mhurhangee/ep-ind-claims huggingface dataset:
A power supply unit for an aerosol inhaler comprising: a power supply configured to supply power to a load that atomizes an aerosol source; a temperature sensor configured to acquire a temperature of the power supply; a controller configured to control at least one of charging of the power supply and discharging to the load based on an output of the temperature sensor; and a circuit board on which a plurality of elements including the controller are mounted, characterized in that the temperature sensor is mounted on the circuit board, the circuit board includes a first surface and a second surface which is a reverse surface from the first surface or is located on a side opposite from the first surface, the plurality of elements are mounted on each of the first surface and the second surface, the second surface faces the power supply, and / or the second surface is arranged closer to the power supply than the first surface, the temperature sensor is mounted on the second surface, and the controller is mounted on the first surface. a power supply configured to supply power to a load that atomizes an aerosol source; a temperature sensor configured to acquire a temperature of the power supply; a controller configured to control at least one of charging of the power supply and discharging to the load based on an output of the temperature sensor; and a circuit board on which a plurality of elements including the controller are mounted, characterized in that the temperature sensor is mounted on the circuit board, the circuit board includes a first surface and a second surface which is a reverse surface from the first surface or is located on a side opposite from the first surface, the plurality of elements are mounted on each of the first surface and the second surface, the second surface faces the power supply, and / or the second surface is arranged closer to the power supply than the first surface, the temperature sensor is mounted on the second surface, and the controller is mounted on the first surface.
Process for the production of thin-walled small plastics parts with an average wall thickness below 1.5mm, characterized in that the small plastics parts are produced in a plastics injection-moulding process from polyethylene furanoate with a viscosity from 0.4 dl/g to 0.7 dl/g, preferably below 0.6 dl/g, measured by a method in accordance with ASTM D4603, the water content of the said PEF on injection-moulding of the plastic being less than 100 ppm, preferably less than 30 ppm.
A radio communication terminal apparatus for transmitting an aperiodic sounding reference signal, A-SRS, comprising: a receiver adapted to receive control information including a transmission request for the A-SRS and a transmission power control command, TPC command, for the A-SRS, a controller adapted to control a transmission power value of the A-SRS using a first accumulation value updated with the received TPC command; and a transmitter adapted to transmit the A-SRS with said transmission power value, wherein the controller is further adapted to use a second accumulation value instead of the first accumulation value, the second accumulation value being updated with a TPC command transmitted on a specific subframe and in a specific downlink control information DCI format. a receiver adapted to receive control information including a transmission request for the A-SRS and a transmission power control command, TPC command, for the A-SRS, a controller adapted to control a transmission power value of the A-SRS using a first accumulation value updated with the received TPC command; and a transmitter adapted to transmit the A-SRS with said transmission power value, wherein the controller is further adapted to use a second accumulation value instead of the first accumulation value, the second accumulation value being updated with a TPC command transmitted on a specific subframe and in a specific downlink control information DCI format.
A multi-motor actuator and controller for a surgical robotic tool, comprising: an output coupling configured to be coupled to a surgical tool; a first input coupling and a second input coupling each coupled to drive the output coupling through a transmission; a first motor having a drive coupling coupled to drive the first input coupling in accordance with a first motor input command; a second motor having a drive coupling coupled to drive the second input coupling in accordance with a second motor input command; and a controller configured to determine a position error based on a difference between i) a position input command and ii) a position feedback, wherein the position feedback is from the first input coupling, the second input coupling, or the output coupling, and wherein the controller is configured to: a) produce the first motor input command based on the position error and in accordance with a position control law, and b) produce the second motor input command based on the position error and in accordance with an impedance control law using a second velocity variable that is obtained from i) the position input command or ii) as feedback from one of the first input coupling, the second input coupling, or the output coupling. an output coupling configured to be coupled to a surgical tool; a first input coupling and a second input coupling each coupled to drive the output coupling through a transmission; a first motor having a drive coupling coupled to drive the first input coupling in accordance with a first motor input command; a second motor having a drive coupling coupled to drive the second input coupling in accordance with a second motor input command; and a controller configured to determine a position error based on a difference between i) a position input command and ii) a position feedback, wherein the position feedback is from the first input coupling, the second input coupling, or the output coupling, and wherein the controller is configured to: a) produce the first motor input command based on the position error and in accordance with a position control law, and b) produce the second motor input command based on the position error and in accordance with an impedance control law using a second velocity variable that is obtained from i) the position input command or ii) as feedback from one of the first input coupling, the second input coupling, or the output coupling. a) produce the first motor input command based on the position error and in accordance with a position control law, and b) produce the second motor input command based on the position error and in accordance with an impedance control law using a second velocity variable that is obtained from i) the position input command or ii) as feedback from one of the first input coupling, the second input coupling, or the output coupling.
An automatic crankshaft homing device having speed adjusting function, comprising the following components installed in a base: a crankshaft; a cam installed on the crankshaft and having a push path; a slider accepting the push path action of the cam and configured to slide along a movement path from a first position towards a second position; a resilient component configured to return the slider from the second position to the first position; at least one first rack (41, 410) installed on the slider; at least one damper having a second rack, wherein the damper comprises an energy medium input/output component; the input/output component is further provided with a flow adjustment valve; the flow adjustment valve controls the flow of a medium that is sucked and discharged by the damper, and adjusts the push out speed produced by the second rack, wherein the damper stores energy through the moving action of the second rack, and the stored energy can provide a push out action through the second rack; and at least one gear set connected between the first rack and the second rack to make the second rack relatively enlarge the movement of the first rack. a crankshaft; a cam installed on the crankshaft and having a push path; a slider accepting the push path action of the cam and configured to slide along a movement path from a first position towards a second position; a resilient component configured to return the slider from the second position to the first position; at least one first rack (41, 410) installed on the slider; at least one damper having a second rack, wherein the damper comprises an energy medium input/output component; the input/output component is further provided with a flow adjustment valve; the flow adjustment valve controls the flow of a medium that is sucked and discharged by the damper, and adjusts the push out speed produced by the second rack, wherein the damper stores energy through the moving action of the second rack, and the stored energy can provide a push out action through the second rack; and at least one gear set connected between the first rack and the second rack to make the second rack relatively enlarge the movement of the first rack.
A copolymer/clay nanocomposite materials, comprising a copolymer of at least two monomers selected from the group consisting of butadiene, isoprene and styrene and a clay mineral dispersed therein, wherein said copolymer has a number-average molecular weight of from 1×10 4 to 60×10 4, a content of 1,2-structure and/or 3,4-structure of from 5 to 100% by weight, a content of 1,4-structure of from 95 to 0% by weight and a content of said clay mineral of from 0.5 to 50 parts by weight per 100 parts by weight of said copolymer.
A method of producing an organic acid salt of 4'-epi-daunorubicin or a hydrate or solvate thereof, comprising a step of mixing 4'-epi-daunorubicin of the following formula: with an organic acid in a solvent to form an organic acid salt of 4'-epi-daunorubicin of the following formula: wherein HA represents an organic acid, or a hydrate or solvate thereof, wherein the organic acid salt of 4'-epi-daunorubicin is selected from an oxalate, a benzenesulfonate, and a p-toluenesulfonate. wherein HA represents an organic acid, or a hydrate or solvate thereof, wherein the organic acid salt of 4'-epi-daunorubicin is selected from an oxalate, a benzenesulfonate, and a p-toluenesulfonate.
An apparatus for M2M service layer non-group based somecast for which no group information is explicitly specified, the apparatus comprising: a processor; and a memory (44, 46) coupled with the processor, the memory comprising executable instructions that when executed by the processor cause the processor to effectuate operations comprising: receiving a first request message comprising instructions to somecast using an M2M service layer; determining a subset of target nodes (133, 134) to perform an operation, wherein the determining the subset of target nodes is based on selection criteria received in the first request message, wherein the selection criteria comprise at least an indication of a physical location within which target nodes that can perform the operation are located; and sending a second request message to the subset of target nodes to perform the operation. a processor; and a memory (44, 46) coupled with the processor, the memory comprising executable instructions that when executed by the processor cause the processor to effectuate operations comprising: receiving a first request message comprising instructions to somecast using an M2M service layer; determining a subset of target nodes (133, 134) to perform an operation, wherein the determining the subset of target nodes is based on selection criteria received in the first request message, wherein the selection criteria comprise at least an indication of a physical location within which target nodes that can perform the operation are located; and sending a second request message to the subset of target nodes to perform the operation. receiving a first request message comprising instructions to somecast using an M2M service layer; determining a subset of target nodes (133, 134) to perform an operation, wherein the determining the subset of target nodes is based on selection criteria received in the first request message, wherein the selection criteria comprise at least an indication of a physical location within which target nodes that can perform the operation are located; and sending a second request message to the subset of target nodes to perform the operation.
A method of correcting wellbore positional errors, comprising: measuring an attitude responsive to survey information obtained at each of two adjacent survey stations along a wellbore using a downhole surveying tool, wherein each attitude comprises a direction vector associated with a measured depth of the borehole, and is based upon an inclination and an azimuth corresponding to the measured depth for each survey station; determining an actual change in wellbore position responsive to survey information obtained over a survey leg linking the two survey stations; and applying corrections to the measured attitude at one or both of the survey stations such that a modeled well path joining the survey stations reflects the determined actual change in wellbore position between the two survey stations, wherein the modeled well path joining the two survey stations is a circular arc computed by a minimum curvature method. measuring an attitude responsive to survey information obtained at each of two adjacent survey stations along a wellbore using a downhole surveying tool, wherein each attitude comprises a direction vector associated with a measured depth of the borehole, and is based upon an inclination and an azimuth corresponding to the measured depth for each survey station; determining an actual change in wellbore position responsive to survey information obtained over a survey leg linking the two survey stations; and applying corrections to the measured attitude at one or both of the survey stations such that a modeled well path joining the survey stations reflects the determined actual change in wellbore position between the two survey stations, wherein the modeled well path joining the two survey stations is a circular arc computed by a minimum curvature method.
A polymer composition comprising: a polymer comprising a lactic acid block and an aliphatic polyester block, polymer having a structure of: wherein G 1 and G 2 are independently x, R is an alkyl group or H, and x is an integer ranging between 1 and 10; wherein y is an integer ranging between about 50 and about 500; wherein z is an integer ranging between about 100 and about 600; wherein n is an integer ranging between about 5 and about 10,000; wherein X is H, a functionalized alkylene polymer block containing alcohol functional groups, or a mixture thereof; and wherein Y is H, an acyl group, a functionalized alkylene polymer containing carboxylic acid functional groups, or a mixture thereof. wherein G 1 and G 2 are independently x, R is an alkyl group or H, and x is an integer ranging between 1 and 10; wherein y is an integer ranging between about 50 and about 500; wherein z is an integer ranging between about 100 and about 600; wherein n is an integer ranging between about 5 and about 10,000; wherein X is H, a functionalized alkylene polymer block containing alcohol functional groups, or a mixture thereof; and wherein Y is H, an acyl group, a functionalized alkylene polymer containing carboxylic acid functional groups, or a mixture thereof.
A Zn-Mg alloy plated steel material comprising: a base steel material; and first to third Zn-Mg alloy layers sequentially disposed on the base steel material, wherein the first to third Zn-Mg alloy layers have a Zn single phase, a Mg single phase, a MgZn 2 alloy phase, and a Mg 2 Zn 11 alloy phase, an area ratio of the MgZn 2 alloy phase, comprised in the first to third Zn-Mg alloy layers, is greater than an area ratio of the Mg 2 Zn 11 alloy phase comprised in the first to third Zn-Mg alloy layers, and an area ratio of a MgZn 2 alloy phase, comprised in each of the first and third Zn-Mg alloy layers, is greater than an area ratio of the MgZn 2 alloy phase comprised in the second Zn-Mg alloy layer. a base steel material; and first to third Zn-Mg alloy layers sequentially disposed on the base steel material, wherein the first to third Zn-Mg alloy layers have a Zn single phase, a Mg single phase, a MgZn 2 alloy phase, and a Mg 2 Zn 11 alloy phase, an area ratio of the MgZn 2 alloy phase, comprised in the first to third Zn-Mg alloy layers, is greater than an area ratio of the Mg 2 Zn 11 alloy phase comprised in the first to third Zn-Mg alloy layers, and an area ratio of a MgZn 2 alloy phase, comprised in each of the first and third Zn-Mg alloy layers, is greater than an area ratio of the MgZn 2 alloy phase comprised in the second Zn-Mg alloy layer.
A process for making 2,3,3,3-tetrafluoropropene, comprising: dehydrochlorinating 1,1,1,2-tetrafluoro-2-chloropropane in the presence of a catalytically effective amount of a catalyst composition represented by the following: n wt.% MX/M'O y F z wherein 0<y<1 and 0<z<2 and wherein y + z/2 = 1; wherein M is an alkali metal ion selected from the group consisting of Li +, Na +, K +, Rb +, and Cs +; X is a halogen ion selected from the group consisting of F -, Cl -, Br -, and l -; M' is a bivalent metal ion; wherein n is a weight percentage of 0.05% to 50% MX based on the total weight of the MX and M'O y F z; and wherein y and z are the mole fractions of oxygen and fluorine in M'O y F z, respectively.
Decapper for removing a cap from a laboratory sample container, wherein the decapper comprises - a cap gripper comprising at least two gripping jaws, wherein at least one of the at least two gripping jaws is displaceable between a holding position and a release position in a radial direction, wherein in the holding position the at least two gripping jaws hold the cap and wherein in the release position the cap is released by the at least two gripping jaws, and characterized in that - at least one of the at least two gripping jaws comprises a blade, wherein the blade is adapted to cut into the cap, and - the decapper comprises - a guidance, wherein the guidance is adapted to limit a movement of the cap in the radial direction caused by the displacement of the one gripping jaw from its holding position into its release position and wherein the guidance is embodied separate from the gripping jaws, - wherein the guidance comprises at least two guidance elements, wherein the at least two guidance elements are arranged in the radial direction opposite to each other such that they surround the held cap on opposite sides. - a cap gripper comprising at least two gripping jaws, wherein at least one of the at least two gripping jaws is displaceable between a holding position and a release position in a radial direction, wherein in the holding position the at least two gripping jaws hold the cap and wherein in the release position the cap is released by the at least two gripping jaws, and characterized in that - at least one of the at least two gripping jaws comprises a blade, wherein the blade is adapted to cut into the cap, and - the decapper comprises - a guidance, wherein the guidance is adapted to limit a movement of the cap in the radial direction caused by the displacement of the one gripping jaw from its holding position into its release position and wherein the guidance is embodied separate from the gripping jaws, - wherein the guidance comprises at least two guidance elements, wherein the at least two guidance elements are arranged in the radial direction opposite to each other such that they surround the held cap on opposite sides.
A system comprising a user token device and an injection pen (50,65,70) configured to allow user replacement of a medicament cartridge, wherein: the user token device comprises a memory configured to store information relating to at least one medicament pertaining to a user, wherein said information includes identification of one or more permitted cartridge type, the injection pen (50,65,70) and the user token device are configured to communicate wirelessly in at least a unidirectional fashion, and wherein the user token device is configured to transmit information identifying a permitted cartridge type to the injection pen (50,65,70), and the injection pen (50,65,70) comprises a cartridge size adjuster (61,67), wherein the cartridge size adjuster (61,67) is adjustable to accommodate a cartridge of the permitted cartridge type, and wherein the injection pen (50,65,70) is configured to prevent use of a cartridge other than a cartridge of the permitted cartridge type transmitted by the user token device in accordance with the information relating to the at least one medicament pertaining to the user stored in the user token device. the user token device comprises a memory configured to store information relating to at least one medicament pertaining to a user, wherein said information includes identification of one or more permitted cartridge type, the injection pen (50,65,70) and the user token device are configured to communicate wirelessly in at least a unidirectional fashion, and wherein the user token device is configured to transmit information identifying a permitted cartridge type to the injection pen (50,65,70), and the injection pen (50,65,70) comprises a cartridge size adjuster (61,67), wherein the cartridge size adjuster (61,67) is adjustable to accommodate a cartridge of the permitted cartridge type, and wherein the injection pen (50,65,70) is configured to prevent use of a cartridge other than a cartridge of the permitted cartridge type transmitted by the user token device in accordance with the information relating to the at least one medicament pertaining to the user stored in the user token device.
A mouthpiece (202, 302, 402, 502) for a smoking article, the mouthpiece comprising: a portion including a rigid tube (203, 303, 403, 503) having an outer circumference; and a tipping wrap (220, 320, 420, 504) including a length; where the tipping wrap comprises a two-layer tipping wrap that is transversely wrapped around the outer circumference of the mouthpiece portion to form at least a double layer including a lower/inner cushioning layer having a first thickness and an upper/outer layer having a second thickness less than the first thickness, where the double layer includes more flexibility than the rigid tube. a portion including a rigid tube (203, 303, 403, 503) having an outer circumference; and a tipping wrap (220, 320, 420, 504) including a length; where the tipping wrap comprises a two-layer tipping wrap that is transversely wrapped around the outer circumference of the mouthpiece portion to form at least a double layer including a lower/inner cushioning layer having a first thickness and an upper/outer layer having a second thickness less than the first thickness, where the double layer includes more flexibility than the rigid tube.
Hybrid module for a motor vehicle for the coupling of an internal combustion engine, having a separating clutch by means of which the internal combustion engine can be separated from a drivetrain of the motor vehicle and by means of which torque can be imparted to the drivetrain by the internal combustion engine, having an electric motor which, for torque transmission, is connectable by means of a main clutch to the drivetrain, wherein a separating clutch actuation system is used for effecting an actuation of the separating clutch, and a main clutch actuation system is used for effecting an actuation of the main clutch, characterized in that both actuation systems (5, 6) are arranged between the separating clutch and the main clutch.