mhurhangee/ep-ind-claims huggingface dataset:
A method for separating a dry fiber composite fabric with a multiplicity of fabric layers arranged one on top of the other, comprising - providing the dry fiber composite fabric and a separating device, - separating the dry fiber composite fabric with the separating device, which comprises a separating element with a toothing, wherein the toothing has a wave profile with a plurality of teeth, - wherein the separating comprises a substantially translational movement of the toothing on and/or in the dry fiber composite fabric with a stroke that is greater than a tooth tip spacing of two adjacent teeth of the toothing, characterised in that the toothing has a wave profile with a plurality of teeth, so that a tooth has partially or completely the geometry of a half-circle or a half-ellipse. - providing the dry fiber composite fabric and a separating device, - separating the dry fiber composite fabric with the separating device, which comprises a separating element with a toothing, wherein the toothing has a wave profile with a plurality of teeth, - wherein the separating comprises a substantially translational movement of the toothing on and/or in the dry fiber composite fabric with a stroke that is greater than a tooth tip spacing of two adjacent teeth of the toothing, characterised in that the toothing has a wave profile with a plurality of teeth, so that a tooth has partially or completely the geometry of a half-circle or a half-ellipse.
A method for assigning, in a dual layer network comprising a macro cell and set of transmit/receive points, TRPs,, radio resources to a user equipment, UE, wherein the UE is in a discontinuous reception mode, DRX, powers down periodically during DRX off periods and wakes up during DRX on-periods wherein the DRX on- and off-periods are coordinated with the network, the method comprising using the macro cell for: receiving an uplink beacon transmitted at regular intervals by the UE, wherein, at least once, the uplink beacon is received during one of the DRX off-periods and comprises a buffer status report, BSR, for requesting a grant to transmit uplink data in a next DRX on-period following after the one DRX off-period wherein the uplink beacon comprising the BSR is received by a time period prior to a start of the next DRX on-period wherein the time period is sufficient for an exchange to occur between the macro cell and the TRPs; determining that the uplink beacon transmission corresponds to a need by the UE for radio resources in the next DRX; identifying at least one of the TRPs to participate in data communication with the UE; receiving a grant of radio resources for the data communication from the identified at least one of the TRPs, wherein the grant of radio resources is specified for use in the next DRX on-period; and transmitting, at the next DRX on-period, the grant of radio resources to the UE. receiving an uplink beacon transmitted at regular intervals by the UE, wherein, at least once, the uplink beacon is received during one of the DRX off-periods and comprises a buffer status report, BSR, for requesting a grant to transmit uplink data in a next DRX on-period following after the one DRX off-period wherein the uplink beacon comprising the BSR is received by a time period prior to a start of the next DRX on-period wherein the time period is sufficient for an exchange to occur between the macro cell and the TRPs; determining that the uplink beacon transmission corresponds to a need by the UE for radio resources in the next DRX; identifying at least one of the TRPs to participate in data communication with the UE; receiving a grant of radio resources for the data communication from the identified at least one of the TRPs, wherein the grant of radio resources is specified for use in the next DRX on-period; and transmitting, at the next DRX on-period, the grant of radio resources to the UE.
A thermo-photovoltaic system comprising an infrared radiation emitter (2, 102, 202) for a thermo-photovoltaic system comprising a body provided with a first external surface (8, 108) and a second external surface (10, 110), said first (8, 108) and second (10, 110) external surfaces being distinct, the first external surface being arranged for receiving a concentrated solar radiation, the second external surface (10, 110) being arranged for emitting infrared radiation towards at least one thermo-photovoltaic cell, said body comprising at least one gas and/or liquid combustion chamber therein, wherein the combustion chamber is fed through an external surface of the emitter, which surface is distinct from the first and second external surfaces, said system also comprising a concentrator provided in front of the first external surface (8, 108) of the emitter, ignition means for causing the combustion in the emitter and at least one thermo-photovoltaic cell provided in front of the second external surface (10, 110) and arranged for receiving the infrared radiation emitted by the second external surface of the emitter.
A wave guide structure for electromagnetic waves having wavelengths of millimetres or less, comprising: a first structure, the first structure including a first substrate having opposed first and second surfaces (112,114), the first substrate including a via etching hole pattern extending between the first surface and the second surface and a first non-via etching hole pattern penetrating the first surface; and a second substrate bonded to the first substrate, the second substrate having opposed third and fourth surfaces (122,124), the third surface being bonded to the second surface, the second substrate including a second non-via etching hole pattern penetrating the third surface in a position corresponding to the via etching hole pattern of the first substrate; wherein a metal thin film is provided on the first surface, the second surface and the surfaces of the etching hole patterns (150,160,170) in the first substrate. a first structure, the first structure including a first substrate having opposed first and second surfaces (112,114), the first substrate including a via etching hole pattern extending between the first surface and the second surface and a first non-via etching hole pattern penetrating the first surface; and a second substrate bonded to the first substrate, the second substrate having opposed third and fourth surfaces (122,124), the third surface being bonded to the second surface, the second substrate including a second non-via etching hole pattern penetrating the third surface in a position corresponding to the via etching hole pattern of the first substrate; wherein a metal thin film is provided on the first surface, the second surface and the surfaces of the etching hole patterns (150,160,170) in the first substrate.
A nonaqueous dispersion of resin particles in which resin particles are dispersed in a nonhydrophilic organic solvent that exhibits a relative permittivity of 1 to 4 at 20°C, and which is selected from hydrocarbon solvents having 10 or more carbon atoms and silicone oil, the resin particles being core-shell type resin particles each of which comprises a resin particle that contains a resin (b), which is selected from the group consisting of a vinyl resin, a polyester resin, a polyurethane resin, an epoxy resin, or a combination thereof, and fine particles that contain a resin (a), which is selected from the group consisting of a vinyl resin, a polyester resin, a polyurethane resin, an epoxy resin, or a combination thereof, and that either adhere to the surface of the resin particle or form a film on the surface of the resin particle, wherein the volume average particle diameter of the resin particles is 0.01 to 100 μm, the volume average particle diameter of is 0.0005 to 30 μm, the particle size ratio [volume average particle diameter of fine particles]/[volume average particle diameter of resin particle] is in a range of 0.001 to 0.3; and the solubility of (a) in at 25°C is 2wt% to 10wt% relative to the weight of (a).
A method for proxying a notification service (110, 120, 130) between a mobile client and a notification server of a notification service (110, 120, 130), the method comprising: receiving a proxy setup request for the notification service (110, 102, 103) from the mobile client, wherein the proxy setup request comprises a battery life parameter to indicate maximizing battery life of the mobile client; establishing a notification connection (NSCM) with the notification server for the mobile client; maintaining the notification connection (NSCM) with the notification serve without waking an application processor of the mobile client; receiving a notification from the notification service (110, 120, 130); bundling the received notification with another notification, wherein the bundling is based on the value set for the battery life parameter; and forwarding the bundled notifications to the mobile client. receiving a proxy setup request for the notification service (110, 102, 103) from the mobile client, wherein the proxy setup request comprises a battery life parameter to indicate maximizing battery life of the mobile client; establishing a notification connection (NSCM) with the notification server for the mobile client; maintaining the notification connection (NSCM) with the notification serve without waking an application processor of the mobile client; receiving a notification from the notification service (110, 120, 130); bundling the received notification with another notification, wherein the bundling is based on the value set for the battery life parameter; and forwarding the bundled notifications to the mobile client.
A method for channel mapping based on frequency hopping wherein an operating frequency band is divided into multiple working channels, with each working channel working in a different sub-band, the method comprising: computing a working channel label of a node according to the number of working channels of the node in frequency hopping mode, an identifier of the node, and a time parameter corresponding to a current superframe; determining (102; 302) a working channel according to the working channel label; and transmitting (103; 303) data on the working channel within the current superframe; wherein the computing a working channel label of a node according to the number of working channels of the node in frequency hopping mode, an identifier of the node, and a time parameter corresponding to a current superframe comprises: computing the working channel label of the node according to a formula ( S + A)mod N, wherein S is the time parameter corresponding to the current superframe, A is the identifier of the node, N is the number of working channels of the node in frequency hopping mode and mod is a remainder; wherein the time parameter corresponding to the current superframe is a sequence number of the current superframe, and the identifier of the node is a value of a network address of the node. computing a working channel label of a node according to the number of working channels of the node in frequency hopping mode, an identifier of the node, and a time parameter corresponding to a current superframe; determining (102; 302) a working channel according to the working channel label; and transmitting (103; 303) data on the working channel within the current superframe; wherein the computing a working channel label of a node according to the number of working channels of the node in frequency hopping mode, an identifier of the node, and a time parameter corresponding to a current superframe comprises: computing the working channel label of the node according to a formula ( S + A)mod N, wherein S is the time parameter corresponding to the current superframe, A is the identifier of the node, N is the number of working channels of the node in frequency hopping mode and mod is a remainder; wherein the time parameter corresponding to the current superframe is a sequence number of the current superframe, and the identifier of the node is a value of a network address of the node. computing the working channel label of the node according to a formula ( S + A)mod N, wherein S is the time parameter corresponding to the current superframe, A is the identifier of the node, N is the number of working channels of the node in frequency hopping mode and mod is a remainder; wherein the time parameter corresponding to the current superframe is a sequence number of the current superframe, and the identifier of the node is a value of a network address of the node.
Electrical plug socket, comprising a housing which has a plug connection side on which is arranged a plug receptacle for insertion of a plug connector, wherein a plurality of contact springs are arranged in the plug receptacle, which contact springs are contactable by associated plug contacts of the plug connector and are each electrically connected to a core connecting element, and comprising a core receiving part positionable at the core connecting elements for receiving at least one core of a data transmission cable, wherein the housing has a housing base which forms the plug receptacle, and has at least one housing wing (18, 22; 218, 222) which is movable back and forth between a release position releasing the core receiving part and a fixing position fixing the core receiving part at the core connecting elements, and comprising a spring element (40; 240) which is arranged on an outer side of the housing and is movable back and forth between a locking position and an unlocking position, wherein the spring element (40; 240), when in the locking position, arrests the at least one housing wing (18, 22; 218, 222) in its fixing position, and, when in the unlocking position, releases the at least one housing wing (18, 22; 218, 222), wherein the spring element (40; 240) has a front side which faces towards the plug connection side and on which is arranged at least one retaining member (37, 39), characterized in that the at least one retaining member (37, 39) is at a smaller distance from the plug connection side in the locking position of the spring element (40; 240) than in the unlocking position of the spring element (40; 240), wherein the electrical plug socket (10; 210) is clampable in place to a holding device by way of the spring element (40; 240), wherein when the electrical plug socket is being mounted to the holding device, the plug connection side of the housing can be passed through a mounting opening of the holding device and wherein, in mounting, the at least one retaining member (37, 39) can engage behind the mounting opening of the holding device when the spring element (40; 240) is in its locking position.
A communication device for handling a plurality of Physical Downlink Shared Channels PDSCHs, in a plurality of bandwidth parts, BWPs, the communication device comprising: at least one storage device; and at least one processing circuit, coupled to the at least one storage device, wherein the at least one storage device stores instructions, and the at least one processing circuit is configured to execute the instructions of: determining a quasi-colocation, QCL, assumption according to an indication, wherein the indication is a transmission configuration indication, TCI, state; and receiving at least one PDSCH of a plurality of PDSCHs in a time interval according to the QCL assumption from a network, wherein the plurality of PDSCHs are in a plurality of BWPs. at least one storage device; and at least one processing circuit, coupled to the at least one storage device, wherein the at least one storage device stores instructions, and the at least one processing circuit is configured to execute the instructions of: determining a quasi-colocation, QCL, assumption according to an indication, wherein the indication is a transmission configuration indication, TCI, state; and receiving at least one PDSCH of a plurality of PDSCHs in a time interval according to the QCL assumption from a network, wherein the plurality of PDSCHs are in a plurality of BWPs. determining a quasi-colocation, QCL, assumption according to an indication, wherein the indication is a transmission configuration indication, TCI, state; and receiving at least one PDSCH of a plurality of PDSCHs in a time interval according to the QCL assumption from a network, wherein the plurality of PDSCHs are in a plurality of BWPs.
A system that facilitates generating a personalized query result for a specific user, comprising: an interface that receives at least one of a portion of a text query to be searched or a portion of personalized content related to a user that submits the portion of the text query; a personalization component that combines the portion of personalized content related to the user with a portion of personalized content related to one or more disparate users to create a group having group personalized content, the group personalized content is compared with the portion of the text query to identify a relationship there between to generate a personalized query result in accordance with the relationship (102, 104); and a shared web task engine that provides a collaborative web search utilizing a smart splitting technique, the smart splitting technique receives the portion of the text query and distributes a portion of the query results to members of the group to enable parallel evaluation. an interface that receives at least one of a portion of a text query to be searched or a portion of personalized content related to a user that submits the portion of the text query; a personalization component that combines the portion of personalized content related to the user with a portion of personalized content related to one or more disparate users to create a group having group personalized content, the group personalized content is compared with the portion of the text query to identify a relationship there between to generate a personalized query result in accordance with the relationship (102, 104); and a shared web task engine that provides a collaborative web search utilizing a smart splitting technique, the smart splitting technique receives the portion of the text query and distributes a portion of the query results to members of the group to enable parallel evaluation.
A slip joint having a tubular inner barrel (11 b) and a tubular outer barrel (11 a), the inner barrel lying at least partially within the outer barrel, the slip joint further comprising two sealing assemblies (12a, 12b, 12c) which are operable to provide a substantially fluid tight seal between two sealing surfaces comprising an interior surface of the outer barrel (11 a) and an exterior surface of the inner barrel, the sealing assemblies (12a, 12b, 12c) including an actuator and a seal, the actuator being movable to push the seal into engagement with one of the sealing surfaces, the slip joint the two sealing assemblies being (12a, 12b, 12c) displaced with respect to one another generally parallel to a longitudinal axis of the inner and outer barrels, wherein the sealing assemblies (12a, 12b, 12c) are mounted in a housing on the outer barrel, characterised in that there being a fluid flow passage (42, 44) in the housing which provides fluid communication between the exterior of the housing and the space between the inner barrel, the housing and the two seals.
A plug assembly comprising: a shielded housing having an upper shell, a lower shell and a center plate held between the upper and lower shells (108, 110), the upper shell having at least one upper plug chamber, the lower shell having at least one lower plug chamber, the center plate being positioned between, and providing shielding between, the upper and lower plug chambers; and a plurality of plugs received in corresponding plug chambers, characterized in that each of the plurality of plugs having a plug insert with shield members defining plug quadrants, each of the plurality of plugs having a plurality of terminals held by the plug insert, the plurality of terminals being arranged in pairs in each of the plug quadrants. a shielded housing having an upper shell, a lower shell and a center plate held between the upper and lower shells (108, 110), the upper shell having at least one upper plug chamber, the lower shell having at least one lower plug chamber, the center plate being positioned between, and providing shielding between, the upper and lower plug chambers; and a plurality of plugs received in corresponding plug chambers, characterized in that each of the plurality of plugs having a plug insert with shield members defining plug quadrants, each of the plurality of plugs having a plurality of terminals held by the plug insert, the plurality of terminals being arranged in pairs in each of the plug quadrants.
A regenerator heat exchanger comprising an inner first end and an outer second end, and a plurality of heat exchanger metal sheets, each of which has a first and a second plate end (110a, 110b), and a metal sheet section arched or curved in a radial direction, wherein the heat exchanger metal sheets serve as a heat store mass, characterised in that the first metal sheet section has at least one bend or stamping, and the first metal sheet section is suitable for coupling with first metal sheet sections of adjacent heat exchanger metal sheets to form an inner first end of the heat exchanger. an inner first end and an outer second end, and a plurality of heat exchanger metal sheets, each of which has a first and a second plate end (110a, 110b), and a metal sheet section arched or curved in a radial direction, wherein the heat exchanger metal sheets serve as a heat store mass, characterised in that the first metal sheet section has at least one bend or stamping, and the first metal sheet section is suitable for coupling with first metal sheet sections of adjacent heat exchanger metal sheets to form an inner first end of the heat exchanger.
A floating element for forming a modularly constructed buoyancy system, the floating element comprises a top face, a first side face and an opposite second side face, a first coupling face extending from the first side face to the second side face, and an opposite second coupling face extending from the first side face to the second side face, the floating element being provided with a cavity, wherein the first coupling face forms a flush face, and the second coupling face forms a flush face, at least the first side face of the floating element is formed with at least one first cut-out which, at its first end, is connected to a first channel whose mouth is in the first coupling face, said channel is formed with a flush countersunk recess in the coupling face, and which, at its second end, is connected to a second channel whose mouth is in the second coupling face, said channel is formed with a flush countersunk recess in the coupling face, and the floating element further comprises a keel portion extending from the first coupling face to the second coupling face.
A soluble AXL variant polypeptide, wherein said polypeptide lacks the AXL transmembrane domain and has a set of amino acid modifications of the wild-type AXL sequence (SEQ ID NO:1), selected from the group consisting of: 1) Gly32Ser, Asp87Gly, Val92Ala, and Gly127Arg, 2) Glu26Gly, Val79Met, Val92Ala, and Gly127Glu; and 3) Gly32Ser, Ala72Val, Asp87Gly, Val92Ala, and Gly127Arg; wherein said modification increases the affinity of the AXL polypeptide binding to Growth arrest-specific protein 6; and wherein the position of each amino acid modification is represented as n, and n+7 equals the numbering of SEQ ID NO:1. 1) Gly32Ser, Asp87Gly, Val92Ala, and Gly127Arg, 2) Glu26Gly, Val79Met, Val92Ala, and Gly127Glu; and 3) Gly32Ser, Ala72Val, Asp87Gly, Val92Ala, and Gly127Arg;