mhurhangee/ep-ind-claims huggingface dataset:
A control device for controlling a line in which a plurality of machines performs processes in sequence on a workpiece, the control device comprising: a monitoring section for monitoring an amount of electric energy of at least a first machine of the plurality of machines, wherein the amount of electric energy is an integrated value of electric power used by the first machine; characterized by a power source control section for controlling a power source of at least a second machine of the plurality of machines in accordance with the amount of electric energy of the first machine. a monitoring section for monitoring an amount of electric energy of at least a first machine of the plurality of machines, wherein the amount of electric energy is an integrated value of electric power used by the first machine; characterized by a power source control section for controlling a power source of at least a second machine of the plurality of machines in accordance with the amount of electric energy of the first machine.
Connector assembly for electrical power transmission in a vehicle, comprising a first and a second connector devices to be mated along a mating axis; - the first connector device comprising at least one spring device terminated by at least one electrically conductive head (4, 31, 40, 50), movable in a spring load direction; - the second connector device comprising at least one interlock terminal including an electrical conductor (10, 51) and an insulation cap (15, 32, 43, 52), the at least one conductive head (4, 31, 40, 50) sliding along the insulation cap at a first step, during the mating sequence, on one or several insulating areas (27a, 27b, 34, 44, 54) and then contacting the electrical conductor on one or several conducting areas (29, 35, 45, 55), at a second step during the mating sequence, wherein at least one of the one or several insulating areas (27a, 27b, 34, 44, 54) extends laterally aside of each of the at least one of the one or several conducting areas (29, 35, 45, 55), according to a lateral direction perpendicular to the mating axis and to the spring load direction, characterized in that the insulation cap (15, 32) includes a recess (26, 33, 56), the bottom of which being not touched by the at least one head (4, 31, 52), and wherein the lateral positions, along which the recess (26, 33, 56) extends along the mating axis, cover when the first and a second connector devices are mated, the lateral positions of the one or several conducting areas (29, 35, 55). - the first connector device comprising at least one spring device terminated by at least one electrically conductive head (4, 31, 40, 50), movable in a spring load direction; - the second connector device comprising at least one interlock terminal including an electrical conductor (10, 51) and an insulation cap (15, 32, 43, 52), the at least one conductive head (4, 31, 40, 50) sliding along the insulation cap at a first step, during the mating sequence, on one or several insulating areas (27a, 27b, 34, 44, 54) and then contacting the electrical conductor on one or several conducting areas (29, 35, 45, 55), at a second step during the mating sequence,
A printing apparatus comprising: a device for performing a printing operation; a first controller for controlling the device; a power supply for supplying power to the first controller; a second controller having a power consumption lower than the first controller for controlling the power supply to supply power to the first controller and for outputting a standby state signal to indicate a standby state while the printing apparatus is in a standby state in which power is not being supplied to the first controller; a power switch to be switched on or off by a user manipulation; a switch state output part to output a switch state signal corresponding to a switch-on state of the power switch; a differential circuit to differentiate the switch state signal output from the switch state output part, and to output the differentiated switch state signal; an AND gate to logically multiply the differentiated switch state signal output from the differential circuit by the standby state signal output from the second controller, and to output the logically multiplied signal; and a universal serial bus USB controller to be reset according to the logically multiplied signal outputted from the AND gate when the power switch is switched on while the printing apparatus is in the standby state, wherein the second controller controls the power supply such that the power is supplied to the first controller when it is determined, based on the switch state signal from the switch state output part, that the USB controller is reset while the printing apparatus is in the standby state. a device for performing a printing operation; a first controller for controlling the device; a power supply for supplying power to the first controller; a second controller having a power consumption lower than the first controller for controlling the power supply to supply power to the first controller and for outputting a standby state signal to indicate a standby state while the printing apparatus is in a standby state in which power is not being supplied to the first controller; a power switch to be switched on or off by a user manipulation; a switch state output part to output a switch state signal corresponding to a switch-on state of the power switch; a differential circuit to differentiate the switch state signal output from the switch state output part, and to output the differentiated switch state signal; an AND gate to logically multiply the differentiated switch state signal output from the differential circuit by the standby state signal output from the second controller, and to output the logically multiplied signal; and a universal serial bus USB controller to be reset according to the logically multiplied signal outputted from the AND gate when the power switch is switched on while the printing apparatus is in the standby state, wherein the second controller controls the power supply such that the power is supplied to the first controller when it is determined, based on the switch state signal from the switch state output part, that the USB controller is reset while the printing apparatus is in the standby state.
A method of replacing an anchor bolt used to support a wind turbine to a foundation, the method comprising: providing the wind turbine and the foundation supporting the wind turbine, the foundation including a lower base flange, at least one anchor bolt extending between the lower base flange and a lower tower flange of the wind turbine, and a rigid body at least partially formed around the at least one anchor bolt; drilling a core in the lower tower flange and the rigid body circumferentially around the anchor bolt; removing the anchor bolt and the core to create a cavity; inserting a replacement anchor bolt into the cavity; coupling the replacement anchor bolt to the lower base flange; and tensioning the replacement anchor bolt. providing the wind turbine and the foundation supporting the wind turbine, the foundation including a lower base flange, at least one anchor bolt extending between the lower base flange and a lower tower flange of the wind turbine, and a rigid body at least partially formed around the at least one anchor bolt; drilling a core in the lower tower flange and the rigid body circumferentially around the anchor bolt; removing the anchor bolt and the core to create a cavity; inserting a replacement anchor bolt into the cavity; coupling the replacement anchor bolt to the lower base flange; and tensioning the replacement anchor bolt.
A system for treating mucosal tissue from a small intestine of a patient, said system comprising: an elongate tube comprising a shaft having a distal portion; a treatment element (320; 321) positioned on the distal portion of the shaft, said treatment element configured to treat the mucosal tissue; and means for delivering a fluid into submucosal tissue to expand said submucosal tissue circumferentially to increase a target treatment area, the target treatment area including the mucosal tissue on the small intestine to be treated by the treatment element; wherein the treatment element (320; 321) is configured to treat mucosal tissue on the small intestine; and wherein the treatment element (320; 321) comprises an expandable balloon including hot steam. an elongate tube comprising a shaft having a distal portion; a treatment element (320; 321) positioned on the distal portion of the shaft, said treatment element configured to treat the mucosal tissue; and means for delivering a fluid into submucosal tissue to expand said submucosal tissue circumferentially to increase a target treatment area, the target treatment area including the mucosal tissue on the small intestine to be treated by the treatment element; wherein the treatment element (320; 321) is configured to treat mucosal tissue on the small intestine; and wherein the treatment element (320; 321) comprises an expandable balloon including hot steam.
A metal cover, comprising: a metal body and an antenna radiator, a gap provided between the metal body and the antenna radiator, at least one ground point being provided on the metal body, and the antenna radiator being electrically connected to the at least one ground point, and an opening formed in an area where the antenna radiator is located and configured for receiving a metallic component of an electronic device, wherein when the metal cover is assembled to the electronic device, the metallic component is located inside the metal cover and at a distance from the gap to form a gap-crossing at the gap, such that a parasitic capacitor is formed, wherein a first energy storage element, a second energy storage element and/or a wire stretched across the gap is disposed between a respective one of the at least one ground point and the antenna radiator so as to reduce the influence of the parasitic capacitor on an operating band of the antenna radiator, and each of the first energy storage element, the second energy storage element and/or the wire is directly electrically connected between a respective one of the at least one ground point and the antenna radiator. a metal body and an antenna radiator, a gap provided between the metal body and the antenna radiator, at least one ground point being provided on the metal body, and the antenna radiator being electrically connected to the at least one ground point, and an opening formed in an area where the antenna radiator is located and configured for receiving a metallic component of an electronic device, wherein when the metal cover is assembled to the electronic device, the metallic component is located inside the metal cover and at a distance from the gap to form a gap-crossing at the gap, such that a parasitic capacitor is formed, wherein a first energy storage element, a second energy storage element and/or a wire stretched across the gap is disposed between a respective one of the at least one ground point and the antenna radiator so as to reduce the influence of the parasitic capacitor on an operating band of the antenna radiator, and each of the first energy storage element, the second energy storage element and/or the wire is directly electrically connected between a respective one of the at least one ground point and the antenna radiator.
Procedure for the mains synchronization of an electromagnetic flowmeter with a sensor and a power unit, wherein a DC current signal designed to power the sensor is transmitted from the power unit to the sensor via two signal conductors, characterized by the following procedure steps: Generation on the power unit side of a differential synchronization signal to synchronize the flow measurement with the mains frequency; wherein the differential synchronization signal is generated as follows: generation of a rectangular voltage signal; generation of a differential voltage signal as a differential synchronization signal with pulses at the same time as the edges of the rectangular voltage signal. Transmission of the differential synchronization signal to the sensor via the two signal conductors; Separation on the sensor side of the differential synchronization signal and the DC current signal; Processing of the differential synchronization signal for the synchronization of flow measurement with the mains frequency. Generation on the power unit side of a differential synchronization signal to synchronize the flow measurement with the mains frequency; wherein the differential synchronization signal is generated as follows: generation of a rectangular voltage signal; generation of a differential voltage signal as a differential synchronization signal with pulses at the same time as the edges of the rectangular voltage signal. generation of a rectangular voltage signal; generation of a differential voltage signal as a differential synchronization signal with pulses at the same time as the edges of the rectangular voltage signal. Transmission of the differential synchronization signal to the sensor via the two signal conductors; Separation on the sensor side of the differential synchronization signal and the DC current signal; Processing of the differential synchronization signal for the synchronization of flow measurement with the mains frequency.
An isolated synthetic tripeptide chosen from the group consisting in: a. a tripeptide of formula H-D-Phe- N -Methyl-L-Val-L-Ala-OMe (SEQ ID NO:1), b. a tripeptide of formula H-L-Phe- N -Methyl-L-Val-L-Ala-OMe (SEQ ID NO:2), c. a tripeptide of formula H-D-Phe-L-Val-L-Ala-OMe (SEQ ID NO:3); d. a tripeptide of formula H-D-Phe- N-Methyl-L-Val-L-Ala-OH (SEQ ID NO:4); e. a tripeptide of formula H-D-Phe-L-Val-L-Ala-OH (SEQ ID NO:6) and f. a tripeptide of formula H-L-Phe- N-Methyl-L-Val-L-Ala-OH (SEQ ID NO:7). a. a tripeptide of formula H-D-Phe- N -Methyl-L-Val-L-Ala-OMe (SEQ ID NO:1), b. a tripeptide of formula H-L-Phe- N -Methyl-L-Val-L-Ala-OMe (SEQ ID NO:2), c. a tripeptide of formula H-D-Phe-L-Val-L-Ala-OMe (SEQ ID NO:3); d. a tripeptide of formula H-D-Phe- N-Methyl-L-Val-L-Ala-OH (SEQ ID NO:4); e. a tripeptide of formula H-D-Phe-L-Val-L-Ala-OH (SEQ ID NO:6) and f. a tripeptide of formula H-L-Phe- N-Methyl-L-Val-L-Ala-OH (SEQ ID NO:7).
A surgical end effector to be supported by an elongated tube-like member, the surgical end effector comprising: a clevis (300; 700) having a first end (314; 714) to be supported by the elongated tube-like member; a first jaw (352; 752) having a first pivot portion and a first working portion; a first pivot (302; 702) that rotatably couples the first pivot portion to the clevis; and a second jaw (354; 754) having a second pivot portion and a second working portion; and characterized by: a second pivot spaced apart from the first pivot that rotatably couples the second pivot portion to the clevis such that the first pivot portion is entirely on a first side of a bisecting plane that is perpendicular to an axis of rotation of the second pivot, the second pivot portion is entirely on a second side of the bisecting plane opposite the first side, the first working portion is entirely on the second side of the bisecting plane, and the second working portion is entirely on the first side of the bisecting plane. a clevis (300; 700) having a first end (314; 714) to be supported by the elongated tube-like member; a first jaw (352; 752) having a first pivot portion and a first working portion; a first pivot (302; 702) that rotatably couples the first pivot portion to the clevis; and a second jaw (354; 754) having a second pivot portion and a second working portion; a second pivot spaced apart from the first pivot that rotatably couples the second pivot portion to the clevis such that the first pivot portion is entirely on a first side of a bisecting plane that is perpendicular to an axis of rotation of the second pivot, the second pivot portion is entirely on a second side of the bisecting plane opposite the first side, the first working portion is entirely on the second side of the bisecting plane, and the second working portion is entirely on the first side of the bisecting plane.
A method of increasing the high-speed performance of a carcass structure in a tyre for vehicle wheels, said method including: - preparing at least one hybrid yarn comprising a plurality of filaments (14a, 15a) obtained from a first multi-filament yarn of polyester and a second multi-filament yarn having a decay of the modulus with the temperature, measured between 20°C and 100°C, lower than 20%; each of said first multi-filament yarn and second multi-filament yarn comprising a plurality of individual filaments (14a, 15a); the individual filaments of said first multi-filament yarn being at least partly mixed in proportions of at least 50% with the individual filaments of said second multi-filament yarn; - assembling a carcass structure comprising at least one carcass ply (3a, 3b) substantially built on cords comprising said at least one hybrid yarn. - preparing at least one hybrid yarn comprising a plurality of filaments (14a, 15a) obtained from a first multi-filament yarn of polyester and a second multi-filament yarn having a decay of the modulus with the temperature, measured between 20°C and 100°C, lower than 20%; each of said first multi-filament yarn and second multi-filament yarn comprising a plurality of individual filaments (14a, 15a); the individual filaments of said first multi-filament yarn being at least partly mixed in proportions of at least 50% with the individual filaments of said second multi-filament yarn; - assembling a carcass structure comprising at least one carcass ply (3a, 3b) substantially built on cords comprising said at least one hybrid yarn.
A mould powder for coating the internal surface of casting moulds, comprising 10 - 99.5 % by weight of a ferrosilicon alloy, 3-50 % by weight of an iron sulphide, and optionally 1-30 % by weight of CaSi alloy, and/or 1-10 % by weight of CaF 2. 10 - 99.5 % by weight of a ferrosilicon alloy, 3-50 % by weight of an iron sulphide, and optionally 1-30 % by weight of CaSi alloy, and/or 1-10 % by weight of CaF 2.
An apparatus for operating on tissue, the apparatus comprising: (a) a body (720; 770; 820); (b) a shaft assembly (730; 780; 830), wherein the shaft assembly extends distally from the body, wherein the shaft assembly defines a longitudinal axis, wherein the shaft assembly comprises an acoustic waveguide, wherein the waveguide is configured to couple with an ultrasonic transducer; (c) an end effector, wherein the end effector comprises: (i) an ultrasonic blade in acoustic communication with the waveguide, and (ii) a clamp arm, wherein the clamp arm is operable to pivot toward and away from the ultrasonic blade, wherein the translatable member is operable to translate to thereby cause pivoting of the clamp arm toward and away from the ultrasonic blade; and (d) a rotation knob (701; 751; 801), wherein the rotation knob is operable to rotate to thereby cause rotation of the shaft assembly and end effector about the longitudinal axis, characterized in that the rotatable knob is further operable to translate along the longitudinal axis to thereby deliver or selectively control delivery of liquid coolant to the ultrasonic blade. (a) a body (720; 770; 820); (b) a shaft assembly (730; 780; 830), wherein the shaft assembly extends distally from the body, wherein the shaft assembly defines a longitudinal axis, wherein the shaft assembly comprises an acoustic waveguide, wherein the waveguide is configured to couple with an ultrasonic transducer; (c) an end effector, wherein the end effector comprises: (i) an ultrasonic blade in acoustic communication with the waveguide, and (ii) a clamp arm, wherein the clamp arm is operable to pivot toward and away from the ultrasonic blade, wherein the translatable member is operable to translate to thereby cause pivoting of the clamp arm toward and away from the ultrasonic blade; and (i) an ultrasonic blade in acoustic communication with the waveguide, and (ii) a clamp arm, wherein the clamp arm is operable to pivot toward and away from the ultrasonic blade, wherein the translatable member is operable to translate to thereby cause pivoting of the clamp arm toward and away from the ultrasonic blade; and (d) a rotation knob (701; 751; 801), wherein the rotation knob is operable to rotate to thereby cause rotation of the shaft assembly and end effector about the longitudinal axis, characterized in that the rotatable knob is further operable to translate along the longitudinal axis to thereby deliver or selectively control delivery of liquid coolant to the ultrasonic blade.
A glove comprising: a glove body made of fibers, the glove body being for covering a hand of a wearer; and a coating layer made of a resin or rubber, the coating layer being overlaid at least on a palm region of an outer surface of the glove body, wherein: a loop yarn comprising a core yarn, a float yarn arranged around the core yarn so as to form a loop, and a presser yarn twisted around the float yarn in an opposite direction is used as a knitting yarn of the glove body; an average outer diameter of loops of the loop yarn is no less than 1 mm and no greater than 6 mm; an average distance between the loops of the loop yarn is no less than 1 mm and no greater than 10 mm; and irregularities arising from the loop yarn are provided on a surface of the coating layer. a glove body made of fibers, the glove body being for covering a hand of a wearer; and a coating layer made of a resin or rubber, the coating layer being overlaid at least on a palm region of an outer surface of the glove body, wherein: a loop yarn comprising a core yarn, a float yarn arranged around the core yarn so as to form a loop, and a presser yarn twisted around the float yarn in an opposite direction is used as a knitting yarn of the glove body; an average outer diameter of loops of the loop yarn is no less than 1 mm and no greater than 6 mm; an average distance between the loops of the loop yarn is no less than 1 mm and no greater than 10 mm; and irregularities arising from the loop yarn are provided on a surface of the coating layer. a loop yarn comprising a core yarn, a float yarn arranged around the core yarn so as to form a loop, and a presser yarn twisted around the float yarn in an opposite direction is used as a knitting yarn of the glove body; an average outer diameter of loops of the loop yarn is no less than 1 mm and no greater than 6 mm; an average distance between the loops of the loop yarn is no less than 1 mm and no greater than 10 mm; and irregularities arising from the loop yarn are provided on a surface of the coating layer.