery system adapted to be placed about an insertion site on a patient, comprising: - a frame configured to receive a catheter insertable in the patient to transfer a fluid at the insertion site, wherein the frame includes: - a first hub that provides a first anchoring point on the patient; - a second hub that provides a second anchoring point on the patient; and - a pair of flexible lateral members, including a tubular lateral member, extending between the hubs and configured to be spaced apart from the catheter; - wherein the first and second anchoring points are distributed around the insertion site to anchor the frame to the patient, thereby stabilizing the catheter; and - a fluidic channel that fluidically communicates with the catheter, wherein the fluidic channel passes through the tubular lateral member and at least one of the hubs, and includes a fixed turnabout portion in which fluid flows in a direction different from that within the catheter. - a frame configured to receive a catheter insertable in the patient to transfer a fluid at the insertion site, wherein the frame includes: - a first hub that provides a first anchoring point on the patient; - a second hub that provides a second anchoring point on the patient; and - a pair of flexible lateral members, including a tubular lateral member, extending between the hubs and configured to be spaced apart from the catheter; - wherein the first and second anchoring points are distributed around the insertion site to anchor the frame to the patient, thereby stabilizing the catheter; and - a first hub that provides a first anchoring point on the patient; - a second hub that provides a second anchoring point on the patient; and - a pair of flexible lateral members, including a tubular lateral member, extending between the hubs and configured to be spaced apart from the catheter; - wherein the first and second anchoring points are distributed around the insertion site to anchor the frame to the patient, thereby stabilizing the catheter; and - a fluidic channel that fluidically communicates with the catheter, wherein the fluidic channel passes through the tubular lateral member and at least one of the hubs, and includes a fixed turnabout portion in which fluid flows in a direction different from that within the catheter.
A switch cabinet arrangement with a switch cabinet row and a cooling device arranged therein, wherein the switch cabinet row is formed from multiple of lined-up switch cabinets (1.1, 1.2), wherein the cooling device via both of two opposite faces, via which it adjoins respectively one of the switch cabinets (1.1, 1.2), suctions hot air from the switch cabinets (1.1, 1.2) and blows it back into the switch cabinets (1.1, 1.2) as cooled air, characterized in that at least one busbar is guided between the switch cabinets (1.1, 1.2) adjoining the cooling device, through a busbar transfer area of the cooling device, wherein the busbar transfer area is opened via aligned openings in the two opposite faces to the adjoining switch cabinets (1.1, 1.2) and the at least one busbar is directed through the aligned openings, and wherein a hot air intake opening of the cooling device opens into the busbar transfer area, so that hot air is directed via the aligned openings from the adjoining switch cabinets (1.1, 1.2) through the busbar transfer area and through the hot air intake opening to the cooling device.
An electric power steering device (80, 80C) including a motor unit comprising: an electric motor that includes a motor case and a motor flange disposed at one end of the motor case; a control unit that includes a control unit case facing the motor case and that is supported by the electric motor; a bus bar that projects from the motor flange toward the control unit and that connects the electric motor and the control unit; a first cover that is attached to the electric motor and that covers at least part of a surface on an upper side of the bus bar; and a second cover that is attached to the control unit case, wherein the first cover includes a groove that opens toward an upper side, the second cover overlaps with an upper side of the groove, the first cover is an insulator, and the bus bar and the first cover are integrally formed, characterized in that a bottom of the groove is tilted in such a manner that an end of the groove in a lengthwise direction is positioned on an underside of a center of the groove, and in that the first cover includes a first wall that is disposed on a motor flange side of the groove and a second wall that is disposed on a control unit side of the groove and that is higher than the first wall. an electric motor that includes a motor case and a motor flange disposed at one end of the motor case; a control unit that includes a control unit case facing the motor case and that is supported by the electric motor; a bus bar that projects from the motor flange toward the control unit and that connects the electric motor and the control unit; a first cover that is attached to the electric motor and that covers at least part of a surface on an upper side of the bus bar; and a second cover that is attached to the control unit case, wherein the first cover includes a groove that opens toward an upper side, the second cover overlaps with an upper side of the groove, the first cover is an insulator, and the bus bar and the first cover are integrally formed, characterized in that a bottom of the groove is tilted in such a manner that an end of the groove in a lengthwise direction is positioned on an underside of a center of the groove, and in that the first cover includes a first wall that is disposed on a motor flange side of the groove and a second wall that is disposed on a control unit side of the groove and that is higher than the first wall.
A method comprising: receiving sampled audio data corresponding to utterances; and training a machine learning, ML, model, using the sampled audio data, to generate an audio stream from an input bitstream, wherein the bitstream is generated based on the sampled audio data, wherein the training of the ML model includes de-emphasizing the influence of distortion events in the sampled audio data on the trained ML model, the method being characterized in that the de-emphasizing of the distortion events is achieved by the inclusion of a term in an objective function of the ML model, which term encourages low-variance predictive distributions of a next sample in the sampled audio data, based on previous samples of the audio data, wherein the term that encourages low-variance predictive distributions of a next sample in the sampled audio data includes a regularization term. receiving sampled audio data corresponding to utterances; and training a machine learning, ML, model, using the sampled audio data, to generate an audio stream from an input bitstream, wherein the bitstream is generated based on the sampled audio data, wherein the training of the ML model includes de-emphasizing the influence of distortion events in the sampled audio data on the trained ML model, the method being characterized in that the de-emphasizing of the distortion events is achieved by the inclusion of a term in an objective function of the ML model, which term encourages low-variance predictive distributions of a next sample in the sampled audio data, based on previous samples of the audio data, wherein the term that encourages low-variance predictive distributions of a next sample in the sampled audio data includes a regularization term.