mhurhangee/ep-ind-claims huggingface dataset:
A dual-interface integrated circuit card module (150, 350, 450), the module comprising: a substrate having first and second opposing surfaces; a contact pad on the first surface of the substrate; an integrated circuit on the second surface of the substrate, the integrated circuit having electrical connections to the contact pad through the substrate; and a pair of antenna pads disposed in recesses in the second surface of the substrate and electrically connected to corresponding antenna connections on the integrated circuit, the antenna pads being electrically connectable to antenna connections of a card body, wherein each antenna pad is adhered to a bottom surface of a recess with a non-conductive adhesive. a substrate having first and second opposing surfaces; a contact pad on the first surface of the substrate; an integrated circuit on the second surface of the substrate, the integrated circuit having electrical connections to the contact pad through the substrate; and a pair of antenna pads disposed in recesses in the second surface of the substrate and electrically connected to corresponding antenna connections on the integrated circuit, the antenna pads being electrically connectable to antenna connections of a card body, wherein each antenna pad is adhered to a bottom surface of a recess with a non-conductive adhesive.
Method for tubular lining of an underground pipe to be restored and opening into a main sewer, - wherein a tube liner in the form of a resin-saturated tube is connected to a holding apparatus in that the end region of the tube liner is clamped to a clamping head (2.1) at the outer side of the holding apparatus, - wherein the holding apparatus is arranged in the main sewer, - wherein the tube liner, proceeding from the holding apparatus arranged in the main sewer, is introduced into the underground pipe to be restored in that the tube liner is inverted through the clamping head (2.1), and - wherein the tube liner is placed against the pipe wall of the underground pipe and subsequently cured, characterized in that the holding apparatus and the clamping head (2.1) are positioned with the tube liner in the main sewer at a distance (a) from the mouth of the underground pipe such that the clamping head (2.1) of the holding apparatus, with the end portion of the tube line that is fastened thereto, is not situated in front of the mouth of the underground pipe, in that a guide part (5.3) is attached to a carriage and, by way of the latter, is, independently of the holding apparatus, moved and fixed in the main sewer such that the guide part (5.3) is positioned immediately in front of the mouth of the underground pipe, and in that the tube liner, proceeding from the holding apparatus and the clamping head (2.1), is pushed forwards along the main sewer and, by means of the guide part (5.3), diverted and introduced into the underground pipe from the main sewer. - wherein a tube liner in the form of a resin-saturated tube is connected to a holding apparatus in that the end region of the tube liner is clamped to a clamping head (2.1) at the outer side of the holding apparatus, - wherein the holding apparatus is arranged in the main sewer, - wherein the tube liner, proceeding from the holding apparatus arranged in the main sewer, is introduced into the underground pipe to be restored in that the tube liner is inverted through the clamping head (2.1), and - wherein the tube liner is placed against the pipe wall of the underground pipe and subsequently cured,
A tubular structure comprising a first helical wrap at a first wrap angle, and a second helical wrap at a second wrap angle; the tubular structure having a first diameter and a first axial length; wherein the first helical wrap is connected to the second helical wrap such that an increase from the first axial length of the tubular structure to an elongated second axial length provides an increase from the first diameter to an enlarged second diameter.
Apparatus for scoring solid or corrugated cardboard, comprising a sonotrode and an anvil, characterised in that the sonotrode, and the anvil or a second sonotrode, are rotatably mounted.
A retractor for endoscopic surgery, the retractor comprising: a penetrating member configured to penetrate through a human body; an anti-separation member provided at a lower portion of the penetrating member to prevent separation of the retractor from the human body; and a supply and exhaust member for supplying or exhausting gas, wherein the anti-separation member comprises a supply hole to supply gas to the human body and an exhaust hole to exhaust gas from the human body by communicating with the supply and exhaust member, whereby the anti-separation member is configured to perform gas supply and gas exhaust, the supply hole and the exhaust hole are separated from each other, and wherein the anti-separation member includes a supply nozzle and an exhaust nozzle to respectively connect the supply hole and the exhaust hole to a tube of the supply and exhaust member. a penetrating member configured to penetrate through a human body; an anti-separation member provided at a lower portion of the penetrating member to prevent separation of the retractor from the human body; and a supply and exhaust member for supplying or exhausting gas, wherein the anti-separation member comprises a supply hole to supply gas to the human body and an exhaust hole to exhaust gas from the human body by communicating with the supply and exhaust member, whereby the anti-separation member is configured to perform gas supply and gas exhaust, the supply hole and the exhaust hole are separated from each other, and wherein the anti-separation member includes a supply nozzle and an exhaust nozzle to respectively connect the supply hole and the exhaust hole to a tube of the supply and exhaust member.
Light strip system for holding and supplying power to lighting units and/or sensor units, wherein the system comprises: • an elongated support structure for holding the units, said support structure being formed by one or more substantially U-shaped support rail(s), and also • power supply means extending along the support structure for supplying power to the units, wherein the power supply means comprise: • first lines (10, 11) extending along the support structure, which form a first power supply circuit, • second lines (15, 16) extending along the support structure over part of the length of the first power supply circuit and forming a second power supply circuit, wherein the coupling between the first power supply circuit and the second power supply circuit is effected by a converter unit which converts a first supply voltage available in the first power supply circuit into a second supply voltage suitable for operating the units, and wherein the lines (15, 16) of the second power supply circuit are arranged freely accessible to the units from a mounting side of the support structure, characterized in that the lines of the second power supply circuit are arranged in the region of the opening of the support rail(s). • an elongated support structure for holding the units, said support structure being formed by one or more substantially U-shaped support rail(s), and also • power supply means extending along the support structure for supplying power to the units, • first lines (10, 11) extending along the support structure, which form a first power supply circuit, • second lines (15, 16) extending along the support structure over part of the length of the first power supply circuit and forming a second power supply circuit,
A fastening apparatus for a vehicle, comprising: a first fastener configured to be fixed to a first structure of the vehicle; a case configured to be fixed to a second structure of the vehicle and configured to have the first fastener inserted into an one side of the case; an elevation unit installed within the case in a way to be movable up and down; a second fastener rotatably supported against the elevation unit, fastened to or separated from the first fastener in a rotation direction thereof, and moved up and down along with the elevation unit; and a locking unit configured to interfere with a work tool that enters an another side of the case and to selectively permit a rotation of the second fastener. a first fastener configured to be fixed to a first structure of the vehicle; a case configured to be fixed to a second structure of the vehicle and configured to have the first fastener inserted into an one side of the case; an elevation unit installed within the case in a way to be movable up and down; a second fastener rotatably supported against the elevation unit, fastened to or separated from the first fastener in a rotation direction thereof, and moved up and down along with the elevation unit; and a locking unit configured to interfere with a work tool that enters an another side of the case and to selectively permit a rotation of the second fastener.
A microorganism for producing diamine, wherein activity of a protein having an amino acid sequence selected from SEQ ID NO: 6, SEQ ID NO: 22 or SEQ ID NO: 24, is introduced or enhanced within the microorganism, compared to the endogeneous activity.
Apparatus for data processing, comprising: data processing circuitry configured to perform data processing operations with reference to data values stored in a memory, wherein each data processing operation has an identifier associated therewith; and address translation circuitry configured to store address translations between first addresses used in a first addressing system corresponding to the data processing operations performed by the data processing circuitry and second addresses used in a second addressing system used by the memory, wherein each stored address translation is stored with a corresponding identifier, wherein the address translation circuitry is configured to respond to an invalidation command to perform an invalidation process on a selected stored address translation to invalidate the selected stored address translation, wherein the selected stored address translation is identified in the invalidation command by a specified first address and a specified identifier, characterised in that the address translation circuitry is further configured to perform the invalidation process further configured by identifier grouping information, wherein the identifier grouping information associates more than one specified identifier together as a group of identifiers, and the invalidation process is applied to all stored address translations which match the specified first address and which match any identifier in the group of identifiers to which the specified identifier belongs. data processing circuitry configured to perform data processing operations with reference to data values stored in a memory, wherein each data processing operation has an identifier associated therewith; and address translation circuitry configured to store address translations between first addresses used in a first addressing system corresponding to the data processing operations performed by the data processing circuitry and second addresses used in a second addressing system used by the memory, wherein each stored address translation is stored with a corresponding identifier, wherein the address translation circuitry is configured to respond to an invalidation command to perform an invalidation process on a selected stored address translation to invalidate the selected stored address translation, wherein the selected stored address translation is identified in the invalidation command by a specified first address and a specified identifier, characterised in that the address translation circuitry is further configured to perform the invalidation process further configured by identifier grouping information, wherein the identifier grouping information associates more than one specified identifier together as a group of identifiers, and the invalidation process is applied to all stored address translations which match the specified first address and which match any identifier in the group of identifiers to which the specified identifier belongs.
A method of fabricating a part out of ceramic matrix composite material, the method comprising at least the following step: • infiltrating a fiber preform with a molten composition comprising a majority by weight of silicon, the fiber preform comprising silicon carbide fibers, silicon carbide powder being present in the pores of said preform, the mean size of the silicon carbide crystallites in the powder being less than the mean size of the silicon carbide crystallites in the fibers, a ceramic matrix being formed in the pores of the fiber preform during the infiltration so as to obtain the part made of composite material. • infiltrating a fiber preform with a molten composition comprising a majority by weight of silicon, the fiber preform comprising silicon carbide fibers, silicon carbide powder being present in the pores of said preform, the mean size of the silicon carbide crystallites in the powder being less than the mean size of the silicon carbide crystallites in the fibers, a ceramic matrix being formed in the pores of the fiber preform during the infiltration so as to obtain the part made of composite material.
An absorbent core for use in an absorbent article, the absorbent core extending in a transversal direction (x) and a longitudinal direction (y), the absorbent core comprising: - a fluid-permeable top layer; - a bottom layer; - a central layer sandwiched between the top layer and the bottom layer, the central layer having a front edge, a back edge and two longitudinally extending side edges (284, 286), wherein the central layer is a high loft fibrous nonwoven layer which is free of cellulose fibers and has a density of less than 0.200 g/cc, measured at a pressure of 4.14kPa; and - superabsorbent polymer particles blended with the fibers of the central layer; characterized in that the central layer comprises one, two or more longitudinally-extending channels substantially free of superabsorbent polymer particles. - a fluid-permeable top layer; - a bottom layer; - a central layer sandwiched between the top layer and the bottom layer, the central layer having a front edge, a back edge and two longitudinally extending side edges (284, 286), wherein the central layer is a high loft fibrous nonwoven layer which is free of cellulose fibers and has a density of less than 0.200 g/cc, measured at a pressure of 4.14kPa; and - superabsorbent polymer particles blended with the fibers of the central layer; characterized in that the central layer comprises one, two or more longitudinally-extending channels substantially free of superabsorbent polymer particles.
A control device that is configured to perform wireless communication and is connected to another control device (14B to 14E) via a wired network comprising: an acquirer (141 and 143) configured to acquire information relating to a channel and a communication timing used for wireless communication via the wired network from another control device (14B to 14E) that is made to act as a slave; a generator configured to generate a setting of a channel and a communication timing in which wireless communication performed by the another control device (14B to 14E) is free of interference, based on information relating to a channel and a communication timing used for wireless communication of the control device and information relating to the channel and the communication timing used for the wireless communication that are acquired by the acquirer (141 and 143); and a reporter (141 and 143) configured to report the setting of the channel and the timing generated by the generator to the another control device (14B to 14E) that is made to act as the slave via the wired network. an acquirer (141 and 143) configured to acquire information relating to a channel and a communication timing used for wireless communication via the wired network from another control device (14B to 14E) that is made to act as a slave; a generator configured to generate a setting of a channel and a communication timing in which wireless communication performed by the another control device (14B to 14E) is free of interference, based on information relating to a channel and a communication timing used for wireless communication of the control device and information relating to the channel and the communication timing used for the wireless communication that are acquired by the acquirer (141 and 143); and a reporter (141 and 143) configured to report the setting of the channel and the timing generated by the generator to the another control device (14B to 14E) that is made to act as the slave via the wired network.
An actuator for a recliner, the actuator comprising: a casing part; and a drive part provided with a worm wheel gear located inside the casing part and rotated by an operation of a motor, and a rack gear configured to move elastically toward a first or second side of the drive part in engagement with the worm wheel gear, with cables being coupled respectively to the first and second sides of the rack gear, and a pinion gear provided by protruding forward from a center of the worm wheel gear such that the pinion gear engages with the rack gear; characterized in that the rack gear comprises fixing members (454, 455) being in close contact with a spring fixed to the casing part and elastically transformed at an initial position thereof, with the spring between the fixing members (454, 455), thereby, when the rack gear moves toward a first side due to the operation of the motor, the fixing member contracts the spring toward the first side and when the rack gear moves toward a second side due to the operation of the motor, the fixing member contracts the spring toward the second side. a casing part; and a drive part provided with a worm wheel gear located inside the casing part and rotated by an operation of a motor, and a rack gear configured to move elastically toward a first or second side of the drive part in engagement with the worm wheel gear, with cables being coupled respectively to the first and second sides of the rack gear, and a pinion gear provided by protruding forward from a center of the worm wheel gear such that the pinion gear engages with the rack gear; characterized in that the rack gear comprises fixing members (454, 455) being in close contact with a spring fixed to the casing part and elastically transformed at an initial position thereof, with the spring between the fixing members (454, 455), thereby, when the rack gear moves toward a first side due to the operation of the motor, the fixing member contracts the spring toward the first side and when the rack gear moves toward a second side due to the operation of the motor, the fixing member contracts the spring toward the second side.
A method of producing a deformable zirconium strip, the method comprising: heating a zirconium article within a beta-phase temperature region, the zirconium article consisting of, by weight, less than 600 ppm oxygen, less than 200 ppm iron, less than 50 ppm carbon, less than 50 ppm silicon, less than 50 ppm niobium, less than 100 ppm tin, balance zirconium, hafnium, and incidental impurities; beta quenching the zirconium article; forming a strip from the zirconium article by a process comprising hot working the zirconium article at a temperature of 470°C to 700°C; reducing a thickness of the strip by a process comprising a plurality of cold rolling passes with intermediate anneals between successive cold rolling passes, wherein each intermediate anneal includes heating the strip at less than 490°C for less than 10 minutes; and final annealing the strip after a final cold rolling pass, wherein the strip is heated at less than 550°C for less than 20 minutes. heating a zirconium article within a beta-phase temperature region, the zirconium article consisting of, by weight, less than 600 ppm oxygen, less than 200 ppm iron, less than 50 ppm carbon, less than 50 ppm silicon, less than 50 ppm niobium, less than 100 ppm tin, balance zirconium, hafnium, and incidental impurities; beta quenching the zirconium article; forming a strip from the zirconium article by a process comprising hot working the zirconium article at a temperature of 470°C to 700°C; reducing a thickness of the strip by a process comprising a plurality of cold rolling passes with intermediate anneals between successive cold rolling passes, wherein each intermediate anneal includes heating the strip at less than 490°C for less than 10 minutes; and final annealing the strip after a final cold rolling pass, wherein the strip is heated at less than 550°C for less than 20 minutes.
A method for producing a polyethylene glycol derivative having an amino group at an end and having a dispersity of 1.0 to 1.4 represented by a general formula comprising the steps of: CH 3 O(CH 2 CH 2 O) n CH 2 CH 2 CH 2 NH 2 wherein n represents an integer of 3 to 450; 1) a step of reacting a compound represented by the general formula with an alkali metal compound selected from M, M + H -, and RO - M + (wherein M represents sodium (Na) or potassium, and R represents a monovalent alkyl group having 1 to 6 carbon atoms) to obtain a compound represented by a general formula: CH 3 O(CH 2 CH 2 O) k H wherein k represents an integer of 2 to 5; CH 3 O(CH 2 CH 2 O) k-1 CH 2 CH 2 O - M + wherein k is the same as defined in the general formula; and M is the same as defined for the alkali metal compound; 2) a step of dissolving a compound represented by the general formula in tetrahydrofuran and then reacting with ethylene oxide to obtain a compound represented by the general formula: CH 3 O(CH 2 CH 2 O) n-1 CH 2 CH 2 O - M + wherein n is the same as defined in the general formula; 3) a step of reacting the compound represented by the general formula with acrylonitrile without further step of purifying the compound represented by the general formula and then with an acid compound to obtain a compound represented by the general formula; and CH 3 O(CH 2 CH 2 O) n CH 2 CH 2 CN 4) a step of reducing a compound represented by the general formula to obtain a compound represented by the general formula. 1) a step of reacting a compound represented by the general formula with an alkali metal compound selected from M, M + H -, and RO - M + (wherein M represents sodium (Na) or potassium, and R represents a monovalent alkyl group having 1 to 6 carbon atoms) to obtain a compound represented by a general formula: CH 3 O(CH 2 CH 2 O) k H wherein k represents an integer of 2 to 5; CH 3 O(CH 2 CH 2 O) k-1 CH 2 CH 2 O - M + wherein k is the same as defined in the general formula; and M is the same as defined for the alkali metal compound; wherein k is the same as defined in the general formula; and M is the same as defined for the alkali metal compound; 2) a step of dissolving a compound represented by the general formula in tetrahydrofuran and then reacting with ethylene oxide to obtain a compound represented by the general formula: CH 3 O(CH 2 CH 2 O) n-1 CH 2 CH 2 O - M + wherein n is the same as defined in the general formula; 3) a step of reacting the compound represented by the general formula with acrylonitrile without further step of purifying the compound represented by the general formula and then with an acid compound to obtain a compound represented by the general formula; and CH 3 O(CH 2 CH 2 O) n CH 2 CH 2 CN 4) a step of reducing a compound represented by the general formula to obtain a compound represented by the general formula.