mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forming discrete zones of hooks on a substrate, while imparting localized speed variances to the substrate while advancing in a machine direction, for assembling absorbent articles , the method comprising steps of: advancing a first substrate in a machine direction at a first speed, the first substrate comprising a first surface and an opposing second surface and defining a width, Ws, in a cross direction; decelerating a portion of the first substrate to a second speed; arranging the second surface of the portion the first substrate and a die surface in a facing relationship, wherein the die surface comprises cavities; applying energy to the portion of the first substrate while advancing at the second speed such that softened material of the first substrate moves into the cavities of the die surface to form a zone of protrusions , wherein the zone of protrusions extends in the machine direction for a length, Lz, and wherein each protrusion protrudes from the second surface of the first substrate to a distal end ; accelerating the portion of the first substrate with the zone of protrusions from the second speed to the first speed; and cutting the first substrate into discrete pieces each having a pitch length, PL, extending along the machine direction, wherein the length, Lz, of the zone of protrusions extends in the machine direction for less than the pitch length, PL; wherein the protrusions comprise hooks ; and wherein the first substrate comprises a nonwoven. advancing a first substrate in a machine direction at a first speed, the first substrate comprising a first surface and an opposing second surface and defining a width, Ws, in a cross direction; decelerating a portion of the first substrate to a second speed; arranging the second surface of the portion the first substrate and a die surface in a facing relationship, wherein the die surface comprises cavities; applying energy to the portion of the first substrate while advancing at the second speed such that softened material of the first substrate moves into the cavities of the die surface to form a zone of protrusions , wherein the zone of protrusions extends in the machine direction for a length, Lz, and wherein each protrusion protrudes from the second surface of the first substrate to a distal end ; accelerating the portion of the first substrate with the zone of protrusions from the second speed to the first speed; and cutting the first substrate into discrete pieces each having a pitch length, PL, extending along the machine direction, wherein the length, Lz, of the zone of protrusions extends in the machine direction for less than the pitch length, PL; wherein the protrusions comprise hooks ; and wherein the first substrate comprises a nonwoven.
A semiconductor laminate capable of functioning as a pn-junction diode, comprising: an n-type GaN layer ; and a p-type GaN layer laminated directly on the n-type GaN layer, characterised in that the p-type GaN layer is added with a p-type impurity at a concentration of 2 × 10 20 cm -3 or more, and has a thickness of 30 nm or less. an n-type GaN layer ; and a p-type GaN layer laminated directly on the n-type GaN layer, characterised in that the p-type GaN layer is added with a p-type impurity at a concentration of 2 × 10 20 cm -3 or more, and has a thickness of 30 nm or less.
A method for providing augmented reality (AR) information, the method comprising: sending an AR information request from a mobile communication terminal to a server ; receiving , by the mobile communication terminal from the server , the AR information comprising at least one tag pattern and information associated with the at least one tag pattern; and storing the received AR information in the mobile communication terminal before the at least one tag pattern is recognized, characterised in that the AR information request comprises position information of the mobile communication terminal , identification information of the mobile communication terminal , and user information including a point of interest of the user, the received AR information is information which is available in a service cell corresponding to the position information and matches the point of interest of the user, and a service area in which the AR information is provided is divided into a plurality of service cells based on an amount of information to be provided in each service cell. sending an AR information request from a mobile communication terminal to a server ; receiving , by the mobile communication terminal from the server , the AR information comprising at least one tag pattern and information associated with the at least one tag pattern; and storing the received AR information in the mobile communication terminal before the at least one tag pattern is recognized, characterised in that the AR information request comprises position information of the mobile communication terminal , identification information of the mobile communication terminal , and user information including a point of interest of the user, the received AR information is information which is available in a service cell corresponding to the position information and matches the point of interest of the user, and a service area in which the AR information is provided is divided into a plurality of service cells based on an amount of information to be provided in each service cell.
An ethylene/1-butene copolymer, wherein a weight average molecular weight is 50,000 g/mol to 250,000 g/mol, a molecular weight distribution (Mw/Mn) is 4 to 20, a density is 0.950 g/cm 3 to 0.965 g/cm 3 , a melt flow rate ratio (MFR 5 /MFR 2.16 , as measured at 190°C according to ASTM 1238) is 5 to 10, environmental stress crack resistance (as measured according to ASTM D1693-B) is 150 hours or more; and crack resistance is 100 hours or more, the crack resistance is a time at which a water pressure begins to decrease, when the water pressure of 5 bar is applied to the inside of a cap (28 mm cap according to PET standard PCO 1881) obtained by injection-molding of the ethylene/1-butene copolymer while the cap is immersed in a bath containing a 5% igepal solution. a weight average molecular weight is 50,000 g/mol to 250,000 g/mol, a molecular weight distribution (Mw/Mn) is 4 to 20, a density is 0.950 g/cm 3 to 0.965 g/cm 3 , a melt flow rate ratio (MFR 5 /MFR 2.16 , as measured at 190°C according to ASTM 1238) is 5 to 10, environmental stress crack resistance (as measured according to ASTM D1693-B) is 150 hours or more; and crack resistance is 100 hours or more, the crack resistance is a time at which a water pressure begins to decrease, when the water pressure of 5 bar is applied to the inside of a cap (28 mm cap according to PET standard PCO 1881) obtained by injection-molding of the ethylene/1-butene copolymer while the cap is immersed in a bath containing a 5% igepal solution.
A secondary battery comprising: a case comprising a receiving hole having an opening; a cap assembly sealingly connected with the case to close the opening; an electrode assembly disposed in the receiving hole , wherein the electrode assembly comprises two end surfaces opposite to each other in a first direction (Y) perpendicular to an axial direction (X) of the receiving hole and two tabs extending from respective end surfaces , and the electrode assembly comprises two or more electrode units which are stacked in the axial direction (X), the electrode unit comprises a flat shape comprising two wide surfaces and two narrow surfaces for connecting the two wide surfaces , wherein the two wide surfaces are disposed opposite to each other in the axial direction (X), the wide surfaces and the narrow surfaces are alternatively disposed; and a current collecting unit comprising a first sheet and a first current collecting sheet connected to the first sheet , wherein both the first sheet and the first current collecting sheet extend in the axial direction (X), the first current collecting sheet is disposed at a side of the first sheet close to the case , a corresponding tab of the two tabs is bent with respect to the first direction (Y) and is fixedly connected to a surface of the first current collecting sheet away from the first sheet . a case comprising a receiving hole having an opening; a cap assembly sealingly connected with the case to close the opening; an electrode assembly disposed in the receiving hole , wherein the electrode assembly comprises two end surfaces opposite to each other in a first direction (Y) perpendicular to an axial direction (X) of the receiving hole and two tabs extending from respective end surfaces , and the electrode assembly comprises two or more electrode units which are stacked in the axial direction (X), the electrode unit comprises a flat shape comprising two wide surfaces and two narrow surfaces for connecting the two wide surfaces , wherein the two wide surfaces are disposed opposite to each other in the axial direction (X), the wide surfaces and the narrow surfaces are alternatively disposed; and a current collecting unit comprising a first sheet and a first current collecting sheet connected to the first sheet , wherein both the first sheet and the first current collecting sheet extend in the axial direction (X), the first current collecting sheet is disposed at a side of the first sheet close to the case , a corresponding tab of the two tabs is bent with respect to the first direction (Y) and is fixedly connected to a surface of the first current collecting sheet away from the first sheet .
A solar cell module , comprising: a laminate substrate having a first surface and a second surface opposite the first surface ; a solar cell positioned on the first surface of the laminate substrate ; a first contact pad positioned on the first surface of the laminate substrate adjacent to the solar cell ; a second contact pad positioned on the second surface of the laminate substrate ; one or more vias positioned through the laminate substrate to electronically connect the first contact pad to the second contact pad ; one or more interconnects extending from the solar cell and electronically coupling the solar cell to the first contact pad ; and a coverglass positioned on a top surface of the solar cell , characterized in that the top surface of the solar cell and a top surface of the first contact pad define a top surface of the solar cell module , wherein the top surface of the solar cell module is substantially flat, wherein the coverglass is bond over the entire solar module , thereby covering both the solar cell and the first contact pad . a laminate substrate having a first surface and a second surface opposite the first surface ; a solar cell positioned on the first surface of the laminate substrate ; a first contact pad positioned on the first surface of the laminate substrate adjacent to the solar cell ; a second contact pad positioned on the second surface of the laminate substrate ; one or more vias positioned through the laminate substrate to electronically connect the first contact pad to the second contact pad ; one or more interconnects extending from the solar cell and electronically coupling the solar cell to the first contact pad ; and a coverglass positioned on a top surface of the solar cell , characterized in that the top surface of the solar cell and a top surface of the first contact pad define a top surface of the solar cell module , wherein the top surface of the solar cell module is substantially flat, wherein the coverglass is bond over the entire solar module , thereby covering both the solar cell and the first contact pad .
Electrosurgical forceps comprising: - a first arm and a second arm connected by a pivot joint for moving the arms toward and away from one another, the two arms having a distal end and a proximal end ; - a first electrode and a second electrode arranged at the distal ends of the first arm and the second arm , respectively; - a longitudinal body connected to the first arm and in which a channel is arranged, the main body terminating, on the side of the distal end of the first arm , in a suction conduit having an upper opening and an axial opening , - a shutter element arranged on the second arm and configured to at least partially fill up the upper opening of the suction conduit when the two members are in a position close to one another. - a first arm and a second arm connected by a pivot joint for moving the arms toward and away from one another, the two arms having a distal end and a proximal end ; - a first electrode and a second electrode arranged at the distal ends of the first arm and the second arm , respectively; - a longitudinal body connected to the first arm and in which a channel is arranged, the main body terminating, on the side of the distal end of the first arm , in a suction conduit having an upper opening and an axial opening , - a shutter element arranged on the second arm and configured to at least partially fill up the upper opening of the suction conduit when the two members are in a position close to one another.
A Hall Effect element (200; 500) disposed over a substrate , the Hall Effect element comprising: an N-type epitaxial layer (204; 504) disposed over the substrate; a plurality of pickups (202; 502) implanted and diffused into the epitaxial layer, adjacent pairs of the plurality of pickups separated by separation regions, each one of the plurality of pickups comprising a respective N-plus type diffusion; and a plurality of Light-N regions (203; 534) implanted and diffused into the epitaxial layer, each one of the plurality of Light-N regions disposed under a respective one of the plurality of pickups, wherein the Hall Effect element is configured to generate a Hall voltage between at least one pair of the plurality of pickups, wherein the Hall voltage is most responsive to a magnetic field directed parallel to a major surface of the substrate. an N-type epitaxial layer (204; 504) disposed over the substrate; a plurality of pickups (202; 502) implanted and diffused into the epitaxial layer, adjacent pairs of the plurality of pickups separated by separation regions, each one of the plurality of pickups comprising a respective N-plus type diffusion; and a plurality of Light-N regions (203; 534) implanted and diffused into the epitaxial layer, each one of the plurality of Light-N regions disposed under a respective one of the plurality of pickups, wherein the Hall Effect element is configured to generate a Hall voltage between at least one pair of the plurality of pickups, wherein the Hall voltage is most responsive to a magnetic field directed parallel to a major surface of the substrate.
An on-vehicle display control device comprising: a video data acquiring unit configured to acquire video data from a plurality of bird's-eye view video cameras that capture videos of a front, a rear, a left side, and a right side of a vehicle, and video data from rear side cameras that capture videos of a rear left-side view and a rear right-side view of the vehicle; a bird's-eye view video generating unit configured to generate a bird's-eye view video by performing a viewpoint conversion process and a synthesizing process on the videos of the bird's-eye view video cameras acquired by the video data acquiring unit ; a confirmation request detecting unit configured to detect a left-right situation confirmation request for the vehicle; and a display controller configured to, when the confirmation request detecting unit detects the confirmation request, display, on a display arranged in a direction of the detected confirmation request, the video that is obtained from the rear side camera arranged in the direction of the confirmation request and the video in a direction corresponding to the direction of the confirmation request in the bird's-eye view video generated by the bird's-eye view video generating unit , characterized in that wherein when the confirmation request detecting unit detects the confirmation request, the bird's-eye view video generating unit is configured to generate the bird's-eye view video by changing a virtual viewpoint position to a front of the vehicle or a rear of the vehicle. a video data acquiring unit configured to acquire video data from a plurality of bird's-eye view video cameras that capture videos of a front, a rear, a left side, and a right side of a vehicle, and video data from rear side cameras that capture videos of a rear left-side view and a rear right-side view of the vehicle; a bird's-eye view video generating unit configured to generate a bird's-eye view video by performing a viewpoint conversion process and a synthesizing process on the videos of the bird's-eye view video cameras acquired by the video data acquiring unit ; a confirmation request detecting unit configured to detect a left-right situation confirmation request for the vehicle; and a display controller configured to, when the confirmation request detecting unit detects the confirmation request, display, on a display arranged in a direction of the detected confirmation request, the video that is obtained from the rear side camera arranged in the direction of the confirmation request and the video in a direction corresponding to the direction of the confirmation request in the bird's-eye view video generated by the bird's-eye view video generating unit , characterized in that wherein when the confirmation request detecting unit detects the confirmation request, the bird's-eye view video generating unit is configured to generate the bird's-eye view video by changing a virtual viewpoint position to a front of the vehicle or a rear of the vehicle.
Parking brake actuation method for an electric-motor-operated motor vehicle parking brake system containing a plurality of drum brakes, in particular of the duo-servo type, having electromechanical wheel brake actuators whose application movements are each transmitted separately to brake shoes of each drum brake via transmission means, a spreading device and a traction cable, and having electrical connections between each wheel brake actuator and a central electronic control unit, wherein the control unit observes and regulates the power demand of all the wheel brake actuators on a wheel-specific basis for the purpose of performing open-loop and/or closed-loop control of the cable tension and, after detection of a defined, preset cable tension, said control unit terminates the energization of the respective wheel brake actuator and as a result transfers said wheel brake actuator into a currentless self-locking state, wherein the control unit moreover executes electronic vehicle sensor data information processing for protecting the stationary state of the vehicle, characterized in that a) the control unit always executes a primary tensioning process of the wheel brake actuator in the cable tensioning process with continued observation of the power demand, the termination of which primary tensioning process correlates with approximately 60% of a preset minimum cable tension, in that b) when energization of the wheel brake actuator has been terminated, the control unit executes, over a chronologically limited time period, checking of the stationary state of the motor vehicle using measured or determined vehicle sensor data, in that c) the control unit evaluates the result of the checking of the stationary state on the basis of stored criteria, and wherein d) the control unit automatically triggers a secondary tensioning process with renewed actuator energization and observation of the current subsequent to a result of the checking of the stationary state which is evaluated as faulty or inadequate, and the energization in the secondary tensioning process correlates with at least approximately 90% of the minimum cable pull tension.
A battery pack, comprising: a module assembly including a plurality of secondary batteries , and a plurality of cartridges configured to be stacked with each other and configured to surround an outer circumference of the secondary batteries at an outer side, the plurality of cartridges being at least partially made of thermally-conductive material; and a pack case having an empty space therein to accommodate the module assembly , said pack case including an upper case and a lower case wherein the module assembly is accommodated in the inner space of the lower case and the upper case , and the lower case and the upper case are coupled to each other to configure the pack case and said pack case is at least partially made of thermally-conductive material to discharge heat of the module assembly , wherein the cartridge has a tetragonal ring shape to accommodate in an inner space thereof, and at least a part of an outer circumference of the secondary battery is adhered to an inner surface of the cartridge by means of an adhesive, and characterized in that the module assembly has upper and lower portions which come into contact with an inner side of the pack case . a module assembly including a plurality of secondary batteries , and a plurality of cartridges configured to be stacked with each other and configured to surround an outer circumference of the secondary batteries at an outer side, the plurality of cartridges being at least partially made of thermally-conductive material; and a pack case having an empty space therein to accommodate the module assembly , said pack case including an upper case and a lower case wherein the module assembly is accommodated in the inner space of the lower case and the upper case , and the lower case and the upper case are coupled to each other to configure the pack case and said pack case is at least partially made of thermally-conductive material to discharge heat of the module assembly , wherein the cartridge has a tetragonal ring shape to accommodate in an inner space thereof, and at least a part of an outer circumference of the secondary battery is adhered to an inner surface of the cartridge by means of an adhesive, and characterized in that the module assembly has upper and lower portions which come into contact with an inner side of the pack case .
A substrate for an organic electronic device, comprising: a base layer ; a high refractive layer that is on the base layer, that comprises a binder, of which a refractive index is 1.4 or more, and that comprises particles, of which a refractive index is more than 2.3 in an amount of from 60 to 300 parts by weight, relative to 100 parts by weight of the binder, and a scattering layer between and in the contact with the base layer and the high refractive layer, wherein the high refractive layer has a refractive index of 1.8 to 2.5. a base layer ; a high refractive layer that is on the base layer, that comprises a binder, of which a refractive index is 1.4 or more, and that comprises particles, of which a refractive index is more than 2.3 in an amount of from 60 to 300 parts by weight, relative to 100 parts by weight of the binder, and a scattering layer between and in the contact with the base layer and the high refractive layer, wherein the high refractive layer has a refractive index of 1.8 to 2.5.