mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling the clutch of a motor vehicle, wherein the motor vehicle has an internal combustion engine, a transmission and a clutch, wherein the clutch is provided and/or arranged effectively for transmitting a torque between the internal combustion engine and the transmission, and an output shaft of the internal combustion engine can be coupled by means of the clutch with a transmission input shaft of the transmission for transmitting the torque, wherein a transmission output shaft is effectively connected and/or coupled with drive wheels of the motor vehicle, and wherein in a coasting mode of the motor vehicle, in which the motor vehicle rolls without being powered with the internal combustion engine switched off and with at least partially, particularly completely open clutch, the internal combustion engine is tow-started by closing the clutch for starting the internal combustion engine, wherein a clutch target torque (K soll) and/or a course of a clutch target torque (K soll) is pre-specified and resulting in the setting of a respective clutch actual torque (K ist) and/or a course of a clutch actual torque (K ist), and wherein the application point of the clutch to be closed is determined and/or an application point determined and/or adapted correspondingly during one of the latter closing processes is known, characterised in that the course of the clutch target torque (K soll) is configured as such that the clutch actual torque (K ist) runs through the application point in a strictly monotonically increasing manner.
A canopy system comprising: a grouping frame and a canopy module, the grouping frame including two intersecting struts and the canopy module including a panel and suspension hardware; characterized in that the suspension hardware includes at least one suspension bar which is attached to a surface of the panel at an in-board location, and two or more hook members which are attached to the at least one suspension bar and which extend therefrom in a direction generally perpendicular to the at least one suspension bar, wherein the hook members of the suspension hardware of the panel rest on, and are supported by, each of the two intersecting struts; and the two intersecting struts intersect each other and are attached to one another. a grouping frame and a canopy module, the grouping frame including two intersecting struts and the canopy module including a panel and suspension hardware; characterized in that the suspension hardware includes at least one suspension bar which is attached to a surface of the panel at an in-board location, and two or more hook members which are attached to the at least one suspension bar and which extend therefrom in a direction generally perpendicular to the at least one suspension bar, wherein the hook members of the suspension hardware of the panel rest on, and are supported by, each of the two intersecting struts; and the two intersecting struts intersect each other and are attached to one another.
A method for characterising the ocular activity of a person from at least two electro-encephalographic signals delivered by electrodes positioned on the person's scalp, comprising the steps of: - separating the electro-encephalographic signals into a plurality of origin sources, said signals being modelled as a mixture of components each corresponding to a brain origin source or to an artefact origin source, said separating comprising determining a mixing matrix linking a matrix of electro-encephalographic signals to a matrix of origin sources; - identifying and selecting at least one ocular artefact origin source from the separated sources, - reconstructing at least one electro-encephalographic signal corresponding to said selected at least one ocular artefact origin source, said reconstructing comprising applying the mixing matrix to the matrix of origin sources in which all the origin sources, except for said selected at least one ocular artefact source, become zero; - determining information related to an ocular blink from said reconstructed electro-encephalographic signal. - separating the electro-encephalographic signals into a plurality of origin sources, said signals being modelled as a mixture of components each corresponding to a brain origin source or to an artefact origin source, said separating comprising determining a mixing matrix linking a matrix of electro-encephalographic signals to a matrix of origin sources; - identifying and selecting at least one ocular artefact origin source from the separated sources, - reconstructing at least one electro-encephalographic signal corresponding to said selected at least one ocular artefact origin source, said reconstructing comprising applying the mixing matrix to the matrix of origin sources in which all the origin sources, except for said selected at least one ocular artefact source, become zero; - determining information related to an ocular blink from said reconstructed electro-encephalographic signal.
A vibratory flow meter for determining a derived fluid temperature T f-deriv of a flow material, comprising: a flow meter assembly including one or more flow conduits; a meter temperature sensor configured to measure a meter temperature T m; an ambient temperature sensor for measuring an ambient temperature T a; and meter electronics coupled to the meter temperature sensor and to the ambient temperature sensor and configured to receive the meter temperature T m and the ambient temperature T a and determine the derived fluid temperature T f-deriv of the flow material in the vibratory flow meter using the meter temperature T m and the ambient temperature T a. a flow meter assembly including one or more flow conduits; a meter temperature sensor configured to measure a meter temperature T m; an ambient temperature sensor for measuring an ambient temperature T a; and meter electronics coupled to the meter temperature sensor and to the ambient temperature sensor and configured to receive the meter temperature T m and the ambient temperature T a and determine the derived fluid temperature T f-deriv of the flow material in the vibratory flow meter using the meter temperature T m and the ambient temperature T a.
A quaternary nanohybrid composition suitable for forming humidity sensitive layers for sensing the variation of the relative humidity value, comprising or consisting of: 20% to 25% by weight oxidized carbon nanohorns (CNHox), 20% to 25% by weight graphene oxide, 25% to 28,5% by weight tin oxide (SnO 2) and 25% to 28,5% by weight polyvinylpyrrolidone.
A center-port-type pressure vessel used in seawater desalination or water purification by reverse osmosis, the pressure vessel comprising a tube body made of a fiber-reinforced resin, wherein a center inlet/outlet part that lets a liquid in or out is provided to a tube-body-axial center part on a peripheral surface of the tube body; end-part inlet/outlet parts that let a fluid in or out are provided to tube-body-axial end parts of the tube body; the tube body is configured from a helical layer, characterized in that fibers of the helical layer are inclined at an angle of from ±40° to less than ±50° relative to a tube-body-axial direction, a reinforcing layer (6, 8) of which fibers are inclined at a greater angle than the helical layer relative to the tube-body-axial direction, and a seal layer constituting an innermost layer; a breakaway part that breaks away circumferentially outward from the seal layer is provided to a position on the helical layer where the center inlet/outlet part is provided; an inward reinforcing layer and an outward reinforcing layer are provided to inward and outward sides of the helical layer, respectively, so as to enclose the breakaway part of the helical layer therebetween; the center inlet/outlet part is provided so as to penetrate the inward reinforcing layer, the breakaway part of the helical layer, and the outward reinforcing layer; and the fibers of the inward reinforcing layer or the outward reinforcing layer are inclined at an angle of from ±60° to ±80° relative to the tube-body-axial direction.
A composition for use in a method of desensitizing patients to an allergen wherein the composition comprises a population of chitosan or alginate chitosan microparticles encapsulating the allergen and having a mean equivalent circle diameter in the range of 1μm to 10μm; wherein the method comprises delivering the composition by intradermal injection through hollow microneedles by application of high pressure; wherein the microparticles are to be delivered to the cells in the lymph system.
A device for controlled dispensing of a flowable substance comprising a chamber defined by at least one wall and having an outlet, wherein a portion of the at least one wall comprises a resilient diaphragm operable to dispense a slug comprising a predetermined volume of the flowable substance from the chamber through the outlet, wherein the or each wall defining the chamber is less easily deformable, in use, than the resilient diaphragm and wherein the or each wall (2,3) defining the chamber and the or each resilient diaphragm are made or formed together in a single piece, the device characterized in that the diaphragm provides a snapthrough or snap-action button (5,55) having a convex ready position and a concave dispensing position.
An environmental control system comprising: an air cycle machine comprising: a compressor section with a compressor inlet and a compressor outlet; and a first turbine section with a first turbine inlet and a first turbine outlet; and a first turbine bypass shutoff valve positioned adjacent to the first turbine inlet; wherein the first turbine bypass shutoff valve includes an actuator to actuate the first turbine bypass shutoff valve between a first position and a second position; wherein in the first position, the first turbine bypass shutoff valve is configured to allow air to flow through the first turbine bypass shutoff valve into the first turbine inlet; and wherein in the second position, the first turbine bypass shutoff valve is configured to allow air to flow through the first turbine bypass shutoff valve to bypass the first turbine section while shutting off the flow of air to the first turbine inlet. an air cycle machine comprising: a compressor section with a compressor inlet and a compressor outlet; and a first turbine section with a first turbine inlet and a first turbine outlet; and a first turbine bypass shutoff valve positioned adjacent to the first turbine inlet; wherein the first turbine bypass shutoff valve includes an actuator to actuate the first turbine bypass shutoff valve between a first position and a second position; wherein in the first position, the first turbine bypass shutoff valve is configured to allow air to flow through the first turbine bypass shutoff valve into the first turbine inlet; and wherein in the second position, the first turbine bypass shutoff valve is a compressor section with a compressor inlet and a compressor outlet; and a first turbine section with a first turbine inlet and a first turbine outlet; and a first turbine bypass shutoff valve positioned adjacent to the first turbine inlet; wherein the first turbine bypass shutoff valve includes an actuator to actuate the first turbine bypass shutoff valve between a first position and a second position; wherein in the first position, the first turbine bypass shutoff valve is configured to allow air to flow through the first turbine bypass shutoff valve into the first turbine inlet; and wherein in the second position, the first turbine bypass shutoff valve is configured to allow air to flow through the first turbine bypass shutoff valve to bypass the first turbine section while shutting off the flow of air to the first turbine inlet.
A rebreathing device (10, 100, 200, 300, 400, 800), comprising: a movable partition (20, 120, 720) having an actuating side (22, 122, 422, 522, 722, 822) on a first side of the movable partition (20, 120, 720), and a patient side (24, 124, 424, 624, 724, 824) on a second side of the movable partition (20, 120, 720); a housing (12, 112, 412, 712, 812) disposed about the movable partition (20, 120, 720), the housing (12, 112, 412, 712, 812) having a ventilator orifice for pneumatic communication between a ventilator and the actuating side (22, 122, 422, 522, 722, 822), and having a patient orifice (18, 118, 429) for pneumatic communication between the patient side (24, 124, 424, 624, 724, 824) and a patient; and a shunt (30, 130, 230, 430, 530, 630) defining a bypass flow path from the actuating side (22, 122, 422, 522, 722, 822) to the patient side (24, 124, 424, 624, 724, 824), wherein the shunt (30, 130, 230, 430, 530, 630) is blocked during normal operation and unblocked to allow fluid flow from the actuating side (22, 122, 422, 522, 722, 822) to the patient side (24, 124, 424, 624, 724, 824) when patient side (24, 124, 424, 624, 724, 824) is maximally evacuated and the moveable partition (20, 120, 720) is at a maximal displacement toward the patient side (24, 124, 424, 624, 724, 824); and a vaporizer (40, 140, 340, 440, 540, 740) disposed in the bypass flow path of the shunt (30, 130, 230, 430, 530, 630). a movable partition (20, 120, 720) having an actuating side (22, 122, 422, 522, 722, 822) on a first side of the movable partition (20, 120, 720), and a patient side (24, 124, 424, 624, 724, 824) on a second side of the movable partition (20, 120, 720); a housing (12, 112, 412, 712, 812) disposed about the movable partition (20, 120, 720), the housing (12, 112, 412, 712, 812) having a ventilator orifice for pneumatic communication between a ventilator and the actuating side (22, 122, 422, 522, 722, 822), and having a patient orifice (18, 118, 429) for pneumatic communication between the patient side (24, 124, 424, 624, 724, 824) and a patient; and a shunt (30, 130, 230, 430, 530, 630) defining a bypass flow path from the actuating side (22, 122, 422, 522, 722, 822) to the patient side (24, 124, 424, 624, 724, 824), wherein the shunt (30, 130, 230, 430, 530, 630) is blocked during normal operation and unblocked to allow fluid flow from the actuating side (22, 122, 422, 522, 722, 822) to the patient side (24, 124, 424, 624, 724, 824) when patient side (24, 124, 424, 624, 724, 824) is maximally evacuated and the moveable partition (20, 120, 720) is at a maximal displacement toward the patient side (24, 124, 424, 624, 724, 824); and a vaporizer (40, 140, 340, 440, 540, 740) disposed in the bypass flow path of the shunt (30, 130, 230, 430, 530, 630).
A fixing device for fixing an unfixed toner image on a sheet while conveying the sheet, comprising: a rotatable fixing member; a pressing member to contact the fixing member to form a fixing nip therebetween; a drive input rotating body to receive an external driving force and transmit the driving force to the fixing member; a first frame (17A; 17B) to support the fixing member and the pressing member; a support shaft provided on the first frame to support the drive input rotating body; at least one positioning member (18A; 18B) supportable by an image forming apparatus body when the fixing device is installed in the image forming apparatus body, the positioning member being combined with an end of the support shaft in an axial direction of the support shaft; characterized by: a drive transmission member supported by the support shaft supporting the drive input rotating body and adjacent to the drive input rotating body, configured to receive an external driving force other than the driving force of the fixing member; wherein the fixing device is configured such that the force exerted on the support shaft when said external driving force is exerted on the drive input rotating body is in a direction opposite to the force exerted on the support shaft when said other external driving force is exerted on the drive transmission member. a rotatable fixing member; a pressing member to contact the fixing member to form a fixing nip therebetween; a drive input rotating body to receive an external driving force and transmit the driving force to the fixing member; a first frame (17A; 17B) to support the fixing member and the pressing member; a support shaft provided on the first frame to support the drive input rotating body; at least one positioning member (18A; 18B) supportable by an image forming apparatus body when the fixing device is installed in the image forming apparatus body, the positioning member being combined with an end of the support shaft in an axial direction of the support shaft; at least one positioning member (18A; 18B) supportable by an image forming apparatus body when the fixing device is installed in the image forming apparatus body, the positioning member being combined with an end of the support shaft in an axial direction of the support shaft;
A safety controller for the safety-directed monitoring and control of a machine, said safety controller comprising at least one monitoring input which is configured to receive a detection signal from a protective device; at least one control output which is configured to output a shutdown command to the machine to be monitored and controlled; at least one bypass input (16A, 16B) which is configured to receive a bypass demand from an independent control system; and an evaluation unit which is connected to the monitoring input, to the bypass input (16A, 16), and to the control output and which is configured to generate the shutdown command on the basis of a received detection signal, wherein the safety controller is operated in a bypass mode for a predefinable bypass time period divided into one or more part time periods after the reception of a bypass demand, with no shutdown command being output in the bypass mode at least during a part time period even on a reception of a detection signal; wherein at least one configuration input (18A, 18B) is provided which is connected to the evaluation unit and which is configured to receive a respective configuration signal; wherein the evaluation unit is configured to determine the bypass time period and/or at least a part time period of the bypass time period on the basis of the received configuration signal; and wherein the evaluation unit is configured to determine a failure state when an expected detection signal was not received within the bypass time period and/or within at least a part time period and/or an expected ending of a reception of a detection signal or of a bypass demand has not taken place, characterized in that one of the part time periods is a predefinable first latency time period within which a detection signal has to be received so that no failure state is determined, with the evaluation unit being configured to determine the first latency time period on the basis of the received configuration signal; and/or in that one of the part time periods is a predefinable detection time period for which a previously received detection signal has to last so that no failure state is determined, with the evaluation unit being configured to determine the detection time period on the basis of the received configuration signal; and in that one of the part time periods is a predefinable third latency time period within which the reception of the bypass demand has to have ended after the ending of the operation of the safety controller in the bypass mode so that no failure state is determined, with the evaluation unit being configured to determine the third latency time period on the basis of the received configuration signal.
Method for calculating a surface of a filling material of a blast furnace, in which, by means of an antenna device having a plurality of antennas arranged in a common housing, both at least two electromagnetic signals, namely radar signals, are transmitted onto the filling material, which signals are reflected at subregions (A1 to AN) of the filling material surface, and reflected signals (1") are received, and in which the surface of the filling material is calculated from at least the data dependent on the transmitted and received electromagnetic signals (1', 1"), characterized in that, by means of the antenna device, which is non-pivotable and forms a synthetic aperture by way of the antennas, electromagnetic signals are transmitted which are each reflected substantially at all subregions (A1 to AN) of the surface of the filling material that is to be calculated.
A network access method, comprising: transmitting, by a base station, data transmission configuration information to a terminal, wherein the data transmission configuration information comprises start time, an effective duration of data transmission, and randomization granularity, the data transmission configuration information being transmitted in order to be used by the terminal for computation of a time span according to the start time and an effective duration of data transmission and for random selection of a time interval from at least one time interval obtained by division of the time span according to the randomization granularity; receiving, by the base station, a random access request sent from the terminal when a service triggering time arrives, wherein the service triggering time is a start time of the randomly selected time interval. transmitting, by a base station, data transmission configuration information to a terminal, wherein the data transmission configuration information comprises start time, an effective duration of data transmission, and randomization granularity, the data transmission configuration information being transmitted in order to be used by the terminal for computation of a time span according to the start time and an effective duration of data transmission and for random selection of a time interval from at least one time interval obtained by division of the time span according to the randomization granularity; receiving, by the base station, a random access request sent from the terminal when a service triggering time arrives, wherein the service triggering time is a start time of the randomly selected time interval.
Painting method for painting an aircraft component, with the steps in the following order: 1.1 Providing the component; 1.2 applying a film-forming masking agent to areas by printing the masking agent onto the aircraft component using a print head to create at least one masked surface area; 1.3 Allowing to form or forming a masking film from the masking agent; 1.4 Painting the aircraft component with a paint; and 1.5 applying a topcoat layer to the paint, the topcoat layer reducing the adhesion of the masking film; 1.6 Mechanically removing the masking film from the aircraft component to expose the masked surface area. 1.1 Providing the component; 1.2 applying a film-forming masking agent to areas by printing the masking agent onto the aircraft component using a print head to create at least one masked surface area; 1.3 Allowing to form or forming a masking film from the masking agent; 1.4 Painting the aircraft component with a paint; and 1.5 applying a topcoat layer to the paint, the topcoat layer reducing the adhesion of the masking film; 1.6 Mechanically removing the masking film from the aircraft component to expose the masked surface area.
A method for producing or machining, by cutting, an identical set of teeth on several, in particular at least 4, workpieces of a workpiece batch on one or more gear-cutting machines having a gear-cutting tool including a rotation axis and a set of teeth with rake faces, in rolling machining engagement, wherein in the event that a deviation of a set of teeth from the tooth profile sought for said set of teeth is detected or expected, a countermeasure that counteracts said deviation is determined and the production/machining of further workpieces in said workpiece batch continues using said countermeasure, characterised in that the countermeasure consists, at least in part, in a change in the relative position (φ, τ) of the rake faces with respect to the rotation axis of the tool, which is brought about by means of a grinding machining performed at the gear-cutting machine or on a grinding machine that belongs to the machine group of the gear-cutting machine.