mhurhangee/ep-ind-claims huggingface dataset:
A delivery device for delivering a detachable implantable device, comprising an elongated delivery member and a first engagement portion comprising two first proximal-facing surfaces (110p1, 110p2), two first distal-facing surfaces (110d1, 110d2), and a first lumen that is configured to accommodate an activation wire, wherein the delivery device and implantable device can be held in a coupled arrangement by insertion of the activation wire and released from one another by removal of the activation wire, wherein at least 50% of a surface area of the first proximal-facing surfaces (110p1, 110p2) is angled away from a proximal end of the first engagement portion, and wherein the first proximal-facing surfaces (110p1, 110p2) are between the two distal-facing surfaces (110d1, 110d2). wherein the delivery device and implantable device can be held in a coupled arrangement by insertion of the activation wire and released from one another by removal of the activation wire, wherein at least 50% of a surface area of the first proximal-facing surfaces (110p1, 110p2) is angled away from a proximal end of the first engagement portion, and wherein the first proximal-facing surfaces (110p1, 110p2) are between the two distal-facing surfaces (110d1, 110d2).
A brush seal assembly comprising: a brush with a first side facing a low-pressure region and a second side facing a high-pressure region,wherein a first end of the brush is inserted into a brush insertion groove (13 a) formed on a rotor facing surface of a body portion of a sealing body coupled to a diaphragm, and a second end protrudes toward a rotor; and a first support strip,wherein an insertion portion of the first support strip is inserted into a support strip insertion groove an extension portion of the first support strip extends toward the brush from one end of the insertion portion, and a support portion of the first support strip bents from an end of the extension portion to support the first side of the brush, characterized in that the support strip insertion groove is spaced apart from the first side of the brush insertion groove by a predetermined distance in a width direction of the body portion. a brush with a first side facing a low-pressure region and a second side facing a high-pressure region,wherein a first end of the brush is inserted into a brush insertion groove (13 a) formed on a rotor facing surface of a body portion of a sealing body coupled to a diaphragm, and a second end protrudes toward a rotor; and a first support strip,wherein an insertion portion of the first support strip is inserted into a support strip insertion groove an extension portion of the first support strip extends toward the brush from one end of the insertion portion, and a support portion of the first support strip bents from an end of the extension portion to support the first side of the brush, characterized in that the support strip insertion groove is spaced apart from the first side of the brush insertion groove by a predetermined distance in a width direction of the body portion. a first end of the brush is inserted into a brush insertion groove (13 a) formed on a rotor facing surface of a body portion of a sealing body coupled to a diaphragm, and a second end protrudes toward a rotor; and a first support strip,wherein an insertion portion of the first support strip is inserted into a support strip insertion groove an extension portion of the first support strip extends toward the brush from one end of the insertion portion, and a support portion of the first support strip bents from an end of the extension portion to support the first side of the brush, characterized in that the support strip insertion groove is spaced apart from the first side of the brush insertion groove by a predetermined distance in a width direction of the body portion. an insertion portion of the first support strip is inserted into a support strip insertion groove an extension portion of the first support strip extends toward the brush from one end of the insertion portion, and a support portion of the first support strip bents from an end of the extension portion to support the first side of the brush, characterized in that the support strip insertion groove is spaced apart from the first side of the brush insertion groove by a predetermined distance in a width direction of the body portion.
Garment comprising: a. an integrated first pocket into which the garment can be packed, when not in use; b. wherein the first pocket comprises an opening arranged at the lower end of the garment; c. wherein the opening does not comprise a closure means; and d. wherein the first pocket further comprises a pulling element adapted to cause a downward pull of the garment into the first pocket. a. an integrated first pocket into which the garment can be packed, when not in use; b. wherein the first pocket comprises an opening arranged at the lower end of the garment; c. wherein the opening does not comprise a closure means; and d. wherein the first pocket further comprises a pulling element adapted to cause a downward pull of the garment into the first pocket.
A user terminal that controls uplink transmission power, comprising: a receiving section configured to receive transmission power control commands; and a control section configured to control uplink transmission power based on an accumulated value of the TPC commands, wherein, when subframes in a radio frame are divided into a plurality of subframe sets, the control section is configured to calculate the accumulated value of the TPC commands on a per subframe set basis, and control resetting of the accumulated value of the TPC commands on a per subframe set basis, based on predetermined reset conditions, and wherein the control section is configured to employ different reset conditions on a per subframe set basis. a receiving section configured to receive transmission power control commands; and a control section configured to control uplink transmission power based on an accumulated value of the TPC commands, wherein, when subframes in a radio frame are divided into a plurality of subframe sets, the control section is configured to calculate the accumulated value of the TPC commands on a per subframe set basis, and control resetting of the accumulated value of the TPC commands on a per subframe set basis, based on predetermined reset conditions, and wherein the control section is configured to employ different reset conditions on a per subframe set basis.
A user device which communicates with a communications node, the user device comprising: means for receiving, from the communications node, downlink control information comprising a resource indication value for indicating a resource allocation, and for decoding data which corresponds to the downlink control information comprising the resource indication value, wherein the resource indication value is defined, depending on a result of a comparison between one less than a length in terms of number of contiguously allocated resource blocks, P-1, and an integer value calculated from a number of resource blocks in a bandwidth divided by two, N/2, by either: a first expression, N(P-1)+O, or a second expression, N(N-P+1)+(N-1-O), where N is the number of resource blocks in a bandwidth, O is a starting resource block number and P is the length in terms of number of contiguously allocated resource blocks. means for receiving, from the communications node, downlink control information comprising a resource indication value for indicating a resource allocation, and for decoding data which corresponds to the downlink control information comprising the resource indication value, wherein the resource indication value is defined, depending on a result of a comparison between one less than a length in terms of number of contiguously allocated resource blocks, P-1, and an integer value calculated from a number of resource blocks in a bandwidth divided by two, N/2, by either: a first expression, N(P-1)+O, or a second expression, N(N-P+1)+(N-1-O), a first expression, N(P-1)+O, or a second expression, N(N-P+1)+(N-1-O), where N is the number of resource blocks in a bandwidth, O is a starting resource block number and P is the length in terms of number of contiguously allocated resource blocks.
A measuring device, comprising: - A measuring tube for conducting a flowable medium, wherein the measuring tube has an inner lateral surface, wherein the inner lateral surface is designed to be electrically insulating at least in sections, - at least one monitoring electrode, wherein the at least one monitoring electrode is arranged on the electrically insulating section of the inner lateral surface in such a way that it is contact with the media, - a measuring apparatus for determining a process property of the medium; - an abrasion detection device, which is configured to determine at least one variable on the at least one monitoring electrode, which corresponds to an abrasion of the monitoring electrode, wherein the at least one monitoring electrode is configured as a selectively applied conductive layer system; characterized in that the layer system comprises at least two electrically conductive layers (11, 12) each having different materials. - A measuring tube for conducting a flowable medium, wherein the measuring tube has an inner lateral surface, wherein the inner lateral surface is designed to be electrically insulating at least in sections, wherein the measuring tube has an inner lateral surface, wherein the inner lateral surface is designed to be electrically insulating at least in sections, - at least one monitoring electrode, wherein the at least one monitoring electrode is arranged on the electrically insulating section of the inner lateral surface in such a way that it is contact with the media, - a measuring apparatus for determining a process property of the medium; - an abrasion detection device, which is configured to determine at least one variable on the at least one monitoring electrode, which corresponds to an abrasion of the monitoring electrode, wherein the at least one monitoring electrode is configured as a selectively applied conductive layer system; characterized in that the layer system comprises at least two electrically conductive layers (11, 12) each having different materials. wherein the at least one monitoring electrode is configured as a selectively applied conductive layer system; characterized in that the layer system comprises at least two electrically conductive layers (11, 12) each having different materials.
A radio communication system comprising: a visit information storage unit configured to store plural visit information elements each indicating information about a visit to a cell visited by a user equipment; an event detector configured to detect an event that occurs in the user equipment; a cell identifier detector configured to detect a cell identifier that indicates a cell visited by the user equipment; the radio communication system being characterized by further comprising a location characteristic determiner configured to determine a location characteristic of the cell indicated by the cell identifier based on one or more visit information elements corresponding to the cell, wherein a location characteristic is a role or function of a place corresponding to the cell, and wherein the location characteristic determiner is further configured to determine the location characteristic of the cell visited by the user equipment when the event detector detects a no-cell-change event other than a cell-change event that indicates a change in the cell identifier. a visit information storage unit configured to store plural visit information elements each indicating information about a visit to a cell visited by a user equipment; an event detector configured to detect an event that occurs in the user equipment; a cell identifier detector configured to detect a cell identifier that indicates a cell visited by the user equipment; the radio communication system being characterized by further comprising a location characteristic determiner configured to determine a location characteristic of the cell indicated by the cell identifier based on one or more visit information elements corresponding to the cell, wherein a location characteristic is a role or function of a place corresponding to the cell, and wherein the location characteristic determiner is further configured to determine the location characteristic of the cell visited by the user equipment when the event detector detects a no-cell-change event other than a cell-change event that indicates a change in the cell identifier.
Building structure, in particular load-bearing or supporting framework, comprising: at least one connecting part, at least one bar, the bar having two profiles, in particular U-profiles, a connecting region of the connecting part being arranged between the two profiles of the bar, the bar being connected to the connecting part by means of a bolt connector, characterised in that the bolt connector comprises a base plate and a plurality of bolts which are attached to the base plate, the bolt connector connecting the two profiles of the bar to the connecting region of the connecting part. at least one connecting part, at least one bar, the bar having two profiles, in particular U-profiles, a connecting region of the connecting part being arranged between the two profiles of the bar, the bar being connected to the connecting part by means of a bolt connector, characterised in that the bolt connector comprises a base plate and a plurality of bolts which are attached to the base plate, the bolt connector connecting the two profiles of the bar to the connecting region of the connecting part.
A production process for 2-acrylamido-2-methylpropane sulfonic acid including at least the following successive steps: 1) mixing of acrylonitrile with at least one compound contributing SO 3 at a temperature included between -80 and 30 °C for at least one second in order to obtain a sulfonating mixture; 2) placing in contact and mixing isobutylene and the sulfonating mixture with a molar ratio of SO 3 to isobutylene included between 0.2:1 and 2:1 and a molar ratio of acrylonitrile to isobutylene included between 3:1 and 60:1 at a temperature included between -40 and 100 °C for a time included between 10 seconds and 300 minutes in order to obtain a reaction mixture; 3) solid/liquid separation of the reaction mixture and isolation of the solid particles contained in the reaction mixture in the form of a composition 1 in which the solid particles represent 50 to 99 % by weight of the composition 1; 4) mixing composition 1 at the end of step 3) with an aqueous solution A for at least 10 minutes at a temperature included between -20 and 70 °C in order to obtain a suspension 1 of 2-acrylamido-2-methylpropane sulfonic acid crystals; 5) solid/liquid separation of the suspension 1 and isolation of the crystals in the form of a composition 2 in which the crystals represent between 40 and 99 % by weight of the composition 2. 1) mixing of acrylonitrile with at least one compound contributing SO 3 at a temperature included between -80 and 30 °C for at least one second in order to obtain a sulfonating mixture; 2) placing in contact and mixing isobutylene and the sulfonating mixture with a molar ratio of SO 3 to isobutylene included between 0.2:1 and 2:1 and a molar ratio of acrylonitrile to isobutylene included between 3:1 and 60:1 at a temperature included between -40 and 100 °C for a time included between 10 seconds and 300 minutes in order to obtain a reaction mixture; 3) solid/liquid separation of the reaction mixture and isolation of the solid particles contained in the reaction mixture in the form of a composition 1 in which the solid particles represent 50 to 99 % by weight of the composition 1; 4) mixing composition 1 at the end of step 3) with an aqueous solution A for at least 10 minutes at a temperature included between -20 and 70 °C in order to obtain a suspension 1 of 2-acrylamido-2-methylpropane sulfonic acid crystals; 5) solid/liquid separation of the suspension 1 and isolation of the crystals in the form of a composition 2 in which the crystals represent between 40 and 99 % by weight of the composition 2.
A connector for connecting a flexible first conduit and a second conduit having a barbed outer surface, said connector comprising: an annular housing section having an outer peripheral wall defining a space for receiving the flexible first conduit, one or more tab(s) positioned at an inner wall portion of said annular housing section and arranged outside of and adjacent to a central opening through which the second conduit can be inserted for securing the second conduit within the connector by exerting a force on a surface of a step part of the barbed outer surface, and a plurality of first fingers for interacting with an inner surface of said flexible first conduit when the same is inserted in the space of said annular housing section, wherein said first fingers extend outwardly from an outer surface of one or more of said tab(s) into said space for receiving the flexible first conduit, and characterised in that said first fingers further extend toward a bottom surface of the space of the annular housing section in the direction of insertion of the flexible first conduit. an annular housing section having an outer peripheral wall defining a space for receiving the flexible first conduit, one or more tab(s) positioned at an inner wall portion of said annular housing section and arranged outside of and adjacent to a central opening through which the second conduit can be inserted for securing the second conduit within the connector by exerting a force on a surface of a step part of the barbed outer surface, and a plurality of first fingers for interacting with an inner surface of said flexible first conduit when the same is inserted in the space of said annular housing section, wherein said first fingers extend outwardly from an outer surface of one or more of said tab(s) into said space for receiving the flexible first conduit, and characterised in that said first fingers further extend toward a bottom surface of the space of the annular housing section in the direction of insertion of the flexible first conduit.
a) Wind turbine with a shaft coupling for connecting of a rotor of the wind turbine with a generator and for the transmission of torques from an input provided by the rotor to an output provided by the generator, b) with an overload unit in form of a slipping clutch, c) the input-sided coupling element (14, 26) of which is connected via frictional engagement with the output-sided coupling element and the reference maximum torque of which, up to which a power transmission is effected from the input to the output, is adjustable, d) and with a clamping element which presses the input-sided and the output-sided coupling elements (14, 26, 17, 28) against each other under definition of an overload ejecting maximum torque, e) in which the frictional engagement, which influences the maximum torque between the coupling elements is subject to changes in time course, f) in which a measuring system detects the operation torque, g) the clamping element is adjustable during machine operation h) and a control unit is provided, which ensures an essentially constant maximum torque corresponding to the reference maximum torque between the coupling elements (14, 26, 17, 28) by means of regulation of the force exerted by the clamping element onto the coupling elements (14, 26, 17, 28) or the pressure applied by the clamping element to the coupling elements (14, 26, 17, 28) in the ongoing operation. a) Wind turbine with a shaft coupling for connecting of a rotor of the wind turbine with a generator and for the transmission of torques from an input provided by the rotor to an output provided by the generator, b) with an overload unit in form of a slipping clutch, c) the input-sided coupling element (14, 26) of which is connected via frictional engagement with the output-sided coupling element and the reference maximum torque of which, up to which a power transmission is effected from the input to the output, is adjustable, d) and with a clamping element which presses the input-sided and the output-sided coupling elements (14, 26, 17, 28) against each other under definition of an overload ejecting maximum torque, e) in which the frictional engagement, which influences the maximum torque between the coupling elements is subject to changes in time course, f) in which a measuring system detects the operation torque, g) the clamping element is adjustable during machine operation h) and a control unit is provided, which ensures an essentially constant maximum torque corresponding to the reference maximum torque between the coupling elements (14, 26, 17, 28) by means of regulation of the force exerted by the clamping element onto the coupling elements (14, 26, 17, 28) or the pressure applied by the clamping element to the coupling elements (14, 26, 17, 28) in the ongoing operation.
A method of repairing a fuel assembly in a nuclear reactor, comprising: applying a compound containing at least one substance selected from the group consisting of TiO 2, TiCl 4, Ti 4, TiF 4, TiCl 3, TiN, TiC, Ti(SO 4) 2, Ti 3 O 5, Ti(NO 3) 4, Al 2 O 3, Al 3, AlCl 3, Al(NO 3) 3, Al 2 (SO 4) 3, WO 2, WO 3, WCl 6, WF 6, (NH 4) 10 W 12 O 41 ▪5H 2 O, H 2 WO 4 and H 4 WO 5 to a surface of a fuel rod of the fuel assembly, wherein the applying the compound comprises providing cooling water around the fuel assembly, and injecting liquid containing the compound into the cooling water, wherein the cooling water contains over 0.2ppb Ni ion. applying a compound containing at least one substance selected from the group consisting of TiO 2, TiCl 4, Ti 4, TiF 4, TiCl 3, TiN, TiC, Ti(SO 4) 2, Ti 3 O 5, Ti(NO 3) 4, Al 2 O 3, Al 3, AlCl 3, Al(NO 3) 3, Al 2 (SO 4) 3, WO 2, WO 3, WCl 6, WF 6, (NH 4) 10 W 12 O 41 ▪5H 2 O, H 2 WO 4 and H 4 WO 5 to a surface of a fuel rod of the fuel assembly, wherein the applying the compound comprises providing cooling water around the fuel assembly, and injecting liquid containing the compound into the cooling water, providing cooling water around the fuel assembly, and injecting liquid containing the compound into the cooling water, wherein the cooling water contains over 0.2ppb Ni ion.