mhurhangee/ep-ind-claims huggingface dataset:
A method of performing an uplink multi-point cooperation at a serving base station of a wireless communication system, the method comprising: receiving uplink cooperation data from uplink cooperation terminals; receiving, from a cooperation base station, uplink cooperation data of each of the uplink cooperative terminals received at the cooperation base station; receiving, from the cooperation base station, a delay attribute of each of the uplink cooperation terminals calculated at the cooperation base station; scheduling the uplink cooperation terminals so that the uplink cooperation terminals having a similar delay attribute are located in a same uplink cooperation zone; and transmitting scheduling information to the uplink cooperation terminals and the cooperation base station; characterized in that scheduling the uplink cooperation terminal comprises determining the uplink cooperation zone and an uplink non-cooperation zone, and by transmitting framework information of the uplink cooperation zone to the uplink cooperation terminals wherein, in the framework information of the uplink cooperation zone, a length of data included in a last symbol of the uplink cooperation zone is shortened to prevent interference in the non-cooperation zone that is located next to the uplink cooperation zone. receiving uplink cooperation data from uplink cooperation terminals; receiving, from a cooperation base station, uplink cooperation data of each of the uplink cooperative terminals received at the cooperation base station; receiving, from the cooperation base station, a delay attribute of each of the uplink cooperation terminals calculated at the cooperation base station; scheduling the uplink cooperation terminals so that the uplink cooperation terminals having a similar delay attribute are located in a same uplink cooperation zone; and transmitting scheduling information to the uplink cooperation terminals and the cooperation base station; characterized in that scheduling the uplink cooperation terminal comprises determining the uplink cooperation zone and an uplink non-cooperation zone, and by transmitting framework information of the uplink cooperation zone to the uplink cooperation terminals wherein, in the framework information of the uplink cooperation zone, a length of data included in a last symbol of the uplink cooperation zone is shortened to prevent interference in the non-cooperation zone that is located next to the uplink cooperation zone.
A balance for weighing a target container, in particular designed for an installation for producing a medical preparation, comprising a balance pan for loading a target container, characterized in that the balance pan comprises a removable device, preferably a plate, which can be arranged in at least two orientations on the balance pan, such that one side of the removable device, which was previously pointing downwards, points upwards after being rotated, wherein the removable device has on one side at least one securing means for a target container.
A wireless power receiver comprising: a magnetic substrate configured to change a direction of a magnetic field transferred from a transmission coil included in a wireless power transmitter; a reception coil pattern disposed on the magnetic substrate and configured to receive power, comprising a plurality of wound wires, each of the wound wires spaced apart from each other; and at least first and second magnetic substance saturation protective patterns disposed on the magnetic substrate and inside the reception coil pattern and arranged with respect to each other to offset a magnetic field generated from the magnetic substrate against the magnetic field generated from the wireless power transmitter, characterized in that the first and second magnetic substance saturation protective patterns have a different shape, and include a dia-magnetic substance including at least one of copper, gold and silver, respectively. a magnetic substrate configured to change a direction of a magnetic field transferred from a transmission coil included in a wireless power transmitter; a reception coil pattern disposed on the magnetic substrate and configured to receive power, comprising a plurality of wound wires, each of the wound wires spaced apart from each other; and at least first and second magnetic substance saturation protective patterns disposed on the magnetic substrate and inside the reception coil pattern and arranged with respect to each other to offset a magnetic field generated from the magnetic substrate against the magnetic field generated from the wireless power transmitter, characterized in that the first and second magnetic substance saturation protective patterns have a different shape, and include a dia-magnetic substance including at least one of copper, gold and silver, respectively.
A method for determining radio link status, the method comprises determining whether a radio link failure, RLF, occurs to at least one of a supplement uplink, SUL, carrier of a cell configured with the SUL carrier or a non-SUL carrier; and in response to the RLF occurring to at least one of the SUL carrier or the non-SUL carrier, determining that the RLF occurs to the cell, and performing at least one of initiating a connection reestablishment flow or transmitting information of the RLF to a base station according to whether the cell is a primary cell, PCell, or a primary secondary cell, PSCell; wherein performing the at least one of initiating the connection reestablishment flow or transmitting information of the RLF to the base station comprises: in response to the RLF occurring to the SUL carrier or the non-SUL carrier, determining whether a carrier configured with a physical uplink control channel, PUCCH, and a physical uplink shared channel, PUSCH, exists in the SUL carrier and the non-SUL carrier; in response to the carrier configured with the PUCCH and the PUSCH existed, determining whether the carrier to which the RLF occurs is the carrier configured with the PUCCH and the PUSCH; in response to the carrier to which the RLF occurs being not the carrier configured with the PUCCH and the PUSCH, transmitting the information of the RLF to the base station; and in response to the carrier to which the RLF occurs being the carrier configured with the PUCCH and the PUSCH, in case of the cell being a PCell, initiating the connection reestablishment flow to the base station, and in case of the cell being a PSCell, transmitting the information of the RLF to the base station. in response to the RLF occurring to the SUL carrier or the non-SUL carrier, determining whether a carrier configured with a physical uplink control channel, PUCCH, and a physical uplink shared channel, PUSCH, exists in the SUL carrier and the non-SUL carrier; in response to the carrier configured with the PUCCH and the PUSCH existed, determining whether the carrier to which the RLF occurs is the carrier configured with the PUCCH and the PUSCH; in response to the carrier to which the RLF occurs being not the carrier configured with the PUCCH and the PUSCH, transmitting the information of the RLF to the base station; and in response to the carrier to which the RLF occurs being the carrier configured with the PUCCH and the PUSCH, in case of the cell being a PCell, initiating the connection reestablishment flow to the base station, and in case of the cell being a PSCell, transmitting the information of the RLF to the base station.
A composition comprising a first compound; wherein the first compound is capable of functioning as a phosphorescent emitter in an organic light emitting device at room temperature; wherein the first compound has the formula of Ir(L 1) 2 (L 2), wherein L 1 has a structure of Formula I, in which R 3, R 4, X and G are defined as: wherein R C2 has the following structure: and wherein R D6 has the following structure: and L 2 is selected from the group consisting of L C1 through L C1260, where L C1 through L C1260 are based on a structure of Formula X, in which R 1, R 2, and R 3 are defined as: wherein R D1 to R D81 has the following structures: wherein the first compound is capable of functioning as a phosphorescent emitter in an organic light emitting device at room temperature; wherein the first compound has the formula of Ir(L 1) 2 (L 2), wherein L 1 has a structure of Formula I, in which R 3, R 4, X and G are defined as: wherein R C2 has the following structure: and wherein R D6 has the following structure: and L 2 is selected from the group consisting of L C1 through L C1260, where L C1 through L C1260 are based on a structure of Formula X, in which R 1, R 2, and R 3 are defined as: wherein R D1 to R D81 has the following structures:
A device comprising: a patch pump comprising a non-linear needle path, the non-linear needle path comprising a bend; a rigid needle located in the non-linear needle path, the non-linear needle path being larger than the rigid needle to allow the rigid needle to move along the needle path, the rigid needle comprising a first material, wherein the first material enables the rigid needle to maintain a bend at the first bend when traversing the non-linear needle path; a movement mechanism forming a portion of the non-linear needle path such that the rigid needle is contained within the movement mechanism, the movement mechanism configured to apply force on a first end of the rigid needle to cause the rigid needle to traverse the non-linear needle path from a first needle position to a second needle position; and a cannula configured to receive a force from a second end of the rigid needle when the movement mechanism applies the force on the first end of the rigid needle and to traverse from a first cannula position to a second cannula position. a patch pump comprising a non-linear needle path, the non-linear needle path comprising a bend; a rigid needle located in the non-linear needle path, the non-linear needle path being larger than the rigid needle to allow the rigid needle to move along the needle path, the rigid needle comprising a first material, wherein the first material enables the rigid needle to maintain a bend at the first bend when traversing the non-linear needle path; a movement mechanism forming a portion of the non-linear needle path such that the rigid needle is contained within the movement mechanism, the movement mechanism configured to apply force on a first end of the rigid needle to cause the rigid needle to traverse the non-linear needle path from a first needle position to a second needle position; and a cannula configured to receive a force from a second end of the rigid needle when the movement mechanism applies the force on the first end of the rigid needle and to traverse from a first cannula position to a second cannula position.
A radio frequency generator for ablation for use in a device for transmitting energy in the trachea and bronchus, the generator being able to generate and control a direct current, an alternating current and a radio frequency energy, collect, process and display a temperature, impedance or tension signal, and determine the ablation effectiveness according to the change of the impedance or tension signal, and the change of the impedance is one or more of a falling value of impedance, a change rate of impedance, the change in the change rate of impedance, or the change of impedance from falling to rising, wherein the radio frequency generator for ablation is configured for using a segmentation control method to adjust a radio frequency output power through a closed-loop control system so as to control an ablation temperature, and the segmentation control comprises: a fast heating stage: lasting for 0.5 s to 2 s from the beginning of ablation, wherein an end point temperature of the fast heating stage reaches 50% to 80% of the ablation temperature; a slow heating stage: lasting for 0.5 s to 2 s after the fast heating stage, wherein an end point temperature of the slow heating stage reaches 70% to 99% of the ablation temperature, or is 0.1°C to 10°C lower than the ablation temperature; and a stability maintenance stage: stably maintaining the temperature after the slow heating stage until the ablation stops. generate and control a direct current, an alternating current and a radio frequency energy, collect, process and display a temperature, impedance or tension signal, and determine the ablation effectiveness according to the change of the impedance or tension signal, and the change of the impedance is one or more of a falling value of impedance, a change rate of impedance, the change in the change rate of impedance, or the change of impedance from falling to rising, a falling value of impedance, a change rate of impedance, the change in the change rate of impedance, or the change of impedance from falling to rising, a fast heating stage: lasting for 0.5 s to 2 s from the beginning of ablation, wherein an end point temperature of the fast heating stage reaches 50% to 80% of the ablation temperature; a slow heating stage: lasting for 0.5 s to 2 s after the fast heating stage, wherein an end point temperature of the slow heating stage reaches 70% to 99% of the ablation temperature, or is 0.1°C to 10°C lower than the ablation temperature; and a stability maintenance stage: stably maintaining the temperature after the slow heating stage until the ablation stops.
An apparatus comprising: a transmission having a driveshaft configured to couple to an engine; a mast, coupled to said transmission, configured to couple to a plurality of rotor blades; and an autorotative assist unit coupled to the transmission and configured to: store energy during normal operation by pressurizing a hydraulic fluid with a hydraulic pump-motor and a hydraulic accumulator; and drive the rotor blades through the transmission, by drawing pressure from the hydraulic accumulator, to provide supplemental autorotative assistance upon loss of engine power. a transmission having a driveshaft configured to couple to an engine; a mast, coupled to said transmission, configured to couple to a plurality of rotor blades; and an autorotative assist unit coupled to the transmission and configured to: store energy during normal operation by pressurizing a hydraulic fluid with a hydraulic pump-motor and a hydraulic accumulator; and drive the rotor blades through the transmission, by drawing pressure from the hydraulic accumulator, to provide supplemental autorotative assistance upon loss of engine power. store energy during normal operation by pressurizing a hydraulic fluid with a hydraulic pump-motor and a hydraulic accumulator; and drive the rotor blades through the transmission, by drawing pressure from the hydraulic accumulator, to provide supplemental autorotative assistance upon loss of engine power.
A visual prosthesis comprising: a camera for receiving a pixelated image; a plurality of electrodes (12, 14) suitable for contact with neural tissue, the plurality of electrodes including a first electrode and a second electrode, the second electrode being adjacent to the first electrode; and an image processing circuit receiving said pixelated image from said camera and mapping said image to said plurality of electrodes (12, 14), characterized in that: a first current applied to the first electrode is below a threshold, a second current applied to the second electrode is below the threshold, wherein the first current and the second current are applied simultaneously; and the sum of the first current and the second current is above the threshold, the threshold being a level of electrical current that causes a neuron to fire and send a signal along its neural pathway. a camera for receiving a pixelated image; a plurality of electrodes (12, 14) suitable for contact with neural tissue, the plurality of electrodes including a first electrode and a second electrode, the second electrode being adjacent to the first electrode; and an image processing circuit receiving said pixelated image from said camera and mapping said image to said plurality of electrodes (12, 14), characterized in that: a first current applied to the first electrode is below a threshold, a second current applied to the second electrode is below the threshold, wherein the first current and the second current are applied simultaneously; and the sum of the first current and the second current is above the threshold, the threshold being a level of electrical current that causes a neuron to fire and send a signal along its neural pathway. a first current applied to the first electrode is below a threshold, a second current applied to the second electrode is below the threshold, wherein the first current and the second current are applied simultaneously; and the sum of the first current and the second current is above the threshold, the threshold being a level of electrical current that causes a neuron to fire and send a signal along its neural pathway.
A composition for use in treating type II diabetes, comprising: a pharmaceutically effective amount of a molecular antagonist of gastric inhibitory polypeptide, wherein the molecular antagonist of gastric inhibitory polypeptide comprises a light chain variable domain and a heavy chain variable domain, wherein the light chain variable domain has a first complementarity determining region having the amino acid sequence of SEQ ID NO: 20; a second CDR having the amino acid sequence of SEQ ID NO: 21, SEQ ID NO: 23 or SEQ ID NO: 24; and a third CDR having the amino acid sequence of SEQ ID NO: 22; wherein the heavy chain variable domain has a first CDR having the amino acid sequence of SEQ ID NO: 31, a second CDR having the amino acid sequence of SEQ ID NO: 32, and a third CDR having the amino acid sequence of SEQ ID NO: 33; and wherein the molecular antagonist is a single-chain variable fragment (scFv), an F(ab') 2 fragment, a Fab or Fab' fragment, a diabody, a triabody, a tetrabody, or a whole antibody. a pharmaceutically effective amount of a molecular antagonist of gastric inhibitory polypeptide, wherein the molecular antagonist of gastric inhibitory polypeptide comprises a light chain variable domain and a heavy chain variable domain, wherein the light chain variable domain has a first complementarity determining region having the amino acid sequence of SEQ ID NO: 20; a second CDR having the amino acid sequence of SEQ ID NO: 21, SEQ ID NO: 23 or SEQ ID NO: 24; and a third CDR having the amino acid sequence of SEQ ID NO: 22; wherein the heavy chain variable domain has a first CDR having the amino acid sequence of SEQ ID NO: 31, a second CDR having the amino acid sequence of SEQ ID NO: 32, and a third CDR having the amino acid sequence of SEQ ID NO: 33; and wherein the molecular antagonist is a single-chain variable fragment (scFv), an F(ab') 2 fragment, a Fab or Fab' fragment, a diabody, a triabody, a tetrabody, or a whole antibody.
A service management method, wherein the method comprises: receiving, by a second network management unit, a network management request sent by a service management unit, wherein the network management request carries network requirement information; and determining, by the second network management unit, a target network type based on the network requirement information and a preset policy, wherein the target network type comprises a sliced network or a non-sliced network, the preset policy comprises an association relationship between a network type and network requirement information, and wherein the network type comprises a sliced network or a non-sliced network. receiving, by a second network management unit, a network management request sent by a service management unit, wherein the network management request carries network requirement information; and determining, by the second network management unit, a target network type based on the network requirement information and a preset policy, wherein the target network type comprises a sliced network or a non-sliced network, the preset policy comprises an association relationship between a network type and network requirement information, and wherein the network type comprises a sliced network or a non-sliced network.
A compliant plate seal manufacturing method, comprising: assembling a plurality of t-shims and a plurality of spacer shims packed into a weld fixture at a prescribed angle, thereby forming a shim pack having a front and rear end and sides, each of the plurality of t-shims and spacer shims including a cut-out region (71, 76); welding the sides of the shim pack; removing a portion of the weld fixture; removing a lower portion of each of the plurality of spacer shims; and shaping the shim pack into a target diameter. assembling a plurality of t-shims and a plurality of spacer shims packed into a weld fixture at a prescribed angle, thereby forming a shim pack having a front and rear end and sides, each of the plurality of t-shims and spacer shims including a cut-out region (71, 76); welding the sides of the shim pack; removing a portion of the weld fixture; removing a lower portion of each of the plurality of spacer shims; and shaping the shim pack into a target diameter.
Laundry treatment appliance having an outer tub for receiving washing liquid, a laundry drum for receiving laundry, wherein the laundry drum is arranged in the outer tub, an oscillation system which is embodied to pivotably mount the laundry drum and the outer tub in the laundry treatment appliance, a drum drive for rotating the laundry drum during a washing period, a controller for controlling the drum drive, and a power recording element for recording an electrical power value of the drum drive, wherein the controller is embodied to activate the drum drive during a recording time segment of the washing period in order to rotate the laundry drum, wherein the power recording element is embodied to record a first electrical power value of the drum drive during a first recording interval of the recording time segment, wherein the power recording element is embodied to record a second electrical power value of the drum drive during a second recording interval which follows on from the first recording interval, and characterised in that the controller is embodied to record a laundry tunnel which does not change within the laundry received in the laundry drum, when the second electrical power value corresponds to the first electrical power value. the controller is embodied to activate the drum drive during a recording time segment of the washing period in order to rotate the laundry drum, wherein the power recording element is embodied to record a first electrical power value of the drum drive during a first recording interval of the recording time segment, wherein the power recording element is embodied to record a second electrical power value of the drum drive during a second recording interval which follows on from the first recording interval, and characterised in that the controller is embodied to record a laundry tunnel which does not change within the laundry received in the laundry drum, when the second electrical power value corresponds to the first electrical power value.