mhurhangee/patent-ind-claim-en huggingface dataset:
An induction heat cooking apparatus comprising: a rectifier configured to convert an AC voltage supplied from an external power source into a DC voltage; an inverter configured to receive the voltage from the rectifier to supply current to heating coils ; the heating coils configured to generate magnetic fields when the current flows by the inverter ; a resonance capacitor comprising a plurality of capacitors connected to each other and connected to DC terminals to which the DC voltage is outputted from the rectifier ; characterized by a wireless power transfer, WPT, capacitor connected in parallel to the resonance capacitor ; and a mode conversion switch configured to be connected between the resonance capacitor and the WPT capacitor , wherein the mode conversion switch is configured to be opened in a cooking device heating mode and closed in a wireless power transfer mode. a rectifier configured to convert an AC voltage supplied from an external power source into a DC voltage; an inverter configured to receive the voltage from the rectifier to supply current to heating coils ; the heating coils configured to generate magnetic fields when the current flows by the inverter ; a resonance capacitor comprising a plurality of capacitors connected to each other and connected to DC terminals to which the DC voltage is outputted from the rectifier ; characterized by a wireless power transfer, WPT, capacitor connected in parallel to the resonance capacitor ; and a mode conversion switch configured to be connected between the resonance capacitor and the WPT capacitor , wherein the mode conversion switch is configured to be opened in a cooking device heating mode and closed in a wireless power transfer mode.
An ethylene-based polymer comprising the following properties: a) a melt index ≥ 2.0 dg/min; b) a G' (at G" = 500 Pa, 170°C) versus I2 relationship: G' ≥ C + D(I2), where C = 127.5 Pa, and D = -1.25 Pa/(dg/min); c) a chloroform extractable (Clext) versus G' relationship: Clext. ≤ E + FG', where E = 0.20 wt%, and F = 0.060 wt% / Pa; and d) a "weight fraction (w) of molecular weight greater than 10 6 g/mole, based on the total weight of polymer, and as determined by GPC(abs)," that meets the following relationship: w < I + J(I2), where I = 0.080, and J = -4.00 x 10 -3 min/dg. a) a melt index ≥ 2.0 dg/min; b) a G' (at G" = 500 Pa, 170°C) versus I2 relationship: G' ≥ C + D(I2), where C = 127.5 Pa, and D = -1.25 Pa/(dg/min); c) a chloroform extractable (Clext) versus G' relationship: Clext. ≤ E + FG', where E = 0.20 wt%, and F = 0.060 wt% / Pa; and d) a "weight fraction (w) of molecular weight greater than 10 6 g/mole, based on the total weight of polymer, and as determined by GPC(abs)," that meets the following relationship: w < I + J(I2), where I = 0.080, and J = -4.00 x 10 -3 min/dg.
An antigenic composition comprising either: (i) a first mycobacterial antigenic polypeptide, wherein said first mycobacterial antigenic polypeptide comprises a polypeptide sequence having at least 90% amino acid sequence identity to the amino acid sequence of SEQ ID NO: 8 or a fragment thereof having at least 150 consecutive amino acids thereof, wherein said fragment has a common antigenic cross-reactivity with the polypeptide of SEQ ID NO: 8; or (ii) a first mycobacterial polynucleotide, wherein said first mycobacterial polynucleotide comprises a polynucleotide sequence encoding said first mycobacterial antigenic polypeptide, or wherein said first mycobacterial polynucleotide comprises the polynucleotide sequence of SEQ ID NO: 7; wherein said antigenic composition is for use in treating, suppressing or preventing a mycobacterial infection in a subject. (i) a first mycobacterial antigenic polypeptide, wherein said first mycobacterial antigenic polypeptide comprises a polypeptide sequence having at least 90% amino acid sequence identity to the amino acid sequence of SEQ ID NO: 8 or a fragment thereof having at least 150 consecutive amino acids thereof, wherein said fragment has a common antigenic cross-reactivity with the polypeptide of SEQ ID NO: 8; or (ii) a first mycobacterial polynucleotide, wherein said first mycobacterial polynucleotide comprises a polynucleotide sequence encoding said first mycobacterial antigenic polypeptide, or wherein said first mycobacterial polynucleotide comprises the polynucleotide sequence of SEQ ID NO: 7;
A tire having a chafer structure for enhancing bead endurance, the tire comprising: a carcass having waved carcass cords ; and a steel chafer covering the carcass and having a plurality of waved chafer cords wherein the main extending direction of the waved chafer cords is perpendicular to a longitudinal direction of the carcass cords . a carcass having waved carcass cords ; and a steel chafer covering the carcass and having a plurality of waved chafer cords wherein the main extending direction of the waved chafer cords is perpendicular to a longitudinal direction of the carcass cords .
Apparatus for spectral analysis of a sample , comprising: delivery optics arranged to direct probe light to a delivery region of a sample ; wherein the sample is a solid pharmaceutical dosage form; collection optics separate from the delivery optics , arranged to collect probe light scattered from a collection region of the sample ; and a spectrometer having an entrance port , the spectrometer being arranged to receive the scattered light collected and processed by the collection optics at the entrance port of the spectrometer , and to detect spectral features in the received probe light; an analyser arranged to receive, analyse and process the spectral features from the spectrometer, so as to determine one or more properties of the solid pharmaceutical dosage form; wherein the collection optics comprise Koehler integration optics arranged to collect and process the scattered light, wherein the collection optics comprises a bundle of optical fibres having an entry face arranged to receive the collected probe light following processing by the Koehler integration optics , and an exit face arranged to deliver the collected probe light to the entrance port of the spectrometer ; whereby the Koehler integration optics collect and process the scattered light such that scattered light from each point of the collection region is collected and processed so as to be distributed across the entry face of the bundle of optical fibres and consequently distributed across the entrance port of the spectrometer ; and wherein the collection region is on an opposite side of the sample from the delivery region . delivery optics arranged to direct probe light to a delivery region of a sample ; wherein the sample is a solid pharmaceutical dosage form; collection optics separate from the delivery optics , arranged to collect probe light scattered from a collection region of the sample ; and a spectrometer having an entrance port , the spectrometer being arranged to receive the scattered light collected and processed by the collection optics at the entrance port of the spectrometer , and to detect spectral features in the received probe light; an analyser arranged to receive, analyse and process the spectral features from the spectrometer, so as to determine one or more properties of the solid pharmaceutical dosage form; wherein the collection optics comprise Koehler integration optics arranged to collect and process the scattered light, wherein the collection optics comprises a bundle of optical fibres having an entry face arranged to receive the collected probe light following processing by the Koehler integration optics , and an exit face arranged to deliver the collected probe light to the entrance port of the spectrometer ; whereby the Koehler integration optics collect and process the scattered light such that scattered light from each point of the collection region is collected and processed so as to be distributed across the entry face of the bundle of optical fibres and consequently distributed across the entrance port of the spectrometer ; and wherein the collection region is on an opposite side of the sample from the delivery region .
Power take-off arrangement for a transmission of a motor vehicle , which transmission has a torque converter , with a drive shaft which is configured to be connected permanently to a drive engine of the motor vehicle via a pump shaft of the torque converter , and a transmission chain which consists at least of a drive element and an output element and the output element of which is configured to be connected to a supplementary unit to be driven, and with a shifting element which is arranged so as to act between the drive shaft and the drive element of the transmission chain for the selective connection of the drive shaft to the drive element , characterized in that the actuation of the shifting element takes place hydraulically, a supply of the hydraulic liquid to the shifting element through the drive shaft being provided, the shifting element being configured to be connected hydraulically to a control device of the transmission of the motor vehicle .
Wind turbine including a main shaft rotatable around a rotation axis (Y), the main shaft comprising: - a first piece axially extending along the rotation axis (Y) and comprising a first flange , - at least a second piece axially extending along the rotation axis (Y) and comprising a second flange , the second piece being axially adjacent to the first piece , - a plurality of connections for fixing the second piece to the first piece , characterised in that the plurality of connections are applied to the first flange and/or to the second flange , and wherein one of the first flange and the second flange extends from a circumferential wall of the respective first piece or second piece radially outward with respect to the rotation axis (Y) and the other of the first flange and the second flange extends from a circumferential wall of the respective first piece or second piece radially inward with respect to the rotation axis (Y). - a first piece axially extending along the rotation axis (Y) and comprising a first flange , - at least a second piece axially extending along the rotation axis (Y) and comprising a second flange , the second piece being axially adjacent to the first piece , - a plurality of connections for fixing the second piece to the first piece ,
A conjugate comprising an anti-EGFR1 antibody or an EGFR1 binding fragment thereof and at least one dextran derivative, wherein the dextran derivative comprises at least one D-glucopyranosyl unit, wherein at least one carbon selected from carbon 2, 3 or 4 of the at least one D-glucopyranosyl unit is substituted by a substituent of the formula -O-(CH 2 ) n -S-B 12 H 11 2- wherein n is in the range of 3 to 10; and the dextran derivative is bound to the anti-EGFR1 antibody or an EGFR1 binding fragment thereof via a bond formed by a reaction between at least one aldehyde group formed by oxidative cleavage of a D-glucopyranosyl unit of the dextran derivative and an amino group of the anti-EGFR1 antibody or an EGFR1 binding fragment thereof. wherein n is in the range of 3 to 10; and the dextran derivative is bound to the anti-EGFR1 antibody or an EGFR1 binding fragment thereof via a bond formed by a reaction between at least one aldehyde group formed by oxidative cleavage of a D-glucopyranosyl unit of the dextran derivative and an amino group of the anti-EGFR1 antibody or an EGFR1 binding fragment thereof.
An article of footwear comprising a knitted component forming an upper of the article of footwear and having a support structure for the article of footwear , the support structure comprising an arch support , the arch support comprising: a) a first section formed from a fusible yarn and being disposed adjacent to an external surface of the article of footwear ; b) a second section formed from a bulking yarn and disposed adjacent to the first section ; and c) a third section formed from a nonfusible yarn and being disposed adjacent to an internal surface of the article of footwear ; wherein the fusible yarn is relatively rigid, as compared to the nonfusible yarn, and wherein the second section is disposed between the first section and the third section , the article of footwear being characterized in that the arch support is divided into compartments. a) a first section formed from a fusible yarn and being disposed adjacent to an external surface of the article of footwear ; b) a second section formed from a bulking yarn and disposed adjacent to the first section ; and c) a third section formed from a nonfusible yarn and being disposed adjacent to an internal surface of the article of footwear ; wherein the fusible yarn is relatively rigid, as compared to the nonfusible yarn, and wherein the second section is disposed between the first section and the third section , the article of footwear being characterized in that the arch support is divided into compartments. wherein the fusible yarn is relatively rigid, as compared to the nonfusible yarn, and wherein the second section is disposed between the first section and the third section , the article of footwear being characterized in that the arch support is divided into compartments.
Discharge head for a liquid dispenser , with the following features: a. the discharge head has a housing , and b. the discharge head has a coupling device for attachment to a liquid store , and c. the discharge head has a discharge opening through which liquid is able to be dispensed into a surrounding atmosphere, and d. the discharge head has an outlet channel which extends from an inlet region , pointing in the direction of the liquid store , up to the discharge opening and by means of which the discharge opening is able to be supplied with liquid, and e. the discharge head has, in the outlet channel , a throttle device with a throttle channel (50; 60; 70) for the reduction in the liquid pressure and/or the liquid flow of the liquid flowing through the throttle device , characterized by the following features: f. the throttle device is designed in the form of a dynamic throttle device , in which a free cross section of the throttle channel (50; 60; 70) is reduced in size with increasing pressure prevailing at the throttle device , or with greater liquid flow flowing through the throttle device , and g. the throttle channel (50; 60; 70) is delimited, at least in sections, by an inner side of a channel wall whose position is able to be varied by displacement or deformation. a. the discharge head has a housing , and b. the discharge head has a coupling device for attachment to a liquid store , and c. the discharge head has a discharge opening through which liquid is able to be dispensed into a surrounding atmosphere, and d. the discharge head has an outlet channel which extends from an inlet region , pointing in the direction of the liquid store , up to the discharge opening and by means of which the discharge opening is able to be supplied with liquid, and e. the discharge head has, in the outlet channel , a throttle device with a throttle channel (50; 60; 70) for the reduction in the liquid pressure and/or the liquid flow of the liquid flowing through the throttle device , f. the throttle device is designed in the form of a dynamic throttle device , in which a free cross section of the throttle channel (50; 60; 70) is reduced in size with increasing pressure prevailing at the throttle device , or with greater liquid flow flowing through the throttle device , and g. the throttle channel (50; 60; 70) is delimited, at least in sections, by an inner side of a channel wall whose position is able to be varied by displacement or deformation.
A packaging film characterized in that : the packaging film, in which an inner layer contains a linear low-density polyethylene in an amount of more than 40% by mass and no more than 90% by mass and the low-density polyethylene or the high-density polyethylene; does not contain any leachable components; and has at least 0.920 g/cm 3 density and at least 50 μm thickness; a first adhesive layer which contains antioxidants and has less than 30 μm thickness; a gas barrier layer which has less than 30 μm thickness, and is selected from an ethylene-vinyl alcohol copolymer resin, polyethylene terephthalate, polyamide, a cycloolefin homopolymer and a cycloolefin copolymer; a second adhesive layer which contains antioxidants and has less than 30 μm thickness; and an outer layer, and the laminated inner layer, the laminated first adhesive layer, the laminated gas barrier layer, the laminated second adhesive layer and the laminated outer layer are provided in that order. the packaging film, in which an inner layer contains a linear low-density polyethylene in an amount of more than 40% by mass and no more than 90% by mass and the low-density polyethylene or the high-density polyethylene; does not contain any leachable components; and has at least 0.920 g/cm 3 density and at least 50 μm thickness; a first adhesive layer which contains antioxidants and has less than 30 μm thickness; a gas barrier layer which has less than 30 μm thickness, and is selected from an ethylene-vinyl alcohol copolymer resin, polyethylene terephthalate, polyamide, a cycloolefin homopolymer and a cycloolefin copolymer; a second adhesive layer which contains antioxidants and has less than 30 μm thickness; and an outer layer, and the laminated inner layer, the laminated first adhesive layer, the laminated gas barrier layer, the laminated second adhesive layer and the laminated outer layer are provided in that order.
At least one OX1R antagonist for use in the treatment of cancer in subject in need thereof.
Open roof construction for a vehicle having a roof opening in a fixed roof , the fixed roof having a roof edge defining the roof opening and protruding in a downward direction, the open roof construction comprising a stationary part and at least one panel for at least closing the roof opening, the stationary part being provided with sealing means comprising a first seal part forming a seal towards the panel , and a second seal part capable of sealing the stationary part against the roof edge of the fixed roof , the sealing means being provided with an attachment structure protruding from the first seal part and the second seal part and attaching the sealing means to the stationary part and with a reinforcement member integrated in the sealing means and extending at least between the first seal part and the second seal part , wherein the reinforcement member forms an integral part of the attachment structure of the sealing means , characterized in that the attachment structure includes hook and clip members and the stationary part includes counterparts to lock the hook and clip members to the stationary part.
An inductance-to-digital conversion (IDC) circuit suitable for resonant inductive sensing with a resonator characterized by a resonator oscillation amplitude and frequency, and at resonance by a resonant impedance that changes in response to a sensed condition, comprising: negative impedance circuitry , including: a class D comparator configured to receive a resonator oscillation voltage, and to provide a class D switching output D_clk with a frequency synchronized to the resonator oscillation frequency; a discrete current source configured to output a discrete drive current with discrete current levels based on a discrete loop control signal corresponding to a controlled negative impedance; and H-bridge circuitry configured to interface the discrete current source to the resonator , and controlled by D_clk to synchronize the discrete drive current with the resonator oscillation voltage, such that the time average of the discrete drive current corresponds to a resonator oscillation amplitude; and loop control circuitry , incorporating the resonator as a loop filter, and including: amplitude sampling circuitry clocked by D_clk, and configured to convert the resonator oscillation amplitude into amplitude samples; and an output comparator clocked by D_clk, and configured to output the discrete loop control signal based on a comparison of the amplitude samples and an amplitude reference, such that the controlled negative impedance substantially cancels resonant impedance, thereby maintaining a substantially constant resonator oscillation amplitude corresponding to steady-state oscillation. negative impedance circuitry , including: a class D comparator configured to receive a resonator oscillation voltage, and to provide a class D switching output D_clk with a frequency synchronized to the resonator oscillation frequency; a discrete current source configured to output a discrete drive current with discrete current levels based on a discrete loop control signal corresponding to a controlled negative impedance; and H-bridge circuitry configured to interface the discrete current source to the resonator , and controlled by D_clk to synchronize the discrete drive current with the resonator oscillation voltage, such that the time average of the discrete drive current corresponds to a resonator oscillation amplitude; and loop control circuitry , incorporating the resonator as a loop filter, and including: amplitude sampling circuitry clocked by D_clk, and configured to convert the resonator oscillation amplitude into amplitude samples; and an output comparator clocked by D_clk, and configured to output the discrete loop control signal based on a comparison of the amplitude samples and an amplitude reference, such that the controlled negative impedance substantially cancels resonant impedance, thereby maintaining a substantially constant resonator oscillation amplitude corresponding to steady-state oscillation.
A process to increase the resistance of paperboard to penetration by hot penetrants, said process comprising a) adding i) an aqueous emulsion, comprising a reactive sizing agent and ii) an insolubilizing agent selected from the group consisting of alum (aluminum sulfate) and polyaluminum chloride (PAC), either separately or in blended form to an aqueous pulp slurry, wherein the reactive sizing agent comprises at least 30% fatty acid anhydride and an alkyl ketene dimer, the insolubilizing agent is added to the pulp slurry in an amount of from 2.5 to 7.5 kg insolubilizing agent per t of dry pulp (5 to 15 lbs insolubilizing agent per ton of dry pulp) and the pH of the pulp slurry is from 6.5 to 7.5, and b) forming the slurry into paperboard.