mhurhangee/ep-ind-claims huggingface dataset:
Induction hob device having at least one heating frequency unit (60a; 60b; 60c; 60d, 61d) and having at least three induction heating units (20a, 22a, 24a, 26a, 28a; 20b, 22b, 24b, 26b, 28b; 20c, 22c, 24c, 26c; 20d, 22d, 24d, 26d) which are associated with the heating frequency unit (60a; 60b; 60c; 60d, 61d), wherein in each operating state in which one of the induction heating units (20a, 22a, 24a, 26a, 28a; 20b, 22b, 24b, 26b, 28b; 20c, 22c, 24c, 26c; 20d, 22d, 24d, 26d) is supplied with high-frequency alternating current, the heating frequency unit (60a; 60b; 60c; 60d, 61d) is directly connected to the induction heating unit (20a, 22a, 24a, 26a, 28a; 20b, 22b, 24b, 26b, 28b; 20c, 22c, 24c, 26c; 20d, 22d, 24d, 26d), and having at least one control unit (64a; 64b; 64c; 64d) which is at least provided to operate at least two of the induction heating units (20a, 22a, 24a, 26a, 28a; 20b, 22b, 24b, 26b, 28b; 20c, 22c, 24c, 26c; 20d, 22d, 24d, 26d) sectionally in at least one operating mode, characterised in that the control unit (64a; 64b; 64c; 64d) is provided, at least in one operating mode with sectional operation of at least two induction heating units (20a, 22a, 24a, 26a, 28a; 20b, 22b, 24b, 26b, 28b; 20c, 22c, 24c, 26c; 20d, 22d, 24d, 26d), to space apart starting points (102a, 106a, 110a, 114a) of two consecutive operating sections (100a, 104a, 108a, 112a) of any induction heating units (20a, 22a, 24a, 26a, 28a; 20b, 22b, 24b, 26b, 28b; 20c, 22c, 24c, 26c; 20d, 22d, 24d, 26d) by at least 50 ms.
A method for filling gas on gas cylinders with pressures greater than 50 bar in an automatic gas cylinder filling facility, wherein the method includes at least the following steps: a. a gas cylinder is placed in a filling carousel, the filling carousel having multiple filling stations; b. the gas cylinder is positioned by means of a geometric positioning system; c. a filler adapter comprising a non-return valve is mounted on the gas cylinder; d. the gas cylinder is filled in steps as the carousel is rotated in steps past the filling stations in stepwise manner by connecting the filler adapter on all subsequent filling stations whereby the gas cylinder is filled with gas; and e. the non-return valve is closed with a certain moment after filling. a. a gas cylinder is placed in a filling carousel, the filling carousel having multiple filling stations; b. the gas cylinder is positioned by means of a geometric positioning system; c. a filler adapter comprising a non-return valve is mounted on the gas cylinder; d. the gas cylinder is filled in steps as the carousel is rotated in steps past the filling stations in stepwise manner by connecting the filler adapter on all subsequent filling stations whereby the gas cylinder is filled with gas; and e. the non-return valve is closed with a certain moment after filling.
A dispersion, which is a water dispersion of gel particles, wherein the gel particles - are dispersed in water, - have a three-dimensional crosslinked structure including at least one bond selected from a urethane bond or a urea bond, - include, inside the gel particles, a photopolymerization initiator, a resin, and a polymerizable monomer having an ethylenically polymerizable group; wherein the content of the resin included in the gel particles is 0.5-15 mass-% with respect to the total solid content of the gel particles. - are dispersed in water, - have a three-dimensional crosslinked structure including at least one bond selected from a urethane bond or a urea bond, - include, inside the gel particles, a photopolymerization initiator, a resin, and a polymerizable monomer having an ethylenically polymerizable group;
Ultrasound system, in particular for cardiac monitoring, comprising - a transducer array with a plurality of transducer array elements; - a control unit, which is coupled to the transducer array, for controlling the transducer array; - a data processing unit for receiving data from the transducer array and processing the received data; and - a deformation correction module, which is configured to perform a deformation correction step, based on deformation information determined for the transducer array, wherein the transducer array is a 2-dimensional transducer array, wherein at least one sub-array of transducer array elements is defined and controlled as a functional unit for sending ultrasound pulses and/or receiving ultrasound signals, and wherein said at least one sub-array is dynamically defined and capable of changing its position. - a transducer array with a plurality of transducer array elements; - a control unit, which is coupled to the transducer array, for controlling the transducer array; - a data processing unit for receiving data from the transducer array and processing the received data; and - a deformation correction module, which is configured to perform a deformation correction step, based on deformation information determined for the transducer array, wherein the transducer array is a 2-dimensional transducer array, wherein at least one sub-array of transducer array elements is defined and controlled as a functional unit for sending ultrasound pulses and/or receiving ultrasound signals, and wherein said at least one sub-array is dynamically defined and capable of changing its position. wherein the transducer array is a 2-dimensional transducer array, wherein at least one sub-array of transducer array elements is defined and controlled as a functional unit for sending ultrasound pulses and/or receiving ultrasound signals, and wherein said at least one sub-array is dynamically defined and capable of changing its position.
A pancreatic cancer cell aptamer comprising an RNA molecule that specifically binds a pancreatic cancer cell surface protein, wherein the RNA molecule comprises a nucleotide sequence of SEQ ID NO:1, SEQ ID NO:2, SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:5, or SEQ ID NO:6.
A method for a user equipment, UE, the method comprising: receiving signaling, by the UE, the signaling including: a first Non-Zero Power, NZP, channel state information, CSI, reference signal, RS, configuration for channel measurement; a second NZP CSI-RS configuration for multiple user, MU, interference measurement, the second NZP CSI-RS configuration being for configuring K NZP CSI-RS resources for the MU interference measurement, where K >= 1; and a CSI interference measurement, CSI-IM, configuration for interference measurement; receiving a CSI feedback request, the CSI feedback request being associated with the signaled first NZP CSI-RS configuration, the second NZP CSI-RS configuration, and the CSI-IM configuration; and responsive to the received CSI feedback request, measuring a downlink channel on a single first NZP CSI-RS resource corresponding to the first NZP CSI-RS configuration and measuring interference on each of the K NZP CSI-RS resources, the K NZP CSI-RS resources being used for the MU interference measurement that is associated with K+1 UE candidates for a multi-user multiple-input multiple-output, MU-MIMO, communication. receiving signaling, by the UE, the signaling including: a first Non-Zero Power, NZP, channel state information, CSI, reference signal, RS, configuration for channel measurement; a second NZP CSI-RS configuration for multiple user, MU, interference measurement, the second NZP CSI-RS configuration being for configuring K NZP CSI-RS resources for the MU interference measurement, where K >= 1; and a CSI interference measurement, CSI-IM, configuration for interference measurement; a first Non-Zero Power, NZP, channel state information, CSI, reference signal, RS, configuration for channel measurement; a second NZP CSI-RS configuration for multiple user, MU, interference measurement, the second NZP CSI-RS configuration being for configuring K NZP CSI-RS resources for the MU interference measurement, where K >= 1; and a CSI interference measurement, CSI-IM, configuration for interference measurement; receiving a CSI feedback request, the CSI feedback request being associated with the signaled first NZP CSI-RS configuration, the second NZP CSI-RS configuration, and the CSI-IM configuration; and responsive to the received CSI feedback request, measuring a downlink channel on a single first NZP CSI-RS resource corresponding to the first NZP CSI-RS configuration and measuring interference on each of the K NZP CSI-RS resources, the K NZP CSI-RS resources being used for the MU interference measurement that is associated with K+1 UE candidates for a multi-user multiple-input multiple-output, MU-MIMO, communication.
A cryogenic apparatus, the apparatus comprising: an enclosure; a vessel (42, 114); a first thermo-mechanical cooler and a second thermo-mechanical cooler which project into the enclosure, at least the second thermo-mechanical cooler being a two-stage cooler, and each cooler having a fluid inlet and a fluid outlet for each stage; a helium gas extraction flow duct which extends into the enclosure and which communicates with the vessel (42, 114) to contain liquid helium within the enclosure; the apparatus characterised in further comprising: a first heat exchanger (62, 112) within the gas flow duct; wherein the apparatus also comprises a first duct to carry cold helium gas from a fluid outlet of the first thermo-mechanical cooler and through the first heat exchanger (62, 112) to the fluid inlet of the second stage of the second thermo-mechanical cooler, and a second duct to carry liquid helium from the fluid outlet of the second thermo-mechanical cooler into the vessel (42, 114) to contain liquid helium.
A method at a network node for configuring a cluster specific to a terminal device in a wireless network, wherein the terminal device can establish at least two concurrent connections over at least two respective beams, the method comprising: dynamically adjusting a configuration of the cluster; and informing the terminal device of the adjusted configuration so that connectivity of the terminal device in the cluster is adapted to the adjusted configuration; wherein the cluster comprises a number of network nodes capable of providing multiple beams for the terminal device; wherein the cluster comprises a cluster head and at least one assisting serving access node, SAN, the cluster head is a primary SAN, responsible for coordination of the cluster so as to control fast beam switching and responsible for setup or maintenance of the cluster, the assisting SAN assists the cluster head to serve the terminal device; wherein the beams over which the at least two concurrent connections are established are from the cluster head and at least one assisting SAN; wherein dynamically adjusting the configuration of the cluster is based on a traffic load of the primary and the at least one assisting SAN, the traffic load is indicated by a ratio of the overlapped cluster, and wherein the ratio of the overlapped cluster is a ratio of a part of the cluster that is overlapped with any of other clusters configured for other terminal devices to the whole cluster. dynamically adjusting a configuration of the cluster; and informing the terminal device of the adjusted configuration so that connectivity of the terminal device in the cluster is adapted to the adjusted configuration; wherein the cluster comprises a number of network nodes capable of providing multiple beams for the terminal device; wherein the cluster comprises a cluster head and at least one assisting serving access node, SAN, the cluster head is a primary SAN, responsible for coordination of the cluster so as to control fast beam switching and responsible for setup or maintenance of the cluster, the assisting SAN assists the cluster head to serve the terminal device; wherein the beams over which the at least two concurrent connections are established are from the cluster head and at least one assisting SAN; wherein dynamically adjusting the configuration of the cluster is based on a traffic load of the primary and the at least one assisting SAN, the traffic load is indicated by a ratio of the overlapped cluster, and wherein the ratio of the overlapped cluster is a ratio of a part of the cluster that is overlapped with any of other clusters configured for other terminal devices to the whole cluster.
A producing method of ITO particles, comprising: a first step of dissolving salt containing indium and salt containing tin into an organic solvent, then adding to this organic solvent, an organic solvent containing sodium hydroxide, to thereby manufacture a mixture of a precursor containing indium and tin, and the organic solvent; and a second step of applying heat treatment to the mixture of the precursor containing indium and tin, and the organic solvent in a pressurizing vessel at 200°C or more and 300°C or less, to thereby generate ITO particles. a first step of dissolving salt containing indium and salt containing tin into an organic solvent, then adding to this organic solvent, an organic solvent containing sodium hydroxide, to thereby manufacture a mixture of a precursor containing indium and tin, and the organic solvent; and a second step of applying heat treatment to the mixture of the precursor containing indium and tin, and the organic solvent in a pressurizing vessel at 200°C or more and 300°C or less, to thereby generate ITO particles.
A printed circuit board PCB processing method, comprising: respectively carrying out lamination processing on a plurality of PCB daughter boards constituting a PCB, and drilling and electroplating a top-most PCB daughter board of the PCB to form at least one via hole; and laminating the plurality of PCB daughter boards together to form the PCB, and drilling and electroplating the formed PCB to form a through hole for mounting a connector, wherein a blind hole for mounting a connector is formed by the at least one via hole after laminating the plurality of PCB daughter boards together to form the PCB, characterized in that after drilling and electroplating the top-most PCB daughter board of the PCB to form at least one via hole, the method further comprising: backdrilling the at least one via hole from a side which is the side on which the other daughter boards of the PCB are to be laminated afterwards. respectively carrying out lamination processing on a plurality of PCB daughter boards constituting a PCB, and drilling and electroplating a top-most PCB daughter board of the PCB to form at least one via hole; and laminating the plurality of PCB daughter boards together to form the PCB, and drilling and electroplating the formed PCB to form a through hole for mounting a connector, wherein a blind hole for mounting a connector is formed by the at least one via hole after laminating the plurality of PCB daughter boards together to form the PCB, characterized in that after drilling and electroplating the top-most PCB daughter board of the PCB to form at least one via hole, the method further comprising: backdrilling the at least one via hole from a side which is the side on which the other daughter boards of the PCB are to be laminated afterwards.
Trailer coupling for motor vehicles comprising a ball neck, which is mountable at a first end on a rear part of a motor vehicle to be fixed to the vehicle by means of a ball neck holder and which carries a coupling ball at a second end, wherein at least one positioning body is arranged on the ball neck at a defined spacing from the coupling ball to position a load carrier holding arrangement attachable to the coupling ball and the ball neck, wherein the positioning body is arranged on a ball neck section of the ball neck, which adjoins a ball attachment piece of the ball neck that carries the coupling ball, wherein the positioning body (54, 254, 454) extends transversely to a course of the ball neck section carrying this positioning body (54, 254, 454), wherein a respective positioning body (54, 254, 454) is arranged on the ball neck section on opposite sides thereof, wherein starting from a ball neck section carrying the positioning bodies (54, 454) these extend away from the ball neck section in a direction of extent (59, 459) and the direction of extent of the positioning body (54, 454) extends transversely to the ball neck section carrying this, wherein the positioning bodies (54, 254, 454) bear at least one positioning face (64, 66, 264, 464), which is arranged on an outer surface (55, 255) of the positioning body (54, 254, 454), and characterised in that the positioning face (64, 66, 264, 464) is a surface region of a geometric surface, which intersects the ball neck section carrying the positioning body, and in that the positioning faces (64, 66, 264, 464) lie outside a projection contour of the coupling ball, which is formed by projection of the coupling ball onto the positioning body.
A process for the oligomerization of alpha-olefins, the process comprising: a) contacting a feedstock of alpha-olefins and at least one oligomerization or polymerization catalyst system in a reactor under oligomerization or polymerization conditions to oligomerize or polymerize the alpha-olefins, the feedstock of alpha-olefins comprising more than 10 wt% nonene, and at least one alpha-olefin selected from the group consisting of decene, dodecene, and tetradecene; b) removing unreacted alpha-olefins to obtain a bottoms product; and c) optionally hydrogenating the bottoms product to obtain a hydrogenated product. a) contacting a feedstock of alpha-olefins and at least one oligomerization or polymerization catalyst system in a reactor under oligomerization or polymerization conditions to oligomerize or polymerize the alpha-olefins, the feedstock of alpha-olefins comprising more than 10 wt% nonene, and at least one alpha-olefin selected from the group consisting of decene, dodecene, and tetradecene; b) removing unreacted alpha-olefins to obtain a bottoms product; and c) optionally hydrogenating the bottoms product to obtain a hydrogenated product.
A battery cell interconnect system, comprising: a conductive interconnect having a first termination end and a second termination end, the first termination end offset from the second termination end and separated therefrom by an intermediate portion, a pair of spaced threaded rods disposed on each of the first termination end and the second termination end, and an insulating layer disposed on an outer surface of the conductive interconnect over the intermediate portion; a pair of V-shaped conductive terminal clamps, each terminal clamp having a pair of intersecting legs, each having a contact surface thereon, and a pair of spaced bores disposed at an intersection of the legs, each V-shaped terminal clamp operative for disposition on respective ones of the spaced rods through respective ones of the spaced bores; and a plurality of threaded nuts operative for disposition on each of the threaded rods, wherein the terminal clamps are operative for clamping a plurality of battery cell electrodes by pressing engagement of the contact surfaces against the outer surface of the conductive interconnect. a conductive interconnect having a first termination end and a second termination end, the first termination end offset from the second termination end and separated therefrom by an intermediate portion, a pair of spaced threaded rods disposed on each of the first termination end and the second termination end, and an insulating layer disposed on an outer surface of the conductive interconnect over the intermediate portion; a pair of V-shaped conductive terminal clamps, each terminal clamp having a pair of intersecting legs, each having a contact surface thereon, and a pair of spaced bores disposed at an intersection of the legs, each V-shaped terminal clamp operative for disposition on respective ones of the spaced rods through respective ones of the spaced bores; and a plurality of threaded nuts operative for disposition on each of the threaded rods, wherein the terminal clamps are operative for clamping a plurality of battery cell electrodes by pressing engagement of the contact surfaces against the outer surface of the conductive interconnect.
Method for producing a pharmaceutical granulate comprising as active substance apixaban or a salt thereof, comprising the steps of a) providing a solvent; b) combining the solvent with the active substance to obtain a granulating liquid; c) wet granulating a pulverulent material using the granulating liquid, wherein an amphiphilic substance is present in the solvent and the amphiphilic substance is a polyvinylcaprolactam-polyvinyl acetate-polyethylene glycol graft copolymer or is selected from the group consisting of caprylocaproyl macrogol-8 glyceride, lauroyl macrogol-32 glyceride, stearoyl macrogol-32 glyceride, oleoyl macrogol-6 glyceride, linoleoyl macrogol-6 glyceride and lauroyl macrogol-6 glyceride, and the active substance is present in the solvent in dissolved form, in dissolved and dispersed form, in dissolved and suspended form, or in dissolved, dispersed and suspended form. a) providing a solvent; b) combining the solvent with the active substance to obtain a granulating liquid; c) wet granulating a pulverulent material using the granulating liquid,
A method for starting an application based on fingerprint recognition, wherein the method is applied to a device for starting the application based on fingerprint recognition, the device includes a display unit and sensing units, wherein the display unit is provided with a fingerprint recognition region; the sensing units are located below the fingerprint recognition region for acquiring fingerprint information on the fingerprint recognition region, the method includes the following steps: presetting a correspondence between the application icon and the fingerprint information; receiving operating information of the user for the application icon and moving the application icon to the fingerprint recognition region; and acquiring the fingerprint information of a current user on the fingerprint recognition region; judging whether the acquired fingerprint information is successfully matched with the preset fingerprint information corresponding to the application icon; and if yes, starting the application corresponding to the application icon, otherwise not starting the application corresponding to the application icon; characterized in that the method includes: starting an application icon sorting function to sort the application icon when a time of acquiring the fingerprint information of the user on the fingerprint recognition region exceeds a preset time threshold; and wherein, the process of "sorting the application icon" includes: receiving a coordinate movement instruction of the user for the application icon, and moving the application icon from a current position to a target position. presetting a correspondence between the application icon and the fingerprint information; receiving operating information of the user for the application icon and moving the application icon to the fingerprint recognition region; and acquiring the fingerprint information of a current user on the fingerprint recognition region; judging whether the acquired fingerprint information is successfully matched with the preset fingerprint information corresponding to the application icon; and if yes, starting the application corresponding to the application icon, otherwise not starting the application corresponding to the application icon; characterized in that the method includes: starting an application icon sorting function to sort the application icon when a time of acquiring the fingerprint information of the user on the fingerprint recognition region exceeds a preset time threshold; and wherein, the process of "sorting the application icon" includes: receiving a coordinate movement instruction of the user for the application icon, and moving the application icon from a current position to a target position. starting an application icon sorting function to sort the application icon when a time of acquiring the fingerprint information of the user on the fingerprint recognition region exceeds a preset time threshold; and wherein, the process of "sorting the application icon" includes: receiving a coordinate movement instruction of the user for the application icon, and moving the application icon from a current position to a target position.