mhurhangee/ep-ind-claims huggingface dataset:
Nozzle arrangement, with a nozzle inlet part which has an inlet duct for liquid under pressure, and with a nozzle outlet part which is displaceable continuously back and forth relative to the nozzle inlet part between a first position and a second position and which has a high-pressure nozzle formed as a fan-jet nozzle and at least one low-pressure nozzle (104, 106) formed as a fan-jet nozzle, wherein in the first position only the high-pressure nozzle is in a flow connection with the inlet duct and wherein in the second position the high-pressure nozzle and the at least one low-pressure nozzle (104, 106) are in a flow connection with the inlet duct, characterized in that the at least one low-pressure nozzle (104, 106) is arranged radially offset to the high-pressure nozzle and the nozzle outlet part has a connecting nipple which independently of the position of the nozzle outlet part is in a flow connection with the high-pressure nozzle and which in the first position of the nozzle outlet part interrupts a flow connection of the inlet duct with the at least one low-pressure nozzle (104, 106), and which upon the transition of the nozzle outlet part from the first position into the second position unblocks an increasing annular gap of adjustable width, via which the inlet duct is in a flow connection with the at least one low-pressure nozzle (104, 106).
A method of receiving data in a wireless communication system, carried out in a user equipment, UE, the method being characterized by comprising: detecting a physical downlink control channel, PDCCH, on which control information is transmitted in a first subframe; and receiving data in in a plurality of second subframes in which the PDCCH detected in the first subframe is valid, wherein the control information comprises subframe information indicating a number of the plurality of second subframes, characterized in that the subframe information further comprises two offset fields indicating a first offset and a second offset, wherein the first offset indicates an offset between the first subframe and one subframe out of the plurality of second subframes, and wherein the second offset indicates an offset between two adjacent subframes out of the plurality of second subframes. detecting a physical downlink control channel, PDCCH, on which control information is transmitted in a first subframe; and receiving data in in a plurality of second subframes in which the PDCCH detected in the first subframe is valid, wherein the control information comprises subframe information indicating a number of the plurality of second subframes, characterized in that the subframe information further comprises two offset fields indicating a first offset and a second offset, wherein the first offset indicates an offset between the first subframe and one subframe out of the plurality of second subframes, and wherein the second offset indicates an offset between two adjacent subframes out of the plurality of second subframes.
A volume image generating method comprising: transmitting an ultrasonic signal to a target body divided into a plurality of regions and generating a first sub-volume image corresponding to a first region from among the plurality of regions of the target body, based on a response signal reflected from the target body; generating a second sub-volume image corresponding to a second region contacting the first region from among the plurality of regions, based on a response signal reflected from the target body; connecting the second sub-volume image to the first sub-volume image according to a location relationship between the first region and the second region of the target body; characterized by re-generating the second sub-volume image based on a concordance rate between a sectional image of the first sub-volume image and a sectional image of the second sub-volume image that contact each other, and connecting the re-generated second sub-volume image to the first sub-volume image. transmitting an ultrasonic signal to a target body divided into a plurality of regions and generating a first sub-volume image corresponding to a first region from among the plurality of regions of the target body, based on a response signal reflected from the target body; generating a second sub-volume image corresponding to a second region contacting the first region from among the plurality of regions, based on a response signal reflected from the target body; connecting the second sub-volume image to the first sub-volume image according to a location relationship between the first region and the second region of the target body; re-generating the second sub-volume image based on a concordance rate between a sectional image of the first sub-volume image and a sectional image of the second sub-volume image that contact each other, and connecting the re-generated second sub-volume image to the first sub-volume image.
The use of a combination of (a) the reaction product of a carboxylic acid-derived acylating agent and an amine and (b) a quaternary ammonium salt additive to combat internal diesel injector deposits caused by carboxylate residues present as metal or ammonium salts in the injectors of a diesel engine; wherein the quaternising agent used to prepare the quaternary ammonium salt additive (b) is selected from the group consisting of dialkyl sulphates; an ester of a carboxylic acid; alkyl halides; benzyl halides; hydrocarbyl substituted carbonates; and hydrocarbyl epoxides in combination with an acid or mixtures thereof.
A pack for holding and re-charging an e-cigarette, said pack comprising: a pack battery; a body portion including a tube for receiving an e-cigarette; a re-charging mechanism for re-charging the e-cigarette received into said tube using the pack battery, wherein the e-cigarette can be re-charged in said tube without disassembly of the e-cigarette; and a dual activation mechanism comprising two separate triggers for causing the re-charging mechanism to begin re-charging the e-cigarette received into said tube using the pack battery, wherein said re-charging begins only in response to the direct activation by a user of both of said two separate triggers. a pack battery; a body portion including a tube for receiving an e-cigarette; a re-charging mechanism for re-charging the e-cigarette received into said tube using the pack battery, wherein the e-cigarette can be re-charged in said tube without disassembly of the e-cigarette; and a dual activation mechanism comprising two separate triggers for causing the re-charging mechanism to begin re-charging the e-cigarette received into said tube using the pack battery, wherein said re-charging begins only in response to the direct activation by a user of both of said two separate triggers.
Method for evaluating an optical appearance in the surroundings of a vehicle, having the steps of providing a captured image of the surroundings of the vehicle; extracting features from the captured image; carrying out a first analysis of the captured image, wherein the first analysis is performed as a semantic segmentation, wherein one or more objects of an object class are detected as areas (81, 82, 83) on the captured image, wherein the objects of the object class overlap or adjoin one another in the captured image, and the result of the analysis is provided as the first analysis result; carrying out a second analysis of the captured image, wherein edges of one or more objects are detected and the result of the analysis is provided as the second analysis result; wherein the first analysis and the second analysis are carried out independently of each other; and combining the first analysis result and the second analysis result into an output image in which, on the areas (81, 82, 83) of the detected objects of the object class from the first analysis result, the detected edges from the second analysis result are cut out, so that individual objects of the object class stand out from the areas (81, 82, 83) and are visible separated from each other by the edges.
A firearm comprising a receiver with a chamber for a plurality of cartridges or for a cartridge-holding magazine, a barrel subassembly in the receiver having a barrel with a muzzle and a breech at the opposite end, a bolt movable longitudinally of the barrel relative to the receiver and biased in the firing direction by a recoil spring for conveying cartridges from the chamber or from the magazine into the breech or for conveying cartridge cases to an ejection port, a gas brake device in the receiver comprising a cylinder extending parallel to the barrel and being open at the end facing the muzzle and closed at the other end and being connected to the interior of the barrel via a gas port, as well as a piston movable within the cylinder from the open end and coupled to the bolt, wherein the bolt is in a slide subassembly that is completely inside the receiver over the entire path of movement during firing and reloading, the slide subassembly comprising the bolt itself, two webs extending parallel to the barrel in the receiver, and a coupling section for coupling to the piston of the gas brake device.
Lamp for automotive vehicle front lighting, comprising - a base for mechanical and electrical connection to an automotive headlight, - a burner fixed to said base, said burner comprising a sealed transparent vessel, - at least a first filament arranged within said vessel, - at least one holding wire arranged within said vessel, and a baffle arranged proximate to said first filament to partially shield light emitted from said first filament, said baffle being fixed to said holding wire, - where said transparent vessel comprises a cylindrical portion surrounding said first filament, - and where a support member (38, 138, 238) is provided including at least a first part fixed to said baffle or to said holding wire, and a second part (43, 143, 238a, 238b), said second part (43, 143, 238a, 238b) being in contact with said cylindrical portion of said vessel, where said support member (38, 138, 238) comprises at least one flexible intermediate part (37, 143) connecting said first and second parts (39, 43, 143, 238a, 238b), such that said baffle or said holding wire is supported resiliently against said vessel. - a base for mechanical and electrical connection to an automotive headlight, - a burner fixed to said base, said burner comprising a sealed transparent vessel, - at least a first filament arranged within said vessel, - at least one holding wire arranged within said vessel, and a baffle arranged proximate to said first filament to partially shield light emitted from said first filament, said baffle being fixed to said holding wire, - where said transparent vessel comprises a cylindrical portion surrounding said first filament, - and where a support member (38, 138, 238) is provided including at least a first part fixed to said baffle or to said holding wire, and a second part (43, 143, 238a, 238b), said second part (43, 143, 238a, 238b) being in contact with said cylindrical portion of said vessel, where said support member (38, 138, 238) comprises at least one flexible intermediate part (37, 143) connecting said first and second parts (39, 43, 143, 238a, 238b), such that said baffle or said holding wire is supported resiliently against said vessel.
An interactive display system comprising: a head-mounted display configured to be worn by a user; and an electronic device configured to generate a first frame and frame pixel depth information and to transmit the first frame and the frame pixel depth information to the head-mounted display, so that the head-mounted display displays the first frame, wherein the head-mounted display is configured to generate current state information in response to a motion of the user and to generate a second frame according to the current state information, the first frame and the frame pixel depth information, so that the head-mounted display displays the second frame. a head-mounted display configured to be worn by a user; and an electronic device configured to generate a first frame and frame pixel depth information and to transmit the first frame and the frame pixel depth information to the head-mounted display, so that the head-mounted display displays the first frame, wherein the head-mounted display is configured to generate current state information in response to a motion of the user and to generate a second frame according to the current state information, the first frame and the frame pixel depth information, so that the head-mounted display displays the second frame.
A patient bed comprising: a frame configured to support a patient; and a plurality of siderails extending upwardly relative to the frame, each siderail of the plurality of siderails having an egress blocking position in which the patient is blocked from egressing off of the frame, characterized in that at least a first siderail of the plurality of siderails, being a foot rail, has a lever accessible to the patient while the patient is lying on the bed to unlock the first siderail for translational movement, in a longitudinal direction along the frame of the bed, by the patient from the egress blocking position to an out-of-the-way position to permit the patient to egress from the frame, wherein, the first siderail comprises: a hand hole, the lever being accessible in the hand hole; and a grip handle, over the hand hole, the grip handle having a stepped bottom surface to provide grip areas for the patient, separated by steps, when moving the first siderail between the egress blocking position and the out-of-the-way position. a frame configured to support a patient; and a plurality of siderails extending upwardly relative to the frame, each siderail of the plurality of siderails having an egress blocking position in which the patient is blocked from egressing off of the frame, characterized in that at least a first siderail of the plurality of siderails, being a foot rail, has a lever accessible to the patient while the patient is lying on the bed to unlock the first siderail for translational movement, in a longitudinal direction along the frame of the bed, by the patient from the egress blocking position to an out-of-the-way position to permit the patient to egress from the frame, wherein, the first siderail comprises: a hand hole, the lever being accessible in the hand hole; and a grip handle, over the hand hole, the grip handle having a stepped bottom surface to provide grip areas for the patient, separated by steps, when moving the first siderail between the egress blocking position and the out-of-the-way position. a hand hole, the lever being accessible in the hand hole; and a grip handle, over the hand hole, the grip handle having a stepped bottom surface to provide grip areas for the patient, separated by steps, when moving the first siderail between the egress blocking position and the out-of-the-way position.
A method for marking workpieces comprising the steps of: A) providing the at least one workpiece, B) locally applying an ink for a marking to the workpiece, C) fixing the ink to produce the marking, characterized in that the workpiece is heated locally in a region with the marking during fixing and a temperature of at least 400 °C is applied to the ink when fixing occurs, and fixing is done in step C) - by means of a radiation flash and radiation of the radiation flash is incoherent and is absorbed in the ink and/or on a workpiece surface and as a result the temperature is applied for fixing, or - contact-free and by means of induction, or - by means of an electrical resistance, wherein electrodes are attached to the workpiece. A) providing the at least one workpiece, B) locally applying an ink for a marking to the workpiece, C) fixing the ink to produce the marking, characterized in that the workpiece is heated locally in a region with the marking during fixing and a temperature of at least 400 °C is applied to the ink when fixing occurs, and fixing is done in step C) - by means of a radiation flash and radiation of the radiation flash is incoherent and is absorbed in the ink and/or on a workpiece surface and as a result the temperature is applied for fixing, or - contact-free and by means of induction, or - by means of an electrical resistance, wherein electrodes are attached to the workpiece. - by means of a radiation flash and radiation of the radiation flash is incoherent and is absorbed in the ink and/or on a workpiece surface and as a result the temperature is applied for fixing, or - contact-free and by means of induction, or - by means of an electrical resistance, wherein electrodes are attached to the workpiece.
A receiver with predictive decision feedback equalization, the receiver comprising: a slicer comprising a first differential amplifier, the first differential amplifier comprising a first field effect transistor, hereinafter "FET", and a second FET, the first FET and the second FET being connected in a differential pair configuration with one terminal of each of the first and the second FET (535, 545) connected to a tail of the slicer, wherein the first differential amplifier provides a differential amplifier offset that is determined by an offset voltage applied to a bulk terminal (530, 540) of at least one of the first and the second FET (535, 545); a voltage-mode digital to analog converter, hereinafter "DAC" comprising a first DAC output, the first DAC output being connected to said bulk terminal and providing the offset voltage; and a DAC voltage limit circuit characterized in that the DAC voltage limit circuit is connected to the DAC and limits the maximum DAC output voltage to a voltage at the tail of the slicer or at least to a voltage exceeding the voltage at the tail by less than a diode drop. a slicer comprising a first differential amplifier, the first differential amplifier comprising a first field effect transistor, hereinafter "FET", and a second FET, the first FET and the second FET being connected in a differential pair configuration with one terminal of each of the first and the second FET (535, 545) connected to a tail of the slicer, wherein the first differential amplifier provides a differential amplifier offset that is determined by an offset voltage applied to a bulk terminal (530, 540) of at least one of the first and the second FET (535, 545); a voltage-mode digital to analog converter, hereinafter "DAC" comprising a first DAC output, the first DAC output being connected to said bulk terminal and providing the offset voltage; and a DAC voltage limit circuit characterized in that the DAC voltage limit circuit is connected to the DAC and limits the maximum DAC output voltage to a voltage at the tail of the slicer or at least to a voltage exceeding the voltage at the tail by less than a diode drop.
A method of allocating frequency channels in a wireless communication system comprising common channel framework enabled stations (2, 3), said method comprising: - using by said common channel framework enabled stations a common frequency channel at common time intervals in order to determine a communication frequency channel on which a pair of common channel framework enabled stations will be allowed to exchange data frames, wherein said determining comprises detecting, for the duration of the common time interval, a presence of one or more common channel framework unaware stations on the respective common frequency channel used during that common time interval, and - periodically rotating the common frequency channel at the beginning of each common time interval according to a rotation cycle within a set of available frequency channels. - using by said common channel framework enabled stations a common frequency channel at common time intervals in order to determine a communication frequency channel on which a pair of common channel framework enabled stations will be allowed to exchange data frames, wherein said determining comprises detecting, for the duration of the common time interval, a presence of one or more common channel framework unaware stations on the respective common frequency channel used during that common time interval, and - periodically rotating the common frequency channel at the beginning of each common time interval according to a rotation cycle within a set of available frequency channels.
A battery charging method, comprising: charging a battery (120; 1410) with a charging current; and changing the charging current in response to a current change event occurring during the charging of the battery (120; 1410), wherein the current change event occurs when the battery (120; 1410) reaches a threshold voltage, the threshold voltage corresponding to a voltage of the battery (120; 1410) at which an anode potential of the battery (120; 1410) reaches a reference value. charging a battery (120; 1410) with a charging current; and changing the charging current in response to a current change event occurring during the charging of the battery (120; 1410), wherein the current change event occurs when the battery (120; 1410) reaches a threshold voltage, the threshold voltage corresponding to a voltage of the battery (120; 1410) at which an anode potential of the battery (120; 1410) reaches a reference value.
A corrosion sensor adapted to detect the action of corrosive media on a metallic component when the sensor is mounted in the vicinity of the metallic component in use, the sensor including an electrically conducting corrodible sensor element (222, 223, 224) running between common terminals (226, 227) mounted on a non conducting substrate, the sensor element being covered with a protective coating adapted to protect the sensor element from corrosive media, the protective coating defining a temporary feature in the form of unpainted areas or defects (242, 243, 244) extending across the sensor element, said temporary feature designed to permit attack on the sensor element by corrosive media after a predetermined period of time, wherein the sensor element comprises a pair of spaced tracks (235, 236, 237, 238, 239, 240), extending generally in a longitudinal direction and a series of corrodible tracks (232, 233, 234), each corrodible track extending generally in a lateral direction and forming an electrical connection between the spaced tracks, said temporary feature in the form of unpainted areas or defects (242, 243, 244) extending longitudinally, in the space between the pair of spaced tracks (235, 236, 237, 239, 240), across all of said corrodible tracks in order to permit the said corrosive attack on a number of the corrodible tracks after the predetermined period of time.
A particulate detector for use in a ventilation duct, comprising: a detector assembly including an assembly housing, a filter screen, a labyrinth, a detector chamber, a light emitter, and a light detector; and an airflow sensor disposed within the assembly housing, wherein the airflow sensor is operatively coupled to a remote control device for selectively activating the airflow sensor. a detector assembly including an assembly housing, a filter screen, a labyrinth, a detector chamber, a light emitter, and a light detector; and an airflow sensor disposed within the assembly housing, wherein the airflow sensor is operatively coupled to a remote control device for selectively activating the airflow sensor.