mhurhangee/ep-ind-claims huggingface dataset:
An iron, comprising: a water reservoir, configured to hold liquid water; a heatable soleplate; at least one water outlet opening; a water atomization and distribution unit, configured to atomize water from the water reservoir and to distribute the atomized water to the at least one water outlet opening; at least one sensor (40,42), configured to monitor at least one motion dependent variable of the iron, including a direction of movement of the iron relative to a fabric being ironed, and to generate a reference signal reflecting said variable; and a control unit, operatively connected to both the water atomization and distribution unit and the at least one sensor (40, 42), and configured to control a water outflow rate of the at least one water outlet opening by controlling the operation of the water atomization and distribution unit in dependence of the reference signal generated by the at least one sensor, characterized in that the control unit is configured to control the water outflow rate of at least one water outlet opening in dependence of a direction of movement of the iron, such that the water outflow rate of said water outlet opening is increased when its associated trailing soleplate length increases as a result of a change in said direction of movement, and/or such that the water outflow rate of said water outlet opening is decreased when its associated trailing soleplate length decreases as a result of a change in said direction of movement. a water reservoir, configured to hold liquid water; a heatable soleplate; at least one water outlet opening; a water atomization and distribution unit, configured to atomize water from the water reservoir and to distribute the atomized water to the at least one water outlet opening; at least one sensor (40,42), configured to monitor at least one motion dependent variable of the iron, including a direction of movement of the iron relative to a fabric being ironed, and to generate a reference signal reflecting said variable; and a control unit, operatively connected to both the water atomization and distribution unit and the at least one sensor (40, 42), and configured to control a water outflow rate of the at least one water outlet opening by controlling the operation of the water atomization and distribution unit in dependence of the reference signal generated by the at least one sensor, characterized in that the control unit is configured to control the water outflow rate of at least one water outlet opening in dependence of a direction of movement of the iron, such that the water outflow rate of said water outlet opening is increased when its associated trailing soleplate length increases as a result of a change in said direction of movement, and/or such that the water outflow rate of said water outlet opening is decreased when its associated trailing soleplate length decreases as a result of a change in said direction of movement.
An order fulfillment system comprising: a frame defining a passageway; a tray positioned in the passageway and pivotable about a generally horizontally extending axis between a first position and a second position; and a sensor system configured to sense the position of the tray, wherein said passageway is a continuous opening extending through said frame and has a first opening at a first end thereof on a first side of said frame and a second opening at a second, opposite end thereof on a second side of said frame, and wherein the system is configured such that an item to be dispensed is insertable into the passageway and onto the tray in a first direction through the first opening, and is thereafter removable from the passageway in the first direction through the second opening, characterised in that the sensor system includes an electronic sensor configured to sense the position of the tray and to provide an output. a frame defining a passageway; a tray positioned in the passageway and pivotable about a generally horizontally extending axis between a first position and a second position; and a sensor system configured to sense the position of the tray, wherein said passageway is a continuous opening extending through said frame and has a first opening at a first end thereof on a first side of said frame and a second opening at a second, opposite end thereof on a second side of said frame, and wherein the system is configured such that an item to be dispensed is insertable into the passageway and onto the tray in a first direction through the first opening, and is thereafter removable from the passageway in the first direction through the second opening, characterised in that the sensor system includes an electronic sensor configured to sense the position of the tray and to provide an output.
A pharmaceutical composition comprising: (a) an mRNA construct for expressing alphavirus replicase which is not capable of self-replication, and (b) an RNA replicon that can be replicated by the replicase in trans, wherein the mRNA construct of (a) for expressing alphavirus replicase comprises a 5'-cap for driving translation of the replicase; and wherein the RNA replicon of (b) comprises an alphavirus 5' replication recognition sequence, an open reading frame encoding a pharmaceutically active protein or peptide and an alphavirus 3' replication recognition sequence and wherein the alphavirus 5' replication recognition sequence and the alphavirus 3' replication recognition sequence direct replication of the RNA replicon in the presence of the replicase. (a) an mRNA construct for expressing alphavirus replicase which is not capable of self-replication, and (b) an RNA replicon that can be replicated by the replicase in trans,
A battery module, comprising a substrate, a plurality of battery units, a pair of end plates, a pair of side plates and a plurality of fastening pieces; characterized in that, the plurality of battery units are located on the substrate, and are stacked in sequence along a thickness direction of the battery unit; the pair of end plates are respectively located on two sides of the plurality of battery units in their stacking direction, and are adjacent to outermost ones of the battery units and extend along a length direction of the battery unit; and an end of the end plate in the length direction of the battery unit is curled into a pipe and forms a curling pipe section, an axial direction of the curling pipe section is the same direction with a height direction of the battery unit; the pair of side plates are respectively located on two sides of the plurality of battery units in the length direction of the battery unit, extend along the thickness direction of the battery unit, and are fixedly connected with the curling pipe section; the fastening piece is inserted in the curling pipe section, extends in the curling pipe section toward the substrate and protrudes out of the curling pipe section, and is fixed on the substrate.
A slidable foodstuff support and at least one pair of lateral guiding devices (32, 34) for said foodstuff support, wherein: - the foodstuff support and the guiding devices (32, 34) are provided for a cooking oven, - the foodstuff support includes at least one support embossing formed in a lateral border of said foodstuff support, - the guiding devices (32, 34) of one pair are suitable for being arranged at two opposite side walls of an oven cavity, - at least one guiding device (32, 34) includes a rear embossing suitable for interacting with the support embossing, so that the support embossing and the rear embossing form a push-in-stop for the foodstuff support, - the at least one guiding device (32, 34) includes a front embossing suitable for interacting with the support embossing, so that the support embossing and the front embossing form a pull-out-stop for the foodstuff support, and - the rear embossing and the front embossing extend into directions opposite to the direction of the support embossing, characterized in, that the at least one pair of lateral guiding devices (32, 34) is formed as at least one pair of side grids attached or attachable at the opposite side walls of the oven cavity, the guiding device is formed by an upper horizontal bar and a lower horizontal bar of the side grid, and the rear embossing and the front embossing are formed by a salient in the upper horizontal bar. - the foodstuff support and the guiding devices (32, 34) are provided for a cooking oven, - the foodstuff support includes at least one support embossing formed in a lateral border of said foodstuff support, - the guiding devices (32, 34) of one pair are suitable for being arranged at two opposite side walls of an oven cavity, - at least one guiding device (32, 34) includes a rear embossing suitable for interacting with the support embossing, so that the support embossing and the rear embossing form a push-in-stop for the foodstuff support, - the at least one guiding device (32, 34) includes a front embossing suitable for interacting with the support embossing, so that the support embossing and the front embossing form a pull-out-stop for the foodstuff support, and - the rear embossing and the front embossing extend into directions opposite to the direction of the support embossing,
A lactic acid bacterium that produces nisin in a grass broth medium having a mono- and disaccharide total content of 0.1 to 0.4 mass% at a concentration of 40 IU or more per mL of a supernatant of the medium, wherein the lactic acid bacterium is a Lactococcus lactis SBS-0001 strain (NITE BP-1107).
Panel comprising a core layer and at least one surface layer bonded to the core layer, wherein the core layer comprises particulate material bonded with a resin and the surface layer comprises fibrous material bonded with a resin, the resins comprising a polymer derived from an aliphatic polyol with 2-15 carbon atoms and an aliphatic polycarboxylic acid with 3-15 carbon atoms, wherein the polymer has an extent of polymerization, determined gravimetrically, of at least 0.6, and wherein the ratio of the resin content (in wt.%) of the core layer to the total resin content (in wt.%) of the surface layer(s) is in the range of 1:1.5to 1:15.
A data processing apparatus comprising: address translation circuitry to translate a first address into a physical address directly identifying a corresponding location in a data store; and a table comprising one or more entries indexed by the physical address, wherein at least one of said entries identifies a first address from which the corresponding physical address was translated by the address translation circuitry; characterised by control circuitry to determine whether, in response to an access request specifying a target first address to be translated into a target physical address by the address translation circuitry, there is a mismatch between the target first address and the first address specified by the entry of the table corresponding to the target physical address, and to reject the access request or signal an error when said mismatch is determined. address translation circuitry to translate a first address into a physical address directly identifying a corresponding location in a data store; and a table comprising one or more entries indexed by the physical address, wherein at least one of said entries identifies a first address from which the corresponding physical address was translated by the address translation circuitry; characterised by control circuitry to determine whether, in response to an access request specifying a target first address to be translated into a target physical address by the address translation circuitry, there is a mismatch between the target first address and the first address specified by the entry of the table corresponding to the target physical address, and to reject the access request or signal an error when said mismatch is determined.
A fuel supplying device that supplies, to a combustion device, a mixed gas in which air and/or oxygen are mixed into a fuel gas, the fuel supply device comprising: a thermal mass flow rate sensor to be disposed on a supply line for the fuel gas so as to measure a mass flow rate (Fm) of the fuel gas; a first calculation unit that calculates a calorific flow rate (Fc) of the fuel gas based on an output (Fm) from the thermal mass flow rate sensor, wherein the first calculation unit comprises a map that is made by calculating in advance a relationship between the output of the thermal mass flow sensor and the calorific flow rate (Fc) of the fuel gas; a first flow rate adjusting device that adjusts a flow rate of the fuel gas such that the calorific flow rate (Fc) calculated by the first calculation unit matches a control target value (Fo); a second calculation unit that calculates a calculated calorific value (Qv) per unit volume of the fuel gas, wherein the second calculation unit calculates the calculated calorific value (Qv) per unit volume of the fuel gas based on an output of the thermal mass flow rate sensor; a computing unit that calculates a ratio (Qv/Qs) of the calculated calorific value (Qv) per unit volume of the fuel gas relative to a reference calorific value (Qs) per unit volume of the fuel gas in a reference condition; and a second flow rate adjusting device to be disposed on a supply line for air and/or a supply line for oxygen so as to adjust an air flow rate and/or an oxygen flow rate, based on the ratio (Qv/Qs) calculated by the computing unit and the flow rate of the fuel gas. a thermal mass flow rate sensor to be disposed on a supply line for the fuel gas so as to measure a mass flow rate (Fm) of the fuel gas; a first calculation unit that calculates a calorific flow rate (Fc) of the fuel gas based on an output (Fm) from the thermal mass flow rate sensor, wherein the first calculation unit comprises a map that is made by calculating in advance a relationship between the output of the thermal mass flow sensor and the calorific flow rate (Fc) of the fuel gas; a first flow rate adjusting device that adjusts a flow rate of the fuel gas such that the calorific flow rate (Fc) calculated by the first calculation unit matches a control target value (Fo); a second calculation unit that calculates a calculated calorific value (Qv) per unit volume of the fuel gas, wherein the second calculation unit calculates the calculated calorific value (Qv) per unit volume of the fuel gas based on an output of the thermal mass flow rate sensor; a computing unit that calculates a ratio (Qv/Qs) of the calculated calorific value (Qv) per unit volume of the fuel gas relative to a reference calorific value (Qs) per unit volume of the fuel gas in a reference condition; and a second flow rate adjusting device to be disposed on a supply line for air and/or a supply line for oxygen so as to adjust an air flow rate and/or an oxygen flow rate, based on the ratio (Qv/Qs) calculated by the computing unit and the flow rate of the fuel gas.
A surgical trajectory guide (200; 400; 500; 600; 700; 800; 900) to guide a medical device to a pivot point comprising: a base (202; 402; 502; 622; 716; 804; 902), the base being attachable to a patient in a fixed position; an axial guide member (242; 406; 504; 610; 714; 802; 904) connected with the base and aligned with a pivot point (206; 416; 506; 616; 718; 906) along a first axis (x') in fixed relation to the base and a second axis (z') perpendicular to the first axis, the guide member having a longitudinal axis (212; 420; 512; 614; 720; 912), the connection between the base and the axial guide member is such that the longitudinal axis always passes through the pivot point; characterized in that the axial guide member is prevented from rotating around the longitudinal axis; and in that the surgical trajectory guide further comprises at least one electronic angle sensor (208; 408; 516; 612; 722; 812; 916) associated with the axial guide member and adapted to automatically sense a first angle of the axial guide member relative to the local gravity vector about the first axis and a second angle of the axial guide member relative to the local gravity vector about the second axis without having to level the base. a base (202; 402; 502; 622; 716; 804; 902), the base being attachable to a patient in a fixed position; an axial guide member (242; 406; 504; 610; 714; 802; 904) connected with the base and aligned with a pivot point (206; 416; 506; 616; 718; 906) along a first axis (x') in fixed relation to the base and a second axis (z') perpendicular to the first axis, the guide member having a longitudinal axis (212; 420; 512; 614; 720; 912), the connection between the base and the axial guide member is such that the longitudinal axis always passes through the pivot point; characterized in that the axial guide member is prevented from rotating around the longitudinal axis; and in that the surgical trajectory guide further comprises at least one electronic angle sensor (208; 408; 516; 612; 722; 812; 916) associated with the axial guide member and adapted to automatically sense a first angle of the axial guide member relative to the local gravity vector about the first axis and a second angle of the axial guide member relative to the local gravity vector about the second axis without having to level the base.
Intake device and charge-air cooler unit for an internal combustion engine, with an intake housing of the intake device via which combustion air can be supplied to the cylinders of the internal combustion engine, wherein the intake housing has to be affixed to the cylinder head of the internal combustion engine and the combustion air to be conveyed via apertures into cylinder inlets in the cylinder head, and with a charge-air cooler, the charge-air cooler is integrated into the intake housing in such a way that the flow direction of the charge air in the charge-air cooler is situated on a plane perpendicular to the component of the intake housing, the flange, containing the apertures, characterized in that the air supply into the intake device and charge-air cooler unit is ensured via an inflow port which leads to a control valve from where the incoming combustion air depending on the position of the control valve is conveyed alternatively via a duct section to the inlet side of the charge-air cooler or via a by-pass by by-passing the charge-air cooler directly into an air duct which forms an intake plenum chamber directly located at the fixing flange which communicates with the apertures in the fixing flange.
Elastic rim lock without screws for eyeglasses operating as hinge and temple comprising: a coil spring, a first upper front frame part, a second lower front frame part and a cut, which longitudinally separates the first upper front frame part from the second lower front frame part, the first upper front frame part and the second lower front frame part being in flexible contact, the spring being tensioned between a head of a wire and a surface of a first seat of the second lower front frame part, the diameter of the head and the external diameter of the spring being lower than the diameter of the first seat and longitudinally sliding with respect to an axis of the first seat when the first upper front frame part and the second lower front frame part move away one from the other, characterized in that the elastic rim lock comprises the wire, a first segment of the wire passing through the spring, the first seat, a second seat of the second lower front frame part operatively connected to the first seat and having a smaller diameter than the first seat, and a seat of the first upper front frame part, while a second segment of the wire is in contact with a surface of the first upper front frame part parallel to an axis of the cut, and has the function of defining the length of the first segment, the first segment also operating as hinge for the temple, a section of the wire being configured to be a temple or a temple core, the cut being made between the seat and the second seat.
A method for preventing a touch button from being false triggered, comprising: obtaining a current screen direction state of a portable electronic device, when detecting the touch button of the electronic device being touched; determining, only when the screen direction state is a first direction state, a touch operation on the touch button and judging whether the touch operation is a predefined touch operation, wherein the first direction state is a landscape state; and reporting, when the touch operation is the predefined touch operation, a key value of the touch button to trigger a function of the touch button. obtaining a current screen direction state of a portable electronic device, when detecting the touch button of the electronic device being touched; determining, only when the screen direction state is a first direction state, a touch operation on the touch button and judging whether the touch operation is a predefined touch operation, wherein the first direction state is a landscape state; and reporting, when the touch operation is the predefined touch operation, a key value of the touch button to trigger a function of the touch button.
Piezoelectric actuator module, in particular actuator module for fuel injection valves, having at least one actuator body, which has a multiplicity of ceramic layers (26, 27) and a multiplicity of electrode layers (28, 29) arranged between the ceramic layers (26, 27), wherein the actuator body is surrounded by a coating and wherein the coating is formed by a solgel transformation and the coating is formed on the basis of organometallic polymers crosslinked by the sol-gel transformation, wherein the coating is formed on the basis of the organometallic polymers dissolved in a solvent as nanoparticles, wherein the nanoparticles are crosslinked three-dimensionally in the solvent by the sol-gel transformation, and wherein the coating is formed as a nanocrystalline, dense, oxide-ceramic film on an outer surface of the actuator body, on which at least one outer electrode connection (36, 37) is mounted if appropriate, characterized in that, during the production of the coating, the material for the coating is deposited on the outer surface of the still uncoated actuator body, on which the at least one outer electrode connection (36, 37) is mounted if appropriate.