mhurhangee/ep-ind-claims huggingface dataset:
A humidification and air cleaning apparatus comprising: a base body having an insertion space formed therein, wherein the base body comprises a base connector; a water tank to store water, separably placed in the insertion space of the base body; a top cover assembly disposed over an opened upper part of the water tank, wherein the top cover assembly comprises a top connector; an air wash inlet formed at a side of the water tank to receive air into the water tank; a discharge flow passage formed in at least one of the top cover assembly and the water tank, or formed between the top cover assembly and the water tank to discharge air of the water tank; and a water supply flow passage formed in the top cover assembly to guide water into the water tank; wherein the top cover assembly includes: a top cover grille including the water supply flow passage and the discharge flow passage separated from each other, and an operation module assembled with the top cover grille and configured to receive an operation signal from a user; wherein the top connector is configured to provide power and/or a control signal to the operation module, and wherein the base connector and the top connector are electrically connectable to each other; and wherein the water supply flow passage is disposed inside the operation module and the discharge flow passage is disposed outside the operation module. a base body having an insertion space formed therein, wherein the base body comprises a base connector; a water tank to store water, separably placed in the insertion space of the base body; a top cover assembly disposed over an opened upper part of the water tank, wherein the top cover assembly comprises a top connector; an air wash inlet formed at a side of the water tank to receive air into the water tank; a discharge flow passage formed in at least one of the top cover assembly and the water tank, or formed between the top cover assembly and the water tank to discharge air of the water tank; and a water supply flow passage formed in the top cover assembly to guide water into the water tank; wherein the top cover assembly includes: a top cover grille including the water supply flow passage and the discharge flow passage separated from each other, and an operation module assembled with the top cover grille and configured to receive an operation signal from a user; wherein the top connector is configured to provide power and/or a control signal to the operation module, and wherein the base connector and the top connector are electrically connectable to each other; and wherein the water supply flow passage is disposed inside the operation module and the discharge flow passage is disposed outside the operation module.
A fluid product application device, comprising: - a fixed mounting part intended to be fixed on a reservoir containing fluid product, this fixed mounting part comprising a dip tube intended to extend in the reservoir, - a fluid product applicator removably mounted on the fixed mounting part, this fluid product applicator comprising a sleeve internally defining a sampling chamber adapted to sample fluid product sucked through the dip tube, characterized in that the sleeve comprises an inner cylindrical wall and the fixed mounting part comprises a nozzle which extends in the extension of the dip tube and which forms a piston lip able to come into sealed sliding contact with the cylindrical inner wall of the sleeve. - a fixed mounting part intended to be fixed on a reservoir containing fluid product, this fixed mounting part comprising a dip tube intended to extend in the reservoir, - a fluid product applicator removably mounted on the fixed mounting part, this fluid product applicator comprising a sleeve internally defining a sampling chamber adapted to sample fluid product sucked through the dip tube,
A device (102, 120) for inserting an intervertebral prosthesis (104, 140) into a space between two adjacent vertebrae, the device (102, 120) comprising: an elongate rigid shaft (108, 126) having a proximal end and a distal end; an adjustable grasping member (110, 122) at the distal end adapted to releasably grasp endplates of the intervertebral prosthesis (104, 140) such that the endplates are constrained from articulating and such that an outer diameter of the grasping member (110, 122) does not extend beyond a largest diameter of the endplates; and an actuator disposed near the proximal end of the shaft (108, 126) and coupled with the grasping member (110, 122) for adjusting the grasping member to grasp and release the prosthesis (140, 104), wherein the grasping member (110, 122) is adapted for pushing the prosthesis (104, 140) into the space between the two vertebrae either while grasping the prosthesis (104, 140) or after releasing the prosthesis (104, 140), characterized in that the grasping member (110, 122) comprises movable opposing jaws to simultaneously grasp an outer surface of the inner rims of the endplates. an elongate rigid shaft (108, 126) having a proximal end and a distal end; an adjustable grasping member (110, 122) at the distal end adapted to releasably grasp endplates of the intervertebral prosthesis (104, 140) such that the endplates are constrained from articulating and such that an outer diameter of the grasping member (110, 122) does not extend beyond a largest diameter of the endplates; and an actuator disposed near the proximal end of the shaft (108, 126) and coupled with the grasping member (110, 122) for adjusting the grasping member to grasp and release the prosthesis (140, 104),
Transmission apparatus for transmitting an actuating angle (α) of a selector lever for a shifting actuation for a vehicle transmission, it being possible for a plurality of actuating angles (a) to be assumed by the selector lever, and the transmission apparatus having the following features: a transmission lever which is mounted such that it can be rotated about a first axle for recording the actuating angle (α) of the selector lever; a signal lever which is mounted such that it can be rotated about a second axle for providing an encoder angle (β) for an encoder element of a sensor; and a driving device which couples the transmission lever to the signal lever, in order to transmit the actuating angle (α) into the encoder angle (β) of the signal lever, it being possible for a force action point to be configured between the transmission lever and the signal lever, in order to set a proportional value between the actuating angle (α) and the encoder angle (β). a transmission lever which is mounted such that it can be rotated about a first axle for recording the actuating angle (α) of the selector lever; a signal lever which is mounted such that it can be rotated about a second axle for providing an encoder angle (β) for an encoder element of a sensor; and a driving device which couples the transmission lever to the signal lever, in order to transmit the actuating angle (α) into the encoder angle (β) of the signal lever, it being possible for a force action point to be configured between the transmission lever and the signal lever, in order to set a proportional value between the actuating angle (α) and the encoder angle (β).
Device for transferring a material web, particularly a web made of paper, board, tissue, or other pulp, where, in order to transfer the material web and, preferably, a supporting belt from the first supporting surface to a subsequent supporting surface, a pick-up zone to lift the material web off the first supporting surface and a stabilizing zone to stabilize the material web are arranged before the subsequent supporting surface, where the pick-up zone is limited by sealing mechanisms (10, 10') and the stabilizing zone is limited by a seal and the subsequent supporting surface, and a vacuum can be applied to the pick-up zone and the stabilizing zone from a separate vacuum source (17, 17') for each zone, where the pick-up zone is divided into at least two pick-up sub-zones (11, 12, 13) running across the material web running direction, where the vacuum can be switched on separately in at least one pick-up sub-zone (12, 13), characterised by there being another zone between the pick-up zone and the stabilizing zone that is limited by the sealing mechanism and the seal running across the material web running direction.
An ultrasound system for transmitting ultrasonic energy into a body, the system comprising: an ultrasound probe having an array of ultrasonic transducer elements, wherein the transducer elements further comprise piezoelectric ceramic transducer elements made of a piezoelectric material; and a transmit beamformer having transmit channels (49, 50) coupled to the ultrasonic transducer elements, wherein the transmit beamformer is configured to apply asymmetric amplitudes of transmit signals to the elements during their respective transmit intervals, and wherein the ultrasonic transducer elements further comprise negatively poled transducer elements, wherein the asymmetric transmit signals exhibit a mean amplitude value which is negative with respect to a zero reference voltage, or the ultrasonic transducer elements further comprise positively poled transducer elements, wherein the asymmetric transmit signals exhibit a mean amplitude value which is positive with respect to a zero reference voltage, such that the amplitude asymmetry of the transmit signal creates an electric field with larger magnitudes in the direction that reinforces a polarization of the piezoelectric material, and smaller magnitudes in the direction that opposes and degrades the polarization of the piezoelectric material. an ultrasound probe having an array of ultrasonic transducer elements, wherein the transducer elements further comprise piezoelectric ceramic transducer elements made of a piezoelectric material; and a transmit beamformer having transmit channels (49, 50) coupled to the ultrasonic transducer elements, wherein the transmit beamformer is configured to apply asymmetric amplitudes of transmit signals to the elements during their respective transmit intervals, and wherein the ultrasonic transducer elements further comprise negatively poled transducer elements, wherein the asymmetric transmit signals exhibit a mean amplitude value which is negative with respect to a zero reference voltage, or the ultrasonic transducer elements further comprise positively poled transducer elements, wherein the asymmetric transmit signals exhibit a mean amplitude value which is positive with respect to a zero reference voltage, such that the amplitude asymmetry of the transmit signal creates an electric field with larger magnitudes in the direction that reinforces a polarization of the piezoelectric material, and smaller magnitudes in the direction that opposes and degrades the polarization of the piezoelectric material.
A device in a mobile radio network for a mobile terminal comprising selection means (46, 48, 50) for selecting text and/or image information (32 34, 36) from a number of text and/or image information (32, 34, 36), which is completely or partially transmitted by an information server to the mobile terminal and temporarily stored in a data memory of the mobile terminal, wherein parts of the text and/or image information can be sequentially represented in a display of the mobile terminal, and means are provided for the presentation of the complete text and/or image information (32, 34, 36) in case of a selection of the associated partial information, characterized in that means for blocking and/or releasing the complete text and/or image information (32, 34, 36) and fee determination means are provided, wherein the fee determination means record the fees of the complete text and/or image information (32, 34, 36) which has been transmitted to the mobile terminal and selected to be viewed.
A heater for an image heating apparatus of an image forming apparatus, the heater comprising: a substrate; a heat generating element (302a, 302b) disposed on the substrate; a conductor (EK3-1, EK3-2, EK6-1, EG8-1, EG8-2, EG9, EG10) disposed on the substrate on a surface on an opposite side to the surface on which the heat generating element is disposed, at a position closer to an edge of the substrate than to the heat generating element, the conductor being connectable to a damage detecting circuit (460, 461, 604, 951, 952) configured to electrically detect a breakage of the conductor (EK3-1, EK3-2, EK6-1, EG8-1, EG8-2, EG9, EG10), a first conductor (EK3-1, EG8-2, EG10) which is, as the conductor, disposed at a position closer to one edge of the substrate than to the heat generating element (302a, 302b) in a shorter direction which is perpendicular to a longitudinal direction of the substrate; and a second conductor (EK3-2, EG8-1, EG9) which is, as the conductor, disposed at a position closer to the other edge of the substrate than to the heat generating element in the shorter direction, wherein each of the first conductor (EK3-1, EG8-2, EG10) and the second conductor (EK3-2, EG8-1, EG9) is configured to be longer in the longitudinal direction of the substrate than the heat generating element (302a, 302b). a substrate; a heat generating element (302a, 302b) disposed on the substrate; a conductor (EK3-1, EK3-2, EK6-1, EG8-1, EG8-2, EG9, EG10) disposed on the substrate on a surface on an opposite side to the surface on which the heat generating element is disposed, at a position closer to an edge of the substrate than to the heat generating element, the conductor being connectable to a damage detecting circuit (460, 461, 604, 951, 952) configured to electrically detect a breakage of the conductor (EK3-1, EK3-2, EK6-1, EG8-1, EG8-2, EG9, EG10), a first conductor (EK3-1, EG8-2, EG10) which is, as the conductor, disposed at a position closer to one edge of the substrate than to the heat generating element (302a, 302b) in a shorter direction which is perpendicular to a longitudinal direction of the substrate; and a second conductor (EK3-2, EG8-1, EG9) which is, as the conductor, disposed at a position closer to the other edge of the substrate than to the heat generating element in the shorter direction, wherein each of the first conductor (EK3-1, EG8-2, EG10) and the second conductor (EK3-2, EG8-1, EG9) is configured to be longer in the longitudinal direction of the substrate than the heat generating element (302a, 302b).
A computer implemented method of determining angular stent strut coverage in a blood vessel, the method comprising the steps of: receiving optical coherence tomography data for a stented blood vessel, the optical coherence tomography data comprising a plurality of image frames; storing the optical coherence tomography data in a memory device of an intravascular data collection system; analyzing the plurality of image frames to identify stent struts on a per frame basis; combining strut information from a neighborhood of frames of the plurality of image frames to create multi-frame data; and determining, from the multi-frame data, a maximum angular gap between any two adjacent struts in the neighborhood of frames. receiving optical coherence tomography data for a stented blood vessel, the optical coherence tomography data comprising a plurality of image frames; storing the optical coherence tomography data in a memory device of an intravascular data collection system; analyzing the plurality of image frames to identify stent struts on a per frame basis; combining strut information from a neighborhood of frames of the plurality of image frames to create multi-frame data; and determining, from the multi-frame data, a maximum angular gap between any two adjacent struts in the neighborhood of frames.
A method of discharging water through a faucet, comprising: providing a nozzle attachable to a faucet, the nozzle being switchable between a spray-mode and a mist-mode, the nozzle having a housing having an inner cavity (130, 430) defined therein, the inner cavity (130, 430) having a vortex screw (172, 472) disposed therein, the housing having an opening defined therein in fluid communication with the inner cavity (130, 430), the housing having grooves defined therein and an orifice defined therein at a bottom portion thereof, the inner cavity (130, 430) having a first filter disposed therein; attaching the nozzle onto the faucet; switching the nozzle to the spray-mode; flowing water into the inner cavity (130, 430) and through the first filter; when in the spray-mode, flowing water out through the opening and through grooves and discharging the water as spray at a bottom of nozzle, switching the nozzle from the spray-mode to the mist-mode, flowing the water through the vortex screw (172, 472) to create a rotation of the water when passing the vortex screw (172, 472); rotating the vortex screw (172, 472) to engage helical-shaped threads with an internal threaded portion of the inner cavity to longitudinally shift the vortex screw (172, 472) relative to inner walls of the inner cavity to increase or reduce the water flow through the threads and to affect an angle of a cone-shape of the mist and a size of water droplets in the mist; and discharging the rotating water through the orifice as mist. providing a nozzle attachable to a faucet, the nozzle being switchable between a spray-mode and a mist-mode, the nozzle having a housing having an inner cavity (130, 430) defined therein, the inner cavity (130, 430) having a vortex screw (172, 472) disposed therein, the housing having an opening defined therein in fluid communication with the inner cavity (130, 430), the housing having grooves defined therein and an orifice defined therein at a bottom portion thereof, the inner cavity (130, 430) having a first filter disposed therein; attaching the nozzle onto the faucet; switching the nozzle to the spray-mode; flowing water into the inner cavity (130, 430) and through the first filter; when in the spray-mode, flowing water out through the opening and through grooves and discharging the water as spray at a bottom of nozzle, switching the nozzle from the spray-mode to the mist-mode, flowing the water through the vortex screw (172, 472) to create a rotation of the water when passing the vortex screw (172, 472); rotating the vortex screw (172, 472) to engage helical-shaped threads with an internal threaded portion of the inner cavity to longitudinally shift the vortex screw (172, 472) relative to inner walls of the inner cavity to increase or reduce the water flow through the threads and to affect an angle of a cone-shape of the mist and a size of water droplets in the mist; and discharging the rotating water through the orifice as mist.
Cathode active material for a non-aqueous electrolyte rechargeable battery comprising: layered hexagonal crystal lithium nickel manganese composite oxide particles that are expressed by the general formula: Li 1+u Ni x Mn y Co z M t O 2, where 0 ≤ u ≤ 0.20, x + y + z + t = 1, 0.30 ≤ x ≤ 0.70, 0.10 ≤ y ≤ 0.55, 0 ≤ z ≤ 0.40, 0 ≤ t ≤ 0.10, and M is selected from one or more elements selected from among Al, Ti, V, Cr, Zr, Nb, Mo, and W; the lithium nickel manganese composite oxide particles further including Na, Mg, Ca and SO 4; and wherein the total amount of Na, Mg and Ca included is 0.01% by mass to 0.1% by mass, and the amount of SO 4 included is 0.1% by mass to 1.0% by mass; and the ratio of the integrated intensity of the diffraction peak on plane with respect to the integrated intensity of the diffraction peak on plane that were obtained by power X-ray diffraction measurement that uses CuKa rays is 1.20 or greater. layered hexagonal crystal lithium nickel manganese composite oxide particles that are expressed by the general formula: Li 1+u Ni x Mn y Co z M t O 2, where 0 ≤ u ≤ 0.20, x + y + z + t = 1, 0.30 ≤ x ≤ 0.70, 0.10 ≤ y ≤ 0.55, 0 ≤ z ≤ 0.40, 0 ≤ t ≤ 0.10, 0 ≤ u ≤ 0.20, x + y + z + t = 1, 0.30 ≤ x ≤ 0.70, 0.10 ≤ y ≤ 0.55, 0 ≤ z ≤ 0.40, 0 ≤ t ≤ 0.10, and M is selected from one or more elements selected from among Al, Ti, V, Cr, Zr, Nb, Mo, and W; the lithium nickel manganese composite oxide particles further including Na, Mg, Ca and SO 4; and wherein the total amount of Na, Mg and Ca included is 0.01% by mass to 0.1% by mass, and the amount of SO 4 included is 0.1% by mass to 1.0% by mass; and the ratio of the integrated intensity of the diffraction peak on plane with respect to the integrated intensity of the diffraction peak on plane that were obtained by power X-ray diffraction measurement that uses CuKa rays is 1.20 or greater.
A method for controlling activation of a bandwidth part, BWP, comprising: receiving and saving BWP configuration information transmitted by a base station, wherein the BWP configuration information comprises BWP identification information; receiving a BWP activation command transmitted by the base station; and performing BWP activation with a BWP identifier indicated by the BWP activation command, whereby the BWP configuration information is used to indicate a default BWP corresponding to each component carrier; and after receiving and saving the BWP configuration information transmitted by the base station, the method further comprises: receiving a component carrier activation signaling transmitted by the base station; and activating, based on the component carrier activation signaling, a first target component carrier and a default BWP corresponding to the first target component carrier, wherein the BWP configuration information comprises BWP configuration information of a primary base station and BWP configuration information of a secondary base station, wherein in the case that the secondary base station is added to a user equipment, the BWP configuration information of the secondary base station is configured for the user equipment by the primary base station. receiving and saving BWP configuration information transmitted by a base station, wherein the BWP configuration information comprises BWP identification information; receiving a BWP activation command transmitted by the base station; and performing BWP activation with a BWP identifier indicated by the BWP activation command, whereby the BWP configuration information is used to indicate a default BWP corresponding to each component carrier; and after receiving and saving the BWP configuration information transmitted by the base station, the method further comprises: receiving a component carrier activation signaling transmitted by the base station; and activating, based on the component carrier activation signaling, a first target component carrier and a default BWP corresponding to the first target component carrier, receiving a component carrier activation signaling transmitted by the base station; and activating, based on the component carrier activation signaling, a first target component carrier and a default BWP corresponding to the first target component carrier, wherein the BWP configuration information comprises BWP configuration information of a primary base station and BWP configuration information of a secondary base station, wherein in the case that the secondary base station is added to a user equipment, the BWP configuration information of the secondary base station is configured for the user equipment by the primary base station.
Coating system for explosion hazard areas and areas with high corrosive exposure, especially for plants or plant components of the oil and gas industry, with a defined coat sequence from three single coats, one primer coat, one intermediate coat and one top coat, each on the basis of 2-component epoxy resin or 1-component or 2-component polyacrylate resin/ polyisocyanate (1-component or 2-component PUR) or alkyd resin or acrylic resin- or vinyl group-containing polymers or any combination of alkyd resins or acrylic resins or vinyl group-containing polymers, characterised in that the primer coat and the intermediate coat each contain conductive pigments the top coat contains insoluble, transparent conductive pigments and the total coating thickness of the three individual coats is 200 μm to 400 μm, at a surface resistance under 1 GΩ.