mhurhangee/ep-ind-claims huggingface dataset:
Method of operating and/or controlling a personal care device, in particular hair removal device such as an electric shaver, wherein at least one user's behavior parameter is detected by at least one detector when handling the personal care device during a personal care treatment session, characterized by the steps of - comparing the real-time data of the detected user's behavior parameter to historical data of at least one behavioral parameter stored in a storage and/or detection of at least one emotional parameter indicative of the user's emotion when handling the personal care device during a personal care treatment session by at least one emotion detector, and - determination of natural behavior and/or non-natural behavior depending on said comparison of the real-time data and historical data of the behavioral parameter and/or the detected emotional parameter. - comparing the real-time data of the detected user's behavior parameter to historical data of at least one behavioral parameter stored in a storage and/or detection of at least one emotional parameter indicative of the user's emotion when handling the personal care device during a personal care treatment session by at least one emotion detector, and - determination of natural behavior and/or non-natural behavior depending on said comparison of the real-time data and historical data of the behavioral parameter and/or the detected emotional parameter.
A gas turbine combustor comprising: a burner including a perforated plate, a fuel nozzle plate, and a plurality of fuel nozzles, each of the fuel nozzles comprising an insertion section located in a root part thereof; and the fuel nozzle plate including hole sections into each of which the insertion section of one of the fuel nozzles is inserted, and the perforated plate having fuel is injected to it from fuel channels of the fuel nozzles and including air holes not in contact with a downstream end portion of each of the fuel nozzles, the air holes having inlets on the fuel nozzle side in which the fuel injected from the fuel nozzles and compressed air flowing into the burner are mixed, and the perforated plate injecting an air fuel mixture of the fuel and the compressed air toward a combustion chamber; wherein the insertion section of each of the fuel nozzles includes a downstream portion and an upstream portion, viewed from a flowing direction of the fuel, a male screw section being formed on an outer circumferential surface of the downstream portion only, the fuel nozzle plate includes a female screw section in each of the hole sections, the female screw section screwing with the male screw section, an upstream end portion of the insertion section being metallurgically joined to an upstream end portion of the fuel nozzle plate. a burner including a perforated plate, a fuel nozzle plate, and a plurality of fuel nozzles, each of the fuel nozzles comprising an insertion section located in a root part thereof; and the fuel nozzle plate including hole sections into each of which the insertion section of one of the fuel nozzles is inserted, and the perforated plate having fuel is injected to it from fuel channels of the fuel nozzles and including air holes not in contact with a downstream end portion of each of the fuel nozzles, the air holes having inlets on the fuel nozzle side in which the fuel injected from the fuel nozzles and compressed air flowing into the burner are mixed, and the perforated plate injecting an air fuel mixture of the fuel and the compressed air toward a combustion chamber; wherein the insertion section of each of the fuel nozzles includes a downstream portion and an upstream portion, viewed from a flowing direction of the fuel, a male screw section being formed on an outer circumferential surface of the downstream portion only, the fuel nozzle plate includes a female screw section in each of the hole sections, the female screw section screwing with the male screw section, an upstream end portion of the insertion section being metallurgically joined to an upstream end portion of the fuel nozzle plate.
A method for determining relative motion between a time-of-flight camera and an object in a scene sensed by the time-of-flight camera, wherein the object emits a modulated light signal, the method comprising: receiving at least two sets of raw images of the scene from the time-of-flight camera, wherein the at least two sets of raw images each comprise at least one raw image, wherein the raw images are based on correlations of a modulated reference signal and measurement signals of the time-of-flight camera, and wherein the measurement signals are based on the modulated light signal emitted by the object; determining for each set of raw images a value indicating a respective phase difference between the modulated light signal and the modulated reference signal based on the respective set of raw images; controlling the time-of-flight camera to synchronize a modulation frequency of the modulated reference signal to a modulation frequency of the modulated light signal emitted by the object; modifying the values indicating the phase differences based on a synchronization error of the modulation frequency of the modulated reference signal to obtain compensated values; determining information about relative motion between the time-of-flight camera and the object based on the compensated values; and outputting the information about relative motion between the time-of-flight camera and the object. receiving at least two sets of raw images of the scene from the time-of-flight camera, wherein the at least two sets of raw images each comprise at least one raw image, wherein the raw images are based on correlations of a modulated reference signal and measurement signals of the time-of-flight camera, and wherein the measurement signals are based on the modulated light signal emitted by the object; determining for each set of raw images a value indicating a respective phase difference between the modulated light signal and the modulated reference signal based on the respective set of raw images; controlling the time-of-flight camera to synchronize a modulation frequency of the modulated reference signal to a modulation frequency of the modulated light signal emitted by the object; modifying the values indicating the phase differences based on a synchronization error of the modulation frequency of the modulated reference signal to obtain compensated values; determining information about relative motion between the time-of-flight camera and the object based on the compensated values; and outputting the information about relative motion between the time-of-flight camera and the object.
An elevator control device for optimizing variable-speed driving, comprising: a learning function section for updating running control parameters based on a result of identification of running state quantities during a normal operation after an elevator is installed; the elevator control device further comprising: a learning-function check section for performing one of stop of elevator service and rated running using predetermined running control parameters when the running control parameters obtained by the learning function section are out of allowable ranges of the running control parameters, which are estimated from allowable fluctuation rates of basic apparatus specification values of the elevator, and for determining that the learning function section is normal when the running control parameters are within the allowable ranges of the running control parameters. a learning function section for updating running control parameters based on a result of identification of running state quantities during a normal operation after an elevator is installed; the elevator control device further comprising: a learning-function check section for performing one of stop of elevator service and rated running using predetermined running control parameters when the running control parameters obtained by the learning function section are out of allowable ranges of the running control parameters, which are estimated from allowable fluctuation rates of basic apparatus specification values of the elevator, and for determining that the learning function section is normal when the running control parameters are within the allowable ranges of the running control parameters. a learning-function check section for performing one of stop of elevator service and rated running using predetermined running control parameters when the running control parameters obtained by the learning function section are out of allowable ranges of the running control parameters, which are estimated from allowable fluctuation rates of basic apparatus specification values of the elevator, and for determining that the learning function section is normal when the running control parameters are within the allowable ranges of the running control parameters.
A cold-rolled steel sheet having a chemical composition containing, by mass%, C: 0.06% or more and 0.20% or less, Si: less than 0.30%, Mn: 1.8% or more and 3.2% or less, P: 0.03% or less, S: 0.005% or less, Al: 0.08% or less, N: 0.0070% or less, and optionally one or more of Ti: 0.005% or more and 0.060% or less, V: 0.001% or more and 0.3% or less, W: 0.001% or more and 0.2% or less, Nb: 0.001% or more and 0.08% or less, Cu: 0.001% or more and 0.5% or less, Cr: 0.001% or more and 0.8% or less, Ni: 0.001% or more and 0.5% or less, Mo: 0.001% or more and 0.5% or less, B: 0.0001% or more and 0.0030% or less, and REM, Mg, Ca, and Sb in a total amount of 0.0002% or more and 0.01% or less, and the balance being Fe and inevitable impurities, wherein the Mn concentration in a surface layer of the steel sheet satisfies relational expression and relational expression below: 8 ≤ C p / C c × Mn C min / C c × Mn ≤ 2.5 where C p: maximum Mn concentration in a region within 0.5 μm of a surface of a steel sheet in the thickness direction, C c: average Mn concentration in a region from a position located 5 μm from the surface of a steel sheet in the thickness direction to a position located 5 μm from an opposite surface in the thickness direction, C min: minimum Mn concentration in a region from 0.5 μm to 5 μm from the surface of a steel sheet in the thickness direction, Mn: Mn content in mass% and the Mn concentration in the surface layer is determined as indicated in the description. C p: maximum Mn concentration in a region within 0.5 μm of a surface of a steel sheet in the thickness direction, C c: average Mn concentration in a region from a position located 5 μm from the surface of a steel sheet in the thickness direction to a position located 5 μm from an opposite surface in the thickness direction, C min: minimum Mn concentration in a region from 0.5 μm to 5 μm from the surface of a steel sheet in the thickness direction, Mn: Mn content in mass% and the Mn concentration in the surface layer is determined as indicated in the description.
A rolling apparatus of a cooker, comprising: a turntable motor intended for being installed below a cavity and provided with a motor shaft; a rotating ring coupled to the motor shaft to rotate within the cavity; a plurality of roller shafts provided on an outer periphery of the ring; a roller assembly coupled to each roller shaft for rotating about the roller shaft, each roller assembly comprising: an outer roller intended for contacting and rolling on a floor of a cavity, and an inner roller coupled to an inside of the outer roller, wherein the outer roller and the inner roller are formed of different materials, characterized in that: the outer roller comprises a shaft coupling portion that is provided within the outer roller, the outer roller is formed in a hollow cylindrical shape with an open end, the inner roller is inserted in a space between an inner periphery of the outer roller and an outer periphery of the shaft coupling portion, and the roller shaft is coupled to a shaft coupling hole of the shaft coupling portion. a turntable motor intended for being installed below a cavity and provided with a motor shaft; a rotating ring coupled to the motor shaft to rotate within the cavity; a plurality of roller shafts provided on an outer periphery of the ring; a roller assembly coupled to each roller shaft for rotating about the roller shaft, each roller assembly comprising: an outer roller intended for contacting and rolling on a floor of a cavity, and an inner roller coupled to an inside of the outer roller, wherein the outer roller and the inner roller are formed of different materials, characterized in that: the outer roller comprises a shaft coupling portion that is provided within the outer roller, the outer roller is formed in a hollow cylindrical shape with an open end, the inner roller is inserted in a space between an inner periphery of the outer roller and an outer periphery of the shaft coupling portion, and the roller shaft is coupled to a shaft coupling hole of the shaft coupling portion. an outer roller intended for contacting and rolling on a floor of a cavity, and an inner roller coupled to an inside of the outer roller, wherein the outer roller and the inner roller are formed of different materials, characterized in that: the outer roller comprises a shaft coupling portion that is provided within the outer roller, the outer roller is formed in a hollow cylindrical shape with an open end, the inner roller is inserted in a space between an inner periphery of the outer roller and an outer periphery of the shaft coupling portion, and the roller shaft is coupled to a shaft coupling hole of the shaft coupling portion. the outer roller comprises a shaft coupling portion that is provided within the outer roller, the outer roller is formed in a hollow cylindrical shape with an open end, the inner roller is inserted in a space between an inner periphery of the outer roller and an outer periphery of the shaft coupling portion, and the roller shaft is coupled to a shaft coupling hole of the shaft coupling portion.
Aluminium alloy for producing lithographic printing plate supports, characterised in that the aluminium alloy contains the following alloy components in percent by weight: 0.35 % ≤ Fe ≤ 0.5 %, 0.2 % ≤ Mg ≤ 0.7 %, 0.08 % ≤ Si ≤ 0.25 %, 0.5 % ≤ Mn ≤ 0.6 %, Cu ≤ 0.002 %, Ti < 0.0075 %, Zn ≤ 0.012 %, Cr ≤ 0.003 %, the rest being Al and unavoidable impurities, each in an amount of 0.075 % at most to give a total of 0.075 % at most.
Apparatus to control continuous casting, comprising a mold provided with at least one entrance end through which liquid metal is introduced, at least one electromagnetic brake associated with the mold and configured to induce in said liquid metal recirculation flows, and a control and command unit connected at least to said electromagnetic brake and configured to manage the functioning thereof, the apparatus comprising detection means located, at least in a condition of use, above the entrance end and each configured to detect at least a reciprocal distance with respect to the level of said liquid metal, wherein said control and command unit is also connected to said detection means to acquire the data of each distance from each detection mean, process them in relation to the positioning of said detection means, determining characteristic parameters of the development of the surface profile of said liquid metal, and command the drive at least of said electromagnetic brake based on said characteristic parameters of the development of said surface profile in order to determine predefined recirculation flows of the liquid metal characterized in that said control and command unit is configured to process the data of each distance determining, as characteristic parameters, the evolution speed of the surface profile and/or the temporal average of each said distance on predetermined time intervals and/or the instant deviations from the temporal average for each detection mean.
A component mounting machine comprising: a component supply device configured to supply a component; a board holding device configured to hold a board; a head configured to hold a component holding tool to be capable of lifting and lowering the component holding tool; a load detector configured to detect a load applied to the component holding tool; a head moving device (20, 24) configured to move the head between the component supply device and the board holding device; and a control device configured to obtain hardness characteristics when the component holding tool comes into contact with the board or the component holding tool that holds the component comes into indirect contact with the board via the component, based on load information detected by the load detector when the head is controlled such that the component holding tool comes into contact with the board, wherein the load information is time-dependent data that represents a time-dependent change of the load; the machine further comprises a storage device configured to store a correspondence between the time-dependent data and the hardness characteristics; and the control device is configured to obtain the hardness characteristics that correspond to the time-dependent data using the correspondence stored in the storage device. a component supply device configured to supply a component; a board holding device configured to hold a board; a head configured to hold a component holding tool to be capable of lifting and lowering the component holding tool; a load detector configured to detect a load applied to the component holding tool; a head moving device (20, 24) configured to move the head between the component supply device and the board holding device; and a control device configured to obtain hardness characteristics when the component holding tool comes into contact with the board or the component holding tool that holds the component comes into indirect contact with the board via the component, based on load information detected by the load detector when the head is controlled such that the component holding tool comes into contact with the board, wherein the load information is time-dependent data that represents a time-dependent change of the load; the machine further comprises a storage device configured to store a correspondence between the time-dependent data and the hardness characteristics; and the control device is configured to obtain the hardness characteristics that correspond to the time-dependent data using the correspondence stored in the storage device.
A finger actuator (100, 300), comprising: a plurality of fluidically interconnected extensible segments separated from adjacent extensible segments by a hinge, wherein: the extensible segments comprise at least one fluidically interconnected inflatable chamber, the extensible segments comprise an outer wall, the extensible segments comprise two inner walls at opposing ends of the extensible segments and two fluidically interconnected inflatable chambers located proximate to the inner walls; and an inextensible layer connected to the extensible segments at a base of the extensible segments, the inextensible layer comprising a flexible polymer and having an embedded inextensible layer that extends along the length of the finger actuator (100, 300), characterized in that the outer wall comprises a constraining fabric selected to constrain radial expansion and in that the extensible segments further comprise two freestanding inner walls at opposing ends of the extensible segments and two fluidically interconnected inflatable chambers located proximate to the inner walls. the extensible segments comprise at least one fluidically interconnected inflatable chamber, the extensible segments comprise an outer wall, the extensible segments comprise two inner walls at opposing ends of the extensible segments and two fluidically interconnected inflatable chambers located proximate to the inner walls; and an inextensible layer connected to the extensible segments at a base of the extensible segments, the inextensible layer comprising a flexible polymer and having an embedded inextensible layer that extends along the length of the finger actuator (100, 300), characterized in that the outer wall comprises a constraining fabric selected to constrain radial expansion and in that the extensible segments further comprise two freestanding inner walls at opposing ends of the extensible segments and two fluidically interconnected inflatable chambers located proximate to the inner walls.
A pea isolate comprising, calculated by weight of dry matter: a. 0-10 wt.% of pea components having a molecular weight of at least 30 kDa; b. 0-70 wt.% galacto-oligosaccharides selected from raffinose, stachyose, verbascose and combinations thereof; c. 0.05-20 wt.% of 5'-inosine monophosphate; d. 0-4 wt.% of 5'-adenosine monophosphate; wherein the weight ratio IMP: AMP exceeds 1:1. a. 0-10 wt.% of pea components having a molecular weight of at least 30 kDa; b. 0-70 wt.% galacto-oligosaccharides selected from raffinose, stachyose, verbascose and combinations thereof; c. 0.05-20 wt.% of 5'-inosine monophosphate; d. 0-4 wt.% of 5'-adenosine monophosphate;
An airtight container for a refrigerator comprising: a case having a storage space formed therein and maintained at a negative pressure state; and a drawer storing food and opening and closing the storage space while being supported by the case so as to be movable in a straight line direction with respect to the case, the drawer comprising a ventilation port to ventilate the storage space; characterized by a ventilation port opening and closing member supported by the drawer so as to be movable in the straight line direction with respect to the drawer, wherein the ventilation port opening and closing member comprises a sealing protrusion which closes the ventilation port by being inserted into the ventilation port and opens the ventilation port by being withdrawn from the ventilation port, wherein the sealing protrusion is withdrawn from the ventilation port as the ventilation port opening and closing member moves in the straight line direction and the drawer is withdrawn from the case as the ventilation port opening and closing member further moves in the straight line direction after the ventilation port is opened by the sealing protrusion. a case having a storage space formed therein and maintained at a negative pressure state; and a drawer storing food and opening and closing the storage space while being supported by the case so as to be movable in a straight line direction with respect to the case, the drawer comprising a ventilation port to ventilate the storage space; characterized by a ventilation port opening and closing member supported by the drawer so as to be movable in the straight line direction with respect to the drawer, wherein the ventilation port opening and closing member comprises a sealing protrusion which closes the ventilation port by being inserted into the ventilation port and opens the ventilation port by being withdrawn from the ventilation port, wherein the sealing protrusion is withdrawn from the ventilation port as the ventilation port opening and closing member moves in the straight line direction and the drawer is withdrawn from the case as the ventilation port opening and closing member further moves in the straight line direction after the ventilation port is opened by the sealing protrusion.