mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling an inductive heating arrangement, the inductive heating arrangement comprising an inductor and a susceptor coupled to the inductor so that the provision of an alternating electrical current to the inductor causes heating of the susceptor, the method comprising: providing pulses of electrical current to the at least one inductor to maintain a conductance or resistance associated with the susceptor at a target conductance or resistance; detecting a cooling event associated with the susceptor; determining a maximum duty cycle limit for the pulses of electrical current for a duration of the cooling event; and increasing a duty cycle of the pulses of electrical current for the duration of the detected cooling event, to compensate for the detected cooling event, to a duty cycle at or below the maximum duty cycle limit. providing pulses of electrical current to the at least one inductor to maintain a conductance or resistance associated with the susceptor at a target conductance or resistance; detecting a cooling event associated with the susceptor; determining a maximum duty cycle limit for the pulses of electrical current for a duration of the cooling event; and increasing a duty cycle of the pulses of electrical current for the duration of the detected cooling event, to compensate for the detected cooling event, to a duty cycle at or below the maximum duty cycle limit.
Method of controlling the operation of an internal combustion piston engine, in which method a) gaseous fuel is fed to the engine to be combusted therein; b) heat value of the fuel HV m is measured intermittently; c) a value indicative to engine's load L e is determined more often than the heat value of the fuel HV m is measured in the step b); d) a value indicative to mass flow rate q m of the fuel fed to the engine is determined more often than the heat value of the fuel HV m is measured in the step b); e) a relative heat value HV r is determined using a formula HV r = Le / q m * η where η is estimated or determined engine efficiency; f) a correction factor Q is determined, which correction factor Q is a function of at least the measured heat value of the fuel HV m, and the relative heat value HV r; g) a control heat value HV e is determined, which control heat value is a function of at least the correction factor Q defined in step f) and the relative heat value HV r determined in step e); and h) at least one control parameter of the engine is determined making use of the control heat value HV e determined in step g). a) gaseous fuel is fed to the engine to be combusted therein; b) heat value of the fuel HV m is measured intermittently; c) a value indicative to engine's load L e is determined more often than the heat value of the fuel HV m is measured in the step b); d) a value indicative to mass flow rate q m of the fuel fed to the engine is determined more often than the heat value of the fuel HV m is measured in the step b); e) a relative heat value HV r is determined using a formula HV r = Le / q m * η where η is estimated or determined engine efficiency; f) a correction factor Q is determined, which correction factor Q is a function of at least the measured heat value of the fuel HV m, and the relative heat value HV r; g) a control heat value HV e is determined, which control heat value is a function of at least the correction factor Q defined in step f) and the relative heat value HV r determined in step e); and h) at least one control parameter of the engine is determined making use of the control heat value HV e determined in step g).
A periphery monitoring device configured to emit light into monitoring areas in at least three directions of a moving body, wherein the periphery monitoring device comprises the moving body, and a first and second safety laser scanner, wherein the first and second safety laser scanners (81, 82, 83) are mounted to the moving body for each of the monitoring areas in the directions, characterized by a monitoring area in at least one direction is a three-dimensional monitoring area to be monitored in three dimensions, and a monitoring area (B, C) in the other direction is a horizontal monitoring area (B, C) to be monitored in two dimensions in a horizontal direction, the first safety laser scanner configured to monitor the three-dimensional monitoring area is mounted to an upper portion of the moving body, the three-dimensional monitoring area forming an inclined plane-like monitoring area in which an interval from the moving body gradually increases from the upper portion to a lower portion of the moving body, and the second safety laser scanner (82, 83) configured to monitor the horizontal monitoring area (B, C) is mounted to the lower portion of the moving body, the horizontal monitoring area (B,C) forming a horizontal plane-like monitoring area (B, C) from the lower portion of the moving body. the first and second safety laser scanners (81, 82, 83) are mounted to the moving body for each of the monitoring areas in the directions, characterized by a monitoring area in at least one direction is a three-dimensional monitoring area to be monitored in three dimensions, and a monitoring area (B, C) in the other direction is a horizontal monitoring area (B, C) to be monitored in two dimensions in a horizontal direction, the first safety laser scanner configured to monitor the three-dimensional monitoring area is mounted to an upper portion of the moving body, the three-dimensional monitoring area forming an inclined plane-like monitoring area in which an interval from the moving body gradually increases from the upper portion to a lower portion of the moving body, and the second safety laser scanner (82, 83) configured to monitor the horizontal monitoring area (B, C) is mounted to the lower portion of the moving body, the horizontal monitoring area (B,C) forming a horizontal plane-like monitoring area (B, C) from the lower portion of the moving body.
A method of emulating a subscriber identification module card, comprising: providing a portable storage device comprising an identification card interface component, an update interface component and a memory component configured to store data; providing a hosting device comprising an identification card socket; said portable storage device and said hosting device being connected with each other; said portable storage device being installed in said identification card socket of said hosting device; sending by said hosting device a request for data from said portable storage device; providing at least a first part of said requested data available in said memory component to said hosting device through said identification card interface component; prolonging communication with said hosting device by acknowledging commands issued by said hosting device with at least one consecutive no operation procedure byte; updating said memory component with at least a second part of said requested data not available in said memory component through an updating device connected to said update interface component of said portable storage device; and providing said updated data to said hosting device through said identification card interface component. providing a portable storage device comprising an identification card interface component, an update interface component and a memory component configured to store data; providing a hosting device comprising an identification card socket; said portable storage device and said hosting device being connected with each other; said portable storage device being installed in said identification card socket of said hosting device; sending by said hosting device a request for data from said portable storage device; providing at least a first part of said requested data available in said memory component to said hosting device through said identification card interface component; prolonging communication with said hosting device by acknowledging commands issued by said hosting device with at least one consecutive no operation procedure byte; updating said memory component with at least a second part of said requested data not available in said memory component through an updating device connected to said update interface component of said portable storage device; and providing said updated data to said hosting device through said identification card interface component.
A motor drive system comprising: a power converter arranged to supply an input voltage; a motor connected to the power converter by a cable arrangement, said cable arrangement comprising first, second, and third conductors (8a-c), each of said conductors being electrically coupled at a respective first end thereof to the power converter, each of said conductors being further electrically coupled at a respective second end thereof to the motor; and a resistive-capacitive network comprising a resistive portion (5a-c) and a capacitive portion (7a-c), wherein the capacitive portion is connected to the resistive portion in series; wherein the resistive-capacitive network is connected to a respective node (13a-c) of each of said first, second, and third conductors (8a-c); characterised in that the system further comprises: a switching portion (6a-c) connected in parallel to the capacitive portion (7a-c), said switching portion being operable in an open state and in a closed state; wherein the switching portion (6a-c) is arranged such that when it is operated in the closed state, the capacitive portion (7a-c) is bypassed; and wherein the switching portion (6a-c) is arranged such that when it is operated in the open state, the capacitive portion (7a-c) is not bypassed. a power converter arranged to supply an input voltage; a motor connected to the power converter by a cable arrangement, said cable arrangement comprising first, second, and third conductors (8a-c), each of said conductors being electrically coupled at a respective first end thereof to the power converter, each of said conductors being further electrically coupled at a respective second end thereof to the motor; and a resistive-capacitive network comprising a resistive portion (5a-c) and a capacitive portion (7a-c), wherein the capacitive portion is connected to the resistive portion in series; wherein the resistive-capacitive network is connected to a respective node (13a-c) of each of said first, second, and third conductors (8a-c); characterised in that the system further comprises: a switching portion (6a-c) connected in parallel to the capacitive portion (7a-c), said switching portion being operable in an open state and in a closed state; wherein the switching portion (6a-c) is arranged such that when it is operated in the closed state, the capacitive portion (7a-c) is bypassed; and wherein the switching portion (6a-c) is arranged such that when it is operated in the open state, the capacitive portion (7a-c) is not bypassed. a switching portion (6a-c) connected in parallel to the capacitive portion (7a-c), said switching portion being operable in an open state and in a closed state; wherein the switching portion (6a-c) is arranged such that when it is operated in the closed state, the capacitive portion (7a-c) is bypassed; and wherein the switching portion (6a-c) is arranged such that when it is operated in the open state, the capacitive portion (7a-c) is not bypassed.
A non-aqueous electrolyte solution for a lithium secondary battery, the non-aqueous electrolyte solution comprising: an ionizable lithium salt; an organic solvent; and a compound represented by Formula 1, wherein the organic solvent comprises at least one solvent selected from the group consisting of an ether-based solvent, an ester-based solvent and an amide-based solvent, and wherein the compound represented by Formula 1 is included in an amount of 0.5 wt% to 40 wt% based on a total amount of the non-aqueous electrolyte solution: wherein, in Formula 1, R 1 to R 4 are each independently an alkyl group having 1 to 6 carbon atoms, an alkenyl group having 2 to 6 carbon atoms, or -(CH 2) n -R 5, wherein R 5 is an aryl group having 6 to 18 carbon atoms, or an aryl group having 6 to 18 carbon atoms which is substituted with an alkyl group having 1 to 2 carbon atoms, and n is an integer of 0 to 2. an ionizable lithium salt; an organic solvent; and a compound represented by Formula 1, wherein the organic solvent comprises at least one solvent selected from the group consisting of an ether-based solvent, an ester-based solvent and an amide-based solvent, and wherein the compound represented by Formula 1 is included in an amount of 0.5 wt% to 40 wt% based on a total amount of the non-aqueous electrolyte solution: wherein, in Formula 1, R 1 to R 4 are each independently an alkyl group having 1 to 6 carbon atoms, an alkenyl group having 2 to 6 carbon atoms, or -(CH 2) n -R 5, wherein R 5 is an aryl group having 6 to 18 carbon atoms, or an aryl group having 6 to 18 carbon atoms which is substituted with an alkyl group having 1 to 2 carbon atoms, and n is an integer of 0 to 2.
A system for accurately measuring NOx and NH 3 contents in exhaust fumes, including for stoichiometric combustion engines, comprising: - an exhaust to evacuate exhaust fumes connected at its free end to an exhaust evacuation outlet, - at least one first sensor adapted to measure NOx and O 2 contents, said first sensor being placed upstream from the exhaust evacuation outlet, - at least one second sensor adapted to measure NOx and O 2 contents, said second sensor being placed downstream from the exhaust evacuation outlet and, - at least one third sensor adapted to measure NH 3, said third sensor being placed downstream from the exhaust evacuation outlet. - an exhaust to evacuate exhaust fumes connected at its free end to an exhaust evacuation outlet, - at least one first sensor adapted to measure NOx and O 2 contents, said first sensor being placed upstream from the exhaust evacuation outlet, - at least one second sensor adapted to measure NOx and O 2 contents, said second sensor being placed downstream from the exhaust evacuation outlet and, - at least one third sensor adapted to measure NH 3, said third sensor being placed downstream from the exhaust evacuation outlet.
Drive apparatus for a motor vehicle, comprising a first drive assembly, a second drive assembly and an epicyclic gear set that is coupled to the second drive assembly, wherein the second drive assembly can be coupled via the epicyclic gear set to a driven shaft of the drive apparatus and by means of a shifting clutch to the first drive assembly, wherein an auxiliary drive shaft of an auxiliary drive of the drive apparatus having at least one auxiliary assembly is coupled to the epicyclic gear set, characterised in that the first drive assembly can be coupled to the output shaft by means of the shifting clutch via the second drive assembly and the epicyclic gear set.
Tray of a furniture element, comprising an upper surface intended for the placing of an object, the surface forming a general plane, at least one rim (60, 80) movable between a rest position in which the or each rim (60, 80) is arranged so that it projects relative to the general plane of the upper surface and a working position in which the or each rim (60, 80) is aligned relative to the general plane of the upper surface, characterised in that the or each rim (60, 80) retracts automatically under the action of a load which biases the or each rim (60, 80) from its rest position towards its working position, the load being placed on the upper surface of the tray directly above the or each rim (60, 80).
A solid dispersion form of rifaximin comprising rifaximin and a polymer selected from: hydroxypropyl methylcellulose acetate succinate (HPMC-AS) grade HG and grade MG, wherein the rifaximin:polymer weight ratio ranges from 10:90 to 90:10.
A mixer drum apparatus to stir material to be stored, comprising: a freely-rotatable drum having an opening end opened at one end to receive the material to be stored therein; a plurality of spirally-shaped blades (20, 30) provided inside the drum to have a phase difference; and an inlet seal provided at the opening end of the drum and connected partially to the blades (20, 30), wherein the inlet seal comprises a same number of inlet seal panels (42, 43) as the blades (20, 30) located between said blades (20, 30), each of the inlet seal panels forming an opening (26, 36) causing the material to be stored to pass through, and wherein each of the inlet seal panels (42, 43) has a blade connecting portion (24a, 34a) connected to a corresponding one of the blades (20, 30) in a vicinity of the opening end of the drum, and is formed to have a curved triangular plate shape extending from the blade connecting portion (24a, 34a) to a corresponding blade (20, 30) located on a back side of the drum, characterized in that the inlet seal is formed only by the same number of inlet seal panels (42, 43) of triangular shape corresponding to the blades (20,30). a freely-rotatable drum having an opening end opened at one end to receive the material to be stored therein; a plurality of spirally-shaped blades (20, 30) provided inside the drum to have a phase difference; and an inlet seal provided at the opening end of the drum and connected partially to the blades (20, 30), wherein the inlet seal comprises a same number of inlet seal panels (42, 43) as the blades (20, 30) located between said blades (20, 30), each of the inlet seal panels forming an opening (26, 36) causing the material to be stored to pass through, and wherein each of the inlet seal panels (42, 43) has a blade connecting portion (24a, 34a) connected to a corresponding one of the blades (20, 30) in a vicinity of the opening end of the drum, and is formed to have a curved triangular plate shape extending from the blade connecting portion (24a, 34a) to a corresponding blade (20, 30) located on a back side of the drum, characterized in that the inlet seal is formed only by the same number of inlet seal panels (42, 43) of triangular shape corresponding to the blades (20,30).
A method for forming a coating on a substrate, the method comprising: providing a powder coating composition comprising: at least one polyester having a weight-average molecular weight ranging from about 20,000 to about 50,000, and a melting temperature of at least 140°C and less than 160°C determined using differential scanning calorimetry; and about 1 to 5% of a highly functional resin component, wherein the resin component has a weight average molecular weight (M w) of about 3,000 to about 10,000; applying the coating composition to at least one portion of the substrate that forms a weld seam of a three-piece beverage can; melting the coating composition on the at least one portion of the substrate; and solidifying the molten coating composition to form the coating adhered to the at least one portion of the substrate, wherein the coating demonstrates optimal adhesion to the at least one portion of the substrate, wherein the highly functional resin component is a polymer comprising a monomeric unit derived from a glycidyl ester of an α,β-unsaturated acid or anhydride thereof. providing a powder coating composition comprising: at least one polyester having a weight-average molecular weight ranging from about 20,000 to about 50,000, and a melting temperature of at least 140°C and less than 160°C determined using differential scanning calorimetry; and about 1 to 5% of a highly functional resin component, wherein the resin component has a weight average molecular weight (M w) of about 3,000 to about 10,000; at least one polyester having a weight-average molecular weight ranging from about 20,000 to about 50,000, and a melting temperature of at least 140°C and less than 160°C determined using differential scanning calorimetry; and about 1 to 5% of a highly functional resin component, wherein the resin component has a weight average molecular weight (M w) of about 3,000 to about 10,000; applying the coating composition to at least one portion of the substrate that forms a weld seam of a three-piece beverage can; melting the coating composition on the at least one portion of the substrate; and solidifying the molten coating composition to form the coating adhered to the at least one portion of the substrate, wherein the coating demonstrates optimal adhesion to the at least one portion of the substrate, wherein the highly functional resin component is a polymer comprising a monomeric unit derived from a glycidyl ester of an α,β-unsaturated acid or anhydride thereof.
A wavelength converter comprising: a first phase modulation unit configured to perform phase modulation on pump light in accordance with a first phase modulation signal; a second phase modulation unit configured to perform phase modulation on signal light in accordance with a second phase modulation signal; a wavelength conversion unit configured to multiplex the signal light having undergone the phase modulation with the pump light having undergone the phase modulation, the wavelength conversion unit configured to perform wavelength conversion on the signal light in accordance with the pump light; characterized in that the wavelength converter further comprises a detection unit configured to detect a modulation component from the signal light having undergone the phase modulation and the pump light having undergone the phase modulation; and a generation unit configured to generate the first phase modulation signal and the second phase modulation signal so as to minimize the detected modulation component. a first phase modulation unit configured to perform phase modulation on pump light in accordance with a first phase modulation signal; a second phase modulation unit configured to perform phase modulation on signal light in accordance with a second phase modulation signal; a wavelength conversion unit configured to multiplex the signal light having undergone the phase modulation with the pump light having undergone the phase modulation, the wavelength conversion unit configured to perform wavelength conversion on the signal light in accordance with the pump light; a detection unit configured to detect a modulation component from the signal light having undergone the phase modulation and the pump light having undergone the phase modulation; and a generation unit configured to generate the first phase modulation signal and the second phase modulation signal so as to minimize the detected modulation component.
A clear surfactant-containing composition, in addition to one or more oil components comprising a mixture of solubilizers selected from the group of a) ethoxylated fatty alcohols, b) ethoxylated hydrogenated castor oils, and c) ethoxylated mono-, di- or triglycerol esters, characterized in that the ratio of components a):b):c) is in the range of 1::. a) ethoxylated fatty alcohols, b) ethoxylated hydrogenated castor oils, and c) ethoxylated mono-, di- or triglycerol esters,
Motor vehicle having at least one sensor for identifying an obstacle (20, 50, 51) in the surroundings of the motor vehicle, wherein the sensor comprises a laser for emitting a light beam, a two-dimensional scanning apparatus for directing the light beam into the surroundings of the motor vehicle by moving the light beam in a first plane and in a second plane orthogonal to the first plane and a camera suitable for detecting a portion of the light beam reflected by the surroundings of the motor vehicle, a controller for integration of a symbol (50A, 51A) for denoting the identified obstacle (20, 50, 51) together with a boundary of the sampling by the light beam into an image of the surroundings of the motor vehicle, wherein the position of the symbol (50A, 51A) in relation to the image corresponds substantially to the position of the obstacle (20, 50, 51) in the image, and a display apparatus for presenting the image of the surroundings of the motor vehicle together with the symbol (50A, 51A) and the boundary of the sampling by the light beam are provided.