mhurhangee/patent-ind-claim-en huggingface dataset:
A semiconductor transistor device having a source region , a body region comprising a vertical channel region (3.1), a drain region , a gate region laterally aside the channel region (3.1), a body contact region formed by doping, a diffusion barrier structure comprising a vertical diffusion barrier layer (20.1) extending vertically, and a conductive region formed of a conductive material, wherein the body contact region electrically contacts the body region , the vertical diffusion barrier layer (20.1) being arranged in between, and wherein the doping of the body contact region is of the same conductivity type but of higher concentration than a doping of the body region , and wherein the conductive region has a contact area (8.1), which forms an electrical contact towards the body contact region , the contact area (8.1) of the conductive region being arranged vertically above an upper end (25.1) of the channel region (3.1), characterized in that the diffusion barrier structure comprises additionally a horizontal diffusion barrier layer (20.2), wherein the diffusion barrier layers (20.1, 20.2) comprise alternating sublayers of Si and oxygen-doped Si. a source region , a body region comprising a vertical channel region (3.1), a drain region , a gate region laterally aside the channel region (3.1), a body contact region formed by doping, a diffusion barrier structure comprising a vertical diffusion barrier layer (20.1) extending vertically, and a conductive region formed of a conductive material, wherein the body contact region electrically contacts the body region , the vertical diffusion barrier layer (20.1) being arranged in between, and wherein the doping of the body contact region is of the same conductivity type but of higher concentration than a doping of the body region , and wherein the conductive region has a contact area (8.1), which forms an electrical contact towards the body contact region , the contact area (8.1) of the conductive region being arranged vertically above an upper end (25.1) of the channel region (3.1), characterized in that the diffusion barrier structure comprises additionally a horizontal diffusion barrier layer (20.2), wherein the diffusion barrier layers (20.1, 20.2) comprise alternating sublayers of Si and oxygen-doped Si.
A light emitting diode (LED) transfer device comprising: a transfer part configured to transfer a plurality of LEDs arranged on a first substrate to a relay substrate ; a memory configured to store characteristic information of each of the plurality of LEDs ; and a processor configured to: determine arrangement locations of each of the plurality of LEDs on the relay substrate based on the stored characteristic information, and control the transfer part to transfer the plurality of LEDs to the determined arrangement locations, and wherein the processor is further configured to: divide the relay substrate into a plurality of second areas (Q1 - Q5), and determine the arrangement locations of each of the plurality of LEDs on the relay substrate such that the output characteristics of the plurality of second areas (Q1 - Q5) are uniform, based on the stored characteristic information. a transfer part configured to transfer a plurality of LEDs arranged on a first substrate to a relay substrate ; a memory configured to store characteristic information of each of the plurality of LEDs ; and a processor configured to: determine arrangement locations of each of the plurality of LEDs on the relay substrate based on the stored characteristic information, and control the transfer part to transfer the plurality of LEDs to the determined arrangement locations, and wherein the processor is further configured to: divide the relay substrate into a plurality of second areas (Q1 - Q5), and determine the arrangement locations of each of the plurality of LEDs on the relay substrate such that the output characteristics of the plurality of second areas (Q1 - Q5) are uniform, based on the stored characteristic information. determine arrangement locations of each of the plurality of LEDs on the relay substrate based on the stored characteristic information, and control the transfer part to transfer the plurality of LEDs to the determined arrangement locations, and wherein the processor is further configured to: divide the relay substrate into a plurality of second areas (Q1 - Q5), and determine the arrangement locations of each of the plurality of LEDs on the relay substrate such that the output characteristics of the plurality of second areas (Q1 - Q5) are uniform, based on the stored characteristic information. divide the relay substrate into a plurality of second areas (Q1 - Q5), and determine the arrangement locations of each of the plurality of LEDs on the relay substrate such that the output characteristics of the plurality of second areas (Q1 - Q5) are uniform, based on the stored characteristic information.
A rubber composition for a tire comprising: a diene-based rubber component; a foaming agent generating carbon dioxide; a fatty acid metal salt; and urea, wherein the diene-based rubber component comprises at least one selected from natural rubber and butadiene rubber, a content of the foaming agent is 0.1 parts to 20 parts by mass with respect to 100 parts by mass the diene-based rubber component, a total content of the fatty acid metal salt and the urea is 0.1 parts to 20 parts by mass with respect to 100 parts by mass the diene-based rubber component, and a mass ratio of the fatty acid metal salt and the urea is 1:0.5 to 1:3.9. a diene-based rubber component; a foaming agent generating carbon dioxide; a fatty acid metal salt; and urea, wherein the diene-based rubber component comprises at least one selected from natural rubber and butadiene rubber, a content of the foaming agent is 0.1 parts to 20 parts by mass with respect to 100 parts by mass the diene-based rubber component, a total content of the fatty acid metal salt and the urea is 0.1 parts to 20 parts by mass with respect to 100 parts by mass the diene-based rubber component, and a mass ratio of the fatty acid metal salt and the urea is 1:0.5 to 1:3.9.
A lighting device comprising: - a support structure extending from a heat sink and comprising a mounting section with a central mounting face (14.2) and first and second lateral mounting faces (14.1, 14.3), wherein each of the first and second lateral mounting faces (14.1, 14.3) is adjacent to the central mounting face (14.2) and forms an angle with the central mounting face (14.1); - a first arrangement of at least two light emitting elements (21.1, ..., 21.5) arranged along a mounting direction on the central mounting face (14.2); - a second arrangement of at least two light emitting elements (20.1, ..., 20.5) arranged along the mounting direction on the first lateral mounting face (14.1); - a third arrangement of at least two light emitting elements (22.1, ..., 22.5) arranged along the mounting direction on the second lateral mounting face (14.3); and - at least one first heat dissipation member extending from an outer face (11a.1, 11a.3) of the support structure comprising a respective one of the first and the second lateral mounting face (14.1, 14.3), the at least one first heat dissipation member comprising an inclined surface which is inclined with respect to the respective one of the first and the second lateral mounting faces (14.1, 14.3) such that a thickness of the at least one first heat dissipation member increases along a direction away from the mounting section , characterized in that the at least one first heat dissipation member is a separate member. - a support structure extending from a heat sink and comprising a mounting section with a central mounting face (14.2) and first and second lateral mounting faces (14.1, 14.3), wherein each of the first and second lateral mounting faces (14.1, 14.3) is adjacent to the central mounting face (14.2) and forms an angle with the central mounting face (14.1); - a first arrangement of at least two light emitting elements (21.1, ..., 21.5) arranged along a mounting direction on the central mounting face (14.2); - a second arrangement of at least two light emitting elements (20.1, ..., 20.5) arranged along the mounting direction on the first lateral mounting face (14.1); - a third arrangement of at least two light emitting elements (22.1, ..., 22.5) arranged along the mounting direction on the second lateral mounting face (14.3); and - at least one first heat dissipation member extending from an outer face (11a.1, 11a.3) of the support structure comprising a respective one of the first and the second lateral mounting face (14.1, 14.3), the at least one first heat dissipation member comprising an inclined surface which is inclined with respect to the respective one of the first and the second lateral mounting faces (14.1, 14.3) such that a thickness of the at least one first heat dissipation member increases along a direction away from the mounting section ,
A method for producing a glass sheet , said method comprising the steps of: causing the glass sheet to travel in a traveling direction; separating the glass sheet which is moving using a scoreless separation device which comprises a separation mechanism that generates a stress profile within the moving glass sheet that produces a crack in a predefined location within the moving glass sheet to shear off an edge of the moving glass sheet ; breaking and collecting the edge , which is performed after the edge has been sheared off of the moving glass sheet ; directing the edge after it has been sheared off of the moving glass sheet and before it is broken and collected; and winding the remaining portion of the moving glass sheet onto a take-up roller . causing the glass sheet to travel in a traveling direction; separating the glass sheet which is moving using a scoreless separation device which comprises a separation mechanism that generates a stress profile within the moving glass sheet that produces a crack in a predefined location within the moving glass sheet to shear off an edge of the moving glass sheet ; breaking and collecting the edge , which is performed after the edge has been sheared off of the moving glass sheet ; directing the edge after it has been sheared off of the moving glass sheet and before it is broken and collected; and winding the remaining portion of the moving glass sheet onto a take-up roller .
Electric motor having a stator and a moving component , wherein the moving component comprises an iron-based soft-magnetic structural material , wherein the soft-magnetic structural material - includes crystallites of a ferromagnetic iron-based alloy separated by grain boundaries , - wherein there is interlayer-free contact between the crystallites at grain boundaries and - the structural material contains ceramic fibers , - wherein the fiber content is between 0.2% by volume and 0.5% by volume, and - the aspect ratio of the fibers is less than 0.1. - includes crystallites of a ferromagnetic iron-based alloy separated by grain boundaries , - wherein there is interlayer-free contact between the crystallites at grain boundaries and - the structural material contains ceramic fibers , - wherein the fiber content is between 0.2% by volume and 0.5% by volume, and - the aspect ratio of the fibers is less than 0.1.
A method comprising: receiving , from a client device , a request to generate a combined listing for a physical item and a digital twin non-fungible token, NFT, of the physical item , the request indicating that the physical item corresponds to an authentic physical item; outputting , at the client device , a fingerprinting interface providing instructions for capturing one or more features of the physical item used to verify that the physical item corresponds to the authentic physical item; capturing the one or more features of the physical item using a fingerprint capture system of the client device according to the instructions; generating a fingerprint of the physical item using the captured one or more features of the physical item ; transmitting , by the client device , the fingerprint of the physical item to an authentication service via a network to verify that the physical item corresponds to the authentic physical item by matching the fingerprint of the physical item to distinguishing features of the authentic physical item; receiving a response from the authentication service via the network verifying that the physical item corresponds to the authentic physical item; causing minting of the digital twin NFT on a blockchain , the minting including creating the digital twin NFT on the blockchain and programmatically encoding an association of metadata with the digital twin NFT , the metadata including the matched fingerprint and digital content of the physical item; and generating the combined listing for the physical item and the digital twin NFT on a listing platform . receiving , from a client device , a request to generate a combined listing for a physical item and a digital twin non-fungible token, NFT, of the physical item , the request indicating that the physical item corresponds to an authentic physical item; outputting , at the client device , a fingerprinting interface providing instructions for capturing one or more features of the physical item used to verify that the physical item corresponds to the authentic physical item; capturing the one or more features of the physical item using a fingerprint capture system of the client device according to the instructions; generating a fingerprint of the physical item using the captured one or more features of the physical item ; transmitting , by the client device , the fingerprint of the physical item to an authentication service via a network to verify that the physical item corresponds to the authentic physical item by matching the fingerprint of the physical item to distinguishing features of the authentic physical item; receiving a response from the authentication service via the network verifying that the physical item corresponds to the authentic physical item; causing minting of the digital twin NFT on a blockchain , the minting including creating the digital twin NFT on the blockchain and programmatically encoding an association of metadata with the digital twin NFT , the metadata including the matched fingerprint and digital content of the physical item; and generating the combined listing for the physical item and the digital twin NFT on a listing platform .
Piece of furniture in which a washing machine can be placed, comprising: - two substantially vertical side walls , - a substantially horizontal bottom wall , - a substantially horizontal top wall , and - a substantially horizontal carrier for the washing machine , placed between the bottom wall and the top wall , wherein the side walls are placed on top of the bottom wall and wherein the carrier is fixed at a distance above the bottom wall , thus forming a storage space between the bottom wall and the carrier characterized in that one or more support means for transmitting vertical forces are placed between the bottom wall and the carrier ; in that the support means are plate-like and placed substantially parallel to the side walls and/or the rear side; and in that a retaining member is arranged at a front side of the carrier , wherein the retaining member is formed by an L-shaped metal strip having an upright leg extending in front of the carrier , and a horizontal leg extending below the carrier , and wherein the horizontal leg is fixedly connected to the carrier by a number of connectors , e.g. screws. - two substantially vertical side walls , - a substantially horizontal bottom wall , - a substantially horizontal top wall , and - a substantially horizontal carrier for the washing machine , placed between the bottom wall and the top wall , wherein the side walls are placed on top of the bottom wall and wherein the carrier is fixed at a distance above the bottom wall , thus forming a storage space between the bottom wall and the carrier characterized in that one or more support means for transmitting vertical forces are placed between the bottom wall and the carrier ; in that the support means are plate-like and placed substantially parallel to the side walls and/or the rear side; and in that a retaining member is arranged at a front side of the carrier , wherein the retaining member is formed by an L-shaped metal strip having an upright leg extending in front of the carrier , and a horizontal leg extending below the carrier , and wherein the horizontal leg is fixedly connected to the carrier by a number of connectors , e.g. screws. wherein the side walls are placed on top of the bottom wall and wherein the carrier is fixed at a distance above the bottom wall , thus forming a storage space between the bottom wall and the carrier characterized in that one or more support means for transmitting vertical forces are placed between the bottom wall and the carrier ; in that the support means are plate-like and placed substantially parallel to the side walls and/or the rear side; and in that a retaining member is arranged at a front side of the carrier , wherein the retaining member is formed by an L-shaped metal strip having an upright leg extending in front of the carrier , and a horizontal leg extending below the carrier , and wherein the horizontal leg is fixedly connected to the carrier by a number of connectors , e.g. screws.
Harmonic pin drive (600-Fig.68) comprising - an outer ring gear with inner teeth that are adapted to the shape of pins of a pin ring , a transmitter for connecting to a rotor of an electric motor, - an output shaft for receiving a rotation of the outer ring gear , - a ball bearing that is supported on the transmitter , - an arrangement of flexible means , the flexible means comprising openings for inserting pins of the pin ring , characterized in that the flexible means are distributed essentially on the circumference of a circle and the flexible means are provided for attachment to a casing. - an outer ring gear with inner teeth that are adapted to the shape of pins of a pin ring , a transmitter for connecting to a rotor of an electric motor, - an output shaft for receiving a rotation of the outer ring gear , - a ball bearing that is supported on the transmitter , - an arrangement of flexible means , the flexible means comprising openings for inserting pins of the pin ring , characterized in that the flexible means are distributed essentially on the circumference of a circle and the flexible means are provided for attachment to a casing.
A stiffening structure for a pop-up roof of a recreational vehicle , having a profile for mounting to a long side of a bodywork and for mounting to a roof panel , the profile having: a first mounting means for mounting to the long side of the bodywork ; and a second mounting means for mounting to the roof panel , wherein the second mounting means is attached to the profile at a position opposite the first mounting means , characterized in that the first mounting means has a second chamber-like profile section , the underside of which is designed and adapted such that it can be attached to the bodywork , in particular by adhesive bonding. a first mounting means for mounting to the long side of the bodywork ; and a second mounting means for mounting to the roof panel , wherein the second mounting means is attached to the profile at a position opposite the first mounting means , characterized in that the first mounting means has a second chamber-like profile section , the underside of which is designed and adapted such that it can be attached to the bodywork , in particular by adhesive bonding.
A device for in-line quality control for plastic materials during the production process, comprising at least two different measuring instruments selected from the group of measuring instruments for determining the rheological properties, measuring instruments for color measurement, measuring instruments for detecting inclusions and gel particles and the like, measuring instruments for assessing the optical properties and measuring instruments for determining the mechanical parameters, examination of the olfactory parameters, wherein the device has an installation for removing plastic melt from the production extruder, an installation for forming a flat film from this plastic melt, and installations for transporting the flat film to the measuring devices and for finishing the flat film, wherein the device is coupled to a side branch of the extruder via an adapter and the removal of the plastic melt is performed after opening a valve, and the removal of the plastic melt is performed by means of a displacement body which is positioned in the melt flow and around which the melt is directed to a bore in the cylinder housing of the extruder. an installation for removing plastic melt from the production extruder, an installation for forming a flat film from this plastic melt, and installations for transporting the flat film to the measuring devices and for finishing the flat film, wherein the device is coupled to a side branch of the extruder via an adapter and the removal of the plastic melt is performed after opening a valve, and the removal of the plastic melt is performed by means of a displacement body which is positioned in the melt flow and around which the melt is directed to a bore in the cylinder housing of the extruder.
A process for manufacturing a micromirror device in MEMS technology, comprising the steps of: forming a buried cavity in a monolithic body of semiconductor material having a first and a second main surfaces , the buried cavity delimiting at the bottom a suspended membrane arranged between the buried cavity and the first main surface ; defining the suspended membrane to form a supporting frame and a mobile mass carried by the supporting frame and rotatable about an axis (C) parallel to the first main surface ; forming an electrical insulating region extending peripherally around the membrane , along a line electrically separating the supporting frame from a fixed supporting region , from the first main surface of the monolithic body up to the cavity , wherein forming an electrical insulating region comprises: forming a plurality of holes in the membrane , the holes extending from the first main surface to the buried cavity and spaced from each other by suspension bridges ; and completely thermally oxidizing the suspension bridges ; and forming a reflecting region on top of the mobile mass. forming a buried cavity in a monolithic body of semiconductor material having a first and a second main surfaces , the buried cavity delimiting at the bottom a suspended membrane arranged between the buried cavity and the first main surface ; defining the suspended membrane to form a supporting frame and a mobile mass carried by the supporting frame and rotatable about an axis (C) parallel to the first main surface ; forming an electrical insulating region extending peripherally around the membrane , along a line electrically separating the supporting frame from a fixed supporting region , from the first main surface of the monolithic body up to the cavity , wherein forming an electrical insulating region comprises: forming a plurality of holes in the membrane , the holes extending from the first main surface to the buried cavity and spaced from each other by suspension bridges ; and completely thermally oxidizing the suspension bridges ; and forming a reflecting region on top of the mobile mass. forming a plurality of holes in the membrane , the holes extending from the first main surface to the buried cavity and spaced from each other by suspension bridges ; and completely thermally oxidizing the suspension bridges ; and forming a reflecting region on top of the mobile mass.