mhurhangee/ep-ind-claims huggingface dataset:
An aircraft, comprising: an electric propulsion system comprising an electric power source and an electric motor coupled to a rotor, the electric motor comprising an electric motor temperature sensor arranged to measure a winding temperature of the electric motor; and an electric power monitoring system comprising: a controller electronically connected to the electric motor; and an instrument electronically connected to the electric motor, the instrument configured to communicate a time available value before a motor condition reaches a motor condition limit, the motor condition limit being based on the measured winding temperature of the electric motor. an electric propulsion system comprising an electric power source and an electric motor coupled to a rotor, the electric motor comprising an electric motor temperature sensor arranged to measure a winding temperature of the electric motor; and an electric power monitoring system comprising: a controller electronically connected to the electric motor; and an instrument electronically connected to the electric motor, the instrument configured to communicate a time available value before a motor condition reaches a motor condition limit, the motor condition limit being based on the measured winding temperature of the electric motor. a controller electronically connected to the electric motor; and an instrument electronically connected to the electric motor, the instrument configured to communicate a time available value before a motor condition reaches a motor condition limit, the motor condition limit being based on the measured winding temperature of the electric motor.
Fastening assembly comprising a profiled rail and a fastening device for fastening a load to the profiled rail which has a substantially C-shaped cross-section and a longitudinal slot, wherein the fastening device has a cover plate for placing on the profiled rail, a threaded plate which has a threaded bore and a length that is greater than the width of the longitudinal slot and a width that is smaller than the width of the longitudinal slot, and a holding device arranged on the cover plate for the threaded plate for inserting into the profiled rail, in which the threaded plate is held at a distance from and parallel to the cover plate, wherein the cover plate has at least one set deformation point and/or a bending elasticity distributed evenly over one region, characterised in that the set deformation point and/or the bending elasticity is/are designed such that the cover plate, under a force acting on the fastening device, allows a deformation of the cover plate to a dimension that is smaller than the width of the longitudinal slot of the profiled rail so that the cover plate is no longer in the force flow path in a final assembly position. a threaded plate which has a threaded bore and a length that is greater than the width of the longitudinal slot and a width that is smaller than the width of the longitudinal slot, and a holding device arranged on the cover plate for the threaded plate for inserting into the profiled rail, in which the threaded plate is held at a distance from and parallel to the cover plate, wherein the cover plate has at least one set deformation point and/or a bending elasticity distributed evenly over one region, characterised in that the set deformation point and/or the bending elasticity is/are designed such that the cover plate, under a force acting on the fastening device, allows a deformation of the cover plate to a dimension that is smaller than the width of the longitudinal slot of the profiled rail so that the cover plate is no longer in the force flow path in a final assembly position.
A piston ring comprising a base body, which comprises a bearing surface, an inner circumferential surface as well as an upper and a lower flanks extending between them, wherein the base body is provided with a joint and comprises a cross section disturbance in form of an internal bevel or an internal angle in particular in the area of the inner circumferential surface of the base body, wherein the bearing surface, seen in the peripheral direction, is provided with changing bearing surface conicities (α) and/or convexities for generating a uniform pivot point position, wherein a smaller bearing surface conicity (α) and/or convexity is given in the area of the joint than the one in the diametrically opposed ring back and the bearing surface conicity (α) and/or convexity constantly increases from the joint in both peripheral directions of the bearing surface, characterized in that the bearing surface conicities (α) and/or convexities of the bearing surface, seen over the circumference, are fixed to be much greater than a maximum twist angle of the piston ring, and that a uniform pivot point position with regard to the circumference of the piston ring is achieved by means of bearing surface conicities (α) and/or convexities adapted to the twist angle.
A method of transitioning radio resource control, hereinafter RRC, states of a user equipment, hereinafter UE, for wireless communications, comprising: receiving a reconfiguration message from a network, while the UE is in a cell dedicated channel, hereinafter CELL_DCH, state of the RRC states, wherein the reconfiguration message is configured to transition the UE from the CELL_DCH state to a non-dedicated channel state of the RRC states; and sending a plurality of acknowledgement procedures to the network on an uplink, in response to the received reconfiguration message causing the UE to transition from the CELL_DCH state of the RRC states to the non-dedicated channel state of the RRC states, wherein a number of the plurality of acknowledgement procedures is determined based at least on previous RRC state transitions of the UE, and wherein each of the plurality of acknowledgement procedures comprises a status packet data unit and the status packet data unit includes acknowledgement information of the received reconfiguration message from the network. receiving a reconfiguration message from a network, while the UE is in a cell dedicated channel, hereinafter CELL_DCH, state of the RRC states, wherein the reconfiguration message is configured to transition the UE from the CELL_DCH state to a non-dedicated channel state of the RRC states; and sending a plurality of acknowledgement procedures to the network on an uplink, in response to the received reconfiguration message causing the UE to transition from the CELL_DCH state of the RRC states to the non-dedicated channel state of the RRC states, wherein a number of the plurality of acknowledgement procedures is determined based at least on previous RRC state transitions of the UE, and wherein each of the plurality of acknowledgement procedures comprises a status packet data unit and the status packet data unit includes acknowledgement information of the received reconfiguration message from the network. wherein a number of the plurality of acknowledgement procedures is determined based at least on previous RRC state transitions of the UE, and wherein each of the plurality of acknowledgement procedures comprises a status packet data unit and the status packet data unit includes acknowledgement information of the received reconfiguration message from the network.
Percussion piston for a rock drill machine, the machine comprising a pilot cylinder, a sleeve-type distributor and pressure medium, wherein the percussion piston comprises a control edge configurable to cause a change in the position of the distributor in a direction parallel to the axial direction of the percussion piston as the percussion piston moves in the impact direction in relation to the pilot cylinder, characterized in that said control edge of the percussion piston comprises at least one notch provided on the outer periphery of the control edge and arrangeable to cause a start of a state change for the distributor before the control edge of the percussion piston passes by a corresponding control edge provided on the distributor or the pilot cylinder.
A device for detecting an internal flaw in a steel plate using a height-adjustable ultrasonic sensor, the device comprising: a spray nozzle provided at a distance from a lower portion of a steel plate and configured to spray a medium toward the steel plate to form a medium column; an ultrasonic sensor configured to transmit and receive ultrasonic waves for detecting an internal flaw in the steel plate through the medium column; a flaw detecting unit configured to detect the internal flaw in the steel plate based on the transmitted and received ultrasonic waves; and a lifting unit configured to lift or lower the ultrasonic sensor to adjust the distance between the ultrasonic sensor and the steel plate such that waves reflected by a lower surface of the steel plate, waves reflected by the internal flaw of the steel plate, and waves reflected by an upper surface of the steel plate arrive at the ultrasonic sensor sequentially, wherein the lifting unit is provided in the spray nozzle. a spray nozzle provided at a distance from a lower portion of a steel plate and configured to spray a medium toward the steel plate to form a medium column; an ultrasonic sensor configured to transmit and receive ultrasonic waves for detecting an internal flaw in the steel plate through the medium column; a flaw detecting unit configured to detect the internal flaw in the steel plate based on the transmitted and received ultrasonic waves; and a lifting unit configured to lift or lower the ultrasonic sensor to adjust the distance between the ultrasonic sensor and the steel plate such that waves reflected by a lower surface of the steel plate, waves reflected by the internal flaw of the steel plate, and waves reflected by an upper surface of the steel plate arrive at the ultrasonic sensor sequentially, wherein the lifting unit is provided in the spray nozzle.
A multi-channel acoustic echo canceller arrangement comprising: - a circuit for receiving a microphone signal from a microphone, the microphone signal comprising contributions from at least two audio sources (107, 109) to be cancelled; - an echo canceling circuit (113, 115) coupled to the microphone, the echo canceling circuit (113, 115) being arranged to perform echo cancellation of the two audio sources (107, 109) based on channel estimates for channels from each of the audio sources (107, 109) to the microphone; - an estimation circuit for generating each of the channel estimates as a combination of a previous channel estimate and a channel estimate update, the combination comprising applying a relative weight to the channel estimate update relative to the previous channel estimate; and - a weight circuit arranged to vary the relative weight in response to a time value. - a circuit for receiving a microphone signal from a microphone, the microphone signal comprising contributions from at least two audio sources (107, 109) to be cancelled; - an echo canceling circuit (113, 115) coupled to the microphone, the echo canceling circuit (113, 115) being arranged to perform echo cancellation of the two audio sources (107, 109) based on channel estimates for channels from each of the audio sources (107, 109) to the microphone; - an estimation circuit for generating each of the channel estimates as a combination of a previous channel estimate and a channel estimate update, the combination comprising applying a relative weight to the channel estimate update relative to the previous channel estimate; and - a weight circuit arranged to vary the relative weight in response to a time value.
An uplink-signal-based processing method, implemented by a network device, the method comprising: configuring for a terminal two aperiodic sounding reference signal, SRS, resource sets for antenna switching, characterized in that, during configuring the two aperiodic SRS resource sets, the method further comprises: configuring the two aperiodic SRS resource sets with same values of higher layer parameter aperiodicSRS-ResourceTrigger, and configuring the two aperiodic SRS resource sets with different values of higher layer parameter slotoffset. configuring for a terminal two aperiodic sounding reference signal, SRS, resource sets for antenna switching, characterized in that, during configuring the two aperiodic SRS resource sets, the method further comprises: configuring the two aperiodic SRS resource sets with same values of higher layer parameter aperiodicSRS-ResourceTrigger, and configuring the two aperiodic SRS resource sets with different values of higher layer parameter slotoffset.
Method for coding a sequence of video images by motion-compensated temporal filtering by discrete wavelet decomposition, a discrete wavelet decomposition comprising a step of dividing the sequence of video images into two groups of images, at least one step of determining, on the basis of at least one image composed of pixels of one of the groups of images, called the source group, an image representative of an image of the other group of images, called the destination group, characterized in that the image representative of an image of the destination group comprises pixels and sub-pixels determined on the basis of pixels and of sub-pixels obtained by over-sampling at least one image of the source group.
An ion detector comprising: an entrance aperture for receiving ions having a beam path with a longitudinal axis that extends through the entrance aperture; a Faraday cup; an electron multiplier; and an ion beam controller arranged to direct ions received through the entrance aperture, and switchable between a first configuration in which the controller acts such that received ions are detected by the Faraday cup, and the second configuration in which the controller acts such that received ions are detected by the electron multiplier; wherein the ion beam controller is arranged to produce an electric field for directing ions in at least one of said first and second configurations; characterised in that the ion beam controller comprises a first dynode arranged in said second configuration to attract received ions to collide with a surface of the dynode so as to cause the surface to emit secondary electrons for detection by the electron multiplier, the emitted electrons being directed across the longitudinal axis. an entrance aperture for receiving ions having a beam path with a longitudinal axis that extends through the entrance aperture; a Faraday cup; an electron multiplier; and an ion beam controller arranged to direct ions received through the entrance aperture, and switchable between a first configuration in which the controller acts such that received ions are detected by the Faraday cup, and the second configuration in which the controller acts such that received ions are detected by the electron multiplier; wherein the ion beam controller is arranged to produce an electric field for directing ions in at least one of said first and second configurations; characterised in that the ion beam controller comprises a first dynode arranged in said second configuration to attract received ions to collide with a surface of the dynode so as to cause the surface to emit secondary electrons for detection by the electron multiplier, the emitted electrons being directed across the longitudinal axis.
A two-liquid mixing-type aerosol product comprising: a double-structure container including a propellant filling space and two independent liquid concentrate filling spaces and having a discharging mechanism for simultaneously discharging contents filled in the two liquid concentrate filling spaces, wherein the propellant filling space in the double-structure container is filled with a propellant composed of a compressed gas, a first liquid concentrate filling space in the double-structure container is filled with a first liquid concentrate composition, and a second liquid concentrate filling space in the double-structure container is filled with a second liquid concentrate composition, the first liquid concentrate composition and the second liquid concentrate composition have different properties, wherein the first liquid concentrate composition is a water-based liquid composition containing a water-soluble component in a medium composed of water, and the second liquid concentrate composition is an oil-based liquid composition containing an oil-soluble component in a medium composed of a liquid oil or fat immiscible with water, and the first liquid concentrate composition and the second liquid concentrate composition each have a viscosity of from 1,000 to 125,000 mPa·s at a temperature of 20°C. a double-structure container including a propellant filling space and two independent liquid concentrate filling spaces and having a discharging mechanism for simultaneously discharging contents filled in the two liquid concentrate filling spaces, wherein the propellant filling space in the double-structure container is filled with a propellant composed of a compressed gas, a first liquid concentrate filling space in the double-structure container is filled with a first liquid concentrate composition, and a second liquid concentrate filling space in the double-structure container is filled with a second liquid concentrate composition, the first liquid concentrate composition and the second liquid concentrate composition have different properties, wherein the first liquid concentrate composition is a water-based liquid composition containing a water-soluble component in a medium composed of water, and the second liquid concentrate composition is an oil-based liquid composition containing an oil-soluble component in a medium composed of a liquid oil or fat immiscible with water, and the first liquid concentrate composition and the second liquid concentrate composition each have a viscosity of from 1,000 to 125,000 mPa·s at a temperature of 20°C.
A method for manufacturing an inkjet-printed substrate comprising the following steps: a) providing a substrate, wherein the substrate comprises on at least one side a coating layer comprising a salifiable alkaline or alkaline earth compound, b) providing a liquid treatment composition comprising an acid, c) providing an ink, d) depositing the liquid treatment composition onto the coating layer by inkjet printing to form a first pattern, and e) depositing the ink onto the coating layer by inkjet printing to form a second pattern, wherein the liquid treatment composition and the ink are deposited simultaneously and the first pattern and the second pattern overlap at least partially, and wherein the liquid treatment composition of step b) and the ink of step c) are provided together in form of an inkjet formulation. a) providing a substrate, wherein the substrate comprises on at least one side a coating layer comprising a salifiable alkaline or alkaline earth compound, b) providing a liquid treatment composition comprising an acid, c) providing an ink, d) depositing the liquid treatment composition onto the coating layer by inkjet printing to form a first pattern, and e) depositing the ink onto the coating layer by inkjet printing to form a second pattern,
A method of coating at least one substrate with a multi-layered coating, the method comprising: providing a pre-assembled raw material stack having at least two layers, wherein each layer comprises at least one raw material, wherein the pre-assembled raw material stack comprises one outer layer, wherein providing a pre-assembled raw material stack includes providing alternating layers of SiO 2 and ZrO 2, wherein the one outer layer is ZrO 2; delivering energy to the pre-assembled raw material stack; and sequentially removing at least a portion of each of the at least two layers from the pre-assembled raw material stack, wherein sequentially removing provides at least a portion of each of the at least two layers onto the at least one substrate. providing a pre-assembled raw material stack having at least two layers, wherein each layer comprises at least one raw material, wherein the pre-assembled raw material stack comprises one outer layer, wherein providing a pre-assembled raw material stack includes providing alternating layers of SiO 2 and ZrO 2, wherein the one outer layer is ZrO 2; delivering energy to the pre-assembled raw material stack; and sequentially removing at least a portion of each of the at least two layers from the pre-assembled raw material stack, wherein sequentially removing provides at least a portion of each of the at least two layers onto the at least one substrate.
Washing device, comprising: - a First Region, for supplying a washing product, - a Second Region, for washing the washing product, and - a Third Region, for melting the washing product, and - a flow resistance, which is provided between the Second Region and the Third Region, characterized in that the Second Region is at least partially in the form of a column, wherein this column has a diameter of at least 300 mm, and a solid/liquid separating device is provided between the First Region and the Second Region. - a First Region, for supplying a washing product, - a Second Region, for washing the washing product, and - a Third Region, for melting the washing product, and - a flow resistance, which is provided between the Second Region and the Third Region,
A package for tobacco related articles having an outer box comprising a bottom wall and side walls extending from the bottom wall, wherein the outer box has at least partially a polygonal and/or round cross-sectional shape, encloses an interior space and has an opening opposite to the bottom wall or one of the side walls, characterized in that a plurality of permanent magnets is non-detachably fixed and arranged in the interior space and the plurality of permanent magnets are arranged and configured such that the permanent magnets have opposite polarity on the surface of the permanent magnets facing towards the outside of the outer box at different edge portions adjacent to the same side wall along a circumferential line around the package at the substantially same location in longitudinal direction.
Detection method for localizing at least one particle moving in a flow in a flow channel in a manner parallel to the principal flow direction, comprising the following steps: - emitting a transmission signal by a transmitter; - receiving a reflected reception signal, which is frequency- and phase-modulated in comparison with the transmission signal, by a receiver; characterized by subsequently - convolving the reception signal with at least one kernel, which represents a conjugate, estimated channel pulse response of the flow channel, to form a reconstructed particle position function and - determining a position (x 0, x 1, x 2) of the particle from the reconstructed particle position function. - emitting a transmission signal by a transmitter; - receiving a reflected reception signal, which is frequency- and phase-modulated in comparison with the transmission signal, by a receiver; - convolving the reception signal with at least one kernel, which represents a conjugate, estimated channel pulse response of the flow channel, to form a reconstructed particle position function and - determining a position (x 0, x 1, x 2) of the particle from the reconstructed particle position function.