mhurhangee/ep-ind-claims huggingface dataset:
A smoking article (2, 40, 50, 60, 70, 80) having a mouth end and a distal end, the smoking article comprising: a combustible carbonaceous heat source; an aerosol-forming substrate; at least one air inlet located between the aerosol-forming substrate and the mouth end of the smoking article; an airflow pathway extending between the at least one air inlet and the mouth end of the smoking article; and an airflow directing element located between the aerosol-forming substrate and the mouth end of the smoking article, wherein the airflow directing element located between the aerosol-forming substrate and the mouth end of the smoking article defines a first portion of the airflow pathway extending from the at least one air inlet to the aerosol-forming substrate and the airflow directing element located between the aerosol-forming substrate and the mouth end of the smoking article defines a second portion of the airflow pathway extending from the aerosol-forming substrate towards the mouth end of the smoking article, and wherein the airflow directing element comprises an aerosol-modifying agent other than tobacco or tobacco material. a combustible carbonaceous heat source; an aerosol-forming substrate; at least one air inlet located between the aerosol-forming substrate and the mouth end of the smoking article; an airflow pathway extending between the at least one air inlet and the mouth end of the smoking article; and an airflow directing element located between the aerosol-forming substrate and the mouth end of the smoking article, wherein the airflow directing element located between the aerosol-forming substrate and the mouth end of the smoking article defines a first portion of the airflow pathway extending from the at least one air inlet to the aerosol-forming substrate and the airflow directing element located between the aerosol-forming substrate and the mouth end of the smoking article defines a second portion of the airflow pathway extending from the aerosol-forming substrate towards the mouth end of the smoking article, and wherein the airflow directing element comprises an aerosol-modifying agent other than tobacco or tobacco material.
A method for classifying an ostomy condition, the method comprising: obtaining (S102, S102A) image data, the image data comprising appliance image data of an adhesive surface of an ostomy appliance; determining (S104B) one or more image representations based on the image data, wherein the one or more image representations are binary masks; determining one or more ostomy representations including a first ostomy parameter (OP_1) based on the one or more image representations; and outputting the first ostomy parameter. obtaining (S102, S102A) image data, the image data comprising appliance image data of an adhesive surface of an ostomy appliance; determining (S104B) one or more image representations based on the image data, wherein the one or more image representations are binary masks; determining one or more ostomy representations including a first ostomy parameter (OP_1) based on the one or more image representations; and outputting the first ostomy parameter.
Method for identifying an open resolver exciter line, comprising the following steps: measuring the signal voltages from the sinusoidal coil and the cosinusoidal coil of the resolver; comparing the amplitude of the resolver signal, which amplitude is formed by the sum of the squared signal voltages, with a first threshold value; starting a diagnosis mode comprising the following steps if the formed amplitude does not reach the first threshold value: applying a constant voltage to the connections (5, 6) of the exciter line (11, 12) via a series resistor, which is large in comparison to the non-reactive resistance of the exciter coil, for the duration of at least one exciter period; measuring the voltage difference at the connections (5, 6) of the exciter line at a plurality of times while the DC voltage is applied; and ascertaining the DC voltage component of the voltage difference; establishing an open exciter line when the DC voltage component is greater than a second threshold value during the exciter period. measuring the signal voltages from the sinusoidal coil and the cosinusoidal coil of the resolver; comparing the amplitude of the resolver signal, which amplitude is formed by the sum of the squared signal voltages, with a first threshold value; starting a diagnosis mode comprising the following steps if the formed amplitude does not reach the first threshold value: applying a constant voltage to the connections (5, 6) of the exciter line (11, 12) via a series resistor, which is large in comparison to the non-reactive resistance of the exciter coil, for the duration of at least one exciter period; measuring the voltage difference at the connections (5, 6) of the exciter line at a plurality of times while the DC voltage is applied; and ascertaining the DC voltage component of the voltage difference; establishing an open exciter line when the DC voltage component is greater than a second threshold value during the exciter period. applying a constant voltage to the connections (5, 6) of the exciter line (11, 12) via a series resistor, which is large in comparison to the non-reactive resistance of the exciter coil, for the duration of at least one exciter period; measuring the voltage difference at the connections (5, 6) of the exciter line at a plurality of times while the DC voltage is applied; and ascertaining the DC voltage component of the voltage difference; establishing an open exciter line when the DC voltage component is greater than a second threshold value during the exciter period.
A molding press for encapsulating semiconductor dies on a substrate, the molding press comprising: a first mold chase with a first mold chase surface; and a second mold chase with a second mold chase surface; the first and second mold chases being operable to clamp a substrate which is held against a substrate-facing surface relating to either the first or second mold chase surface, between the first and second mold chase surfaces to define at least one mold cavity with respect to the substrate; wherein the molding press further comprises a top portion a middle portion to which the top portion is mounted by a first rotational mounting and a base portion to which the middle portion is mounted by a second rotational mounting; and a drive mechanism configured to rotate the top portion relative to the middle portion about the first rotational mounting, and the middle portion relative to the base portion about the second rotational mounting, to adjust the relative arrangement of the first and second mold chase surfaces. a first mold chase with a first mold chase surface; and a second mold chase with a second mold chase surface; the first and second mold chases being operable to clamp a substrate which is held against a substrate-facing surface relating to either the first or second mold chase surface, between the first and second mold chase surfaces to define at least one mold cavity with respect to the substrate; wherein the molding press further comprises a top portion a middle portion to which the top portion is mounted by a first rotational mounting and a base portion to which the middle portion is mounted by a second rotational mounting; and a drive mechanism configured to rotate the top portion relative to the middle portion about the first rotational mounting, and the middle portion relative to the base portion about the second rotational mounting, to adjust the relative arrangement of the first and second mold chase surfaces.
A compressor comprising: a casing; a compression mechanism arranged inside the casing; and a motor arranged inside the casing, the motor driving the compression mechanism, the motor being a concentrated-winding motor having a stator that has a plurality of teeth, and an insulator adjacent to the stator, windings being wound about the teeth with the insulator interposed therebetween, the outer peripheral surface of the insulator being in contact with crossover wires of the windings; characterized by an insulation sheet arranged between the outer peripheral surface of the insulator and the inner peripheral surface of the casing and also between the casing and the crossover wires such that the crossover wires are positioned between the insulation sheet and the outer peripheral surface of the insulator; wherein the insulation sheet is tubular in shape; and the insulation sheet has tabs sandwiched between the stator and the insulator. a casing; a compression mechanism arranged inside the casing; and a motor arranged inside the casing, the motor driving the compression mechanism, the motor being a concentrated-winding motor having a stator that has a plurality of teeth, and an insulator adjacent to the stator, windings being wound about the teeth with the insulator interposed therebetween, the outer peripheral surface of the insulator being in contact with crossover wires of the windings; an insulation sheet arranged between the outer peripheral surface of the insulator and the inner peripheral surface of the casing and also between the casing and the crossover wires such that the crossover wires are positioned between the insulation sheet and the outer peripheral surface of the insulator; the insulation sheet is tubular in shape; and the insulation sheet has tabs sandwiched between the stator and the insulator.
A fluid ejection device comprising: a fluid ejection unit that ejects a fluid; an ejection control unit that controls the ejection of the fluid from the fluid ejection unit; a fluid container that accommodates the fluid to be supplied to the fluid ejection unit; and a pressure adjustment unit configured to adjust an inner pressure of the fluid container in such a manner that the inner pressure of the fluid container gets closer to a target pressure (Pt) than upper and lower first threshold values (F1, F2), which specify an inner range for the inner pressure of the fluid container, characterized in that the fluid ejection device is configured such that, when the inner pressure of the fluid container is closer to the target pressure (Pt) than a second set of upper and lower threshold values (R1, R2), representing a wider range, the values of which are separated further from the target pressure (Pt) than the first threshold values (F1, F2), the ejection control unit receives a demand for the ejection of the fluid. a fluid ejection unit that ejects a fluid; an ejection control unit that controls the ejection of the fluid from the fluid ejection unit; a fluid container that accommodates the fluid to be supplied to the fluid ejection unit; and a pressure adjustment unit configured to adjust an inner pressure of the fluid container in such a manner that the inner pressure of the fluid container gets closer to a target pressure (Pt) than upper and lower first threshold values (F1, F2), which specify an inner range for the inner pressure of the fluid container, characterized in that the fluid ejection device is configured such that, when the inner pressure of the fluid container is closer to the target pressure (Pt) than a second set of upper and lower threshold values (R1, R2), representing a wider range, the values of which are separated further from the target pressure (Pt) than the first threshold values (F1, F2), the ejection control unit receives a demand for the ejection of the fluid.
A textile construction comprising: a fabric; and a variegated structure woven in the fabric and adapted to vary a strength and/or a breathability of the textile construction across the textile construction, the variegated structure comprising a plurality of longitudinal threads and a plurality of transverse threads, the longitudinal threads and the transverse threads intersecting to form a plurality of cells in the fabric, wherein the threads have a denier rating in the range of 30 denier to 1050 denier, the material of the fabric is different than a nylon-based ripstop material of the threads, a first portion of the fabric includes cells that are smaller than cells included in a second portion of the fabric, and a density of the threads in the first portion is higher than a density of the threads in the second portion. a fabric; and a variegated structure woven in the fabric and adapted to vary a strength and/or a breathability of the textile construction across the textile construction, the variegated structure comprising a plurality of longitudinal threads and a plurality of transverse threads, the longitudinal threads and the transverse threads intersecting to form a plurality of cells in the fabric, wherein the threads have a denier rating in the range of 30 denier to 1050 denier, the material of the fabric is different than a nylon-based ripstop material of the threads, a first portion of the fabric includes cells that are smaller than cells included in a second portion of the fabric, and a density of the threads in the first portion is higher than a density of the threads in the second portion.
A hybrid cooling nozzle apparatus comprising: - a plurality of hybrid nozzles provided in a segment of a continuous casting machine and configured to spray cooling water in a mist-spraying mode or a water-jet spraying mode onto a metal strip passing through the segment; - at least one speed sensor installed in the segment and configured to detect the speed of the metal strip passing through the segment; - a cooling water supply configured to supply cooling water to the hybrid nozzles; - an air supply configured to supply air to the hybrid nozzles; and - a controller configured to receive the speed of the metal strip detected by the speed sensor, and to select the spraying mode of the hybrid nozzles depending on the received speed of the metal strip, and control a pressure and a flow rate of the cooling water and air, respectively, to be supplied to the hybrid nozzles by controlling the cooling water supply and the air supply, wherein the controller is further adapted to compare the measured speed with a reference speed and to select the water-jet spraying mode if it is determined that the measured speed is higher than the reference speed and the mist-spraying mode is selected if it is determined that the measured speed is lower than the reference speed. - a plurality of hybrid nozzles provided in a segment of a continuous casting machine and configured to spray cooling water in a mist-spraying mode or a water-jet spraying mode onto a metal strip passing through the segment; - at least one speed sensor installed in the segment and configured to detect the speed of the metal strip passing through the segment; - a cooling water supply configured to supply cooling water to the hybrid nozzles; - an air supply configured to supply air to the hybrid nozzles; and - a controller configured to receive the speed of the metal strip detected by the speed sensor, and to select the spraying mode of the hybrid nozzles depending on the received speed of the metal strip, and control a pressure and a flow rate of the cooling water and air, respectively, to be supplied to the hybrid nozzles by controlling the cooling water supply and the air supply, wherein the controller is further adapted to compare the measured speed with a reference speed and to select the water-jet spraying mode if it is determined that the measured speed is higher than the reference speed and the mist-spraying mode is selected if it is determined that the measured speed is lower than the reference speed.
A binder composition for non-aqueous secondary battery electrode comprising: a water-soluble polymer which comprises an acid group-containing monomer unit; and water, wherein the water-soluble polymer comprises the acid group-containing monomer unit in an amount of 5% to 70% by mass, and wherein the water-soluble polymer comprises water-soluble polymer particles having a radius of gyration of 200 nm or less in an amount of 95% to 100% by mass, wherein the water-soluble polymer further comprises a (meth)acrylamide monomer unit in an amount of 30% to 85% by mass and wherein the radius of gyration of the water-soluble polymer is measured as described in the description. wherein the water-soluble polymer comprises the acid group-containing monomer unit in an amount of 5% to 70% by mass, and wherein the water-soluble polymer comprises water-soluble polymer particles having a radius of gyration of 200 nm or less in an amount of 95% to 100% by mass, wherein the water-soluble polymer further comprises a (meth)acrylamide monomer unit in an amount of 30% to 85% by mass and wherein the radius of gyration of the water-soluble polymer is measured as described in the description.
A fluid pouch for transferring reduced pressure to a manifold positioned adjacent a tissue site and sealed by a drape covering the manifold and the tissue site, comprising: an envelope formed by a first manifolding layer having an inlet for receiving fluids from the manifold; and a second manifolding layer fluidly coupled to the first manifolding layer, the second manifolding layer having an outlet for fluidly coupling to a source of reduced pressure; and an absorbent material disposed between the first manifolding layer and the second manifolding layer; wherein the first and second manifolding layers are coupled (990, 991) to each other at a perimeter of each layer to form the envelope. an envelope formed by a first manifolding layer having an inlet for receiving fluids from the manifold; and a second manifolding layer fluidly coupled to the first manifolding layer, the second manifolding layer having an outlet for fluidly coupling to a source of reduced pressure; a first manifolding layer having an inlet for receiving fluids from the manifold; and a second manifolding layer fluidly coupled to the first manifolding layer, the second manifolding layer having an outlet for fluidly coupling to a source of reduced pressure; and an absorbent material disposed between the first manifolding layer and the second manifolding layer; wherein the first and second manifolding layers are coupled (990, 991) to each other at a perimeter of each layer to form the envelope.
Method for the production of a drilling tool comprising a drill body having an end cutting head and having an end shank, in which - a base material body is turned to the drilling body contour forming a rotationally symmetrical first blank, - at least two deep-hole bores are incorporated in the first blank which deep-hole bores are arranged at a distance from one another and extend in the direction of the shank of the blank from points which are arranged eccentrically with respect to a central axis on the end face of the cutting-head blank end, - the second blank, which has been prefabricated in this way is heated to a predetermined temperature at clamping-in points (38, 40) which are arranged at an axial distance from one another, in a zone located between these clamping-in points (38, 40) and is twisted plastically in a helical shape through a predetermined angle. characterized in that a number of chip flutes, corresponding to the number of deep-hole bores (36, 26), are milled in a helical shape in the third blank which has been formed in this way, such that the twisted deep-hole bores run within ribs which remain between adjacent flanks of the chip flutes, and such that the deep-hole bores (36, 26) are milled on the cutting-head side in an untwisted straight area forming outlet openings which open into the chip flutes. - a base material body is turned to the drilling body contour forming a rotationally symmetrical first blank, - at least two deep-hole bores are incorporated in the first blank which deep-hole bores are arranged at a distance from one another and extend in the direction of the shank of the blank from points which are arranged eccentrically with respect to a central axis on the end face of the cutting-head blank end, - the second blank, which has been prefabricated in this way is heated to a predetermined temperature at clamping-in points (38, 40) which are arranged at an axial distance from one another, in a zone located between these clamping-in points (38, 40) and is twisted plastically in a helical shape through a predetermined angle. characterized in that a number of chip flutes, corresponding to the number of deep-hole bores (36, 26), are milled in a helical shape in the third blank which has been formed in this way, such that the twisted deep-hole bores run within ribs which remain between adjacent flanks of the chip flutes, and such that the deep-hole bores (36, 26) are milled on the cutting-head side in an untwisted straight area forming outlet openings which open into the chip flutes.
An engine controlling apparatus, comprising: an idle speed setting unit that sets a target idle speed upon idling of an engine mounted on a vehicle; a target torque setting unit that sets an idle demand torque (Pi_NeFB) in response to the target idle speed set by said idle speed setting unit; a steering angle detection unit that detects a steering angle (θ_SAS) of a steering wheel of the vehicle; an external load addition torque setting section that sets an external load addition torque (Pi_ADD) based on the detected steering angle (θ_SAS); and a torque value setting unit that, upon idle control, calculates based on the idle demand torque (Pi_NeFB) an ignition controlling target torque (Pi_TGT) and an intake controlling target torque (Pi_ETV_STD); wherein the intake controlling target torque (Pi_ETV_STD) is increased by the value of the external load addition torque (Pi_ADD); wherein the ignition controlling target torque (Pi_TGT) is transmitted to an ignition timing controlling unit in order to control an ignition timing of the engine; and wherein the intake controlling target torque (Pi_ETV_STD) is transmitted to an intake air amount controlling unit in order to control an intake air amount of the engine; the engine controlling apparatus being characterized in that the external load addition torque (Pi_ADD) increases stepwise between at least 3 values (Pi_ADD_PS1, Pi_ADD_PS2 and Pi_ADD_PS3) in response to the increase of the absolute value (|θ_SAS|) of the steering angle (θ_SAS). an idle speed setting unit that sets a target idle speed upon idling of an engine mounted on a vehicle; a target torque setting unit that sets an idle demand torque (Pi_NeFB) in response to the target idle speed set by said idle speed setting unit; a steering angle detection unit that detects a steering angle (θ_SAS) of a steering wheel of the vehicle; an external load addition torque setting section that sets an external load addition torque (Pi_ADD) based on the detected steering angle (θ_SAS); and a torque value setting unit that, upon idle control, calculates based on the idle demand torque (Pi_NeFB) an ignition controlling target torque (Pi_TGT) and an intake controlling target torque (Pi_ETV_STD); wherein the intake controlling target torque (Pi_ETV_STD) is increased by the value of the external load addition torque (Pi_ADD); wherein the ignition controlling target torque (Pi_TGT) is transmitted to an ignition timing controlling unit in order to control an ignition timing of the engine; and wherein the intake controlling target torque (Pi_ETV_STD) is transmitted to an intake air amount controlling unit in order to control an intake air amount of the engine; the engine controlling apparatus being characterized in that the external load addition torque (Pi_ADD) increases stepwise between at least 3 values (Pi_ADD_PS1, Pi_ADD_PS2 and Pi_ADD_PS3) in response to the increase of the absolute value (|θ_SAS|) of the steering angle (θ_SAS).