mhurhangee/patent-ind-claim-en huggingface dataset:
A device for attaching a component supply unit to a component mounting machine by inserting the component supply unit , which includes casters , into a unit attachment space of the component mounting machine , wherein the component mounting machine includes unit-raising means for raising the component supply unit inserted into the unit attachment space , unit pull-in means for pulling the component supply unit , which has been raised by the unit-raising means , into the component mounting machine , and clamping means for lowering the component supply unit , which has been pulled in by the unit pull-in means , to a predetermined height position by the unit-raising means , and clamping the component supply unit , and wherein the clamping means includes clamping members that are provided on the unit-raising means and receiving members that are provided on the component mounting machine , and is adapted to lower the clamping members by the unit-raising means while fixing members of the component supply unit are placed on the receiving members and the component supply unit is supported by the receiving members , and is adapted to clamp the fixing members by the clamping members while the fixing members are interposed between the receiving members and the clamping members .
An axle , in particular of a universal carrier frame, which axle comprises an arm of the axle , a power drive unit , swivel drive units , swivel distribution systems , travel distribution systems , 8b), wherein at one end of the arm of the axle a front portal suspension of a front wheel is rotatably arranged, and at the other end of the arm of the axle , a rear portal suspension of the rear wheel is rotatably arranged, characterized in that the front portal suspension of the front wheel and the rear portal suspension of the rear wheel comprise an angular chain transmission comprising a drive shaft having a longitudinal axis , a driven shaft having a longitudinal axis , a link chain for connecting the drive shaft and the driven shaft , and a pulley angular system of the link chain to define the angle (α) between the longitudinal axis of the drive shaft and the longitudinal axis of the driven shaft . an arm of the axle , a power drive unit , swivel drive units , swivel distribution systems , travel distribution systems , 8b), wherein at one end of the arm of the axle a front portal suspension of a front wheel is rotatably arranged, and at the other end of the arm of the axle , a rear portal suspension of the rear wheel is rotatably arranged, characterized in that the front portal suspension of the front wheel and the rear portal suspension of the rear wheel comprise an angular chain transmission comprising a drive shaft having a longitudinal axis , a driven shaft having a longitudinal axis , a link chain for connecting the drive shaft and the driven shaft , and a pulley angular system of the link chain to define the angle (α) between the longitudinal axis of the drive shaft and the longitudinal axis of the driven shaft .
An electrode assembly, comprising: a jelly roll comprising a first electrode plate wound together with a second electrode plate, the second electrode plate having a different polarity from the first electrode plate , wherein the first electrode plate includes a plurality of non-coated portions spaced apart from each other; and a plurality of tabs are attached to the plurality of non-coated portions , respectively, wherein the plurality of non-coated portions includes a first non-coated portion having a first width, and a second non-coated portion having a second width different from the first width of the first non-coated portion ; and wherein the first non-coated portion is between a winding centre of the jelly roll and the second non-coated portion . a jelly roll comprising a first electrode plate wound together with a second electrode plate, the second electrode plate having a different polarity from the first electrode plate , wherein the first electrode plate includes a plurality of non-coated portions spaced apart from each other; and a plurality of tabs are attached to the plurality of non-coated portions , respectively, wherein the plurality of non-coated portions includes a first non-coated portion having a first width, and a second non-coated portion having a second width different from the first width of the first non-coated portion ; and wherein the first non-coated portion is between a winding centre of the jelly roll and the second non-coated portion .
A method of treating a fibrous substrate, the method comprising applying a fluorine-free treating composition in an amount sufficient to make the fibrous substrate water repellent having a minimum initial spray rating of at least 80, as determined by the Spray Rating Test, wherein the treating composition comprises: one or more polymeric compounds derived from the polymerization of at least one (meth)acrylate monomer comprising at least one isocyanate-derived group and at least one hydrocarbon group having at least 16 carbon atoms, wherein at least 70% by weight of the one or more polymeric compounds is obtained from polymerization of a (meth)acrylate monomer comprising at least one isocyanate-derived group and at least one hydrocarbon group having from 16 to 60 carbon atoms. one or more polymeric compounds derived from the polymerization of at least one (meth)acrylate monomer comprising at least one isocyanate-derived group and at least one hydrocarbon group having at least 16 carbon atoms, wherein at least 70% by weight of the one or more polymeric compounds is obtained from polymerization of a (meth)acrylate monomer comprising at least one isocyanate-derived group and at least one hydrocarbon group having from 16 to 60 carbon atoms.
An arrangement for a shifting brake device , the arrangement comprising a housing , a reaction plate and a snap ring , the housing and the reaction plate being mechanically connected to each other and the snap ring being arranged in a groove of the housing for locking the reaction plate to the housing such that displacement of the reaction plate relative to the housing in an axial direction is prevented, the housing having a hollow cylinder portion and at an end of the hollow cylinder portion , a wall forming the hollow cylinder portion has a plurality of recesses receiving a plurality of projections of the reaction plate , the hollow cylinder portion of the housing having a circular cross section and on an inside surface of the hollow cylinder portion splines being arranged, which splines extend in the axial direction of the hollow cylinder portion , the arrangement comprising one or more brake discs arranged in the housing, the brake discs being guided in the axial direction and rotationally locked relative to the housing by the splines, the reaction plate being arranged to limit the movement of the brake discs in the axial direction , characterized in that the groove is arranged on an outside surface of the housing .
An insulating element, in particular a strip or other insulating part, joined by fusion or welding, characterized in that it is provided on at least one side thereof with a combustible or thermally destructible and electrically conductive element which is combustible or thermally destructible under the conditions of fusion or welding of the insulating element.
A method for making graphenic carbon particles, having a B.E.T. specific surface area of from 70 to 1000 square meters per gram and an average aspect ratio of greater than 3:1, comprising: introducing an inert carrier gas and a hydrocarbon precursor material capable of forming a two-carbon-fragment species or a hydrocarbon precursor material comprising methane, said hydrocarbon precursor material comprising n-propanol, ethane, ethylene, acetylene, vinyl chloride, 1,2-dichloroethane, allyl alcohol, propionaldehyde, vinyl bromide or methane into a thermal zone , wherein the carrier gas and the hydrocarbon precursor material form a gaseous stream and the thermal zone comprises a plasma towards which the gaseous stream flows so that the inert gas and hydrocarbon precursor material are introduced into the plasma together; heating the hydrocarbon precursor material in the thermal zone to a temperature of at least 1,000 °C and then contacting the gaseous stream with one or more quench streams that are either injected into the plasma chamber through at least one quench stream injection port or introduced at or near the transition of a converging portion to a straight portion positioned within the outlet of a chamber to form the graphenic carbon particles from the hydrocarbon precursor material; and collecting the graphenic carbon particles. introducing an inert carrier gas and a hydrocarbon precursor material capable of forming a two-carbon-fragment species or a hydrocarbon precursor material comprising methane, said hydrocarbon precursor material comprising n-propanol, ethane, ethylene, acetylene, vinyl chloride, 1,2-dichloroethane, allyl alcohol, propionaldehyde, vinyl bromide or methane into a thermal zone , wherein the carrier gas and the hydrocarbon precursor material form a gaseous stream and the thermal zone comprises a plasma towards which the gaseous stream flows so that the inert gas and hydrocarbon precursor material are introduced into the plasma together; heating the hydrocarbon precursor material in the thermal zone to a temperature of at least 1,000 °C and then contacting the gaseous stream with one or more quench streams that are either injected into the plasma chamber through at least one quench stream injection port or introduced at or near the transition of a converging portion to a straight portion positioned within the outlet of a chamber to form the graphenic carbon particles from the hydrocarbon precursor material; and collecting the graphenic carbon particles.
A system comprising: a memory device including: a crosspoint memory array; and circuitry to: apply a first select voltage across a memory cell of the crosspoint memory array with a first voltage source, wherein the magnitude of the first select voltage is based on a location of the memory cell in the crosspoint memory array; increase the magnitude of a voltage across the memory cell from the first select voltage to a second select voltage, wherein a ramp rate from the first select voltage to the second select voltage is based on the location of the memory cell in the crosspoint memory array; detect thresholding of the memory cell; and apply a third voltage with a lower magnitude than the second select voltage across the memory cell in response to detection of the thresholding of the memory cell. a crosspoint memory array; and circuitry to: apply a first select voltage across a memory cell of the crosspoint memory array with a first voltage source, wherein the magnitude of the first select voltage is based on a location of the memory cell in the crosspoint memory array; increase the magnitude of a voltage across the memory cell from the first select voltage to a second select voltage, wherein a ramp rate from the first select voltage to the second select voltage is based on the location of the memory cell in the crosspoint memory array; detect thresholding of the memory cell; and apply a third voltage with a lower magnitude than the second select voltage across the memory cell in response to detection of the thresholding of the memory cell. apply a first select voltage across a memory cell of the crosspoint memory array with a first voltage source, wherein the magnitude of the first select voltage is based on a location of the memory cell in the crosspoint memory array; increase the magnitude of a voltage across the memory cell from the first select voltage to a second select voltage, wherein a ramp rate from the first select voltage to the second select voltage is based on the location of the memory cell in the crosspoint memory array; detect thresholding of the memory cell; and apply a third voltage with a lower magnitude than the second select voltage across the memory cell in response to detection of the thresholding of the memory cell.
An assembly of molding materials, each of which comprising: a carbon fiber bundle containing an impregnation aid; and a thermoplastic resin covering the carbon fiber bundle, wherein each molding material has a core-sheath structure in which the carbon fiber bundle is covered with the thermoplastic resin; characterized in that 30% or more of the molding materials in the assembly satisfy 100 ≤ F/L < 10000, wherein F/L is in units of N/m, wherein L represents a length of each molding material in an axial direction of the carbon fiber bundle, and F represents a grip force of the carbon fiber bundle to the molding material, wherein F is measured by: randomly taking 100 molding materials out from the assembly of molding materials; using a force gauge equipped with a pin having φ0.8 mm at the tip thereof, pushing the pin into the carbon fiber bundle of the core portion of the molding material; and measuring the maximum load when the carbon fibers fall off; wherein each of the molding materials satisfies the following Formula when the molding material cut in an axial center direction thereof is observed: 0.4 ≤ area of carbon single fiber × number of single fibers in carbon fiber bundle / area surrounded by inner periphery of thermoplastic resin ; wherein, the area surrounded by the inner periphery of the thermoplastic resin is an average value of the molding materials in the assembly. a carbon fiber bundle containing an impregnation aid; and a thermoplastic resin covering the carbon fiber bundle, wherein each molding material has a core-sheath structure in which the carbon fiber bundle is covered with the thermoplastic resin; characterized in that 30% or more of the molding materials in the assembly satisfy 100 ≤ F/L < 10000, wherein F/L is in units of N/m, wherein L represents a length of each molding material in an axial direction of the carbon fiber bundle, and F represents a grip force of the carbon fiber bundle to the molding material, wherein F is measured by: randomly taking 100 molding materials out from the assembly of molding materials; using a force gauge equipped with a pin having φ0.8 mm at the tip thereof, pushing the pin into the carbon fiber bundle of the core portion of the molding material; and measuring the maximum load when the carbon fibers fall off; randomly taking 100 molding materials out from the assembly of molding materials; using a force gauge equipped with a pin having φ0.8 mm at the tip thereof, pushing the pin into the carbon fiber bundle of the core portion of the molding material; and measuring the maximum load when the carbon fibers fall off; wherein each of the molding materials satisfies the following Formula when the molding material cut in an axial center direction thereof is observed: 0.4 ≤ area of carbon single fiber × number of single fibers in carbon fiber bundle / area surrounded by inner periphery of thermoplastic resin ;
A method for preparing a lithium iron phosphate nanopowder, comprising the steps of: (a) preparing a non-aqueous mixture solution by adding a lithium precursor, an iron precursor and a phosphorus precursor in a non-aqueous triethanolamine solvent; and (b) putting the non-aqueous mixture solution into a reactor and heating to prepare the lithium iron phosphate nanopowder under pressure conditions of 1 to 10 bar, wherein Step (b) is performed at a temperature range of 150 to 335°C (a) preparing a non-aqueous mixture solution by adding a lithium precursor, an iron precursor and a phosphorus precursor in a non-aqueous triethanolamine solvent; and (b) putting the non-aqueous mixture solution into a reactor and heating to prepare the lithium iron phosphate nanopowder under pressure conditions of 1 to 10 bar,
A three-dimensional printing apparatus , comprising: a frame ; a control module ; a nozzle module , movably disposed in the frame and electrically connected to the control module , wherein the control module drives the nozzle module to move in the frame and define a printing space (SP), and the control module drives the nozzle module to print a three-dimensional object in the printing space (SP); and a feeding module , detachably assembled to the frame and electrically connected to the control module , wherein the control module is adapted to drive the feeding module to transfer a medium (PA) to the printing space (SP) or transfer the medium (PA) to pass by the printing space (SP) and drive the nozzle module to print a two-dimensional pattern on the medium (PA), wherein the feeding module comprises a feed-in member , a printing member , a feed-out member , a feedback member , and a plurality of transfer rollers (R1∼R5) respectively disposed to the feed-in member , the feed-out member , and the feedback member and forming a first transfer path (P1) where the medium (PA) sequentially passes through the feed-in member , the printing member , and the feed-out member and a second transfer path (P2) where the medium (PA) sequentially passes through the feed-in member , the printing member , the feedback member , and the feed-out member , and the medium (PA) is driven by the transfer rollers (R1∼R5) to be transferred along the first transfer path (P1) or the second transfer path (P2) during printing of the two-dimensional pattern. a frame ; a control module ; a nozzle module , movably disposed in the frame and electrically connected to the control module , wherein the control module drives the nozzle module to move in the frame and define a printing space (SP), and the control module drives the nozzle module to print a three-dimensional object in the printing space (SP); and a feeding module , detachably assembled to the frame and electrically connected to the control module , wherein the control module is adapted to drive the feeding module to transfer a medium (PA) to the printing space (SP) or transfer the medium (PA) to pass by the printing space (SP) and drive the nozzle module to print a two-dimensional pattern on the medium (PA), wherein the feeding module comprises a feed-in member , a printing member , a feed-out member , a feedback member , and a plurality of transfer rollers (R1∼R5) respectively disposed to the feed-in member , the feed-out member , and the feedback member and forming a first transfer path (P1) where the medium (PA) sequentially passes through the feed-in member , the printing member , and the feed-out member and a second transfer path (P2) where the medium (PA) sequentially passes through the feed-in member , the printing member , the feedback member , and the feed-out member , and the medium (PA) is driven by the transfer rollers (R1∼R5) to be transferred along the first transfer path (P1) or the second transfer path (P2) during printing of the two-dimensional pattern.
A method , comprising: generating , by processing circuitry of a virtual reality, VR, server , a virtual environment with which users (112 , 112 , 112(N), 300, 350) external to the VR server interact, the virtual environment including a virtual meeting room; receiving , from a first user (112 , 300) at the VR server , a request to schedule a private meeting in the virtual meeting room of the virtual environment, the request including: a set of user identifiers identifying a set of the users (112 , 112 , 300, 350) authorized to attend the private meeting, and gesture data resulting from a gesture formed by the first user (112 , 300) of the set of the users (112 , 112 , 300, 350) authorized to attend the private meeting; receiving , from a second user (112 , 350) at the VR server , a new user identifier identifying the second user (112 , 350), and new gesture data generated by the second user (112 , 350); and granting or denying , at the VR server , the second user (112 , 350) access to the private meeting according to whether the new user identifier matches one of the set of user identifiers and whether the new gesture data matches the gesture data . generating , by processing circuitry of a virtual reality, VR, server , a virtual environment with which users (112 , 112 , 112(N), 300, 350) external to the VR server interact, the virtual environment including a virtual meeting room; receiving , from a first user (112 , 300) at the VR server , a request to schedule a private meeting in the virtual meeting room of the virtual environment, the request including: a set of user identifiers identifying a set of the users (112 , 112 , 300, 350) authorized to attend the private meeting, and gesture data resulting from a gesture formed by the first user (112 , 300) of the set of the users (112 , 112 , 300, 350) authorized to attend the private meeting; a set of user identifiers identifying a set of the users (112 , 112 , 300, 350) authorized to attend the private meeting, and gesture data resulting from a gesture formed by the first user (112 , 300) of the set of the users (112 , 112 , 300, 350) authorized to attend the private meeting; receiving , from a second user (112 , 350) at the VR server , a new user identifier identifying the second user (112 , 350), and new gesture data generated by the second user (112 , 350); and granting or denying , at the VR server , the second user (112 , 350) access to the private meeting according to whether the new user identifier matches one of the set of user identifiers and whether the new gesture data matches the gesture data .
A conveyor belt scraper blade comprising: a scraper layer having a tip to contact a surface of a conveyor belt ; and a support to support the scraper layer ; the scraper layer comprising a first material and the support comprising a second material having a hardness greater than the first material; the support comprises a base and at least two fingers projecting side-by-side from the base , characterised in that the fingers extend in contact with the scraper layer along their length (D) from the base to the tip , and in that the fingers are curved along their length (D) between the base and a tip of the fingers . a scraper layer having a tip to contact a surface of a conveyor belt ; and a support to support the scraper layer ; the scraper layer comprising a first material and the support comprising a second material having a hardness greater than the first material; the support comprises a base and at least two fingers projecting side-by-side from the base , characterised in that the fingers extend in contact with the scraper layer along their length (D) from the base to the tip , and in that the fingers are curved along their length (D) between the base and a tip of the fingers .
A non-contact power supply unit for supplying power to a power receiving unit of a device mounted on a cart comprising: a placement unit on which the cart is to be stored; a power transmitting unit provided on the placement unit , under the cart, configured to transmit power to the power receiving unit by non-contact power supply; characterized in that the non-contact power supply unit comprises a connecting unit (291-294) for connecting the placement unit of the own device to the placement unit of a non-contact power supply unit different from that of the own device. a placement unit on which the cart is to be stored; a power transmitting unit provided on the placement unit , under the cart, configured to transmit power to the power receiving unit by non-contact power supply; characterized in that the non-contact power supply unit comprises a connecting unit (291-294) for connecting the placement unit of the own device to the placement unit of a non-contact power supply unit different from that of the own device.