mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: negotiating, at a client with a server , a version of a first protocol that is supported for a first connection between the client and the server , wherein the first protocol supports multiplexed connections using a connectionless transport layer protocol, the first connection comprising at least one stream; embedding, at the client , a first extension in a cryptographic handshake, wherein the first extension comprises a structure that indicates a set of protocols supported by the client at a set of layers; concurrently negotiating a subset of the protocols and a subset of the layers that are supported by the client and the server ; and tunneling data from the subset of the protocols and the subset of the layers over the first connection between the client and the server . negotiating, at a client with a server , a version of a first protocol that is supported for a first connection between the client and the server , wherein the first protocol supports multiplexed connections using a connectionless transport layer protocol, the first connection comprising at least one stream; embedding, at the client , a first extension in a cryptographic handshake, wherein the first extension comprises a structure that indicates a set of protocols supported by the client at a set of layers; concurrently negotiating a subset of the protocols and a subset of the layers that are supported by the client and the server ; and tunneling data from the subset of the protocols and the subset of the layers over the first connection between the client and the server .
A method for manufacturing a rotor including: a skewed rotor core made of a cylindrical laminate of a plurality of disc-shaped core members each having through holes respectively corresponding to magnet slots for housing bonded magnets , each slot having openings located on opposite axial faces of the skewed rotor core the core members being shifted in a circumferential direction in accordance with their axial position in the laminate, the method comprising: an injection process of injecting a bonded magnet material into the magnet slots through one of the openings , wherein the skewed rotor core is located in a cavity of a molding die , and generating a magnetic field in the cavity to magnetically polarize the bonded magnet material , wherein the molding die used in the injection process has gates used for pouring the bonded magnet material into the magnet slots of the skewed rotor core , wherein the gates respectively open at positions corresponding to regions (A), each of which ensures a view from one of the openings to the other one of the openings of the magnet slot along an axial direction of the rotor core . a cylindrical laminate of a plurality of disc-shaped core members each having through holes respectively corresponding to magnet slots for housing bonded magnets , each slot having openings located on opposite axial faces of the skewed rotor core the core members being shifted in a circumferential direction in accordance with their axial position in the laminate, the method comprising: an injection process of injecting a bonded magnet material into the magnet slots through one of the openings , wherein the skewed rotor core is located in a cavity of a molding die , and generating a magnetic field in the cavity to magnetically polarize the bonded magnet material , wherein the molding die used in the injection process has gates used for pouring the bonded magnet material into the magnet slots of the skewed rotor core , wherein the gates respectively open at positions corresponding to regions (A), each of which ensures a view from one of the openings to the other one of the openings of the magnet slot along an axial direction of the rotor core . an injection process of injecting a bonded magnet material into the magnet slots through one of the openings , wherein the skewed rotor core is located in a cavity of a molding die , and generating a magnetic field in the cavity to magnetically polarize the bonded magnet material , wherein the molding die used in the injection process has gates used for pouring the bonded magnet material into the magnet slots of the skewed rotor core , wherein the gates respectively open at positions corresponding to regions (A), each of which ensures a view from one of the openings to the other one of the openings of the magnet slot along an axial direction of the rotor core .
A press for the direct extrusion of metallic material, wherein said press comprises: - a supporting structure which defines an extrusion axis of said metallic material and a transverse direction orthogonal to a vertical plane containing said extrusion axis ; - an extrusion die ; - a die-holder drawer in which said die is placed; - moving means for moving said drawer along a transverse direction between a first position (P1), in which said die is aligned with said extrusion axis , and a second position in which, when reached, said die can be replaced; - a fixed supporting element which supports said drawer at least when it occupies said first position (P1), characterized in that it comprises: - at least a movable supporting element for supporting said drawer during the movement along said transverse direction ; - lifting means for vertically lifting said at least one movable supporting element between a first vertical position (V1), in which said drawer is supported by said fixed supporting element , and a second vertical position (V2), in which said drawer is lifted with respect to said fixed supporting element and supported by said at least one movable supporting element . - a supporting structure which defines an extrusion axis of said metallic material and a transverse direction orthogonal to a vertical plane containing said extrusion axis ; - an extrusion die ; - a die-holder drawer in which said die is placed; - moving means for moving said drawer along a transverse direction between a first position (P1), in which said die is aligned with said extrusion axis , and a second position in which, when reached, said die can be replaced; - a fixed supporting element which supports said drawer at least when it occupies said first position (P1), - at least a movable supporting element for supporting said drawer during the movement along said transverse direction ; - lifting means for vertically lifting said at least one movable supporting element between a first vertical position (V1), in which said drawer is supported by said fixed supporting element , and a second vertical position (V2), in which said drawer is lifted with respect to said fixed supporting element and supported by said at least one movable supporting element .
A method of dispensing a fluid, the method comprising: charging a fluid to a pressure with a prime mover ; cycling a downstream valve open and closed at a fixed frequency; varying a valve-open time to maintain a desired flow rate at a downstream dispenser; sensing the valve-open time; and controlling the prime mover to alter the pressure generated by the prime mover such that the pressure is increased as the valve-open time approaches 100 percent of the frequency, and the pressure is decreased as the valve-open time approaches zero percent of the frequency. charging a fluid to a pressure with a prime mover ; cycling a downstream valve open and closed at a fixed frequency; varying a valve-open time to maintain a desired flow rate at a downstream dispenser; sensing the valve-open time; and controlling the prime mover to alter the pressure generated by the prime mover such that the pressure is increased as the valve-open time approaches 100 percent of the frequency, and the pressure is decreased as the valve-open time approaches zero percent of the frequency.
A communication method for an information capturing system, comprising the steps of: detecting by a host device , a communication link between the host device and an information capturing device , the host device having a high-power-consumption cellular network-connection unit , the information capturing device having a low-power-consumption cellular network-connection unit and a SIM card , the low-power consumption cellular network-connection unit being a narrow band Internet of Things, NB-IoT, module and the SIM card storing an identity authentication information; and upon affirmative detection of the communication link, creating a cellular network connection to a base station by the high-power-consumption cellular network-connection unit of the host device , using the identity authentication information and stopping the operation of the low-power-consumption cellular network-connection unit of the information capturing device . detecting by a host device , a communication link between the host device and an information capturing device , the host device having a high-power-consumption cellular network-connection unit , the information capturing device having a low-power-consumption cellular network-connection unit and a SIM card , the low-power consumption cellular network-connection unit being a narrow band Internet of Things, NB-IoT, module and the SIM card storing an identity authentication information; and upon affirmative detection of the communication link, creating a cellular network connection to a base station by the high-power-consumption cellular network-connection unit of the host device , using the identity authentication information and stopping the operation of the low-power-consumption cellular network-connection unit of the information capturing device .
A device for controlling the flow of a liquid or gaseous medium, comprising at least one flow opening for the medium and a movable valve member for controlling the flow opening , wherein the valve member comprises a movable magnet armature of an electromagnet , and a sealing element , which is fixed to the magnet armature , and which interacts with a valve seat which surrounds the at least one through-flow opening , and a bearing element which is fixedly connected to the sealing element and/or magnet armature for low-friction mounting of the valve member , wherein at least one, preferably viscoelastic, damping body acts on the valve member , which damping body engages the bearing element and which is arranged in such a way that it is subjected to a compression pressure when the sealing element is lifted off the valve seat , wherein the valve member extends into a valve chamber formed in a valve housing , in which valve chamber the flow opening and the valve seat are formed, wherein the at least one damping body is supported on a chamber wall of the valve chamber , wherein the bearing element is formed by a flat spring , which is clamped in the valve chamber , fixed at the edge in the valve housing , and which is centrally firmly connected to the sealing element and the magnet armature , and wherein the valve housing is composed in two parts of a valve body , in which the valve chamber and channels opening into the valve chamber are formed, and a valve cover closing the valve chamber , characterized in that the edge of the flat spring is clamped between the valve body and the valve cover , and a plurality of damping bodies are provided, which are offset relative to one another by equal circumferential angles, and which are supported on the one hand on the flat spring and on the other hand on the valve cover .
A method for wireless communications, comprising: receiving a transmission having a first subframe slot and a second subframe slot, wherein at least one of the first subframe slot and the second subframe slot have a single-slot transmission time interval, TTI; detecting a first demodulation reference signal, DM-RS, in the first subframe slot and a second DM-RS in the second subframe slot; determining , via a processor, whether at least one condition exists for using the second DM-RS in the second subframe slot for demodulating at least one downlink channel in the first subframe slot; and determining whether to demodulate at least one downlink channel in the first subframe slot using the first DM-RS in the first subframe slot or using both the first DM-RS in the first subframe slot and the second DM-RS in the second subframe slot based on whether the at least one condition exists. receiving a transmission having a first subframe slot and a second subframe slot, wherein at least one of the first subframe slot and the second subframe slot have a single-slot transmission time interval, TTI; detecting a first demodulation reference signal, DM-RS, in the first subframe slot and a second DM-RS in the second subframe slot; determining , via a processor, whether at least one condition exists for using the second DM-RS in the second subframe slot for demodulating at least one downlink channel in the first subframe slot; and determining whether to demodulate at least one downlink channel in the first subframe slot using the first DM-RS in the first subframe slot or using both the first DM-RS in the first subframe slot and the second DM-RS in the second subframe slot based on whether the at least one condition exists.
A method for predicting whether a human subject who has an αvβ6-mediated disorder will respond to treatment with an αvβ6-integrin inhibitor, the method comprising: a) providing a biological sample that has been obtained from the human subject after having been administered the αvβ6-integrin inhibitor; and b) measuring the expression level of one or more gene(s) or protein(s) selected from the group consisting of arachidonate 5-lipoxygenase 5 (ALOX5), fibronectin (FN1), oxidized low density lipoprotein receptor 1 (OLR1), plasminogen activator inhibitor-1 (PAI-1 or SERPINE1), transglutaminase 2 (TGM2), and triggering receptor expressed on myeloid cells 1 (TREM1) in the biological sample, wherein a decrease in the expression level of the one or more gene(s) or protein(s) relative to a control expression level predicts that the human subject will respond, or has an increased likelihood of responding, to treatment with the αvβ6-integrin inhibitor, wherein the αvβ6-mediated disorder is selected from the group consisting of lung fibrosis, idiopathic pulmonary fibrosis, radiation induced fibrosis, bleomycin induced fibrosis, asbestos induced fibrosis, lung cancer, and acute lung injury, scleroderma, wherein the αvβ6-integrin inhibitor is an anti-αvβ6-integrin antibody, and wherein the biological sample is bronchoalveolar lavage fluid. a) providing a biological sample that has been obtained from the human subject after having been administered the αvβ6-integrin inhibitor; and b) measuring the expression level of one or more gene(s) or protein(s) selected from the group consisting of arachidonate 5-lipoxygenase 5 (ALOX5), fibronectin (FN1), oxidized low density lipoprotein receptor 1 (OLR1), plasminogen activator inhibitor-1 (PAI-1 or SERPINE1), transglutaminase 2 (TGM2), and triggering receptor expressed on myeloid cells 1 (TREM1) in the biological sample, wherein
A method for manufacturing a fibrous web structure, comprising the steps of: melt spinning first polymer filaments and directing the first polymer filaments to a moving belt , thereby forming a first scrim layer of polymer filaments on the belt; downstream of the first scrim layer forming step, melt spinning second polymer filaments, blending the second polymer filaments with cellulose pulp fibers in a configuration of co-forming equipment, and directing the blend of second polymer filaments and cellulose pulp fibers at the belt and the first scrim layer to form a core layer overlying the first scrim layer; downstream of the core layer forming step, melt spinning third polymer filaments and directing the third polymer filaments at the belt and the core layer, thereby forming a second scrim layer overlying the core layer; wherein one or both of the first melt spun polymer filaments and third melt spun polymer filaments are mist quenched following spinning and prior to formation of the respective scrim layer(s); conveying the first scrim layer, overlying core layer, and overlying second scrim layer into the nip between a pair of calender rollers , at least one of the rollers having thereon a pattern of bonding protrusions, the rollers having a source of heating energy supplied at the nip; and compressing the layers in the nip and beneath the bonding protrusions to form a pattern of thermal bonds bonding the scrim layers to and thereby complete the fibrous web structure . melt spinning first polymer filaments and directing the first polymer filaments to a moving belt , thereby forming a first scrim layer of polymer filaments on the belt; downstream of the first scrim layer forming step, melt spinning second polymer filaments, blending the second polymer filaments with cellulose pulp fibers in a configuration of co-forming equipment, and directing the blend of second polymer filaments and cellulose pulp fibers at the belt and the first scrim layer to form a core layer overlying the first scrim layer; downstream of the core layer forming step, melt spinning third polymer filaments and directing the third polymer filaments at the belt and the core layer, thereby forming a second scrim layer overlying the core layer; wherein one or both of the first melt spun polymer filaments and third melt spun polymer filaments are mist quenched following spinning and prior to formation of the respective scrim layer(s); conveying the first scrim layer, overlying core layer, and overlying second scrim layer into the nip between a pair of calender rollers , at least one of the rollers having thereon a pattern of bonding protrusions, the rollers having a source of heating energy supplied at the nip; and compressing the layers in the nip and beneath the bonding protrusions to form a pattern of thermal bonds bonding the scrim layers to and thereby complete the fibrous web structure .
Arrangement with a power converter arrangement (A) for connecting wind energy installations (W) to an energy supply network, with a platform (P), with the wind energy installations and with at least one common connection line (AS) for connecting the wind energy installations (W), wherein the power converter arrangement (A) is located on the platform (P) situated in a body of water (S), wherein the wind energy installations (W) each generate a three-phase electric voltage and a plurality of the wind energy installations (W) are connected to one another via the connection line (AS) and wherein the electrical energy is transmitted from the power converter arrangement (A) to the energy supply network as a high-voltage DC transmission, wherein the arrangement has transformers (T, T1, T2, T3, T4), which have primary windings and secondary windings, wherein the at least one connection line (AS) is connected to the primary windings, and the power converter arrangement has at least two power converters , which are connected in series with the same polarity and have per phase one phase module with in each case two power converter units , wherein the power converter units are connected in series with the same polarity and the connection points of which each form a phase connection (P1, P2, P3), which is connected to one of the secondary windings, wherein the phase modules of a power converter each form a common power converter DC voltage (U1, U2, U3, U4) on the output side and the power converter DC voltages (U1, U2, U3, U4) together form the output DC voltage (U) of the power converter arrangement (A), characterized in that the transformers (T, T1, T2, T3, T4) are located on the platform (P) and the plurality of wind energy installations are connected to the transformers (T, T1, T2, T3, T4) via the connection line (AS) such that the arrangement is free from collecting platforms with transformers via which a plurality of wind energy installations are connected to one another and the wind energy installations are connected directly to the platform.
Drive device for a sliding door comprising a motor and a gear with a gear frame and comprising a drive housing in which the motor and the gear are received, the gear frame is received in a form-fitting manner in the drive housing , wherein an elastic intermediate layer is arranged between each surface of the drive housing forming the form-fit and the gear frame , wherein the motor is mounted exclusively on the gear frame and hanging free with respect to the drive housing , characterized in that the motor has a motor shaft , and the motor shaft and a gear shaft forming the gear output are arranged in parallel with each other, wherein the motor shaft and the gear shaft are connected via an intermediate gear.
A method for producing a reflective optical component (10; 10a; 10b; 10c) for an EUV projection exposure apparatus, said component having a substrate (12; 12a; 12b; 12c) having a base body (14; 14a; 14b; 14c), and a reflective layer (20; 20a; 20b; 20c) arranged on the substrate (12; 12a; 12b; 12c), wherein the substrate (12; 12a; 12b; 12c) has an optically operative microstructuring (16; 16a; 16b; 16c), comprising the following steps: working the microstructuring (16; 16a; 16b; 16c) into the substrate (12; 12a; 12b; 12c), polishing the substrate (12; 12a; 12b; 12c) after the microstructuring (16; 16a; 16b; 16c) has been worked into the substrate (12; 12a; 12b; 12c), applying the reflective layer (20; 20a; 20b; 20c) to the substrate (12; 12a; 12b; 12c) after the substrate (12; 12a; 12b; 12c) has been polished. working the microstructuring (16; 16a; 16b; 16c) into the substrate (12; 12a; 12b; 12c), polishing the substrate (12; 12a; 12b; 12c) after the microstructuring (16; 16a; 16b; 16c) has been worked into the substrate (12; 12a; 12b; 12c), applying the reflective layer (20; 20a; 20b; 20c) to the substrate (12; 12a; 12b; 12c) after the substrate (12; 12a; 12b; 12c) has been polished.
A method of wireless communication performed by a user equipment, UE, comprising: transmitting, to a base station, information which includes at least one of a UE capability or UE assistance information; receiving , from the base station, a configuration for multiple concurrent PRACH transmissions, wherein the configuration comprises at least one of an indication that the multiple concurrent PRACH transmissions are allowed for the UE, a number of the multiple concurrent PRACH transmissions that is allowed for the UE, a set of preamble indices configured for the multiple concurrent PRACH transmissions, or a transmission power for the multiple concurrent PRACH transmissions; transmitting , to the base station, a first physical random access channel, PRACH, transmission that includes a first random access, RA, preamble; and determining whether to transmit, to the base station, a second PRACH transmission that is concurrent with the first PRACH transmission, based on the received configuration, wherein the second PRACH transmission includes a second RA preamble, wherein the received configuration is based on at least one of the UE capability or the UE assistance information included in the information transmitted to the base station. transmitting, to a base station, information which includes at least one of a UE capability or UE assistance information; receiving , from the base station, a configuration for multiple concurrent PRACH transmissions, wherein the configuration comprises at least one of an indication that the multiple concurrent PRACH transmissions are allowed for the UE, a number of the multiple concurrent PRACH transmissions that is allowed for the UE, a set of preamble indices configured for the multiple concurrent PRACH transmissions, or a transmission power for the multiple concurrent PRACH transmissions; transmitting , to the base station, a first physical random access channel, PRACH, transmission that includes a first random access, RA, preamble; and determining whether to transmit, to the base station, a second PRACH transmission that is concurrent with the first PRACH transmission, based on the received configuration, wherein the second PRACH transmission includes a second RA preamble, wherein the received configuration is based on at least one of the UE capability or the UE assistance information included in the information transmitted to the base station.