mhurhangee/ep-ind-claims huggingface dataset:
A method for separating a target component in a solution, comprising the steps of: providing a solution comprising a target component, and a reaction reagent capable of gasifying the target component; while continuously feeding the solution and the reaction reagent to a flow path (12,112), intermittently injecting bubbles into the flow path (12,112) to produce a gas-liquid slug flow in which a mixed liquid comprising the solution and the reaction reagent is segmented into a plurality of droplets by the bubbles; continuing the feed of the gas-liquid slug flow in the flow path (12,112), thereby facilitating the mixing of the solution and the reaction reagent, and the gasification of the target component by the mixing, in each droplet, and the movement of a target component-derived gas (AB') produced by the gasification to the bubbles; and recovering the target component-derived gas (AB') that has moved to the bubbles with an absorbing liquid, wherein the gasification of the target component is performed at a temperature less than a boiling point of the solution, wherein the step of recovering the target component-derived gas (AB') with an absorbing liquid is performed by performing gas-liquid separation while pushing the gas-liquid slug flow by a gas, and bringing a gas separated from the gas-liquid slug flow into contact with the absorbing liquid. providing a solution comprising a target component, and a reaction reagent capable of gasifying the target component; while continuously feeding the solution and the reaction reagent to a flow path (12,112), intermittently injecting bubbles into the flow path (12,112) to produce a gas-liquid slug flow in which a mixed liquid comprising the solution and the reaction reagent is segmented into a plurality of droplets by the bubbles; continuing the feed of the gas-liquid slug flow in the flow path (12,112), thereby facilitating the mixing of the solution and the reaction reagent, and the gasification of the target component by the mixing, in each droplet, and the movement of a target component-derived gas (AB') produced by the gasification to the bubbles; and recovering the target component-derived gas (AB') that has moved to the bubbles with an absorbing liquid, wherein the gasification of the target component is performed at a temperature less than a boiling point of the solution, wherein the step of recovering the target component-derived gas (AB') with an absorbing liquid is performed by performing gas-liquid separation while pushing the gas-liquid slug flow by a gas, and bringing a gas separated from the gas-liquid slug flow into contact with the absorbing liquid.
An aqueous emulsion composition comprising an aqueous emulsion and a cyclic acid anhydride, wherein the aqueous emulsion comprises a polymer having an ethylenically unsaturated monomer, a polyvinyl alcohol resin, and water, and at least one selected from the polyvinyl alcohol resin and the polymer has, in a main chain thereof, a structural unit derived from a monomer represented by the following formula,,, or: wherein: R 1 is a hydrogen atom, a linear alkyl group having 1 to 8 carbon atoms, or -CH 2 -COOM, where M is a hydrogen atom, a methyl group, an alkali metal, or an ammonium group; R 2 and R 3 are the same or different and are each an alkyl group having 1 to 8 carbon atoms or an alkylcarbonyl group having 2 to 8 carbon atoms; R 4 is a hydrogen atom or -COOM, where M is a hydrogen atom, a methyl group, an alkali metal, or an ammonium group; and X is -(CH 2) n -, -CO-NH-(CH 2) n -, -NH-CO-(CH 2) n -, -CO-(CH 2) n -, -CO-O-(CH 2) n -, -O-CO-(CH 2) n -, -NR 5 -CO-(CH 2) n -, or -CO-NR 5 -(CH 2) n -, where R 5 is a hydrogen atom or an alkyl group having 1 to 4 carbon atoms and n is an integer of 0 to 8, wherein R 1, R 4, and X are as defined above, R 6 is -(CH 2 -CH 2) m -, and m is an integer of 1 to 3, wherein R 1 and R 4 are as defined above, R 7 is a hydrogen atom or a linear alkyl group having 1 to 6 carbon atoms, wherein R 1 and R 4 are as defined above, and R 8 and R 9 are the same or different and are each a hydrogen atom or a linear alkyl group having 1 to 6 carbon atoms. the aqueous emulsion comprises a polymer having an ethylenically unsaturated monomer, a polyvinyl alcohol resin, and water, and at least one selected from the polyvinyl alcohol resin and the polymer has, in a main chain thereof, a structural unit derived from a monomer represented by the following formula,,, or: wherein: R 1 is a hydrogen atom, a linear alkyl group having 1 to 8 carbon atoms, or -CH 2 -COOM, where M is a hydrogen atom, a methyl group, an alkali metal, or an ammonium group; R 2 and R 3 are the same or different and are each an alkyl group having 1 to 8 carbon atoms or an alkylcarbonyl group having 2 to 8 carbon atoms; R 4 is a hydrogen atom or -COOM, where M is a hydrogen atom, a methyl group, an alkali metal, or an ammonium group; and X is -(CH 2) n -, -CO-NH-(CH 2) n -, -NH-CO-(CH 2) n -, -CO-(CH 2) n -, -CO-O-(CH 2) n -, -O-CO-(CH 2) n -, -NR 5 -CO-(CH 2) n -, or -CO-NR 5 -(CH 2) n -, where R 5 is a hydrogen atom or an alkyl group having 1 to 4 carbon atoms and n is an integer of 0 to 8, wherein R 1, R 4, and X are as defined above, R 6 is -(CH 2 -CH 2) m -, and m is an integer of 1 to 3, wherein R 1 and R 4 are as defined above, R 7 is a hydrogen atom or a linear alkyl group having 1 to 6 carbon atoms, wherein R 1 and R 4 are as defined above, and R 8 and R 9 are the same or different and are each a hydrogen atom or a linear alkyl group having 1 to 6 carbon atoms.
A screw having a screw drive in which - two screw drives are incorporated in a screw head, wherein one drive is an internal polygonal drive, and - the second drive is an internal multilobular drive, wherein the internal multilobular drive is a screw drive in the form of a multi-ray star, in which the rays are formed in the shape of rounded points or other shapes of the points, characterised in that - the screw drive comprises an integrated torque protection, and - when a torque adapted to the design of the screw is exceeded, the points enabling the drive break off, shear or are pressed flat to prevent damage to the thread and the screw shaft or the tearing off of the screw head. - two screw drives are incorporated in a screw head, wherein one drive is an internal polygonal drive, and - the second drive is an internal multilobular drive, wherein the internal multilobular drive is a screw drive in the form of a multi-ray star, in which the rays are formed in the shape of rounded points or other shapes of the points, - the screw drive comprises an integrated torque protection, and - when a torque adapted to the design of the screw is exceeded, the points enabling the drive break off, shear or are pressed flat to prevent damage to the thread and the screw shaft or the tearing off of the screw head.
An agent which interferes with IgG-A2BG2 expression, IgG-A2BG2 function or IgG-A2BG2 interaction with CD16 in a subject for use in a method of treating, delaying the onset, delaying progression of, reducing the incidence of or reducing the severity of amyotrophic lateral sclerosis in said subject, said agent being a selectively expressed enzyme which cleaves the A2BG2 glycan from the Fc portion of IgG molecules in said subject or said agent being an antibody with appropriate specificity for the A2BG2 portion of an IgG molecule or a competing molecule, containing the A2BG2 glycan, which interferes with the binding of the CD16 receptor to IgG antibodies in said subject.
Storage container, with a container housing, which has at least one receiving compartment open with a compartment opening on a front side of the container housing and a drawer element arranged in the receiving compartment so that it can be pulled out and slid in, wherein the drawer element has a bottom wall and an outer wall extending around the edge of the bottom wall and projecting upwardly, and wherein a drawer inner space is defined by the bottom wall and the outer wall, in which drawer inner space at least one space partition wall extending between two opposing outer wall sections (12, 13) is arranged, wherein the space partition wall has at least one support hook in the region of its lower end edge, which support hook engages with a recess of the bottom wall, and the recess is designed as an opening in the bottom wall, the support hook and/or the recess being designed in such a way that the underside of the support hook is arranged above or at the same height as the outer side of the bottom wall, so that the support hook does not project out of the recess at the bottom, wherein a latching edge is provided in the recess, which is engaged underneath by the support hook, wherein the latching edge is associated with a local elevation arrangement which rises above the inner side of the bottom wall, characterized in that the elevation arrangement is divided into two elevations (39, 41) between which a groove-like recess is provided, and the elevations (39, 41) are of rampshaped design and are arranged in such a way that they become higher in the transverse direction towards the groove-like recess.
A transmitter (600A, B, C, D) for wireless power transfer, comprising; means for generating a field for wirelessly transferring power to a wireless power receiver; and characterized by means for short-circuiting at least one parasitic antenna (602A, B, D) having a loop when the wireless power receiver is not positioned within the loop or open-circuiting the at least one parasitic antenna when the wireless power receiver is positioned within the loop.
A method for controlling an autonomous mobile robot using a human-machine interface, wherein the robot has a navigation module with an electronic map and with at least one sensor for navigation and orientation in the surroundings, and wherein robot and human-machine interface can exchange data via a communication link; the method comprising: displaying the map on the human-machine interface; marking a point in the map by a user; automatically selecting a specific area that depends on the selected point, characterized in that the specific area has a predefined basic shape, a predefined size and a predefined orientation, wherein after selection of the specific area at least one of the following parameters predefined basic shape, predefined size and predefined orientation based on first information stored in the electronic map is automatically adjusted; and then automatically controlling the robot to start machining the adjusted specific area. wherein the robot has a navigation module with an electronic map and with at least one sensor for navigation and orientation in the surroundings, and wherein robot and human-machine interface can exchange data via a communication link; the method comprising: displaying the map on the human-machine interface; marking a point in the map by a user; automatically selecting a specific area that depends on the selected point, characterized in that the specific area has a predefined basic shape, a predefined size and a predefined orientation, wherein after selection of the specific area at least one of the following parameters predefined basic shape, predefined size and predefined orientation based on first information stored in the electronic map is automatically adjusted; and then automatically controlling the robot to start machining the adjusted specific area. displaying the map on the human-machine interface; marking a point in the map by a user; automatically selecting a specific area that depends on the selected point, characterized in that the specific area has a predefined basic shape, a predefined size and a predefined orientation, wherein after selection of the specific area at least one of the following parameters predefined basic shape, predefined size and predefined orientation based on first information stored in the electronic map is automatically adjusted; and then automatically controlling the robot to start machining the adjusted specific area.
A frame synchronization method of a wireless system, comprising: separately delaying (71, 82) a signal received from one ofN receiving antennas in K tributaries, and outputting K delayed signals, wherein the signal is a transmitting signal that is sent by one of M transmitting antennas, a preamble sequence of the transmitting signal is generated by K preamble subsequences that are periodically arranged, a length of the preamble sequence is K times the length of the preamble subsequence, and M, N and K are positive integers; performing (72, 83) a correlation operation on each of the K delayed signals and the preamble subsequence to output K first signals, and generating (72, 83) a first output signal by multiplying the K first signals; performing (73, 84) a correlation operation on each of the K delayed signals and each of the K delayed signals itself to output K second signals, and generating (73, 84) a second output signal by multiplying the K second signals; and characterized in performing (74, 85) a division operation on the first output signal and the second output signal to obtain a string of data stream, and obtaining (74, 85) a maximum value of the string of data stream as a correlation peak, so as to determine a position of a frame header according to a time point corresponding to the correlation peak. separately delaying (71, 82) a signal received from one ofN receiving antennas in K tributaries, and outputting K delayed signals, wherein the signal is a transmitting signal that is sent by one of M transmitting antennas, a preamble sequence of the transmitting signal is generated by K preamble subsequences that are periodically arranged, a length of the preamble sequence is K times the length of the preamble subsequence, and M, N and K are positive integers; performing (72, 83) a correlation operation on each of the K delayed signals and the preamble subsequence to output K first signals, and generating (72, 83) a first output signal by multiplying the K first signals; performing (73, 84) a correlation operation on each of the K delayed signals and each of the K delayed signals itself to output K second signals, and generating (73, 84) a second output signal by multiplying the K second signals; and characterized in performing (74, 85) a division operation on the first output signal and the second output signal to obtain a string of data stream, and obtaining (74, 85) a maximum value of the string of data stream as a correlation peak, so as to determine a position of a frame header according to a time point corresponding to the correlation peak.
An inhalation apparatus comprising an inhalation chamber and a flow measuring apparatus for measuring a flow of particles from an inhalation chamber the inhalation chamber having a first end to be connected to the source of drug, such as a metered drug inhaler, to be administered by inhalation to a user, and a second end to be connected to the user, through a section of the inhalation apparatus, said section being located between the second end of the inhalation chamber and the user, the flow measuring apparatus being located in the section of the inhalation apparatus and comprising: • a sensor comprising at least one photo-detection device, each one of the at least one photo-detection device comprising a light source and a detector, wherein said light source is configured to emit electromagnetic radiation onto said detector along a light path, wherein said detector is configured to measure disturbance of said electromagnetic radiation by said flow of particles from the inhalation chamber to provide measurements of the presence of particles within said section of the inhalation apparatus and measurements of a mass of the particles flowing through the inhalation apparatus. • a sensor comprising at least one photo-detection device, each one of the at least one photo-detection device comprising a light source and a detector,
A display apparatus comprising: a transparent panel, wherein the transparent panel includes a first portion and a second portion such that the first portion defines a first cavity and the second portion defines a second cavity within the interior of the transparent panel that together define a single cavity within the interior of the transparent panel for receiving a display system; the display system for displaying alphanumeric characters responsive to at least one control signal, the display system being enclosed in the single cavity within the interior of the transparent panel, and comprising: a substantially transparent moulded substrate; a light emitting array of display elements mounted on the substrate; circuit elements interconnected with the display elements providing electrical connection therebetween, mounted on the substrate; a plurality of light hoods each associated with one of the display elements in the array of display elements; and a controller configured to generate the at least one control signal. a transparent panel, wherein the transparent panel includes a first portion and a second portion such that the first portion defines a first cavity and the second portion defines a second cavity within the interior of the transparent panel that together define a single cavity within the interior of the transparent panel for receiving a display system; the display system for displaying alphanumeric characters responsive to at least one control signal, the display system being enclosed in the single cavity within the interior of the transparent panel, and comprising: a substantially transparent moulded substrate; a light emitting array of display elements mounted on the substrate; circuit elements interconnected with the display elements providing electrical connection therebetween, mounted on the substrate; a plurality of light hoods each associated with one of the display elements in the array of display elements; and a controller configured to generate the at least one control signal. a substantially transparent moulded substrate; a light emitting array of display elements mounted on the substrate; circuit elements interconnected with the display elements providing electrical connection therebetween, mounted on the substrate; a plurality of light hoods each associated with one of the display elements in the array of display elements; and a controller configured to generate the at least one control signal.
Diagnosis system detecting a state of emergency during assembly of a fuselage of an airplane, the diagnosis system comprising: positioning units (205, 206) for moving the fuselage along a positioning track; a detection unit for monitoring position and movement of the fuselage and detecting a state of emergency when the fuselage is in a first assembly state, wherein the state of emergency corresponds to a local difference between a target position and an actual position of the fuselage; and an output unit comprising a screen for outputting a local position to a user at which the state of emergency is detected by marking the position on a graphical schematic representation including the fuselage when the state of emergency is detected; wherein the diagnosis system is adapted for preventing a movement of the fuselage from a first position to a second position along the positioning track when the state of emergency is detected, thereby preventing damage of the fuselage; wherein the diagnosis system is further adapted for being unblocked such that the fuselage can be moved to a next position along the positioning track after a source of the state of emergency has been removed. positioning units (205, 206) for moving the fuselage along a positioning track; a detection unit for monitoring position and movement of the fuselage and detecting a state of emergency when the fuselage is in a first assembly state, wherein the state of emergency corresponds to a local difference between a target position and an actual position of the fuselage; and an output unit comprising a screen for outputting a local position to a user at which the state of emergency is detected by marking the position on a graphical schematic representation including the fuselage when the state of emergency is detected; wherein the diagnosis system is adapted for preventing a movement of the fuselage from a first position to a second position along the positioning track when the state of emergency is detected, thereby preventing damage of the fuselage; wherein the diagnosis system is further adapted for being unblocked such that the fuselage can be moved to a next position along the positioning track after a source of the state of emergency has been removed.
Process for the application to a support of a expansion-lightened mortar based on a hydraulic binder, using a pump spraying device comprising a mixing pump, an outlet line of said pump and a spray nozzle attached to the outlet line, characterized in that it comprises the following steps carried out continuously in the device: a) mixing of an aqueous solution containing a pore-forming agent based on peroxide with a composition comprising at least one hydraulic binder, in the presence of a catalyst for decomposition of the pore-forming agent, said binder being chosen among or being a combination of - cement(s), in particular Portland cement, cement of pozzolanic mixtures optionally comprising fly ashes, blast furnace slags, silica fumes and/or natural or calcined pozzolans, aluminous cement, sulphoaluminous cement, belitic cement, and their mixing, and/or - hydraulic lime, the said mixing being carried out in the outlet line of the mixing pump and immediately after, b) continuous spraying of the lightweight mixture obtained. a) mixing of an aqueous solution containing a pore-forming agent based on peroxide with a composition comprising at least one hydraulic binder, in the presence of a catalyst for decomposition of the pore-forming agent, said binder being chosen among or being a combination of - cement(s), in particular Portland cement, cement of pozzolanic mixtures optionally comprising fly ashes, blast furnace slags, silica fumes and/or natural or calcined pozzolans, aluminous cement, sulphoaluminous cement, belitic cement, and their mixing, and/or - hydraulic lime, the said mixing being carried out in the outlet line of the mixing pump and immediately after, - cement(s), in particular Portland cement, cement of pozzolanic mixtures optionally comprising fly ashes, blast furnace slags, silica fumes and/or natural or calcined pozzolans, aluminous cement, sulphoaluminous cement, belitic cement, and their mixing, and/or - hydraulic lime, b) continuous spraying of the lightweight mixture obtained.