mhurhangee/patent-ind-claim-en huggingface dataset:
An injection device for setting and injecting pre-set or user-selectable doses of a medicament, the injection device comprising: - an elongated housing defining a longitudinal direction (z) and configured to accommodate a cartridge containing the medicament, - a detector arrangement operable to detect a relative movement between a first element and a second element , wherein the first element is subject to a first movement relative to the second element along a first longitudinal direction for setting of a dose and wherein the first element is subject to a second movement relative to the second element along a second longitudinal direction for dispensing of the dose, and wherein one of the first movement and the second movement is a helical movement and wherein the other one of the first movement and the second movement is a sliding movement in the longitudinal direction (z), - wherein the second element comprises at least one reference element (60; 160) fixed to the second element , - wherein the first element comprises a tubular shaped surface provided with a pattern facing towards the reference element (60; 160), - wherein the detector arrangement (50; 150) comprises at least one electric sensor (51; 151) arranged on one of the first element and the second element and being operable to detect a positional variation of the pattern relative to the at least one reference element (60; 160) and to generate at least one electric signal in response to the positional variation of the pattern during at least one of the first movement and the second movement of the first element relative to the second element . - an elongated housing defining a longitudinal direction (z) and configured to accommodate a cartridge containing the medicament, - a detector arrangement operable to detect a relative movement between a first element and a second element , wherein the first element is subject to a first movement relative to the second element along a first longitudinal direction for setting of a dose and wherein the first element is subject to a second movement relative to the second element along a second longitudinal direction for dispensing of the dose, and wherein one of the first movement and the second movement is a helical movement and wherein the other one of the first movement and the second movement is a sliding movement in the longitudinal direction (z), - wherein the second element comprises at least one reference element (60; 160) fixed to the second element , - wherein the first element comprises a tubular shaped surface provided with a pattern facing towards the reference element (60; 160), - wherein the detector arrangement (50; 150) comprises at least one electric sensor (51; 151) arranged on one of the first element and the second element and being operable to detect a positional variation of the pattern relative to the at least one reference element (60; 160) and to generate at least one electric signal in response to the positional variation of the pattern during at least one of the first movement and the second movement of the first element relative to the second element .
A computer-implemented method comprising: identifying, by a computer system, a connected fluid phase region of a plurality of connected fluid phase regions in a flow simulation, wherein each of the connected fluid phase regions has a target phase, and wherein the flow simulation is a simulation of multiphase flow in porous media; tracking, by the computer system, the connected fluid phase region over a first timeframe and a second timeframe; and determining, by the computer system, movement of the connected fluid phase region from the first timeframe to the second timeframe based on the tracking, wherein determining the movement of the connected fluid phase region comprises calculating a center of gravity for the connected fluid phase region, determining a velocity for each connected fluid phase region in the plurality of connected fluid phase regions based on the center of gravity, and assigning a permeability to the target phase based on the velocity of each of the connected fluid phase regions in the plurality of connected fluid phase regions. identifying, by a computer system, a connected fluid phase region of a plurality of connected fluid phase regions in a flow simulation, wherein each of the connected fluid phase regions has a target phase, and wherein the flow simulation is a simulation of multiphase flow in porous media; tracking, by the computer system, the connected fluid phase region over a first timeframe and a second timeframe; and determining, by the computer system, movement of the connected fluid phase region from the first timeframe to the second timeframe based on the tracking, wherein determining the movement of the connected fluid phase region comprises calculating a center of gravity for the connected fluid phase region, determining a velocity for each connected fluid phase region in the plurality of connected fluid phase regions based on the center of gravity, and assigning a permeability to the target phase based on the velocity of each of the connected fluid phase regions in the plurality of connected fluid phase regions. calculating a center of gravity for the connected fluid phase region, determining a velocity for each connected fluid phase region in the plurality of connected fluid phase regions based on the center of gravity, and assigning a permeability to the target phase based on the velocity of each of the connected fluid phase regions in the plurality of connected fluid phase regions.
A method of audio object extraction from channel-based audio content comprising: extracting at least one video object from video content associated with the channel-based audio content; determining information about the at least one video object; and extracting from the channel-based audio content an audio object to be rendered as an upmixed audio signal based on the determined information, wherein the determining information about the at least one video object comprises determining a position of the at least one video object; and characterized in that the extracting from the channel-based audio content an audio object based on the determined information comprises: determining a mixing matrix for audio object extraction based on the position of the at least one video object; and extracting an audio object signal of the audio object from the channel-based audio content based on the mixing matrix. extracting at least one video object from video content associated with the channel-based audio content; determining information about the at least one video object; and extracting from the channel-based audio content an audio object to be rendered as an upmixed audio signal based on the determined information, wherein the determining information about the at least one video object comprises determining a position of the at least one video object; and characterized in that the extracting from the channel-based audio content an audio object based on the determined information comprises: determining a mixing matrix for audio object extraction based on the position of the at least one video object; and extracting an audio object signal of the audio object from the channel-based audio content based on the mixing matrix. determining a mixing matrix for audio object extraction based on the position of the at least one video object; and extracting an audio object signal of the audio object from the channel-based audio content based on the mixing matrix.
A method of operating a first robot which transmits and receives image data to and from a second robot for communication during a video call between a first user using the first robot and a second user using the second robot, the method comprising: transmitting first image data acquired by a first camera included in the first robot to the second robot, detecting (S920, S1260, S1350, S1450) movement of the second user from second image data received from the second robot, wherein the second image data is acquired by a second camera moving according to movement of the second robot, the movement of the second robot being determined in response to movement of the first user detected from the first image data; and determining (S930, S1280, S1365, S1460) a motion responding to the detected movement of the second user based on information obtained by compensating (S1270, S1360, S1455) the detected movement information of the second user with movement information of the first user, wherein the movement information of the first user is determined based on information detected by the first robot or received from the second robot; performing (S940, S1290) the determined motion by the first robot. transmitting first image data acquired by a first camera included in the first robot to the second robot, detecting (S920, S1260, S1350, S1450) movement of the second user from second image data received from the second robot, wherein the second image data is acquired by a second camera moving according to movement of the second robot, the movement of the second robot being determined in response to movement of the first user detected from the first image data; and determining (S930, S1280, S1365, S1460) a motion responding to the detected movement of the second user based on information obtained by compensating (S1270, S1360, S1455) the detected movement information of the second user with movement information of the first user, wherein the movement information of the first user is determined based on information detected by the first robot or received from the second robot; performing (S940, S1290) the determined motion by the first robot.
Device for adjusting pivotable slats , which are arranged substantially perpendicularly to one another, of an air vent , comprising a first rotatably mounted adjusting element , wherein - the first adjusting element has at least one cylindrical section , - the first adjusting element has in the at least one cylindrical section at least one guide in which a first displacing element is guided, - at least one slat extending in a first direction (X) is coupled by way of the displacing element with the first adjusting element , and - at least one slat extending in a second direction (Y) perpendicular to the first direction (X) is coupled with the first adjusting element , and comprising a second rotatably mounted adjusting element , wherein the first adjusting element is coupled with the second adjusting element and the second adjusting element is coupled with at least one slat extending in the second direction (Y), characterised in that the second adjusting element has at least one cylindrical section and the second adjusting element has in the at least one cylindrical section at least one guide in which an adjusting member for pivotation of the at least one slat extending in the second direction (Y) is guided and wherein the axis of rotation of the second adjusting element extends at a right angle to the axis of rotation of the first adjusting element . - the first adjusting element has at least one cylindrical section , - the first adjusting element has in the at least one cylindrical section at least one guide in which a first displacing element is guided, - at least one slat extending in a first direction (X) is coupled by way of the displacing element with the first adjusting element , and - at least one slat extending in a second direction (Y) perpendicular to the first direction (X) is coupled with the first adjusting element ,
An analyte sensor comprising: a first working electrode comprising a first sensing surface having an array of two or more laterally disposed contiguous sensing elements each deposited separately thereon, wherein each sensing element comprises an analyte-responsive enzyme; and a counter electrode . a first working electrode comprising a first sensing surface having an array of two or more laterally disposed contiguous sensing elements each deposited separately thereon, wherein each sensing element comprises an analyte-responsive enzyme; and a counter electrode .
A device for analyzing the elemental composition of a liquid sample comprising: an anode electrode and a cathode electrode (115, 116; 130, 131) placed so that the electroactive ends of the two electrodes (115, 116; 130, 131) are facing each other with a gap separating the two electrodes (115, 116; 130, 131); a pump 2. configured to pump liquid in and out of the device allowing the electrodes to be submerged in said liquid; a direct current (DC) power supply or a potentiostat/galvanostat or a high voltage power supply in electrical contact with said electrodes through switches , wherein the switches connect the electrodes to either said DC power supply/potentiostat/galvanostat or said high voltage power supply, said DC power supply or a potentiostat/galvanostat providing DC voltage to the electrodes for electrodeposition of analytes on one or both electrode surfaces as well as for providing a reverse polarity voltage in order to clean the electrodes (115, 116; 130, 131); said high voltage power supply configured to create an electric discharge between the electrodes; a transparent or a non-transparent capillary tube in which the anode and cathode electrodes are placed; and an optical spectrometer configured to record the emission of the electric discharge or a mass spectrometer configured to sample the ions generated by the discharge. an anode electrode and a cathode electrode (115, 116; 130, 131) placed so that the electroactive ends of the two electrodes (115, 116; 130, 131) are facing each other with a gap separating the two electrodes (115, 116; 130, 131); a pump 2. configured to pump liquid in and out of the device allowing the electrodes to be submerged in said liquid; a direct current (DC) power supply or a potentiostat/galvanostat or a high voltage power supply in electrical contact with said electrodes through switches , wherein the switches connect the electrodes to either said DC power supply/potentiostat/galvanostat or said high voltage power supply, said DC power supply or a potentiostat/galvanostat providing DC voltage to the electrodes for electrodeposition of analytes on one or both electrode surfaces as well as for providing a reverse polarity voltage in order to clean the electrodes (115, 116; 130, 131); said high voltage power supply configured to create an electric discharge between the electrodes; a transparent or a non-transparent capillary tube in which the anode and cathode electrodes are placed; and an optical spectrometer configured to record the emission of the electric discharge or a mass spectrometer configured to sample the ions generated by the discharge.
Use of a sheet metal material, wherein the sheet metal material comprises a front side surface-hardened by shot peening and a rear side surface-hardened by shot peening, wherein the front side and the rear side of the sheet metal material have been acted on by a respective shot stream simultaneously at least at times, wherein the sheet metal material is a stainless steel sheet metal material, wherein the sheet metal material has an average final surface hardness of at least about 300 HV after being acted on by the at least one shot stream , and wherein the sheet metal material has a material thickness of at most about 3 mm, for producing a kitchen worktop, a sink, or a basin, or for producing a decorative surface that is used in the field of façade design or interior design.
A method of securing a balcony to a façade of a building using an activatable balcony fixing including a shaft , the method having the steps of: aligning the balcony with a projection of the façade, such that the activatable balcony fixing including a shaft, attached to the balcony, is aligned with a socket in the projection; driving the shaft through the socket in the projection via an actuator , thereby securing the balcony to the façade; and locking the balcony to the façade through one or more further fixings, wherein the shaft and/or the socket in the projection are configured so as to provide tapering engagement between the shaft and the socket. aligning the balcony with a projection of the façade, such that the activatable balcony fixing including a shaft, attached to the balcony, is aligned with a socket in the projection; driving the shaft through the socket in the projection via an actuator , thereby securing the balcony to the façade; and locking the balcony to the façade through one or more further fixings, wherein the shaft and/or the socket in the projection are configured so as to provide tapering engagement between the shaft and the socket.
A refrigerator comprising: a storage compartment cooling to preserve an article-to-be-stored; a cooler generating cool air; a cool air passage arranged at a rear face of the storage compartment and through which cool air generated by the cooler flows; a discharge port opened in the cool air passage and discharging cool air into the storage compartment ; and an ion generator arranged in the cool air passage and generating ions, characterized in that the cool air passage includes an inlet portion into which cold air from the cooler flows along the rear face of the storage compartment , a widened portion which is arranged downstream of the inlet portion , in which a flow passage after cool air has flowed into the inlet portion is wider than in the inlet portion , and which is arranged along the rear face of the storage compartment , and first and second branched passages branching from the widened portion forming the flow passage after cool air has flowed into the inlet portion , the discharge port is arranged inside or downstream of the widened portion , and the ion generator is arranged in the inlet portion arranged upstream of the widened portion from which the first and second branched passages branch. a storage compartment cooling to preserve an article-to-be-stored; a cooler generating cool air; a cool air passage arranged at a rear face of the storage compartment and through which cool air generated by the cooler flows; a discharge port opened in the cool air passage and discharging cool air into the storage compartment ; and an ion generator arranged in the cool air passage and generating ions, characterized in that the cool air passage includes an inlet portion into which cold air from the cooler flows along the rear face of the storage compartment , a widened portion which is arranged downstream of the inlet portion , in which a flow passage after cool air has flowed into the inlet portion is wider than in the inlet portion , and which is arranged along the rear face of the storage compartment , and first and second branched passages branching from the widened portion forming the flow passage after cool air has flowed into the inlet portion , the discharge port is arranged inside or downstream of the widened portion , and the cool air passage includes an inlet portion into which cold air from the cooler flows along the rear face of the storage compartment , a widened portion which is arranged downstream of the inlet portion , in which a flow passage after cool air has flowed into the inlet portion is wider than in the inlet portion , and which is arranged along the rear face of the storage compartment , and first and second branched passages branching from the widened portion forming the flow passage after cool air has flowed into the inlet portion , the discharge port is arranged inside or downstream of the widened portion , and the ion generator is arranged in the inlet portion arranged upstream of the widened portion from which the first and second branched passages branch.
A product guide for supplying food products to a slicing unit of a food slicing machine comprising: a traction roller configured to come into conveying contact with a food product for contributing to the supply of the food product to the slicing unit , a carrier , wherein the carrier can be arranged pivotable around a first axis , a drive means , wherein the drive means is configured to rotate the traction roller around a second axis , wherein the traction roller is disposed on the carrier and the first axis is spaced from the second axis . a traction roller configured to come into conveying contact with a food product for contributing to the supply of the food product to the slicing unit , a carrier , wherein the carrier can be arranged pivotable around a first axis , a drive means , wherein the drive means is configured to rotate the traction roller around a second axis , wherein the traction roller is disposed on the carrier and the first axis is spaced from the second axis .
A method of recycling black mass obtained from lithium iron phosphate batteries, comprising: an alkaline leaching step, comprising adding an alkaline solution with a pH of 13-14 to the black mass to obtain a first leachate and a first solid residue; an acid leaching step, comprising adding a 4M-6M acid solution to the first solid residue for a first duration to obtain a second leachate, wherein the acid leaching step further comprises diluting the acid solution by 1⁄2 and adding a first oxidising agent to the acid solution for a second duration to obtain the second leachate. passing the second leachate through a first ion-exchange column wherein fluoride ions from the second leachate are retained in a first resin column to obtain a first eluate; passing the first eluate through a second ion-exchange column wherein copper ions from the first eluate are retained in a second resin column to obtain a second eluate; an iron precipitation step, comprising raising the pH of the second eluate to 2.5-5 and adding a quantity of phosphoric acid to the second eluate, to obtain a first solution and an iron (III) phosphate precipitate; combining the first leachate and the first solution to obtain a second solution; and adjusting the pH of the second solution to 6.5 to obtain a residual precipitate and a lithium solution; wherein the quantity of phosphoric acid is sufficient to achieve an equivalent stoichiometric ratio of ferric iron and phosphate anions in the second eluate. an alkaline leaching step, comprising adding an alkaline solution with a pH of 13-14 to the black mass to obtain a first leachate and a first solid residue; an acid leaching step, comprising adding a 4M-6M acid solution to the first solid residue for a first duration to obtain a second leachate, wherein the acid leaching step further comprises diluting the acid solution by 1⁄2 and adding a first oxidising agent to the acid solution for a second duration to obtain the second leachate. passing the second leachate through a first ion-exchange column wherein fluoride ions from the second leachate are retained in a first resin column to obtain a first eluate; passing the first eluate through a second ion-exchange column wherein copper ions from the first eluate are retained in a second resin column to obtain a second eluate; an iron precipitation step, comprising raising the pH of the second eluate to 2.5-5 and adding a quantity of phosphoric acid to the second eluate, to obtain a first solution and an iron (III) phosphate precipitate; combining the first leachate and the first solution to obtain a second solution; and adjusting the pH of the second solution to 6.5 to obtain a residual precipitate and a lithium solution;