mhurhangee/ep-ind-claims huggingface dataset:
A vascular access device, comprising: a catheter adapter having an inlet port configured to connect the catheter adapter to an injector pump; and a catheter body (320, 420) extending from a distal end of the catheter adapter, the catheter body (320, 420) having a proximal end, a distal end, a lumen (322, 422) extending between the proximal and distal ends along a longitudinal axis of the catheter body (320, 420), and a distal lumen opening (342, 442), the lumen (322, 422) of the catheter body (320, 420) being in fluid communication with the inlet port, wherein the distal end of the catheter body (320, 420) includes a catheter tip (340, 440); characterized in that the catheter tip (340, 440) includes a splittable feature (350, 450) wherein the splittable feature (350, 450) includes a plurality of skive lines formed on an inner surface of the catheter tip (340, 440), wherein the plurality of skive lines divide the catheter tip (340, 440) into a plurality of adjacent fingers (343, 443), wherein the plurality of skive lines are defeated in response to increased pressure in the lumen (322, 422) during infusion, wherein in response to the plurality of skive lines being defeated, the plurality of adjacent fingers (343, 443) separate thereby enlarging an effective surface area of the distal lumen opening (342, 442) by providing a plurality of extended slits or tapered openings. a catheter adapter having an inlet port configured to connect the catheter adapter to an injector pump; and a catheter body (320, 420) extending from a distal end of the catheter adapter, the catheter body (320, 420) having a proximal end, a distal end, a lumen (322, 422) extending between the proximal and distal ends along a longitudinal axis of the catheter body (320, 420), and a distal lumen opening (342, 442), the lumen (322, 422) of the catheter body (320, 420) being in fluid communication with the inlet port, wherein the distal end of the catheter body (320, 420) includes a catheter tip (340, 440); characterized in that the catheter tip (340, 440) includes a splittable feature (350, 450) wherein the splittable feature (350, 450) includes a plurality of skive lines formed on an inner surface of the catheter tip (340, 440), wherein the plurality of skive lines divide the catheter tip (340, 440) into a plurality of adjacent fingers (343, 443), wherein the plurality of skive lines are defeated in response to increased pressure in the lumen (322, 422) during infusion, wherein in response to the plurality of skive lines being defeated, the plurality of adjacent fingers (343, 443) separate thereby enlarging an effective surface area of the distal lumen opening (342, 442) by providing a plurality of extended slits or tapered openings.
A method for producing a stepped forged material, characterised by comprising the steps of: obtaining a primary forged material, wherein an austenite stainless steel billet for forging is heated to 1000-1080°C, and, without any further heating, the material is forged into a round rod having a forging ratio of 1.5 or greater along the entire length of the material by means of reciprocal forging of repeating a forging operation in which the material is delivered from one end to the other end in the axial direction with respect to a forging apparatus and thereafter delivered in the opposite direction; obtaining a secondary forged material formed to have a large diameter flange portion and a small diameter shaft portion, wherein without reheating, forging is started at a temperature before a surface temperature of the primary forged material falls more than 200°C lower than the material heating temperature, and the small diameter shaft portion is formed by means of reciprocal forging of repeating a forging operation in which the primary forged material is delivered from one end in the axial direction to a predetermined position with respect to the forging apparatus and thereafter delivered in the opposite direction, and the forging is completed before a surface temperature of a final forged portion falls more than 300°C lower than the material heating temperature; and performing a solution heat treatment, wherein the secondary forged material is heated to 1040-1100°C for 30 minutes or longer. obtaining a primary forged material, wherein an austenite stainless steel billet for forging is heated to 1000-1080°C, and, without any further heating, the material is forged into a round rod having a forging ratio of 1.5 or greater along the entire length of the material by means of reciprocal forging of repeating a forging operation in which the material is delivered from one end to the other end in the axial direction with respect to a forging apparatus and thereafter delivered in the opposite direction; obtaining a secondary forged material formed to have a large diameter flange portion and a small diameter shaft portion, wherein without reheating, forging is started at a temperature before a surface temperature of the primary forged material falls more than 200°C lower than the material heating temperature, and the small diameter shaft portion is formed by means of reciprocal forging of repeating a forging operation in which the primary forged material is delivered from one end in the axial direction to a predetermined position with respect to the forging apparatus and thereafter delivered in the opposite direction, and the forging is completed before a surface temperature of a final forged portion falls more than 300°C lower than the material heating temperature; and performing a solution heat treatment, wherein the secondary forged material is heated to 1040-1100°C for 30 minutes or longer.
A control method for a series hybrid vehicle, wherein: - the vehicle includes a controller configured to perform control, - in the vehicle a drive wheel is driven by a travel motor using electric power of an electric power generation motor which is driven by power of an engine with a supercharger to generate the electric power, - the control method comprising: - a pre-detection step executed by the controller for determining whether or not an overflow torque exceeds a receivable torque and whether or not the engine is supercharged; and - a step executed by the controller for performing fuel cut of the engine based on the result of the pre-detection step, - the fuel cut is performed if the overflow torque exceeds the receivable torque and the engine is supercharged, - the overflow torque means an excess amount of a torque of the internal combustion engine over a drive engine torque of the electric power generation motor, and - the receivable torque means the drive engine torque of the electric power generation motor corresponding to system receivable electric power indicating an electric power reception margin of a series hybrid system provided in the series hybrid vehicle. - the vehicle includes a controller configured to perform control, - in the vehicle a drive wheel is driven by a travel motor using electric power of an electric power generation motor which is driven by power of an engine with a supercharger to generate the electric power, - the control method comprising: - a pre-detection step executed by the controller for determining whether or not an overflow torque exceeds a receivable torque and whether or not the engine is supercharged; and - a step executed by the controller for performing fuel cut of the engine based on the result of the pre-detection step, - a pre-detection step executed by the controller for determining whether or not an overflow torque exceeds a receivable torque and whether or not the engine is supercharged; and - a step executed by the controller for performing fuel cut of the engine based on the result of the pre-detection step, - the fuel cut is performed if the overflow torque exceeds the receivable torque and the engine is supercharged, - the overflow torque means an excess amount of a torque of the internal combustion engine over a drive engine torque of the electric power generation motor, and - the receivable torque means the drive engine torque of the electric power generation motor corresponding to system receivable electric power indicating an electric power reception margin of a series hybrid system provided in the series hybrid vehicle.
A method, comprising: identifying, by a first device, a container associated with a first home screen, the container containing content corresponding to an application; retrieving, by the first device, data describing a plurality of user interfaces of the application, each of the user interfaces being associated with a respective time, wherein the data references an extension of the application that is separate from the application; rendering, by the first device and based at least in part on the data, the plurality of the user interfaces in advance of the respective times associated with the user interfaces; determining, by the first device, that the first home screen is currently displayed; selecting, by the first device, a first rendered user interface from the plurality of the rendered user interfaces, wherein the respective time associated with the first rendered user interface corresponds to a current time; and displaying, by the first device, the selected first rendered user interface on the currently displayed first home screen. identifying, by a first device, a container associated with a first home screen, the container containing content corresponding to an application; retrieving, by the first device, data describing a plurality of user interfaces of the application, each of the user interfaces being associated with a respective time, wherein the data references an extension of the application that is separate from the application; rendering, by the first device and based at least in part on the data, the plurality of the user interfaces in advance of the respective times associated with the user interfaces; determining, by the first device, that the first home screen is currently displayed; selecting, by the first device, a first rendered user interface from the plurality of the rendered user interfaces, wherein the respective time associated with the first rendered user interface corresponds to a current time; and displaying, by the first device, the selected first rendered user interface on the currently displayed first home screen.
A system for producing a copolymer of isoprene comprising: (a) an isoprene starting composition derived from renewable resources; and (b) a polymer produced from at least a portion of the isoprene starting material; wherein at least a portion of the isoprene starting composition undergoes polymerization with another non-isoprene molecule to produce a copolymer, a) wherein the isoprene starting composition derived from renewable resources comprises greater than about 2 mg of isoprene and comprises one or more compounds selected from the group consisting of ethanol, acetone, C5 prenyl alcohols, and isoprenoid compounds with 10 or more carbon atoms; or b) wherein the isoprene starting composition derived from renewable resources comprises greater than about 2 mg of isoprene and comprises one or more second compounds selected from the group consisting of ethanol, acetone, methanol, acetaldehyde, methacrolein, methyl vinyl ketone, 2-methyl-2-vinyloxirane, cis- and trans-3 -methyl-1,3-pentadiene, a C5 prenyl alcohol, 2-heptanone, 6-methyl-5-hepten-2-one, 2,4,5-trimethylpyridine, 2,3,5-trimethylpyrazine, citronellal, acetaldehyde, methanethiol, methyl acetate, 1-propanol, diacetyl, 2-butanone, 2-methyl-3-buten-2-ol, ethyl acetate, 2-methyl-1-propanol, 3-methyl-1-butanal, 3-methyl-2-butanone, 1-butanol, 2-pentanone, 3-methyl-1-butanol, ethyl isobutyrate, 3-methyl-2-butenal, butyl acetate, 3-methylbutyl acetate, 3-methyl-3-buten-1-yl acetate, 3-methyl-2-buten-1-yl acetate, -3,7-dimethyl-1,3,6-octatriene, -3,7-dimethyl-1,3,6-octatriene, and 2,3-cycloheptenolpyridine. a) wherein the isoprene starting composition derived from renewable resources comprises greater than about 2 mg of isoprene and comprises one or more compounds selected from the group consisting of ethanol, acetone, C5 prenyl alcohols, and isoprenoid compounds with 10 or more carbon atoms; or b) wherein the isoprene starting composition derived from renewable resources comprises greater than about 2 mg of isoprene and comprises one or more second compounds selected from the group consisting of ethanol, acetone, methanol, acetaldehyde, methacrolein, methyl vinyl ketone, 2-methyl-2-vinyloxirane, cis- and trans-3 -methyl-1,3-pentadiene, a C5 prenyl alcohol, 2-heptanone, 6-methyl-5-hepten-2-one, 2,4,5-trimethylpyridine, 2,3,5-trimethylpyrazine, citronellal, acetaldehyde, methanethiol, methyl acetate, 1-propanol, diacetyl, 2-butanone, 2-methyl-3-buten-2-ol, ethyl acetate, 2-methyl-1-propanol, 3-methyl-1-butanal, 3-methyl-2-butanone, 1-butanol, 2-pentanone, 3-methyl-1-butanol, ethyl isobutyrate, 3-methyl-2-butenal, butyl acetate, 3-methylbutyl acetate, 3-methyl-3-buten-1-yl acetate, 3-methyl-2-buten-1-yl acetate, -3,7-dimethyl-1,3,6-octatriene, -3,7-dimethyl-1,3,6-octatriene, and 2,3-cycloheptenolpyridine.
A method comprising: switching a magnetometer sensor into a pre-calibration mode and, in the pre-calibration mode selectively pre-storing measurement data at the magnetometer sensor as pre-stored measurement data for use in subsequent calibration, wherein a configurable filter comprised in the magnetometer sensor is used to select measurement data for pre-storage; switching the magnetometer sensor into a calibration mode and, in the calibration mode, transferring the pre-stored measurement data from the magnetometer sensor to a processor of a host device to the magnetometer sensor which performs processing required for calibration using the pre-stored measurement data, wherein switching of the magnetometer sensor from the pre-calibration mode into the calibration mode is responsive to a change of an application, which uses measurement data from the magnetometer sensor, from a disabled state into an enabled state. switching a magnetometer sensor into a pre-calibration mode and, in the pre-calibration mode selectively pre-storing measurement data at the magnetometer sensor as pre-stored measurement data for use in subsequent calibration, wherein a configurable filter comprised in the magnetometer sensor is used to select measurement data for pre-storage; switching the magnetometer sensor into a calibration mode and, in the calibration mode, transferring the pre-stored measurement data from the magnetometer sensor to a processor of a host device to the magnetometer sensor which performs processing required for calibration using the pre-stored measurement data, wherein switching of the magnetometer sensor from the pre-calibration mode into the calibration mode is responsive to a change of an application, which uses measurement data from the magnetometer sensor, from a disabled state into an enabled state.
A pharmaceutical composition for use in the treatment of an inflammatory brain disease, comprising stem cell-derived exosomes as an active ingredient, wherein the stem cells are adult stem cells, and wherein the stem cells are treated with thrombin.
A composition comprising docosahexaenoic acid and arachidonic acid for use in compensating for hypercholesterolemia in a human subject, wherein the human subject is on a diet having between 25-40 wt% fat, 40-55 wt% carbohydrates and 10-20 wt % protein and wherein the composition is administered as a daily supplement to said diet.
Method for operating an apparatus for the provision of a braking force which acts on a printed sheet during a folding operation, the printed sheet being situated in a predefined position prior to the folding operation, pulses (114, 200) which trigger a braking force being directed onto the printed sheet counter to the acceleration of the printed sheet which occurs in the starting phase of the folding operation and/or counter to the fluttering movements which are formed during the infeed of the printed sheet, the pulses acting on at least one part of the printed sheet in an intermittent, homogeneous or oscillating manner, the pulses which trigger the braking force counter to the acceleration of the printed sheet which occurs in the starting phase of the folding operation and/or counter to the fluttering movements which are formed during the infeed of the printed sheet being triggered by a transverse removal brake, characterized in that the pulses which trigger the braking force are directed by way of a control unit which is operated by way of stored control profiles and/or using variable control profiles which result from the retrieved operating parameters.
A mounting arrangement for a display device, the mounting arrangement comprising a transparent cover arranged for receiving a display device against a rear face of the transparent cover so as to be visible through a front face of the transparent cover, and a retaining structure for holding the display device in place, the retaining structure comprising a chassis fixable in position relative to the cover, the chassis comprising at least one slot, the at least one slot defining at least one resilient finger, wherein the at least one resilient finger is arranged to extend alongside a rear face of the display device, a part of which bears against the rear face of the display device to resiliently urge the display device against the rear face of the transparent cover.
A sensor amplifier arrangement comprising: - an amplifier having a signal input to receive a sensor signal and a signal output to provide an amplified sensor signal (SOUT), and - a feedback path that couples the signal output to the signal input and comprises an anti-parallel circuit of diodes and a feedback amplifier, characterized in that the feedback path comprises - an offset signal source that is implemented as a voltage source, and - an adder comprising a first input, a second input coupled to the offset signal source, and an output, wherein the adder is realized as a summing circuit which sums up voltages at the first and the second input of the adder, wherein the feedback amplifier couples the signal output to the first input of the adder, and wherein the output of the adder is coupled to the signal input via the anti-parallel circuit of diodes. - an amplifier having a signal input to receive a sensor signal and a signal output to provide an amplified sensor signal (SOUT), and - a feedback path that couples the signal output to the signal input and comprises an anti-parallel circuit of diodes and a feedback amplifier, characterized in that the feedback path comprises - an offset signal source that is implemented as a voltage source, and - an adder comprising a first input, a second input coupled to the offset signal source, and an output, wherein the adder is realized as a summing circuit which sums up voltages at the first and the second input of the adder, wherein the feedback amplifier couples the signal output to the first input of the adder, and wherein the output of the adder is coupled to the signal input via the anti-parallel circuit of diodes.
A generator comprising: a rotor structure having a rotor frame supporting an isolated rotor circuit having exciter armature turns, a rectifier assembly, and a first and second bus bar (42, 44) electrically coupled to said rectifier assembly such that said first bus bar is a positive voltage bus bar and said second bus bar is a negative voltage bus bar; and a resistor electrically connecting said rotor circuit to said rotor frame. a rotor structure having a rotor frame supporting an isolated rotor circuit having exciter armature turns, a rectifier assembly, and a first and second bus bar (42, 44) electrically coupled to said rectifier assembly such that said first bus bar is a positive voltage bus bar and said second bus bar is a negative voltage bus bar; and a resistor electrically connecting said rotor circuit to said rotor frame.
A dough moulder including: (a) a dough curling portion including a conveyor and a curling mat; (b) at least one pair of first sheeting rollers (1, 5) defining a dough path to the conveyor; and (c) an inlet for receiving dough from an operator located at an operator dough feeding position; at least one pair of second sheeting rollers (6, 7) defining a dough path from the inlet to an outlet proximal the operator dough feeding position; a diverter movable between a position to allow dough to be fed to the pair of second sheeting rollers or exclusively to the pair of first sheeting rollers (1, 5) characterised as further comprising a sheeting attachment pivotally mounted on bearings to pivot relative to the dough curling portion of the dough moulder about a pivot axis coincidental with one of the pair of first sheeting rollers (1, 5), the sheeting attachment including an annexe structure, a guard, the said at least one pair of second sheeting rollers (6, 7), the said diverter, and a wall, wherein the pair of second sheeting rollers (6, 7) being mechanically driven by one of the first sheeting rollers (1, 5) wherein the drive roller is the axis for said pivotal rotation. (a) a dough curling portion including a conveyor and a curling mat; (b) at least one pair of first sheeting rollers (1, 5) defining a dough path to the conveyor; and (c) an inlet for receiving dough from an operator located at an operator dough feeding position;
A radio frequency, RF, communication system comprising: a phase-locked loop, PLL, (81, 101, 151) configured to generate one or more output clock signals (CLK OUT, LO I, LO Q); characterized by a sampling circuit (91, 111, 141) configured to generate a plurality of samples by sampling the one or more output clock signals based on timing of a reference clock signal (CLK REF); a phase difference calculation circuit (93, 113, 143, 313) configured to generate a phase difference signal (ΔΦ) based on the plurality of samples and a tracking digital phase signal (Φ T) representing a phase of the one or more output clock signals; and a phase adjustment control circuit (95, 115, 175, 315, 415) configured to provide a phase adjustment to the PLL based on the phase difference signal, wherein the PLL is configured to adjust the one or more output clock signals based on the phase adjustment so as to synchronize the phase of the one or more output clock signals to a desired phase with respect to the reference clock signal. a phase-locked loop, PLL, (81, 101, 151) configured to generate one or more output clock signals (CLK OUT, LO I, LO Q); characterized by a sampling circuit (91, 111, 141) configured to generate a plurality of samples by sampling the one or more output clock signals based on timing of a reference clock signal (CLK REF); a phase difference calculation circuit (93, 113, 143, 313) configured to generate a phase difference signal (ΔΦ) based on the plurality of samples and a tracking digital phase signal (Φ T) representing a phase of the one or more output clock signals; and a phase adjustment control circuit (95, 115, 175, 315, 415) configured to provide a phase adjustment to the PLL based on the phase difference signal, wherein the PLL is configured to adjust the one or more output clock signals based on the phase adjustment so as to synchronize the phase of the one or more output clock signals to a desired phase with respect to the reference clock signal.