mhurhangee/ep-ind-claims huggingface dataset:
An implantable pulse generator comprising: a housing having circuitry and a battery; and a header coupled to the housing, the header including a bore configured to receive an end of a lead, the header supporting at least one electrical contact within the bore coupled to the circuitry, the header further supporting a retainer device within the bore, the retainer device having a first position that permits egress of the lead into the bore and having a second position that occludes at least a portion of the bore sufficiently to prevent egress of the lead from the bore, wherein an interior surface of the bore defines a cavity holding the retainer device at an axial position along the bore; and characterised in that the retainer device is rotatable within the cavity. a housing having circuitry and a battery; and a header coupled to the housing, the header including a bore configured to receive an end of a lead, the header supporting at least one electrical contact within the bore coupled to the circuitry, the header further supporting a retainer device within the bore, the retainer device having a first position that permits egress of the lead into the bore and having a second position that occludes at least a portion of the bore sufficiently to prevent egress of the lead from the bore, wherein an interior surface of the bore defines a cavity holding the retainer device at an axial position along the bore; and characterised in that the retainer device is rotatable within the cavity.
A sensing device (100, 200, 300) for a windshield, comprising: an attachment member (102, 202, 302) being a first housing of the sensing device (100, 200, 300) and attachable to a surface of said windshield; a sensing element comprising a transducer, said transducer being embedded in a flexible film; the sensing element comprising a first portion and a second portion comprising the transducer; wherein the sensing element is bent in a manner to form an angle (α), different from a flat angle, between the first portion and the second portion; and wherein the attachment member (102, 202, 302) comprises a pressing means (122, 222, 322), the pressing means (122, 222, 322) being configured to apply a pressure on or over the transducer of the sensing element when the attachment member (102, 202, 302) is attached to the surface of the windshield, so as to keep the transducer pressed against the surface of the windshield. an attachment member (102, 202, 302) being a first housing of the sensing device (100, 200, 300) and attachable to a surface of said windshield; a sensing element comprising a transducer, said transducer being embedded in a flexible film; the sensing element comprising a first portion and a second portion comprising the transducer; wherein the sensing element is bent in a manner to form an angle (α), different from a flat angle, between the first portion and the second portion; and wherein the attachment member (102, 202, 302) comprises a pressing means (122, 222, 322), the pressing means (122, 222, 322) being configured to apply a pressure on or over the transducer of the sensing element when the attachment member (102, 202, 302) is attached to the surface of the windshield, so as to keep the transducer pressed against the surface of the windshield.
A method performed by a wireless device for enhanced channel occupancy sharing with a network node for random access, RA, and physical uplink control channel, PUCCH, in an unlicensed spectrum, the method comprising: for a first transmission of a procedure, of a RA procedure and a transmission procedure on PUCCH, selecting, based on configuration, a first channel sensing procedure for determining availability of a channel in the unlicensed spectrum; based on the first channel sensing procedure, determining that the channel in the unlicensed spectrum is available; in response to determining that the channel in the unlicensed spectrum is available: determining a maximum channel occupancy time, MCOT, duration associated with the first channel sensing procedure, the MCOT duration comprising an amount of time in which the wireless device and the network node are allowed to transmit on the channel in the unlicensed spectrum for the procedure; and transmitting the first transmission during the MCOT duration; and receiving a second transmission from the network node, the second transmission comprising a first listen-before-talk, LBT, scheme for a third transmission from the wireless device associated with the procedure, of the RA procedure and the transmission procedure on PUCCH. for a first transmission of a procedure, of a RA procedure and a transmission procedure on PUCCH, selecting, based on configuration, a first channel sensing procedure for determining availability of a channel in the unlicensed spectrum; based on the first channel sensing procedure, determining that the channel in the unlicensed spectrum is available; in response to determining that the channel in the unlicensed spectrum is available: determining a maximum channel occupancy time, MCOT, duration associated with the first channel sensing procedure, the MCOT duration comprising an amount of time in which the wireless device and the network node are allowed to transmit on the channel in the unlicensed spectrum for the procedure; and transmitting the first transmission during the MCOT duration; and receiving a second transmission from the network node, the second transmission comprising a first listen-before-talk, LBT, scheme for a third transmission from the wireless device associated with the procedure, of the RA procedure and the transmission procedure on PUCCH. determining a maximum channel occupancy time, MCOT, duration associated with the first channel sensing procedure, the MCOT duration comprising an amount of time in which the wireless device and the network node are allowed to transmit on the channel in the unlicensed spectrum for the procedure; and transmitting the first transmission during the MCOT duration; and receiving a second transmission from the network node, the second transmission comprising a first listen-before-talk, LBT, scheme for a third transmission from the wireless device associated with the procedure, of the RA procedure and the transmission procedure on PUCCH.
Cooking device with a housing, which has outer walls (3 to 6) and in which a muffle is arranged, which delimits a cooking compartment with muffle walls, wherein in a surface region directly adjoining an adjacent muffle wall, at least one outer wall (3 to 6) has a recess that is embodied so as to face the adjacent muffle wall, wherein in a base of the recess a stamped area is embodied so as to face the muffle wall in respect of the base, characterised in that the stamped area is embodied with a plurality of separate flat stamped elements, wherein adjacent stamped elements are spaced from each other by dividing partitions which are sub-elements of the base, and wherein the stamped area is embodied over at least 50% of the total surface of the outer wall (3 to 6).
A method for purging a selective catalytic reduction system for a motor vehicle, including a reversible pump in relation with a reservoir of reducing agent, an injector intended to be placed in an exhaust line of the vehicle, a duct connecting said injector to said pump, an accumulator for pressurization of the reducing agent installed between said pump and said injector and a valve installed between said accumulator and said injector, characterized in that, said system being under pressure, said injector being closed and said valve being open, said method comprises a first phase of discharge of the accumulator permitting the pressure to be reduced in the interior of the system, and a second phase for purging comprising the step of opening said injector and of operating said pump in aspiration mode for a calibrated duration, then of actuating a closure of said valve and of said injector at the end of said calibrated duration.
A lifting beam for lifting and handling a rotor blade of a wind power installation, including: - an upper carrier frame portion to be connected to a crane and - a lower carrier frame portion to be connected to the rotor blade - a crane fixing means for fixing the lifting beam to the crane, - at least one blade fixing means for fixing the lifting beam to the rotor blade, and - a longitudinal pivoting means for pivoting the rotor blade carried by the lifting beam about a longitudinal axis of the rotor blade, and/or - a transverse pivoting means (10, 22) for pivoting the rotor blade carried by the lifting beam about a transverse axis which is transverse relative to the longitudinal axis, wherein the longitudinal pivoting means has an actuator for actively pivoting the rotor blade, and the transverse pivoting means (10, 22) is adapted for passive pivoting and has a brake means and/or a securing means for securing the lifting beam in at least two mutually different pivotal positions, wherein the transverse pivoting means (10, 22) is adapted to perform a pivotal movement of the lower carrier frame portion relative to the upper carrier frame portion, having a corresponding pivot axis and a securing disc for fixing a pivotal position of the lower carrier frame portion relative to the upper carrier frame portion. - an upper carrier frame portion to be connected to a crane and - a lower carrier frame portion to be connected to the rotor blade - a crane fixing means for fixing the lifting beam to the crane, - at least one blade fixing means for fixing the lifting beam to the rotor blade, and - a longitudinal pivoting means for pivoting the rotor blade carried by the lifting beam about a longitudinal axis of the rotor blade, and/or - a transverse pivoting means (10, 22) for pivoting the rotor blade carried by the lifting beam about a transverse axis which is transverse relative to the longitudinal axis,
A method of detecting the temperature of a process pipe (110; 310) of semiconductor processing equipment, the method comprising: applying a radio frequency identity tag to the process pipe (110; 310), the radio frequency identity tag (200; 202; 204; 300) having a serial number; reading the radio frequency identity tag (200; 202; 204; 300) with a reader, the reader being arranged to read the serial number of the radio frequency identity tag (200; 202; 204; 300), and to identify the resonant frequency of the radio frequency identity tag (200; 202; 204; 300); and converting the resonant frequency of the radio frequency tag (200; 202 204; 300) to a temperature of the radio frequency identity tag (200; 202; 204; 300); the method further comprising: when the radio frequency identity tag (200; 202; 204; 300) is applied to the process pipe (110; 310), recording the serial number and installation location of the radio frequency identity tag (200; 202; 204; 300) in a database; and when a temperature reading is subsequently obtained, the location of that temperature reading is determined by looking up the serial number of the radio frequency identity tag (200; 202; 204; 300) in the database. applying a radio frequency identity tag to the process pipe (110; 310), the radio frequency identity tag (200; 202; 204; 300) having a serial number; reading the radio frequency identity tag (200; 202; 204; 300) with a reader, the reader being arranged to read the serial number of the radio frequency identity tag (200; 202; 204; 300), and to identify the resonant frequency of the radio frequency identity tag (200; 202; 204; 300); and converting the resonant frequency of the radio frequency tag (200; 202 204; 300) to a temperature of the radio frequency identity tag (200; 202; 204; 300); the method further comprising: when the radio frequency identity tag (200; 202; 204; 300) is applied to the process pipe (110; 310), recording the serial number and installation location of the radio frequency identity tag (200; 202; 204; 300) in a database; and when a temperature reading is subsequently obtained, the location of that temperature reading is determined by looking up the serial number of the radio frequency identity tag (200; 202; 204; 300) in the database. when the radio frequency identity tag (200; 202; 204; 300) is applied to the process pipe (110; 310), recording the serial number and installation location of the radio frequency identity tag (200; 202; 204; 300) in a database; and when a temperature reading is subsequently obtained, the location of that temperature reading is determined by looking up the serial number of the radio frequency identity tag (200; 202; 204; 300) in the database.
A resin composition comprising: a magnetic powder; (B-1) a solid resin; (B-2) a liquid resin; and a curing accelerator having a melting point of 120°C or higher and 245°C or lower, wherein b1/b2 is in the range of 0.15 or more and 0.45 or less, where b1 is a content of the (B-1) component when non-volatile components in the resin composition is taken as 100% by mass, and b2 is a content of the (B-2) component when non-volatile components in the resin composition is taken as 100% by mass. a magnetic powder; (B-1) a solid resin; (B-2) a liquid resin; and a curing accelerator having a melting point of 120°C or higher and 245°C or lower, wherein b1/b2 is in the range of 0.15 or more and 0.45 or less, where b1 is a content of the (B-1) component when non-volatile components in the resin composition is taken as 100% by mass, and b2 is a content of the (B-2) component when non-volatile components in the resin composition is taken as 100% by mass.
A method to control power usage in a base station, the method comprising: classifying plural items of user equipment connected to the base station into a plurality of categories based on the quality of their transmissions; dynamically adjusting a power control scheme of the base station to comprise a plurality of power levels corresponding to the plurality of categories; aggregating traffic loads of the items of user equipment in a particular category; comparing the power required to transmit data in the aggregate sum of the traffic loads with a threshold power budget; assigning power assignments to the items of user equipment based on the result of the comparison; calculating a remaining power buffer from a maximum power budget and the power assignments assigned to the items of user equipment; and scheduling a plurality of data transmissions in accordance with the remaining power buffer, wherein the assigning power assignments to the plural items of user equipment comprises assigning power assignments according to a geometry distribution corresponding to the items of user equipment, and wherein the items of user equipment with the worst performing geometries are assigned the highest power assignments. classifying plural items of user equipment connected to the base station into a plurality of categories based on the quality of their transmissions; dynamically adjusting a power control scheme of the base station to comprise a plurality of power levels corresponding to the plurality of categories; aggregating traffic loads of the items of user equipment in a particular category; comparing the power required to transmit data in the aggregate sum of the traffic loads with a threshold power budget; assigning power assignments to the items of user equipment based on the result of the comparison; calculating a remaining power buffer from a maximum power budget and the power assignments assigned to the items of user equipment; and scheduling a plurality of data transmissions in accordance with the remaining power buffer, wherein the assigning power assignments to the plural items of user equipment comprises assigning power assignments according to a geometry distribution corresponding to the items of user equipment, and wherein the items of user equipment with the worst performing geometries are assigned the highest power assignments.
An inhibitor of thrombocyte aggregation or activation for use in the treatment or prevention of non-alcoholic steatohepatitis (NASH), wherein the inhibitor of thrombocyte aggregation or activation is an inhibitor of Gp1b (glycoprotein 1 b), and wherein the inhibitor of thrombocyte aggregation or activation is an anti-Gp1b antibody or an antigen-binding fragment thereof.
A mechanical transmission device comprising a planet carrier (1; 101; 201) and at least two planets (2;3;4;5) mounted on the planet carrier by means of respective rotation shafts 10;11;12;13), the device including a stop (14; 114; 214) for stopping movement of the various rotation shafts in axial translation, the stop (14; 114; 214) being shaped to be secured to the planet carrier (1; 101; 201), the stop (14; 114; 214) including portions inserted in grooves (15; 115) formed in each of the rotation shafts and in corresponding slots (16; 116) in at least one plate (6;9) of the planet carrier (1; 101; 201) carrying the rotation shafts of the planet carrier, which slots give access to said grooves (15;115), the stop thus being carried by said plate by co-operation with said slots, being characterized in that the stop is shaped to be secured to the planet carrier by snap-fastening to said planet carrier, each of said portions of the stop including an abutment and a snap-fastener tab for snap-fastening the stop to the planet carrier at each of said rotation shafts, with the stop (14; 114; 214) being plane.
Process for manufacturing tyres for vehicle wheels, comprising the step of building a carcass structure comprising at least one carcass ply associated, at axially opposite end edges thereof, with respective annular anchoring structures; wherein the step of building the carcass structure comprises the step of reinforcing said at least one annular anchoring structure with a loop, said reinforcement step being carried out on at least one radially expandable/contractable service drum (107a, 107b) and comprising the steps of: a) setting the service drum (107a, 107b) to a predetermined operative radial dimension selected according to the fitting diameter of the tyre to be manufactured; b) depositing the loop on an annular portion of an annular outer surface of the service drum (107a, 107b); c) loading the annular anchoring structure onto the service drum (107a, 107b) in a radially outer position with respect to the loop by means of a loading/unloading device; d) radially expanding the service drum (107a, 107b) up to lock in position the annular anchoring structure; e) rotating the service drum (107a, 107b) about a longitudinal axis (X-X) thereof; f) during rotation of the service drum (107a, 107b), turning the loop up about the annular anchoring structure so as to form a reinforced annular anchoring structure; g) unloading the reinforced annular anchoring structure from the service drum (107a, 107b) by means of said loading/unloading device; the process comprising, between step b) of depositing the loop onto an annular portion of an annular outer surface of the service drum (107a, 107b) and step c) of loading the annular anchoring structure onto the service drum (107a, 107b) in a radially outer position with respect to the loop, a step of moving the service drum (107a, 107b) from a first work station defined at a feeding device of the loop to a second work station defined at the device for loading/unloading the annular anchoring structure onto/from the service drum (107a, 107b). a) setting the service drum (107a, 107b) to a predetermined operative radial dimension selected according to the fitting diameter of the tyre to be manufactured; b) depositing the loop on an annular portion of an annular outer surface of the service drum (107a, 107b); c) loading the annular anchoring structure onto the service drum (107a, 107b) in a radially outer position with respect to the loop by means of a loading/unloading device; d) radially expanding the service drum (107a, 107b) up to lock in position the annular anchoring structure; e) rotating the service drum (107a, 107b) about a longitudinal axis (X-X) thereof; f) during rotation of the service drum (107a, 107b), turning the loop up about the annular anchoring structure so as to form a reinforced annular anchoring structure; g) unloading the reinforced annular anchoring structure from the service drum (107a, 107b) by means of said loading/unloading device;
A method for reducing energy consumption of a base station, comprising: receiving, at the base station, instructions from a radio network controller to reduce energy consumption, wherein based on the instructions, the base station performs: transmitting a first pilot channel via a first antenna using a first downlink power amplifier; transmitting a second pilot channel via a second antenna using a second downlink power amplifier; determining that no multiple-input and multiple-output users are in a cell corresponding to the base station; shutting off the second pilot channel and the second downlink power amplifier; and transmitting only the first pilot channel via the first antenna using the first downlink power amplifier in response to shutting off the second pilot channel and the second downlink power amplifier. transmitting a first pilot channel via a first antenna using a first downlink power amplifier; transmitting a second pilot channel via a second antenna using a second downlink power amplifier; determining that no multiple-input and multiple-output users are in a cell corresponding to the base station; shutting off the second pilot channel and the second downlink power amplifier; and transmitting only the first pilot channel via the first antenna using the first downlink power amplifier in response to shutting off the second pilot channel and the second downlink power amplifier.
A non-aqueous electrolyte secondary battery comprising: a positive electrode containing positive electrode active material particles comprising a core section mostly or entirely composed of olivine type LiFePO 4 in which the molar concentration of Fe to P is from 0.95 to 1.05; an intermediate section that lies on the outer side of the core section and has a lithium iron phosphate represented by the formula: LiFe x P y O z; and a surface section that lies on the outer side of the intermediate section and has lithium iron phosphate represented by the formula: LiFe a P b O c; and a negative electrode containing lithium titanate, wherein the molar concentration ratio of Fe relative to P of the lithium iron phosphate at the core section is greater than the average of the ratio x/y of LiFe x P y O z; the average value of the ratio a/b of LiFe a P b O c at the surface section of the positive electrode active material particles is smaller than the average of the ratio x/y of LiFe x P y O z and wherein 0.1 ≤ a/b ≤ 0.5, and the positive electrode active material particles includes a region in which the ratio x/y of LiFe x P y O z at the intermediate section increases continuously or intermittently in the direction from the surface section toward the core section. a positive electrode containing positive electrode active material particles comprising a core section mostly or entirely composed of olivine type LiFePO 4 in which the molar concentration of Fe to P is from 0.95 to 1.05; an intermediate section that lies on the outer side of the core section and has a lithium iron phosphate represented by the formula: LiFe x P y O z; and a surface section that lies on the outer side of the intermediate section and has lithium iron phosphate represented by the formula: LiFe a P b O c; and a negative electrode containing lithium titanate, wherein the molar concentration ratio of Fe relative to P of the lithium iron phosphate at the core section is greater than the average of the ratio x/y of LiFe x P y O z; the average value of the ratio a/b of LiFe a P b O c at the surface section of the positive electrode active material particles is smaller than the average of the ratio x/y of LiFe x P y O z and wherein 0.1 ≤ a/b ≤ 0.5, and the positive electrode active material particles includes a region in which the ratio x/y of LiFe x P y O z at the intermediate section increases continuously or intermittently in the direction from the surface section toward the core section.