mhurhangee/ep-ind-claims huggingface dataset:
Heat sink device (100, 200, 300) for a motor vehicle lighting module, comprising a base (110, 210, 310) intended to receive, on a first face (112, 212), a printed circuit board and comprising heat dissipation means on an opposite second face (114, 214, 314), the heat dissipation means comprising cooling fins (120, 220, 320) that are formed by folds of at least one metal sheet, the cooling fins (120, 220, 320) being joined to the base (110, 210, 310) by way of an attachment between at least one of the folds and the base (110, 210, 310) characterized in that the device (100, 200, 300) comprises a cover made of stamped aluminum and intended to be attached in a sealtight manner to the first face of the base.
An external remote data collection device connectable to plural back-end control devices of plural numerically controlled machine tools, each back-end control device being configured to control operation of a respective numerically controlled machine tool of the plural machine tools, the external remote data collection device comprising: an interface client module being communicably connectable with respective interface server modules of the plural back-end control devices; and a database storage means, said external remote data collection device being characterized in that: the interface client module is configured to utilize an interface language protocol utilized by the respective interface server modules of the plural back-end control devices, and the external remote data collection device is configured to access data in storage means (311, 321), including NC registers and/or one or more PLC registers, of the one or more back-end control devices via the interface client module and the respective interface server modules of the respective back-end control devices, and to store data received from the plural back-end control devices via the interface client module in the database storage means, the stored data including history data about operation and/or control history of the machine tools, and in that it further comprises: a communication server module being configured to access the data in the plural back-end control devices via the respective interface server modules of the respective back-end control devices. an interface client module being communicably connectable with respective interface server modules of the plural back-end control devices; and a database storage means, the interface client module is configured to utilize an interface language protocol utilized by the respective interface server modules of the plural back-end control devices, and the external remote data collection device is configured to access data in storage means (311, 321), including NC registers and/or one or more PLC registers, of the one or more back-end control devices via the interface client module and the respective interface server modules of the respective back-end control devices, and to store data received from the plural back-end control devices via the interface client module in the database storage means, the stored data including history data about operation and/or control history of the machine tools, and in that it further comprises: a communication server module being configured to access the data in the plural back-end control devices via the respective interface server modules of the respective back-end control devices.
A dispenser for dispensing material comprising: a housing having a receiving aperture, such that a pair of opposed retainers are disposed in said housing adjacent to said receiving aperture; a holder having a pair of opposed pivots extending therefrom that are rotatably retained by said retainers, wherein said holder includes a central section and a pair of opposed pivot sections (220, 222), said pivot sections (220, 222) foldably attached to said central section, each said pivot section (220, 222) including one of said pivots, and wherein a pair of spaced lateral support sections (210, 212) are foldably attached to said central section and extend between said pivot sections (220, 222), such that said lateral support sections (210, 212) are retained to at least one of said pivot sections (220, 222); at least one solar element carried by said central section; a dispenser controller electrically coupled to said solar element; a pump coupled to said dispenser controller, said pump adapted to dispense said material from said dispenser; and an actuator coupled to said dispenser controller; wherein said solar element is rotatably adjusted to position said solar element, so as to adjust the amount of ambient light received thereby to power said dispenser controller, such that said pump dispenses material from the dispenser when said actuator is engaged. a housing having a receiving aperture, such that a pair of opposed retainers are disposed in said housing adjacent to said receiving aperture; a holder having a pair of opposed pivots extending therefrom that are rotatably retained by said retainers, wherein said holder includes a central section and a pair of opposed pivot sections (220, 222), said pivot sections (220, 222) foldably attached to said central section, each said pivot section (220, 222) including one of said pivots, and wherein a pair of spaced lateral support sections (210, 212) are foldably attached to said central section and extend between said pivot sections (220, 222), such that said lateral support sections (210, 212) are retained to at least one of said pivot sections (220, 222); at least one solar element carried by said central section; a dispenser controller electrically coupled to said solar element; a pump coupled to said dispenser controller, said pump adapted to dispense said material from said dispenser; and an actuator coupled to said dispenser controller; wherein said solar element is rotatably adjusted to position said solar element, so as to adjust the amount of ambient light received thereby to power said dispenser controller, such that said pump dispenses material from the dispenser when said actuator is engaged.
A biaxially-oriented polyester film satisfying the following requirements to: a content of antimony in the film is 10 ppm or less; a content of phosphorus in the film is 25 ppm or more and 75 ppm or less; an intrinsic viscosity of the film is 0.51 dl/g or more and 0.70 dl/g or less; and a number of defects with a size of 1 mm or more is 1.0 or less per 1000 square meters of the film, wherein the polyester film is formed with a polyester resin as a polyester raw material containing at least one selected from aluminum compounds and at least one selected from phosphorus compounds as polymerization catalysts, and not containing a titanium compound as a metal-containing polycondensation catalyst. a content of antimony in the film is 10 ppm or less; a content of phosphorus in the film is 25 ppm or more and 75 ppm or less; an intrinsic viscosity of the film is 0.51 dl/g or more and 0.70 dl/g or less; and a number of defects with a size of 1 mm or more is 1.0 or less per 1000 square meters of the film,
A surgical instrument comprising: a mount body (22, 122) having a top portion, a distal end, a proximal end and a bottom portion; an arm (12,112); a joint member (30, 130) pivotally mounted at a distal end portion of the mount body (22, 122) to allow positioning of a proximal portion of the arm (12, 112) extending distally from the joint member (30, 130), the joint member (30, 130) configured to constrain movement of the joint member relative to the mount body to a first plane and to constrain movement of the proximal portion of the arm relative to the joint member to a second plane; a working end (14, 114) mounted to a distal end portion of the arm (12, 112), wherein the joint member (30, 130) includes a disk member and a slotted ball (36, 136) connected to the disk member, wherein the disk member (34, 134) confines movement of the joint member (30, 130) to yawing in the first plane and a slot of the slotted ball (36, 136) confines movement of the proximal portion of the arm (12, 112) relative to the joint member (30, 130) to pitching in the second plane; an actuator (52, 52') rotatably mounted to the mount body (22, 122) towards the proximal end of the mount body (22, 122); and a cable extending from the actuator (52, 52') through the mount body, joint member, slotted ball and arm, the actuator and the cable being configured to change a state of the arm from a flexible state to a rigid state by movement of the actuator in a first direction, and from the rigid state to the flexible state by movement of the actuator in a second direction opposite the first direction. a mount body (22, 122) having a top portion, a distal end, a proximal end and a bottom portion; an arm (12,112); a joint member (30, 130) pivotally mounted at a distal end portion of the mount body (22, 122) to allow positioning of a proximal portion of the arm (12, 112) extending distally from the joint member (30, 130), the joint member (30, 130) configured to constrain movement of the joint member relative to the mount body to a first plane and to constrain movement of the proximal portion of the arm relative to the joint member to a second plane; a working end (14, 114) mounted to a distal end portion of the arm (12, 112), wherein the joint member (30, 130) includes a disk member and a slotted ball (36, 136) connected to the disk member, wherein the disk member (34, 134) confines movement of the joint member (30, 130) to yawing in the first plane and a slot of the slotted ball (36, 136) confines movement of the proximal portion of the arm (12, 112) relative to the joint member (30, 130) to pitching in the second plane; an actuator (52, 52') rotatably mounted to the mount body (22, 122) towards the proximal end of the mount body (22, 122); and a cable extending from the actuator (52, 52') through the mount body, joint member, slotted ball and arm, the actuator and the cable being configured to change a state of the arm from a flexible state to a rigid state by movement of the actuator in a first direction, and from the rigid state to the flexible state by movement of the actuator in a second direction opposite the first direction.
A composite hat stiffener comprising: a composite hat section having a first side and a second side; a plurality of composite stiffening plies coupled to the composite hat section, the plurality of composite stiffening plies comprising: a body ply coupled to the first side of the composite hat section; a wrap ply coupled to the body ply and further having a base portion in which a wrap ply slot opening is formed; and, a base ply coupled to the body ply and the wrap ply, the base ply having a base ply slot opening; a pair of radius filler noodles coupled to the composite hat section and disposed between the plurality of composite stiffening plies; an outer ply coupled to the second side of the composite hat section; wherein the base ply slot opening and the wrap ply slot opening are aligned to form a composite hat stiffener slot opening. a composite hat section having a first side and a second side; a plurality of composite stiffening plies coupled to the composite hat section, the plurality of composite stiffening plies comprising: a body ply coupled to the first side of the composite hat section; a wrap ply coupled to the body ply and further having a base portion in which a wrap ply slot opening is formed; and, a base ply coupled to the body ply and the wrap ply, the base ply having a base ply slot opening; a body ply coupled to the first side of the composite hat section; a wrap ply coupled to the body ply and further having a base portion in which a wrap ply slot opening is formed; and, a base ply coupled to the body ply and the wrap ply, the base ply having a base ply slot opening; a pair of radius filler noodles coupled to the composite hat section and disposed between the plurality of composite stiffening plies; an outer ply coupled to the second side of the composite hat section; wherein the base ply slot opening and the wrap ply slot opening are aligned to form a composite hat stiffener slot opening.
A process for the production of a fiber based product comprising the step of preparing a pre-mix comprising: a) microfibrillated cellulose, wherein the amount of the microfibrillated cellulose is 0.1 kg to 50 kg per ton dry furnish; wherein the microfibrillated cellulose is nano scale cellulose particle fiber or fibril with at least one dimension less than 100 nm; b) cationic polymer, wherein the amount of the cationic polymer is 0.01 kg to 10 kg per ton dry furnish, wherein said cationic polymer is selected from starch, polyaminoamide-epichlorohydrin and cationic polyacryl amide or copolymer thereof; c) microparticles or nanoparticles, wherein the amount of microparticles is 0.01 kg to 10 kg per ton dry furnish, wherein said microparticles or nanoparticles are silica, microsilica, bentonite or microbentonite particles; and dosing said pre-mix to the stock in a process for manufacture of a fiber based product. a) microfibrillated cellulose, wherein the amount of the microfibrillated cellulose is 0.1 kg to 50 kg per ton dry furnish; wherein the microfibrillated cellulose is nano scale cellulose particle fiber or fibril with at least one dimension less than 100 nm; b) cationic polymer, wherein the amount of the cationic polymer is 0.01 kg to 10 kg per ton dry furnish, wherein said cationic polymer is selected from starch, polyaminoamide-epichlorohydrin and cationic polyacryl amide or copolymer thereof; c) microparticles or nanoparticles, wherein the amount of microparticles is 0.01 kg to 10 kg per ton dry furnish, wherein said microparticles or nanoparticles are silica, microsilica, bentonite or microbentonite particles;
A steam turbine nozzle support assembly (110, 210, 310, 410, 510, 610, 710, 810) comprising: a steam turbine casing; and a semi-annular diaphragm segment at least partially housed within the steam turbine casing, the semi-annular diaphragm segment having a horizontal joint surface and a lip portion; and a support bar (140, 240, 340, 440, 540, 640, 740, 840) comprising: a body portion and a hook-shaped portion for engaging the lip portion of the steam turbine diaphragm segment, wherein the hook-shaped portion is a unitary structure, and wherein the hook-shaped portion includes: a first flange extending substantially perpendicularly from the body portion; and a second flange extending substantially perpendicularly from the first flange; wherein the support bar (140, 240, 340, 440, 540, 640, 740, 840) is configured to non-affixedly join the steam turbine casing to the steam turbine diaphragm segment; and wherein the lip portion extends in a direction away from the horizontal joint surface and the hook-shaped portion extends upwardly to engage the lip portion. a steam turbine casing; and a semi-annular diaphragm segment at least partially housed within the steam turbine casing, the semi-annular diaphragm segment having a horizontal joint surface and a lip portion; and a support bar (140, 240, 340, 440, 540, 640, 740, 840) comprising: a body portion and a hook-shaped portion for engaging the lip portion of the steam turbine diaphragm segment, wherein the hook-shaped portion is a unitary structure, and wherein the hook-shaped portion includes: a first flange extending substantially perpendicularly from the body portion; and a second flange extending substantially perpendicularly from the first flange; wherein the support bar (140, 240, 340, 440, 540, 640, 740, 840) is configured to non-affixedly join the steam turbine casing to the steam turbine diaphragm segment; and wherein the lip portion extends in a direction away from the horizontal joint surface and the hook-shaped portion extends upwardly to engage the lip portion. a body portion and a hook-shaped portion for engaging the lip portion of the steam turbine diaphragm segment, wherein the hook-shaped portion is a unitary structure, and wherein the hook-shaped portion includes: a first flange extending substantially perpendicularly from the body portion; and a second flange extending substantially perpendicularly from the first flange; a first flange extending substantially perpendicularly from the body portion; and a second flange extending substantially perpendicularly from the first flange; wherein the support bar (140, 240, 340, 440, 540, 640, 740, 840) is configured to non-affixedly join the steam turbine casing to the steam turbine diaphragm segment; and wherein the lip portion extends in a direction away from the horizontal joint surface and the hook-shaped portion extends upwardly to engage the lip portion.
An electric power steering apparatus comprising: an electric motor that applies steering assist force to a steering wheel; a calculator that calculates a target current to be supplied to the electric motor on the basis of steering torque of the steering wheel; and a correction unit that, when a rotation speed (Nm) of the electric motor is less than a predetermined rotation speed, corrects the target current calculated by the calculator to be reduced on the basis of an actual current (Im) supplied to the electric motor and a time during which the actual current (Im) is supplied, characterized by at least one of when the actual current (Im) supplied to the electric motor is more than a predetermined current value, the correction unit corrects the target current so that the target current becomes smaller as the actual current (Im) is larger or when a traveling speed of a vehicle equipped with the electric power steering apparatus is equal to or more than a predetermined speed the correction unit makes the predetermined rotation speed smaller compared to a case where the traveling speed of the vehicle is less than the predetermined speed. an electric motor that applies steering assist force to a steering wheel; a calculator that calculates a target current to be supplied to the electric motor on the basis of steering torque of the steering wheel; and a correction unit that, when a rotation speed (Nm) of the electric motor is less than a predetermined rotation speed, corrects the target current calculated by the calculator to be reduced on the basis of an actual current (Im) supplied to the electric motor and a time during which the actual current (Im) is supplied, characterized by at least one of when the actual current (Im) supplied to the electric motor is more than a predetermined current value, the correction unit corrects the target current so that the target current becomes smaller as the actual current (Im) is larger or when a traveling speed of a vehicle equipped with the electric power steering apparatus is equal to or more than a predetermined speed the correction unit makes the predetermined rotation speed smaller compared to a case where the traveling speed of the vehicle is less than the predetermined speed.
A network entity for controlling a respective operation mode of a plurality of physical base stations of a wireless communication network, wherein the plurality of physical base stations define a spatial coverage region of the wireless communication network and each of the plurality of physical base stations is configured to be operated in an active operation mode or an idle operation mode, wherein the network entity comprises: a processing unit configured to: (a) obtain a respective current data load of each of the plurality of physical base stations in the active operation mode; (b) estimate a respective current data load of a plurality of virtual base stations on the basis of the respective current data loads of the plurality of physical base stations, wherein the plurality of virtual base stations are distributed over the spatial coverage region and wherein the number of virtual base stations is larger than the number of physical base stations; (c) predict on the basis of the respective estimated current data loads of the plurality of virtual base stations a respective data load of each of the plurality of virtual base stations; and (d) adjust on the basis of the respective data loads of the virtual base stations the operation mode of one or more of the plurality of physical base stations to the idle operation mode. (a) obtain a respective current data load of each of the plurality of physical base stations in the active operation mode; (b) estimate a respective current data load of a plurality of virtual base stations on the basis of the respective current data loads of the plurality of physical base stations, wherein the plurality of virtual base stations are distributed over the spatial coverage region and wherein the number of virtual base stations is larger than the number of physical base stations; (c) predict on the basis of the respective estimated current data loads of the plurality of virtual base stations a respective data load of each of the plurality of virtual base stations; and (d) adjust on the basis of the respective data loads of the virtual base stations the operation mode of one or more of the plurality of physical base stations to the idle operation mode.
A composition for bonding, comprising: inorganic particles and an organic substance containing amine(s) and carboxylic acid(s) adhered onto at least a portion of surfaces of the inorganic particles, wherein on performance of a thermal analysis in which 10 mg of the composition is heated from room temperature to 550 °C at 10 °C/min in a nitrogen current, and in which the weight reduction of the 10 mg of the composition from room temperature to 500 °C is taken as a standard, the weight reduction rate relative to the standard is 33 % to 69 % upon heating from room temperature to 200 °C, and the weight reduction rate relative to the standard is 24 % to 50 % upon heating from 200 °C to 300 °C.
A battery pack comprising: a battery connecting structure on which a plurality of flat batteries are placed; and a protective circuit board that protects the flat batteries during charging and discharging of the flat batteries, film formation for the protective circuit board being made using a plurality of film forming materials different in viscosity, hardness, or thixotropic properties, and the protective circuit board implemented with circuit components including a circuit component having a highest height from the board and having a surface covered only with first hardening resin, and a circuit component having a surface covered only with second hardening resin whose viscosity, hardness, or thixotropic properties are lower than those of the first hardening resin. a battery connecting structure on which a plurality of flat batteries are placed; and a protective circuit board that protects the flat batteries during charging and discharging of the flat batteries, film formation for the protective circuit board being made using a plurality of film forming materials different in viscosity, hardness, or thixotropic properties, and the protective circuit board implemented with circuit components including a circuit component having a highest height from the board and having a surface covered only with first hardening resin, and a circuit component having a surface covered only with second hardening resin whose viscosity, hardness, or thixotropic properties are lower than those of the first hardening resin.