mhurhangee/ep-ind-claims huggingface dataset:
Electrical switching device including: - a supporting base including a swivel pin about which a cam swivels, - a first drive arm having one drive end coupled to the cam in order to swivel said cam relative to the base about the swivel pin, - a second arm for electrical switching by linear driving along an axis of said arm, - said second arm having: a) a first end provided with a male electrical connector designed to be inserted into or removed from a female electrical connector, and b) a second end driven by swivelling the cam by means of a sliding coupling, said coupling including a first slide rigidly connected to the second end of the second arm and sliding in a first curved track of the cam, - the drive end of the first drive arm of the cam forms a sliding coupling means, said coupling including a second slide rigidly connected to said end of the first arm and sliding in a second track of the cam, characterised in that the second track includes a linear track portion having a main axis passing through the swivel point of the cam, and the first and second tracks describe a question-mark shape (?), the dot of which is oblong. - a supporting base including a swivel pin about which a cam swivels, - a first drive arm having one drive end coupled to the cam in order to swivel said cam relative to the base about the swivel pin, - a second arm for electrical switching by linear driving along an axis of said arm, - said second arm having: a) a first end provided with a male electrical connector designed to be inserted into or removed from a female electrical connector, and b) a second end driven by swivelling the cam by means of a sliding coupling, said coupling including a first slide rigidly connected to the second end of the second arm and sliding in a first curved track of the cam, a) a first end provided with a male electrical connector designed to be inserted into or removed from a female electrical connector, and b) a second end driven by swivelling the cam by means of a sliding coupling, said coupling including a first slide rigidly connected to the second end of the second arm and sliding in a first curved track of the cam, - the drive end of the first drive arm of the cam forms a sliding coupling means, said coupling including a second slide rigidly connected to said end of the first arm and sliding in a second track of the cam,
A window or a door comprising a glass removal sensor for detecting removal of a glass unit of the window or door having a glass pane and optionally a glass frame, said glass removal sensor comprising: - a sensor assembly comprising a capacitive sensor; a first conductive area in connection with the capacitive sensor; and a second conductive area; - at least a first conductive element connected, directly or indirectly, between the first conductive area of the sensor assembly, the second conductive area of the sensor assembly and the glass unit of the window or door such that when the glass unit is removed from a sash of the window or door it causes a change of capacitance in the first conductive area relative to the second conductive area of the sensor assembly; wherein the sensor assembly is configured to detect the removal of the glass unit from the sash of the window or door as the change of capacitance detected by the capacitive sensor, characterised in that the sensor assembly further comprises: - at least a first wire attachable, directly or indirectly, between the first conductive element and the glass unit of the window or door such that when the glass unit is removed from the sash, it causes a change of capacitance in the first conductive area, wherein the first wire is attached to the glass unit, optionally attached to an attachment element attached to the glass unit, and configured such that when the glass unit is removed from the sash, the first conductive element is pulled away from the first conductive area and the second conductive area. - a sensor assembly comprising a capacitive sensor; a first conductive area in connection with the capacitive sensor; and a second conductive area; - at least a first conductive element connected, directly or indirectly, between the first conductive area of the sensor assembly, the second conductive area of the sensor assembly and the glass unit of the window or door such that when the glass unit is removed from a sash of the window or door it causes a change of capacitance in the first conductive area relative to the second conductive area of the sensor assembly; wherein the sensor assembly is configured to detect the removal of the glass unit from the sash of the window or door as the change of capacitance detected by the capacitive sensor, - at least a first wire attachable, directly or indirectly, between the first conductive element and the glass unit of the window or door such that when the glass unit is removed from the sash, it causes a change of capacitance in the first conductive area, wherein the first wire is attached to the glass unit, optionally attached to an attachment element attached to the glass unit, and configured such that when the glass unit is removed from the sash, the first conductive element is pulled away from the first conductive area and the second conductive area.
A brake-pad wear-measurement system for a brake, comprising at least one brake pad (3, 3') having a pad back plate (3a, 3'a) to which a friction mass (3b, 3'b) is fitted, and an evaluation unit, the evaluation unit of the brake-pad wear-measurement system (6, 6') having a first measuring device, this first measuring device cooperating with the friction mass (3b, 3'b) of the at least one brake pad (3, 3') and indirectly ascertaining a brake-pad thickness (h) of the friction mass (3b, 3'b) of the at least one brake pad (3, 3'), characterised in that the first measuring device is electro-conductively connected to the friction mass (3b, 3'b) of the at least one brake pad (3, 3'), is designed as a resistance meter and indirectly ascertains the brake-pad thickness (h) of the friction mass (3b, 3'b) of the at least one brake pad (3, 3') by measuring an electrical resistance (R1, R'1) of the friction mass (3b, 3'b), the first measuring device being electro-conductively connected to the friction mass (3b, 3'b) of the at least one brake pad (3, 3') via at least two electroconductive contact strips (7, 8 and 9, 10). the evaluation unit of the brake-pad wear-measurement system (6, 6') having a first measuring device, this first measuring device cooperating with the friction mass (3b, 3'b) of the at least one brake pad (3, 3') and indirectly ascertaining a brake-pad thickness (h) of the friction mass (3b, 3'b) of the at least one brake pad (3, 3'), characterised in that the first measuring device is electro-conductively connected to the friction mass (3b, 3'b) of the at least one brake pad (3, 3'), is designed as a resistance meter and indirectly ascertains the brake-pad thickness (h) of the friction mass (3b, 3'b) of the at least one brake pad (3, 3') by measuring an electrical resistance (R1, R'1) of the friction mass (3b, 3'b), the first measuring device being electro-conductively connected to the friction mass (3b, 3'b) of the at least one brake pad (3, 3') via at least two electroconductive contact strips (7, 8 and 9, 10).
An image generation device that is configured to generate an output image based on an input image captured by a camera attachable to an operation target body, comprising: an output image generation unit that is configured to associate a value of an input pixel in an input image plane where the input image is positioned with a value of an output pixel in an output image plane where the output image is positioned to generate the output image, wherein, when coordinate values for specifying a pixel on the input image and coordinate values for specifying a pixel on the output image are represented as integer values, a value of an output pixel specified by an integer coordinate point on the output image plane is determined based on values of two input pixels specified by two integer coordinate points selected from four integer coordinate points in the vicinity of a real number coordinate point on the input image plane corresponding to the integer coordinate point on the output image plane. an output image generation unit that is configured to associate a value of an input pixel in an input image plane where the input image is positioned with a value of an output pixel in an output image plane where the output image is positioned to generate the output image, wherein, when coordinate values for specifying a pixel on the input image and coordinate values for specifying a pixel on the output image are represented as integer values, a value of an output pixel specified by an integer coordinate point on the output image plane is determined based on values of two input pixels specified by two integer coordinate points selected from four integer coordinate points in the vicinity of a real number coordinate point on the input image plane corresponding to the integer coordinate point on the output image plane.
Grid control system (200, 300, 700, 1000) for at least one electrical grid (202, 302, 702), comprising: - at least one peer-to-peer network (216, 316, 716, 1016) comprising at least one peer-to-peer application (220, 320, 720, 920), - characterized in that the peer-to-peer application (220, 320, 720, 920) comprises at least one detecting means (222, 922) in form of a code executable by at least two of the nodes (218, 318, 718, 1008, 1010, 1012, 1018, 1044) of the peer-to-peer network (216, 316, 716, 1016) and configured to detect at least one first peer-to-peer module (226, 326, 726) assigned to at least one controllable electrical device (210, 310, 312, 710, 712) upon a connection of the controllable electrical device (210, 310, 312, 710, 712) with the electrical grid (202, 302, 702), - wherein the first peer-to-peer module (226, 326, 726) is configured to communicate with the peer-to-peer application (220, 320, 720, 920), and - wherein the peer-to-peer application (220, 320, 720, 920) comprises at least one registering means (224, 924) in form of code executable by at least two of the nodes (218, 318, 718, 1008, 1010, 1012, 1018, 1044) of the peer-to-peer network (216, 316, 716, 1016) and configured to store at least one identifier assigned to the detected controllable electrical device (210, 310, 312, 710, 712) and at least one switching pattern of the detected controllable electrical device (210, 310, 312, 710, 712). - at least one peer-to-peer network (216, 316, 716, 1016) comprising at least one peer-to-peer application (220, 320, 720, 920), - characterized in that the peer-to-peer application (220, 320, 720, 920) comprises at least one detecting means (222, 922) in form of a code executable by at least two of the nodes (218, 318, 718, 1008, 1010, 1012, 1018, 1044) of the peer-to-peer network (216, 316, 716, 1016) and configured to detect at least one first peer-to-peer module (226, 326, 726) assigned to at least one controllable electrical device (210, 310, 312, 710, 712) upon a connection of the controllable electrical device (210, 310, 312, 710, 712) with the electrical grid (202, 302, 702), - wherein the first peer-to-peer module (226, 326, 726) is configured to communicate with the peer-to-peer application (220, 320, 720, 920), and - wherein the peer-to-peer application (220, 320, 720, 920) comprises at least one registering means (224, 924) in form of code executable by at least two of the nodes (218, 318, 718, 1008, 1010, 1012, 1018, 1044) of the peer-to-peer network (216, 316, 716, 1016) and configured to store at least one identifier assigned to the detected controllable electrical device (210, 310, 312, 710, 712) and at least one switching pattern of the detected controllable electrical device (210, 310, 312, 710, 712).
A computer configured to execute an Allreduce collective, the computer comprising a plurality of interconnected processing nodes (N51-N59; N510-N512; N61; N62; N63) arranged in a configuration of multiple stacked layers of processing nodes forming a multi-face prism; wherein each face of the prism comprises multiple stacked pairs of processing nodes (N51; N52; N54; N56; N57; N59; N510; N511; N61; N62), wherein the processing nodes of each pair are connected by at least two intralayer links (L1,L2), and the processing node of each pair is connected to a corresponding processing node in an adjacent pair by at least one interlayer link; wherein the corresponding processing nodes (N53;,N55; N 58,N512) are connected by respective interlayer links to form respective edges of the configuration; and wherein each pair of processing nodes forms part of one of the layers of the configuration, each layer comprising multiple processing nodes, each processing node connected to their neighbouring processing nodes in the layer by at least one of the intralayer links to form a ring; wherein the multiple stacked layers comprise first and second endmost layers, and at least one intermediate layer, wherein the processing nodes are programmed to operate the configuration to transmit data simultaneously around each of a plurality of embedded logical paths (R1; R2; R3) formed by the processing nodes and links, each embedded logical path having a first portion along which data is transmitted between the first and second endmost layers using all the processing nodes of the pairs in one of the faces of the configuration only once, and a second portion along which data is transmitted between the second and first endmost layers which form one of the edges of the configuration. wherein the multiple stacked layers comprise first and second endmost layers, and at least one intermediate layer, wherein the processing nodes are programmed to operate the configuration to transmit data simultaneously around each of a plurality of embedded logical paths (R1; R2; R3) formed by the processing nodes and links, each embedded logical path having a first portion along which data is transmitted between the first and second endmost layers using all the processing nodes of the pairs in one of the faces of the configuration only once, and a second portion along which data is transmitted between the second and first endmost layers which form one of the edges of the configuration.
A face identification sensor, face ID sensor 410 comprising: an imaging lens 416 and a photodetector 418, wherein the imaging lens 416 comprising: a transparent slab and a half-ball lens, the combination of the half-ball lens and the transparent slab is configured to form a modulated image having image aberrations of an object, and the object comprises facial signatures of a user, the modulated image is configured to extract the facial signatures; the transparent slab having a first surface facing the object, and a second surface opposite to the first surface; and the half-ball lens attached to the second surface of the transparent slab; and the photodetector positioned substantially at a focal plane of the imaging lens 416 and configured to convert optical signals of the modulated image into electrical signals. an imaging lens 416 and a photodetector 418, wherein the imaging lens 416 comprising: a transparent slab and a half-ball lens, the combination of the half-ball lens and the transparent slab is configured to form a modulated image having image aberrations of an object, and the object comprises facial signatures of a user, the modulated image is configured to extract the facial signatures; the transparent slab having a first surface facing the object, and a second surface opposite to the first surface; and the half-ball lens attached to the second surface of the transparent slab; and the photodetector positioned substantially at a focal plane of the imaging lens 416 and configured to convert optical signals of the modulated image into electrical signals.
A method for handling latency performed in a node (12, 15 1, 15 2, 15 3,..., 15 n) of a distributed cloud, the node (12, 15 1, 15 2, 15 3,..., 15 n) being configured to handle a subset of media processing required by a media service and the distributed cloud comprising two or more such nodes (12, 15 1, 15 2, 15 3,..., 15 n), wherein a communication path for the media service is configured between at least a first and a second communication device (14 1, 14 2), the media service being provided by media streams comprising media packets and the communication path involving two or more of the nodes (12, 15 1, 15 2, 15 3,..., 15 n), the method characterized by: - determining processing delay of processing a media packet in the node (12, 15 1, 15 2, 15 3,..., 15 n), the processing delay constituting a first delay contribution, - attaching metadata to the media packet, the metadata comprising information about the first delay contribution added to any accumulated delay contributions experienced by the media packet along the communication path. - determining processing delay of processing a media packet in the node (12, 15 1, 15 2, 15 3,..., 15 n), the processing delay constituting a first delay contribution, - attaching metadata to the media packet, the metadata comprising information about the first delay contribution added to any accumulated delay contributions experienced by the media packet along the communication path.
A cable wall pass-through, with - a housing component which can be mounted at a housing wall in the area of a wall aperture and which has a recess for guiding cables through the housing member; and - bridges which are formed integrally at the housing component and with which a plurality of openings separated by means of the bridges are formed in the recess, wherein the openings are configured to respectively receive one or more sealing elements with which a cable pass-through for at least one of the cables is provided, characterized by a closure component which closes at least one of the openings and is arranged via one or more predetermined breaking points on the housing component and/or the bridges, wherein the closure component can be detached from the housing component and/or the bridges by separating the one or more predetermined breaking points in order to uncover the at least one opening. - a housing component which can be mounted at a housing wall in the area of a wall aperture and which has a recess for guiding cables through the housing member; and - bridges which are formed integrally at the housing component and with which a plurality of openings separated by means of the bridges are formed in the recess, wherein the openings are configured to respectively receive one or more sealing elements with which a cable pass-through for at least one of the cables is provided,
A diol compound represented by the following Chemical Formula 1: in Chemical Formula 1, X is -O- or -S-, R is C 6-60 arylene unsubstituted or substituted with C 1-10 alkyl, and n is an integer of 1 to 100. X is -O- or -S-, R is C 6-60 arylene unsubstituted or substituted with C 1-10 alkyl, and n is an integer of 1 to 100.
An impact-resistant methyl methacrylate resin composition having excellent scratch resistance, comprising a PMMA-based resin containing 10 to 50weight% of an impact modifier and 0.5 to 5 parts by weight of a siloxane compound having a structure of Formula 1 below based on 100 parts by weight of the PMMA-based resin (in Formula 1, R 1, R 2, R 3 and R 4 are independently alkylene having 1 to 5 carbon atoms; and m and n are independently an integer of 1 or more.)
A method for performing whole genome sequencing, the method comprising: providing a cell and reagents within a first droplet, the reagents comprising a lysing reagent and a protease; lysing the cell using the lysing reagent within the first droplet; releasing genomic DNA using the protease within the first droplet by exposing the first droplet to a temperature between 30°C and 60°C; tagmenting, in either the first droplet or a second droplet, the released genomic DNA by: using a transposase at a temperature between 35°C and 55°C, cleaving the released genomic and incorporating adaptor sequences into the released genomic DNA; and filling in one or more gaps in the released genomic DNA created by incorporating the adaptor sequences at a temperature between 40°C and 100°C, optionally using either a reverse transcriptase or DNA polymerase to fill in the one or more gaps; and amplifying, in the second droplet, the tagmented genomic DNA to generate whole genome amplicons. providing a cell and reagents within a first droplet, the reagents comprising a lysing reagent and a protease; lysing the cell using the lysing reagent within the first droplet; releasing genomic DNA using the protease within the first droplet by exposing the first droplet to a temperature between 30°C and 60°C; tagmenting, in either the first droplet or a second droplet, the released genomic DNA by: using a transposase at a temperature between 35°C and 55°C, cleaving the released genomic and incorporating adaptor sequences into the released genomic DNA; and filling in one or more gaps in the released genomic DNA created by incorporating the adaptor sequences at a temperature between 40°C and 100°C, optionally using either a reverse transcriptase or DNA polymerase to fill in the one or more gaps; and using a transposase at a temperature between 35°C and 55°C, cleaving the released genomic and incorporating adaptor sequences into the released genomic DNA; and filling in one or more gaps in the released genomic DNA created by incorporating the adaptor sequences at a temperature between 40°C and 100°C, optionally using either a reverse transcriptase or DNA polymerase to fill in the one or more gaps; and amplifying, in the second droplet, the tagmented genomic DNA to generate whole genome amplicons.
A method for joining, assembling, at least two parts (21,22) made of silicon carbide-based materials by non-reactive brazing, wherein the parts (21,22) are contacted with a non-reactive brazing composition, the assembly formed by the parts and the brazing composition is heated to a brazing temperature sufficient to melt the brazing composition totally or at least partly, and the parts (21,22) and the brazing composition are cooled so that, after solidification of the brazing composition, a moderately refractory joint is formed; characterized in that the non-reactive brazing composition is a binary alloy consisting, in atomic percentages, of 60% to 66% silicon and 34% to 40% nickel, and wherein, prior to contacting the parts (21,22) with the brazing composition, an addition, supply of a reinforcement is carried out.