mhurhangee/ep-ind-claims huggingface dataset:
A method to bind a property in a process control system, the method comprising: associating, a particular binding type with a property of a graphic element, the particular binding type corresponding to a subset of a plurality of values for the property, wherein each value of the plurality of values for the property is a control module identifier value indicative of a respective control module, the respective control module being operative to control a respective process in the process control system and being bindable to the graphic element,and wherein the particular binding type is provided by a particular binding provider of a plurality of binding providers; retrieving, using the particular binding provider, the subset of the plurality of values for the property; presenting at least some values included in the subset of the plurality of values for the property to a user, and not presenting a particular value of the plurality of values that is excluded from the subset; receiving a user-selected value that is selected from the at least some values included in the subset of the plurality of values for the property; and generating a binding reference to bind the respective control module corresponding to the user-selected value to the graphic element. associating, a particular binding type with a property of a graphic element, the particular binding type corresponding to a subset of a plurality of values for the property, wherein each value of the plurality of values for the property is a control module identifier value indicative of a respective control module, the respective control module being operative to control a respective process in the process control system and being bindable to the graphic element,and wherein the particular binding type is provided by a particular binding provider of a plurality of binding providers; retrieving, using the particular binding provider, the subset of the plurality of values for the property; presenting at least some values included in the subset of the plurality of values for the property to a user, and not presenting a particular value of the plurality of values that is excluded from the subset; receiving a user-selected value that is selected from the at least some values included in the subset of the plurality of values for the property; and generating a binding reference to bind the respective control module corresponding to the user-selected value to the graphic element.
A method of a user equipment, UE, the method comprising: receiving, from a base station, a first beamformed reference signal; requesting a transmission of a second beamformed reference signal in case that a result of measuring the first beamformed reference signal satisfies a predetermined condition; operating a timer, set by the base station, for prohibiting the UE to perform the requesting; receiving the second beamformed reference signal based on the requesting; and identifying a second beam and a transmission beam based on a measurement result of the second beamformed reference signal, wherein a reception beam of the UE is changed from a first beam to the second beam. receiving, from a base station, a first beamformed reference signal; requesting a transmission of a second beamformed reference signal in case that a result of measuring the first beamformed reference signal satisfies a predetermined condition; operating a timer, set by the base station, for prohibiting the UE to perform the requesting; receiving the second beamformed reference signal based on the requesting; and identifying a second beam and a transmission beam based on a measurement result of the second beamformed reference signal, wherein a reception beam of the UE is changed from a first beam to the second beam.
A polarimetric radar, comprising a transmission assembly that emits circularly polarized waves via transmission antennas, and a receiver assembly that receives the reflected circularly polarized waves using an antenna assembly, wherein the receiver assembly comprises individual antenna elements and real individual receiver antennas, wherein as the receiver assembly a plurality of two-channel receivers is provided, which simultaneously receive clockwise- and anticlockwise-rotating circularly polarized signal components which are provided for digital beam shaping downstream of the antenna assembly, characterized in that the transmission assembly comprises a plurality of transmitters in a horizontal direction and a vertical direction, the phase centre spacings of which are chosen dependent upon the phase centre spacing of the individual antenna elements of the receiver such that periodically recurring main lobes are suppressed by means of half-line transmission location changeover, wherein two transmitters of the plurality of transmitters are arranged at a spacing which is (n-0.5) times the spacing dz of the phase centre of the real individual receiver antennas, where n is a natural number. wherein as the receiver assembly a plurality of two-channel receivers is provided, which simultaneously receive clockwise- and anticlockwise-rotating circularly polarized signal components which are provided for digital beam shaping downstream of the antenna assembly, characterized in that the transmission assembly comprises a plurality of transmitters in a horizontal direction and a vertical direction, the phase centre spacings of which are chosen dependent upon the phase centre spacing of the individual antenna elements of the receiver such that periodically recurring main lobes are suppressed by means of half-line transmission location changeover, wherein two transmitters of the plurality of transmitters are arranged at a spacing which is (n-0.5) times the spacing dz of the phase centre of the real individual receiver antennas, where n is a natural number.
A WiFi data communications method for a terminal, comprising: sending an association request message to an access point; receiving an association response message sent by the access point, wherein the association response message comprises an Association Identifier, AID, allocated by the access point; generating a data frame, wherein a format of the data frame is a simplified frame format, and a frame header of the data frame comprises a source address and a destination address, wherein the length of the source address is shorter than the length of a Media Access Control, MAC, address, and the source address comprises the AID, or the AID and a multicast unicast indicator, or the AID and a data type, or the AID, the data type, and the multicast unicast indicator; and sending the data frame to the access point. sending an association request message to an access point; receiving an association response message sent by the access point, wherein the association response message comprises an Association Identifier, AID, allocated by the access point; generating a data frame, wherein a format of the data frame is a simplified frame format, and a frame header of the data frame comprises a source address and a destination address, wherein the length of the source address is shorter than the length of a Media Access Control, MAC, address, and the source address comprises the AID, or the AID and a multicast unicast indicator, or the AID and a data type, or the AID, the data type, and the multicast unicast indicator; and sending the data frame to the access point.
A dried seamless capsule comprising an alginate shell membrane encapsulating a fill material, wherein: (i) said alginate shell membrane comprises a polyvalent metal ion alginate having: (a) an average -linked beta-D-mannuronic acid residue content of from 50%-62% by weight based on the weight of the M and alpha-L-guluronic acid residue content, and (b) a viscosity of 35-80 cps when measured as a monovalent metal ion alginate in a 3.5% weight water solution at 20 °C using a Brookfield LV viscometer at 60 rpm and spindle #1; and (ii) said alginate shell membrane encapsulates an oil present in an amount of at least 50% by weight of said fill material. (i) said alginate shell membrane comprises a polyvalent metal ion alginate having: (a) an average -linked beta-D-mannuronic acid residue content of from 50%-62% by weight based on the weight of the M and alpha-L-guluronic acid residue content, and (b) a viscosity of 35-80 cps when measured as a monovalent metal ion alginate in a 3.5% weight water solution at 20 °C using a Brookfield LV viscometer at 60 rpm and spindle #1; and (ii) said alginate shell membrane encapsulates an oil present in an amount of at least 50% by weight of said fill material.
A multiband device, characterized in comprising: a processor configured to: send a request via a first frequency band, wherein the request is associated with scheduling a transmission on a second frequency band, and wherein the request indicates an allocation start time and a duration of the transmission on the second frequency band, and wherein the request comprises a sector sweep, SSW, field; receive a multiband Clear to Send, MCTS, frame (605, 705, 805) via the first frequency band, wherein the received MCTS frame indicates an acceptance of the request, and wherein the received frame comprises a SSW feedback field; and send the transmission on the second frequency band in accordance with the allocation start time and the duration, wherein the transmission is a beamforming transmission (202, 502). send a request via a first frequency band, wherein the request is associated with scheduling a transmission on a second frequency band, and wherein the request indicates an allocation start time and a duration of the transmission on the second frequency band, and wherein the request comprises a sector sweep, SSW, field; receive a multiband Clear to Send, MCTS, frame (605, 705, 805) via the first frequency band, wherein the received MCTS frame indicates an acceptance of the request, and wherein the received frame comprises a SSW feedback field; and send the transmission on the second frequency band in accordance with the allocation start time and the duration, wherein the transmission is a beamforming transmission (202, 502).
A method of making a solvent-free, storage-stable mixture of amorphous organosilane quaternary ammonium compounds defined by the formula: wherein R 1 =hydrogen or C 1 to C 4 alkyl; R 2 =divalent hydrocarbon radical with C 1 to C 8 carbon atoms; R 3 =hydrogen or C 1 to C 4 alkyl; R 4 =hydrogen or C 1 to C 10 alkyl; R 5 =C 8 to C 22 saturated or unsaturated hydrocarbon radical and X= chloride, wherein said mixture is 100% active, wherein the method comprises: determining the molecular composition and molecular equivalent weight of a mixture of alkyl amines selected from the group of primary, secondary, and tertiary amines, and mixtures thereof, wherein at least one radical of said alkyl amines has a linear hydrocarbon chain length ranging from a C 8 -C 22 saturated or unsaturated hydrocarbon group; determining the molecular composition and molecular equivalent weight of a chloroalkyltrialkoxysilane; and reacting at a ratio of 1:1 the molecular equivalent weight of said alkyl amine mixture with the equivalent weight of said chloroalkyltrialkoxysilane to form the solvent-free, storage-stable mixture of amorphous organosilane quaternary ammonium compounds. determining the molecular composition and molecular equivalent weight of a mixture of alkyl amines selected from the group of primary, secondary, and tertiary amines, and mixtures thereof, wherein at least one radical of said alkyl amines has a linear hydrocarbon chain length ranging from a C 8 -C 22 saturated or unsaturated hydrocarbon group; determining the molecular composition and molecular equivalent weight of a chloroalkyltrialkoxysilane; and reacting at a ratio of 1:1 the molecular equivalent weight of said alkyl amine mixture with the equivalent weight of said chloroalkyltrialkoxysilane to form the solvent-free, storage-stable mixture of amorphous organosilane quaternary ammonium compounds.
Use of polyalkyl (meth)acrylate bead polymers whose median particle size V 50 is in the range from 30 to 70 μm for improvement of the stress cracking resistance of polyalkyl (meth)acrylate-containing molding compositions.
Apparatus (10; 210; 310; 410; 510) for tomographic image acquisition, comprising - a specimen holder, - a light-source which is configured to generate a pencil beam having a beam direction traversing a specimen volume of the specimen holder provided for receiving a specimen, and which exhibits an optical control element that is able to offset the pencil beam traversing the specimen volume of the specimen holder at right angles to the beam direction with substantially unchanged beam direction, and - a detector unit configured for a non-spatially-resolved acquisition of at least a portion of scattered radiation (64; 64') escaping from a section of the pencil beam within the specimen volume of the specimen holder, wherein the scattered radiation (64; 64') includes radiation scattered out of the beam direction, characterized in that the detector unit exhibits at least one scattered-radiation collector (66; 266; 366; 366') which is configured or which are together configured to acquire the scattered radiation (64; 64') integrally in a solid angle around the specimen volume or the specimen holder of at least 0,12 n sr. - a specimen holder, - a light-source which is configured to generate a pencil beam having a beam direction traversing a specimen volume of the specimen holder provided for receiving a specimen, and which exhibits an optical control element that is able to offset the pencil beam traversing the specimen volume of the specimen holder at right angles to the beam direction with substantially unchanged beam direction, and - a detector unit configured for a non-spatially-resolved acquisition of at least a portion of scattered radiation (64; 64') escaping from a section of the pencil beam within the specimen volume of the specimen holder, wherein the scattered radiation (64; 64') includes radiation scattered out of the beam direction, characterized in that the detector unit exhibits at least one scattered-radiation collector (66; 266; 366; 366') which is configured or which are together configured to acquire the scattered radiation (64; 64') integrally in a solid angle around the specimen volume or the specimen holder of at least 0,12 n sr.
A motor vehicle dashboard cross-member, of the type comprising a tube intended to be fastened at its ends to the front lateral struts of the structure of a motor vehicle, the tube comprising two end segments and an intermediate segment, in which the intermediate segment has a cylindrical cross-section with a convex outer contour, wherein at least one of the two end segments has a cylindrical cross-section with a convex outer contour different from that of the intermediate segment, has an outer tangential plane shared with the intermediate segment, said end segment and the intermediate segment comprising at least one shared generatrix extending rectilinearly along the intermediate segment and the end segment, and has an outer dimension considered along a direction perpendicular to the shared outer tangential plane smaller than that of the intermediate segment, characterized in that each end of the tube is provided with a fastener attached on that end for fastening on a respective strut, and each end segment has a cross-section with an area smaller than that of the cross-section of the intermediate segment.
A plate shunt resistor used in current detection comprising: a resistance element; and a pair of electrodes (6, 7) connected to both ends of the resistance element in a first direction, wherein the shunt resistor comprises: a first side surface disposed on a first side of the shunt resistor and extending parallel to the first direction, a second side surface disposed on a second side of the shunt resistor extending parallel to the first direction, the second side being opposite to the first side of the shunt resistor, a projecting portion formed on the first side surface of the shunt resistor and projecting in a second direction perpendicular to the first direction, and a recessed portion formed on the second side surface of the shunt resistor and recessed in the second direction, wherein the projecting portion has a portion of the resistance element and portions of the pair of electrodes (6, 7), and wherein the recessed portion has a side of the resistance element parallel to the first direction. a resistance element; and a pair of electrodes (6, 7) connected to both ends of the resistance element in a first direction, wherein the shunt resistor comprises: a first side surface disposed on a first side of the shunt resistor and extending parallel to the first direction, a second side surface disposed on a second side of the shunt resistor extending parallel to the first direction, the second side being opposite to the first side of the shunt resistor, a projecting portion formed on the first side surface of the shunt resistor and projecting in a second direction perpendicular to the first direction, and a recessed portion formed on the second side surface of the shunt resistor and recessed in the second direction, a first side surface disposed on a first side of the shunt resistor and extending parallel to the first direction, a second side surface disposed on a second side of the shunt resistor extending parallel to the first direction, the second side being opposite to the first side of the shunt resistor, a projecting portion formed on the first side surface of the shunt resistor and projecting in a second direction perpendicular to the first direction, and a recessed portion formed on the second side surface of the shunt resistor and recessed in the second direction, wherein the projecting portion has a portion of the resistance element and portions of the pair of electrodes (6, 7), and wherein the recessed portion has a side of the resistance element parallel to the first direction.
Valve assembly having a housing in which a valve piston is received so as to be linearly movable, wherein, on the housing, there are provided a first and a second working port (12; 13) which are connected to one another via a valve seat on the housing, wherein the valve seat is able to be closed off by the valve piston by way of a first end face, wherein the opposite second end face of the valve piston delimits, together with the housing, a valve chamber, wherein, between the housing and the valve piston, there is provided an adjustable throttle whose throttle cross section changes continuously during displacement of the valve piston, wherein the first working port is connected to the valve chamber via the throttle, characterized in that a positive displacement pump which is able to deliver hydraulic fluid from a first to a second fluid port (51; 52) is provided, wherein the first fluid port is connected to the valve chamber, wherein the positive displacement pump is driven by an electric motor.
An ink cartridge, comprising an ink cartridge body, a chip of the ink cartridge and a repair chip; wherein the repair chip comprises a substrate, a first contact point, a second contact point, a first tin point, a second tin point and a repair resistor; the substrate has a first surface and a second surface opposite to each other; the first surface is provided with the first contact point and the second contact point; the second surface is provided with the repair resistor, the first tin point corresponding to the first contact point, and the second tin point corresponding to the second contact point; the first tin point is connected with a first end of the repair resistor, and the second tin point is connected with a second end of the repair resistor; the first contact point and the second contact point are configured for electrical connection with a printer, respectively; the first contact point is connected with the first tin point, and the second contact point is connected with the second tin point; the ink cartridge body is connected with the chip of the ink cartridge; the first tin point and the second tin point are configured to connect with chip contact points of the chip of the ink cartridge, respectively; and the second surface is bonded to a surface of the chip of the ink cartridge; the chip contact points of the chip comprise a contact point to be repaired and a grounding contact point, the first tin point is connected with the contact point to be repaired, and the second tin point is connected with the grounding contact point. the repair chip comprises a substrate, a first contact point, a second contact point, a first tin point, a second tin point and a repair resistor; the substrate has a first surface and a second surface opposite to each other; the first surface is provided with the first contact point and the second contact point; the second surface is provided with the repair resistor, the first tin point corresponding to the first contact point, and the second tin point corresponding to the second contact point; the first tin point is connected with a first end of the repair resistor, and the second tin point is connected with a second end of the repair resistor; the first contact point and the second contact point are configured for electrical connection with a printer, respectively; the first contact point is connected with the first tin point, and the second contact point is connected with the second tin point; the ink cartridge body is connected with the chip of the ink cartridge; the first tin point and the second tin point are configured to connect with chip contact points of the chip of the ink cartridge, respectively; and the second surface is bonded to a surface of the chip of the ink cartridge; the chip contact points of the chip comprise a contact point to be repaired and a grounding contact point, the first tin point is connected with the contact point to be repaired, and the second tin point is connected with the grounding contact point.
Process for controlling the effect of a warhead, the cylindrical explosive charge of which has a defined porosity, wherein the pore spaces are filled with a liquid, wherein an input pressure is applied to the liquid in a controlled manner, characterized in that - the porous explosive charge has a low density, below the detonation limit, - the liquid is a liquid explosive, - which is arranged in the explosive charge housing and on one side lies against the explosive charge by way of a membrane and - on the other side lies against a movably mounted inert plate, - the density of the explosive charge that is obtained by filling the pore spaces with the liquid explosive lies above the detonation limit. - the porous explosive charge has a low density, below the detonation limit, - the liquid is a liquid explosive, - which is arranged in the explosive charge housing and on one side lies against the explosive charge by way of a membrane and - on the other side lies against a movably mounted inert plate, - the density of the explosive charge that is obtained by filling the pore spaces with the liquid explosive lies above the detonation limit.