mhurhangee/patent-ind-claim-en huggingface dataset:
Fastening arrangement for fastening a door hinge to a hollow-chamber profile comprising at least one plastic-profile chamber which comprises a reinforcing profile with at least one reinforcing wall , - having at least one mounting screw for fastening a door hinge part to the hollow-chamber profile , and - having at least one screw-in sleeve for holding the mounting screw , comprising -- an external thread portion for screwing into the hollow-chamber profile , and -- an internal thread portion for screwing in the mounting screw , - wherein the at least one mounting screw can be screwed into the screw-in sleeve , - wherein the mounting screw has a length (L MS ) which, in the mounting state, is greater than a distance (A AW ) between two reinforcing walls of the reinforcing profile which follow one another in the longitudinal direction of the mounting screw , characterized by - a dowel for stabilizing the mounting screw , wherein the dowel , in the mounted state, is arranged on the following reinforcing wall , and - at least two connection webs for connecting the screw-in sleeve to the dowel , wherein the connection webs are deformable. - having at least one mounting screw for fastening a door hinge part to the hollow-chamber profile , and - having at least one screw-in sleeve for holding the mounting screw , comprising -- an external thread portion for screwing into the hollow-chamber profile , and -- an internal thread portion for screwing in the mounting screw , -- an external thread portion for screwing into the hollow-chamber profile , and -- an internal thread portion for screwing in the mounting screw , - wherein the at least one mounting screw can be screwed into the screw-in sleeve , - wherein the mounting screw has a length (L MS ) which, in the mounting state, is greater than a distance (A AW ) between two reinforcing walls of the reinforcing profile which follow one another in the longitudinal direction of the mounting screw , - a dowel for stabilizing the mounting screw , wherein the dowel , in the mounted state, is arranged on the following reinforcing wall , and - at least two connection webs for connecting the screw-in sleeve to the dowel , wherein the connection webs are deformable.
A process for the manufacture of a heat strengthened glass substrate, comprising: - the application of a layer comprising a polymer, a "temporary layer", on a glass substrate comprising a glass sheet, the glass substrate comprising a functional coating comprising at least one metallic layer, the temporary layer being applied on the functional coating, the temporary layer having a thickness of between 1 and 100 micrometers, then - the application to the glass substrate coated with the temporary layer of a treatment for the heat strengthening of the glass comprising heating, leading to the removal of the temporary layer, and then cooling by blowing of air through nozzles. the normal emissivity of the substrate coated with the temporary layer is greater than the normal emissivity of the substrate before application of the temporary layer, the percentage of the glass substrate surface area exhibiting a retardation of less than 50 nm is greater than 60%. - the application of a layer comprising a polymer, a "temporary layer", on a glass substrate comprising a glass sheet, the glass substrate comprising a functional coating comprising at least one metallic layer, the temporary layer being applied on the functional coating, the temporary layer having a thickness of between 1 and 100 micrometers, then - the application to the glass substrate coated with the temporary layer of a treatment for the heat strengthening of the glass comprising heating, leading to the removal of the temporary layer, and then cooling by blowing of air through nozzles. the normal emissivity of the substrate coated with the temporary layer is greater than the normal emissivity of the substrate before application of the temporary layer, the percentage of the glass substrate surface area exhibiting a retardation of less than 50 nm is greater than 60%.
A method of maintaining artificial turf using a turf maintenance robot , wherein the artificial turf comprises an artificial turf carpet , wherein the artificial turf carpet comprises turf fibers which form an artificial turf surface , wherein the artificial turf fibers have a grain , wherein the artificial turf comprises artificial turf infill distributed between the artificial turf fibers, wherein the turf maintenance robot is a self driving robot, wherein the turf maintenance robot comprises a memory for storing turf grain data descriptive of the grain of the artificial turf fibers, the method comprising brushing the artificial turf surface by the turf maintenance robot, whereby the turf maintenance robot performs the brushing dependent upon the turf grain data, wherein the method further comprises: - controlling a drone to fly over the artificial turf and acquire artificial turf data descriptive of the artificial turf, wherein the drone comprises a sensor configured for acquiring the artificial turf data and wherein the artificial turf data comprises image data; - controlling the turf maintenance robot to perform maintenance on the artificial turf using the artificial turf data; - identifying at least one maintenance zone within the artificial turf by inputting the image data into an image classification module ; and - controlling the turf maintenance robot to perform maintenance on the at least one maintenance zone; wherein the image classification module is configured for identifying the at least one maintenance zone by detecting a pile direction pattern in the turf images. - controlling a drone to fly over the artificial turf and acquire artificial turf data descriptive of the artificial turf, wherein the drone comprises a sensor configured for acquiring the artificial turf data and wherein the artificial turf data comprises image data; - controlling the turf maintenance robot to perform maintenance on the artificial turf using the artificial turf data; - identifying at least one maintenance zone within the artificial turf by inputting the image data into an image classification module ; and - controlling the turf maintenance robot to perform maintenance on the at least one maintenance zone;
An intelligent screw nut , the screw nut being equipped with sensors and on the lateral surfaces of the screw nut , wherein strain gauges and are provided as sensors that are configured to measure the compression of the screw nut and are fixed to the lateral surfaces of the screw nut .
Mould for manufacturing products made of composite materials, which mould comprises at least one functional portion made of a single piece of a composite material with at least one interface made of a composite material which projects at least partially around the functional portion , wherein a plurality of bushings are incorporated in the mould , characterized in that these bushings are provided with an inner thread.
An integrin targeting agent comprising: (a) an integrin targeting moiety (ITM) comprising a molecule represented by Formula II: or Formula IV wherein Ar represents aryl or heteroaryl; R' is H or alkyl; a represents an integer from 0, 1, 2 or 3 and salts thereof; and (b) an imaging reporter chemically linked, optionally through a linker (L) moiety, to the integrin targeting moiety via the bond denoted as wherein said reporter is a fluorophore, a fluorochrome, an optical reporter, a magnetic reporter comprising a chelating agent, a radiolabel, an X-ray reporter, an ultrasound imaging reporter or a nanoparticle reporter. (a) an integrin targeting moiety (ITM) comprising a molecule represented by Formula II: or Formula IV wherein Ar represents aryl or heteroaryl; R' is H or alkyl; a represents an integer from 0, 1, 2 or 3 and salts thereof; and wherein Ar represents aryl or heteroaryl; R' is H or alkyl; a represents an integer from 0, 1, 2 or 3 and salts thereof; and (b) an imaging reporter chemically linked, optionally through a linker (L) moiety, to the integrin targeting moiety via the bond denoted as wherein said reporter is a fluorophore, a fluorochrome, an optical reporter, a magnetic reporter comprising a chelating agent, a radiolabel, an X-ray reporter, an ultrasound imaging reporter or a nanoparticle reporter.
A composition comprising 40 to 95 weight percent HFC-1234yf and 60 to 5 weight percent HFC-32.
A tool for manipulating a tubular in a downhole environment , the tool comprising: a housing defining a chamber , the chamber having at least one outlet , each outlet being sealed by an opening mechanism adapted to open when pressure inside the tool housing reaches a threshold pressure; a propellant source located within the chamber ; an ignition mechanism for igniting the propellant source ; and at least one modifying agent provided in or adjacent the tool or generated by the tool ; wherein upon ignition of the propellant source , the propellant source is adapted to deflagrate, creating at least one stream of combustion products , the chamber directing the stream of combustion products through the/each outlet when pressure inside the tool housing reaches the threshold pressure and operates the/or each opening mechanism, towards the tubular to be manipulated, the/each stream of combustion products combining with at least one modifying agent to manipulate the tubular . a housing defining a chamber , the chamber having at least one outlet , each outlet being sealed by an opening mechanism adapted to open when pressure inside the tool housing reaches a threshold pressure; a propellant source located within the chamber ; an ignition mechanism for igniting the propellant source ; and at least one modifying agent provided in or adjacent the tool or generated by the tool ; wherein upon ignition of the propellant source , the propellant source is adapted to deflagrate, creating at least one stream of combustion products , the chamber directing the stream of combustion products through the/each outlet when pressure inside the tool housing reaches the threshold pressure and operates the/or each opening mechanism, towards the tubular to be manipulated, the/each stream of combustion products combining with at least one modifying agent to manipulate the tubular .
Cable , comprising a first thimble and a second thimble , at least one yarn , and at least a first conductive fibre for monitoring the cable , wherein the first thimble and the second thimble are provided at opposite ends of the cable , the at least one yarn extends from the first thimble to the second thimble , turns around the second thimble , extends from the second thimble to the first thimble , and turns around the first thimble , such that the at least one yarn forms a turn around the first and second thimbles , and each thimble holds a stack of layers of turns of the at least one yarn , wherein an inside of the stack is defined as a side of a first layer of turns of the at least one yarn being closest to a centre of the respective thimble, an outside of the stack is defined as a side of a last layer of turns of the at least one yarn being farthest away of the centre of the respective thimble, and a stack height (h) is defined as the distance from the inside of the stack to the outside of the stack , characterised in that the first conductive fibre is different from the at least one yarn and designed to signal the wear of the at least one yarn by breaking after a predetermined portion of the turns of the at least one yarn breaks, the first conductive fibre is positioned in the stack of layers of the first thimble between the turns of the at least one yarn at a first predetermined height (h1) of the stack measured from the inside of the stack , and the first predetermined height (h1) is less than 50% of the stack height (h). the first thimble and the second thimble are provided at opposite ends of the cable , the at least one yarn extends from the first thimble to the second thimble , turns around the second thimble , extends from the second thimble to the first thimble , and turns around the first thimble , such that the at least one yarn forms a turn around the first and second thimbles , and each thimble holds a stack of layers of turns of the at least one yarn , wherein an inside of the stack is defined as a side of a first layer of turns of the at least one yarn being closest to a centre of the respective thimble, an outside of the stack is defined as a side of a last layer of turns of the at least one yarn being farthest away of the centre of the respective thimble, and a stack height (h) is defined as the distance from the inside of the stack to the outside of the stack , characterised in that the first conductive fibre is different from the at least one yarn and designed to signal the wear of the at least one yarn by breaking after a predetermined portion of the turns of the at least one yarn breaks, the first conductive fibre is positioned in the stack of layers of the first thimble between the turns of the at least one yarn at a first predetermined height (h1) of the stack measured from the inside of the stack , and the first predetermined height (h1) is less than 50% of the stack height (h).
A packet forwarding method, comprising: determining (S110) a forwarding type of a packet, and acquiring (S110) configuration information corresponding to the forwarding type, the configuration information comprising a comparison type and an offset address of at least one set of comparators; configuring (S120) the at least one set of comparators according to the comparison type; acquiring (S130) a comparison data source of the at least one set of comparators according to the offset address; and determining (S140) a forwarding rule of the packet according to the comparison type of the at least one set of comparators as configured and the comparison data source of the at least one set of comparators as configured. determining (S110) a forwarding type of a packet, and acquiring (S110) configuration information corresponding to the forwarding type, the configuration information comprising a comparison type and an offset address of at least one set of comparators; configuring (S120) the at least one set of comparators according to the comparison type; acquiring (S130) a comparison data source of the at least one set of comparators according to the offset address; and determining (S140) a forwarding rule of the packet according to the comparison type of the at least one set of comparators as configured and the comparison data source of the at least one set of comparators as configured.
An imaging method, performed by an imaging device according to claims 14-15, wherein, the method comprises the following steps: S1 (S101): determining a target by identifying target-related position information or characteristic information, the position information and the characteristic information are all predefined, the determination of the target is achieved by referring to a related image that has been obtained before; S2 (S102): implementing a two-dimensional scan of the target to collect image data of the target in a three-dimensional space; S3 (S103): during the scanning, processing the image data and relevant spatial information on a real-time basis, to obtain a plurality of image contents of the target, and displaying the image content on a real-time basis, the image content is a partial image of the target, and the real-time processing includes processing immediately after acquiring each image data, without waiting for all the images to be collected for processing; S4 (S104): arranging a plurality of image contents on an incremental sequence, to form a three-dimensional image of the target. S1 (S101): determining a target by identifying target-related position information or characteristic information, the position information and the characteristic information are all predefined, the determination of the target is achieved by referring to a related image that has been obtained before; S2 (S102): implementing a two-dimensional scan of the target to collect image data of the target in a three-dimensional space; S3 (S103): during the scanning, processing the image data and relevant spatial information on a real-time basis, to obtain a plurality of image contents of the target, and displaying the image content on a real-time basis, the image content is a partial image of the target, and the real-time processing includes processing immediately after acquiring each image data, without waiting for all the images to be collected for processing; S4 (S104): arranging a plurality of image contents on an incremental sequence, to form a three-dimensional image of the target.
Wound system comprising: (a) a first layer containing a first and a second substance, said first and second substances being spatially separated from each other and having a different standard potential E ° measured at 25°; 101.3 kPa, pH=0, ionic activity = 1; and (b) a second layer moistening the wound, wherein the first layer is a wound contact layer which is in direct contact with the wound. (a) a first layer containing a first and a second substance, said first and second substances being spatially separated from each other and having a different standard potential E ° measured at 25°; 101.3 kPa, pH=0, ionic activity = 1; and (b) a second layer moistening the wound,
A sensor element comprising: a laminate, in which a plurality of oxygen ion-conductive solid electrolyte layers are stacked and in which a measurement object-gas flow portion is disposed so as to introduce the gas to be measured from the outside; a porous cermet outside pump electrode disposed on the outside surface of the laminate; a porous cermet inside main pump electrode disposed on the inner circumferential surface of the measurement object-gas flow portion; a porous cermet inside auxiliary pump electrode disposed on the inner circumferential surface of the measurement object-gas flow portion and disposed on the side downstream from the inside main pump electrode in the flow of the gas to be measured; a porous cermet measurement electrode disposed on the inner circumferential surface of the measurement object-gas flow portion and disposed on the side downstream from the inside auxiliary pump electrode in the flow of the gas to be measured; and a reference electrode which is disposed in the laminate and to which a reference gas serving as the reference of detection of a specific gas concentration in the gas to be measured is introduced, characterized in that the value of the volume ratio Va is 14.5 or more and 51.5 or less and the value of the volume ratio Vb is 5.0 or more and 17.5 or less, where the volume ratios Va = Vm/Vr, Vb = Vs/Vr and the volume of the inside main pump electrode is specified as Vm, the volume of the inside auxiliary pump electrode is specified as Vs, and the volume of the measurement electrode is specified as Vr. a laminate, in which a plurality of oxygen ion-conductive solid electrolyte layers are stacked and in which a measurement object-gas flow portion is disposed so as to introduce the gas to be measured from the outside; a porous cermet outside pump electrode disposed on the outside surface of the laminate; a porous cermet inside main pump electrode disposed on the inner circumferential surface of the measurement object-gas flow portion; a porous cermet inside auxiliary pump electrode disposed on the inner circumferential surface of the measurement object-gas flow portion and disposed on the side downstream from the inside main pump electrode in the flow of the gas to be measured; a porous cermet measurement electrode disposed on the inner circumferential surface of the measurement object-gas flow portion and disposed on the side downstream from the inside auxiliary pump electrode in the flow of the gas to be measured; and a reference electrode which is disposed in the laminate and to which a reference gas serving as the reference of detection of a specific gas concentration in the gas to be measured is introduced, characterized in that the value of the volume ratio Va is 14.5 or more and 51.5 or less and the value of the volume ratio Vb is 5.0 or more and 17.5 or less, where the volume ratios Va = Vm/Vr, Vb = Vs/Vr and the volume of the inside main pump electrode is specified as Vm, the volume of the inside auxiliary pump electrode is specified as Vs, and the volume of the measurement electrode is specified as Vr.
System for guided hair removal using diode laser comprising: - a handpiece configured to perform a laser hair removal treatment on a portion of the skin of a user comprising: at least one position sensor ; at least one haptic transducer ; at least one couple of pressure sensors ; a camera configured to detect in real time skin features and imperfections; a display ; and an electronic control board connected to the at least one position sensor , to the at least one haptic transducer , to the at least one couple of pressure sensors , to the camera , to the display and configured to receive signals from the at least one position sensor and from the camera , and to locate the spatial position, the displacement vector and the speed of the handpiece during the laser hair removal treatment; and - a control unit comprising at least one laser diode ; characterized in that the control unit is connected to the handpiece through connection means comprising optical fibers configured for the transmission of a laser spot from said control unit to the handpiece , said at least one couple of pressure sensors being configured to activate a laser emission on the portion of the skin of the user to be treated, said laser emission having an intensity directly proportional to the pressure level exercised by an operator, and said display being configured to visualize the graphical plot of the displacement vector and the position of the handpiece during the execution of the laser hair removal treatment. - a handpiece configured to perform a laser hair removal treatment on a portion of the skin of a user comprising: at least one position sensor ; at least one haptic transducer ; at least one couple of pressure sensors ; a camera configured to detect in real time skin features and imperfections; a display ; and an electronic control board connected to the at least one position sensor , to the at least one haptic transducer , to the at least one couple of pressure sensors , to the camera , to the display and configured to receive signals from the at least one position sensor and from the camera , and to locate the spatial position, the displacement vector and the speed of the handpiece during the laser hair removal treatment; and - a control unit comprising at least one laser diode ;
A touch substrate comprising: a first touch electrode connected to a first touch signal line ; a second touch signal line connected to a second touch electrode, wherein the second touch signal line is not connected to the first touch electrode , and the second touch signal line has a first portion which overlaps with the first touch electrode ; and a first shield electrode positioned between the first touch electrode and the second touch signal line , and configured to electrically shield the first touch electrode from the overlapping second touch signal line , wherein the first shield electrode is connected to the first touch electrode through a via,; and the touch substrate further comprises a substrate , wherein a pixel electrode layer comprising a pixel electrode and the first shield electrode ; wherein the second touch signal line , the pixel electrode , the first touch electrode are sequentially arranged on the substrate along a direction away from the substrate , and the first shield electrode is disposed spaced apart from the pixel electrode .