mhurhangee/patent-ind-claim-en huggingface dataset:
A method for internal dose tomography, the method comprising: detecting first and second sets of emissions from a patient at first and second timepoints of a first radiopharmaceutical therapy cycle; performing one tomographic, parametric model reconstruction from the first and second sets of emissions provided as raw emission data or preprocessed data, the tomographic, parametric model reconstruction solving for a model of pharmaceutical kinetics as part of the reconstruction; determining dose based on the model of pharmaceutical kinetics from the parametric model reconstruction; and displaying the dose. detecting first and second sets of emissions from a patient at first and second timepoints of a first radiopharmaceutical therapy cycle; performing one tomographic, parametric model reconstruction from the first and second sets of emissions provided as raw emission data or preprocessed data, the tomographic, parametric model reconstruction solving for a model of pharmaceutical kinetics as part of the reconstruction; determining dose based on the model of pharmaceutical kinetics from the parametric model reconstruction; and displaying the dose.
A method for producing a headline sonar cable capable of being used with trawls, or as a synthetic towing warp on trawlers or other vessels, the method for producing the cable comprising steps of: a. providing an elongatable internally-located conductive structure that includes a conductor that is capable of electrical energy and/or data signal transmission, the elongatable internally-located conductive structure comprising a rod comprising a deformable material (24,); b. braiding a strength-member jacket layer of polymeric material to enclose the elongatable internally-located conductive structure while ensuring that the elongatable internally-located conductive structure is slack when surrounded by the strength-member jacket layer; and c. heating the cable to a temperature that enables permanently elongating the cable while stretching the strength-member jacket layer ; d. stretching the strength-member jacket layer sufficiently to elongate the cable and so as to permanently elongate the cable , while simultaneously not breaking the conductor and while simultaneously preserving the integrity of the conductor ; and to thereby: i. deform the deformable material responsive to a reduction in cross-sectional area of the strength-member jacket layer ; and ii permanently lengthen the strength-member jacket layer ; and e. while maintaining tension on the strength-member jacket layer , cooling the cable until the deformable material solidifies. a. providing an elongatable internally-located conductive structure that includes a conductor that is capable of electrical energy and/or data signal transmission, the elongatable internally-located conductive structure comprising a rod comprising a deformable material (24,); b. braiding a strength-member jacket layer of polymeric material to enclose the elongatable internally-located conductive structure while ensuring that the elongatable internally-located conductive structure is slack when surrounded by the strength-member jacket layer; and c. heating the cable to a temperature that enables permanently elongating the cable while stretching the strength-member jacket layer ; d. stretching the strength-member jacket layer sufficiently to elongate the cable and so as to permanently elongate the cable , while simultaneously not breaking the conductor and while simultaneously preserving the integrity of the conductor ; and to thereby: i. deform the deformable material responsive to a reduction in cross-sectional area of the strength-member jacket layer ; and ii permanently lengthen the strength-member jacket layer ; and i. deform the deformable material responsive to a reduction in cross-sectional area of the strength-member jacket layer ; and ii permanently lengthen the strength-member jacket layer ; and e. while maintaining tension on the strength-member jacket layer , cooling the cable until the deformable material solidifies.
A roller for a comestible product sheeter comprising: a cylindrically shaped roller having an outer surface; a plurality of circumferential grooves spaced along the surface of the roller; a hoop made of a thin band positioned in each groove and less wide than the grooves in which each band is placed; wherein the surfaces of the groove and the surface immediately adjacent to either side of each groove is a non-release surface material; wherein the surface material of the roller between the non-release surfaces is a non-stick material. a cylindrically shaped roller having an outer surface; a plurality of circumferential grooves spaced along the surface of the roller; a hoop made of a thin band positioned in each groove and less wide than the grooves in which each band is placed; wherein the surfaces of the groove and the surface immediately adjacent to either side of each groove is a non-release surface material; wherein the surface material of the roller between the non-release surfaces is a non-stick material.
A throttle device comprising: a plurality of throttle units providable in an engine for each of cylinders or for each of cylinder groups, each of the throttle units including a throttle body having intake air passages corresponding to the plurality of cylinders of the engine , a throttle shaft rotatably supported by the throttle body , throttle valves secured to the throttle shaft to open and close the intake air passages for the cylinders , a motor , a decelerator decelerating rotation of a drive shaft of the motor and transmitting the decelerated rotation to the throttle shaft , wherein a deceleration ratio of the decelerator provided in a first throttle unit and a deceleration ratio of the decelerator provided in a second throttle unit out of the plurality of throttle units are different from each other, and a cylinder deactivation control unit stopping operations of the motor of the second throttle unit out of the first throttle unit and the second throttle unit to cause the throttle valves of the second throttle unit to have a predetermined degree of opening in a predetermined operation region of the engine and deactivating combustion of the cylinders or the cylinder groups corresponding to the second throttle unit , and wherein the deceleration ratio of the decelerator in the second throttle unit is lower than the deceleration ratio of the decelerator in the first throttle unit , wherein in the deactivated state, the throttle valves of the deactivated cylinder are fully opened. a plurality of throttle units providable in an engine for each of cylinders or for each of cylinder groups, each of the throttle units including a throttle body having intake air passages corresponding to the plurality of cylinders of the engine , a throttle shaft rotatably supported by the throttle body , throttle valves secured to the throttle shaft to open and close the intake air passages for the cylinders , a motor , a decelerator decelerating rotation of a drive shaft of the motor and transmitting the decelerated rotation to the throttle shaft , wherein a deceleration ratio of the decelerator provided in a first throttle unit and a deceleration ratio of the decelerator provided in a second throttle unit out of the plurality of throttle units are different from each other, and a cylinder deactivation control unit stopping operations of the motor of the second throttle unit out of the first throttle unit and the second throttle unit to cause the throttle valves of the second throttle unit to have a predetermined degree of opening in a predetermined operation region of the engine and deactivating combustion of the cylinders or the cylinder groups corresponding to the second throttle unit , and wherein the deceleration ratio of the decelerator in the second throttle unit is lower than the deceleration ratio of the decelerator in the first throttle unit , wherein in the deactivated state, the throttle valves of the deactivated cylinder are fully opened.
Ice detection/protection system with ice detection, anti-icing and deicing operating modes and flow control comprising at least one dielectric barrier discharge plasma actuator, a DC power supply , Z an AC power supply , a high voltage probe , a nanosecond range pulse generator circuit , and a control module , applicable on any surface; wherein the at least one dielectric barrier discharge plasma actuator is configured to act as an ice-forming sensor, to control the flow and to perform surface deicing, is connected in series with a monitoring capacitor , and comprises a dielectric layer and three electrodes , wherein two electrodes among said three electrodes are exposed to air and positioned on the surface of the dielectric layer , the AC power supply being configured to energize one of the two exposed electrodes with AC high voltage, and the DC power supply and the nanosecond range pulse generator circuit being configured to energize the other one of the two exposed electrodes with nanosecond pulse high voltage, wherein the remaining electrode among said three electrodes is embedded in the dielectric layer and not exposed to air. wherein the at least one dielectric barrier discharge plasma actuator is configured to act as an ice-forming sensor, to control the flow and to perform surface deicing, is connected in series with a monitoring capacitor , and comprises a dielectric layer and three electrodes , wherein two electrodes among said three electrodes are exposed to air and positioned on the surface of the dielectric layer , the AC power supply being configured to energize one of the two exposed electrodes with AC high voltage, and the DC power supply and the nanosecond range pulse generator circuit being configured to energize the other one of the two exposed electrodes with nanosecond pulse high voltage, wherein the remaining electrode among said three electrodes is embedded in the dielectric layer and not exposed to air.
A compound of Formula VIII: wherein: n is 1; represents a single, double or triple bond; R 10 is 4-trifluoromethyl or 4-trifluoromethoxy; R 2 is or a pharmaceutically acceptable salt, ester, stereoisomer, mixture of stereoisomers or tautomer thereof. n is 1; represents a single, double or triple bond; R 10 is 4-trifluoromethyl or 4-trifluoromethoxy; R 2 is or a pharmaceutically acceptable salt, ester, stereoisomer, mixture of stereoisomers or tautomer thereof.
Optical chip , comprising an input edge coupler having at least one input waveguide configured to receive light on two orthogonal modes of same polarization, wherein the input edge coupler is configured to receive the light from an active device butt-coupled to the optical chip , a demultiplexer configured to demultiplex and divide the two orthogonal modes of the light received by the input edge coupler into a mode carried on a first intermediate waveguide and the mode carried on a second intermediate waveguide independent from the first intermediate waveguide , wherein the two intermediate waveguides are optically uncoupled, and a polarization multiplexer configured to recombine the mode carried on the two intermediate waveguides into two polarization-orthogonal modes carried on one output waveguide . an input edge coupler having at least one input waveguide configured to receive light on two orthogonal modes of same polarization, wherein the input edge coupler is configured to receive the light from an active device butt-coupled to the optical chip , a demultiplexer configured to demultiplex and divide the two orthogonal modes of the light received by the input edge coupler into a mode carried on a first intermediate waveguide and the mode carried on a second intermediate waveguide independent from the first intermediate waveguide , wherein the two intermediate waveguides are optically uncoupled, and a polarization multiplexer configured to recombine the mode carried on the two intermediate waveguides into two polarization-orthogonal modes carried on one output waveguide .
A composition comprising (a) a coating base selected from a water-dispersed coating, an epoxy polymer coating, an alkyd coating, a Type I urethane coating as classified by ASTM D16, or an unsaturated polyester coating; and (b) a fluorinated ester compound having a plurality of fluoroalkyl thioether groups, said fluorinated ester compound selected from Formula (I), Formula (II), Formula (III), or Formula (IV): wherein the number average molecular weight of the fluorinated ester compound is ≤ 30,000 Da; R 1 is a linear or branched C 1 to C 4 alkyl group; t is an integer of 2 to 4; n is an integer ≥ 3; x is independently an integer of 1 to 4; y is independently an integer of 1 to 10; Y is a linear or branched organic linking group that is divalent, trivalent, or tetravalent, selected from the group consisting of linear or branched C 1 to C 20 alkylene groups, carbonyl groups, thioether groups, aryl groups, cycloalkyl groups, ether groups, hydroxyl groups, -NHC(O)-, uretdione, allophanate, isocyanurate, and mixtures thereof; and Rf is independently a straight or branched perfluoroalkyl group of 2 to 20 carbon atoms, optionally interrupted by one or more CH 2 , CFH, ether oxygens -O-, or combinations thereof. the number average molecular weight of the fluorinated ester compound is ≤ 30,000 Da; R 1 is a linear or branched C 1 to C 4 alkyl group; t is an integer of 2 to 4; n is an integer ≥ 3; x is independently an integer of 1 to 4; y is independently an integer of 1 to 10; Y is a linear or branched organic linking group that is divalent, trivalent, or tetravalent, selected from the group consisting of linear or branched C 1 to C 20 alkylene groups, carbonyl groups, thioether groups, aryl groups, cycloalkyl groups, ether groups, hydroxyl groups, -NHC(O)-, uretdione, allophanate, isocyanurate, and mixtures thereof; and Rf is independently a straight or branched perfluoroalkyl group of 2 to 20 carbon atoms, optionally interrupted by one or more CH 2 , CFH, ether oxygens -O-, or combinations thereof.
A plastic film laminate, including a first plastic film including at least one coating layer; and a second plastic film including at least one coating layer, wherein the first plastic film and the second plastic film are laminated together by an adhesive layer; wherein the first plastic film and the second plastic film independently include a supporting substrate and a coating layer formed on both sides of the supporting substrate equally or differently, and the coating layer includes a photo-curable crosslinking copolymer, wherein a storage modulus (G') of the adhesive layer is 40 to 700 kPa, measured by using a dynamic viscoelasticity analyzer at 25°C with the frequency of 1 rad/s by using a 8 mm stainless steel disk-type plate, wherein the thickness of the adhesive layer is 1 mm, and wherein the plastic film laminate does not crack after a steel bead weighing 22 g is freely dropped ten times from a height of 60 cm thereto.
A composition comprising at least one fluoropolymer, wherein the fluoropolymer comprises at least 90 % by weight based on the total weight of the fluoropolymer of polymerized units derived from perfluorinated monomers selected from tetrafluoroethene (TFE) and one or more unsaturated perfluorinated alkyl ethers; a fluorinated solvent; and a fluorinated additive having a Mw of no greater than 50,000 g/mole comprising a partially fluorinated or perfluorinated alkyl or (poly)ether group, wherein the fluorinated additive further comprises a silane group or a (meth)acrylate group. at least one fluoropolymer, wherein the fluoropolymer comprises at least 90 % by weight based on the total weight of the fluoropolymer of polymerized units derived from perfluorinated monomers selected from tetrafluoroethene (TFE) and one or more unsaturated perfluorinated alkyl ethers; a fluorinated solvent; and a fluorinated additive having a Mw of no greater than 50,000 g/mole comprising a partially fluorinated or perfluorinated alkyl or (poly)ether group, wherein the fluorinated additive further comprises a silane group or a (meth)acrylate group.
Method for controlling a starter-generator during a startup phase of a motor intended to be driven in rotation in a predetermined nominal direction by the starter-generator , said starter-generator comprising a stator comprising at least one polyphase stator winding and a rotor comprising at least one rotor winding coupled magnetically to the stator winding , the control method comprising a step of starting up the motor , during which said at least one polyphase stator winding and said at least one rotor winding are supplied with electric power so as to start up the motor , characterized in that said startup step is preceded, when the motor is initially rotating in the direction opposite to the nominal direction, by a braking step , during which a current is drawn from said at least one polyphase stator winding and during which said at least one rotor winding is supplied with electric power, the polyphase stator winding delivers a so-called distribution power (Pd) to a supply bus and a so-called supply power is drawn from the supply bus , wherein the supply power (Pa) is greater than or equal to the distribution power (Pd).
A power system for use in supplying power to at least one load , the load being an electric vehicle, the load including a power storage device , said power system comprising: a transformer , a plurality of charging devices coupled together via a network , the transformer being coupled to each of the plurality of charging devices via at least one power conduit wherein one charging device of the plurality of charging devices is configured to: transmit a status request to each of the other charging devices of the plurality of charging devices via the network , and determine a number of active charging devices , active charging device meaning currently supplying power to a power storage coupled thereto, based on the charging status received from the other charging devices wherein the one charging device is programmed with a maximum number of active charging devices which is a predetermined maximum number of charging devices that the transformer is enabled to supply power to at the same time; and wherein if the number of active charging devices is less than the maximum number of active charging devices , the one charging device commences supplying power to power storage device and if the number of active charging devices is greater than, or equal to, the maximum number of active charging devices , the one charging device does not supply power to power storage device . a transformer , a plurality of charging devices coupled together via a network , the transformer being coupled to each of the plurality of charging devices via at least one power conduit wherein one charging device of the plurality of charging devices is configured to: transmit a status request to each of the other charging devices of the plurality of charging devices via the network , and determine a number of active charging devices , active charging device meaning currently supplying power to a power storage coupled thereto, based on the charging status received from the other charging devices wherein the one charging device is programmed with a maximum number of active charging devices which is a predetermined maximum number of charging devices that the transformer is enabled to supply power to at the same time; and wherein transmit a status request to each of the other charging devices of the plurality of charging devices via the network , and determine a number of active charging devices , active charging device meaning currently supplying power to a power storage coupled thereto, based on the charging status received from the other charging devices wherein the one charging device is programmed with a maximum number of active charging devices which is a predetermined maximum number of charging devices that the transformer is enabled to supply power to at the same time; and wherein if the number of active charging devices is less than the maximum number of active charging devices , the one charging device commences supplying power to power storage device and if the number of active charging devices is greater than, or equal to, the maximum number of active charging devices , the one charging device does not supply power to power storage device .
A high-strength steel plate having excellent low-temperature fracture toughness and elongation ratio, comprising: by wt%, 0.05 to 0.1% of carbon (C), 0.05 to 0.5% of silicon (Si), 1.4 to 2.0% of manganese (Mn), 0.01 to 0.05% of aluminum (Al), 0.005 to 0.02% of titanium (Ti), 0.002 to 0.01% of nitrogen (N), 0.04 to 0.07% of niobium (Nb), 0.05 to 0.3% of chromium (Cr), 0.05 to 0.4% of nickel (Ni), 0.02% or less of phosphorus (P), 0.005% or less of sulfur (S), 0.0005 to 0.004% of calcium (Ca), remaining iron (Fe), and inevitable impurities; and 20 to 60 area% of ferrite, 35 to 75 area% of bainite and 5 area% or less of martensite-austenite constituent as a microstructure, wherein a grain size of upper 80% of high angle grain sizes based on 15° in a central portion of the high-strength steel plate is 70 μm or less, wherein the steel plate optionally further comprises 0.3 wt% or less of molybdenum (Mo), wherein a thickness of the high-strength steel plate is less than 20 mm, wherein a yield strength of the high-strength steel plate is 485 MPa or more, wherein a total elongation ratio of the high-strength steel plate is 28% or more, wherein a uniform elongation ratio of the high-strength steel plate with respect to a rolling orthogonal direction is 9% or more, and wherein a drop weight tearing test (DWTT) percent ductile shear of the high-strength steel plate at -30°C with respect to a rolling orthogonal direction of the steel plate is 85% or more, wherein the yield strength and the elongation ratio were evaluated by performing a room temperature tensile test with respect to a rolling orthogonal direction. by wt%, 0.05 to 0.1% of carbon (C), 0.05 to 0.5% of silicon (Si), 1.4 to 2.0% of manganese (Mn), 0.01 to 0.05% of aluminum (Al), 0.005 to 0.02% of titanium (Ti), 0.002 to 0.01% of nitrogen (N), 0.04 to 0.07% of niobium (Nb), 0.05 to 0.3% of chromium (Cr), 0.05 to 0.4% of nickel (Ni), 0.02% or less of phosphorus (P), 0.005% or less of sulfur (S), 0.0005 to 0.004% of calcium (Ca), remaining iron (Fe), and inevitable impurities; and 20 to 60 area% of ferrite, 35 to 75 area% of bainite and 5 area% or less of martensite-austenite constituent as a microstructure, wherein a grain size of upper 80% of high angle grain sizes based on 15° in a central portion of the high-strength steel plate is 70 μm or less, wherein the steel plate optionally further comprises 0.3 wt% or less of molybdenum (Mo), wherein a thickness of the high-strength steel plate is less than 20 mm, wherein a yield strength of the high-strength steel plate is 485 MPa or more, wherein a total elongation ratio of the high-strength steel plate is 28% or more, wherein a uniform elongation ratio of the high-strength steel plate with respect to a rolling orthogonal direction is 9% or more, and wherein a drop weight tearing test (DWTT) percent ductile shear of the high-strength steel plate at -30°C with respect to a rolling orthogonal direction of the steel plate is 85% or more, wherein the yield strength and the elongation ratio were evaluated by performing a room temperature tensile test with respect to a rolling orthogonal direction.