mhurhangee/ep-ind-claims huggingface dataset:
A device for facilitating connection of one or more elements (9,11), e.g. cables, to a pole of a battery, the device comprising: an adapter comprising a first portion configured to attach to the battery pole and a second portion comprising at least one protruding member configured to receive one or more elements (9,11), the adapter being configured such that the protruding member and the first portion are electrically connected; and a protective lid configured to provide an electrically insulating cover for at least the at least one protruding member, the device characterised in: that the protective lid comprises structural weakenings allowing one or more portions of the protective lid to be easily broken off so as to provide one or more openings. an adapter comprising a first portion configured to attach to the battery pole and a second portion comprising at least one protruding member configured to receive one or more elements (9,11), the adapter being configured such that the protruding member and the first portion are electrically connected; and a protective lid configured to provide an electrically insulating cover for at least the at least one protruding member, the device characterised in: that the protective lid comprises structural weakenings allowing one or more portions of the protective lid to be easily broken off so as to provide one or more openings. that the protective lid comprises structural weakenings allowing one or more portions of the protective lid to be easily broken off so as to provide one or more openings.
A computer-implemented method of using a multi-level, ML, data chain protocol to embed a data chain on a core blockchain, wherein the method is performed by a ML block producer and comprises: obtaining one or more ML transactions, wherein each ML transaction comprises one or more respective carrier pairs, each carrier pair comprising a respective input and a respective output, wherein each respective output comprises respective data associated with the data chain, and wherein each respective input comprises a respective signature that signs the respective carrier pair; generating a first ML block of the ML data chain, wherein the first ML block is a core blockchain transaction and comprises a) the respective carrier pairs of the obtained one or more ML transactions, wherein for each carrier pair, a respective position index of the respective input corresponds to a respective position index of the respective output, and b) a first chain output, wherein the first chain output is for being spent by a respective chain input of a subsequent ML block; and causing the first ML block to be recorded on the core blockchain. obtaining one or more ML transactions, wherein each ML transaction comprises one or more respective carrier pairs, each carrier pair comprising a respective input and a respective output, wherein each respective output comprises respective data associated with the data chain, and wherein each respective input comprises a respective signature that signs the respective carrier pair; generating a first ML block of the ML data chain, wherein the first ML block is a core blockchain transaction and comprises a) the respective carrier pairs of the obtained one or more ML transactions, wherein for each carrier pair, a respective position index of the respective input corresponds to a respective position index of the respective output, and b) a first chain output, wherein the first chain output is for being spent by a respective chain input of a subsequent ML block; and causing the first ML block to be recorded on the core blockchain.
An electroconductive paste for use in solar cell technology comprising: 60-90 wt. % silver particles, based upon total weight of the paste; 1-10 wt. % glass frit, based upon total weight of the paste; and 1-20 wt. % of an organic vehicle, based upon total weight of the paste, the organic vehicle comprising a polyvinyl pyrrolidone binder, a surfactant, and an organic solvent. 60-90 wt. % silver particles, based upon total weight of the paste; 1-10 wt. % glass frit, based upon total weight of the paste; and 1-20 wt. % of an organic vehicle, based upon total weight of the paste, the organic vehicle comprising a polyvinyl pyrrolidone binder, a surfactant, and an organic solvent.
An electronic device, comprising: a touch screen display; drawing means for drawing, on the touch screen display, a locus of a stroke input by handwriting; display control means for capturing a screen image of the touch screen display, the screen image displayed by starting up an application, when the screen image is touched by a user, and switching the screen image of the touch screen display from the captured screen image to another screen image with a lower gradation when drawing of the locus of the stroke by the drawing means starts after capturing the screen image; and storing means for storing, as scrap data, the captured screen image with the locus of the stroke drawn by the drawing means; generation means for generating thumbnail data for displaying thumbnails of images corresponding to the scrap data, wherein the display control means is configured to display, when a range selection mode for specifying a handwriting range on the captured screen image and a handwriting input mode are designated, an inside of a rectangular range specified by a user with a gradation at a start of the application, to not display the screen image outside of the rectangular range, and to display, on the captured screen image, buttons (631, 632, 633) for associating the scrap data with one of scrap notes, and the generation means is configured to generate the thumbnail data corresponding to the scrap data when one of the buttons (631 632 633) is tapped, wherein each button is associated to a scrap note, and wherein a scrap note comprises thumbnails of scrap data. a touch screen display; drawing means for drawing, on the touch screen display, a locus of a stroke input by handwriting; display control means for capturing a screen image of the touch screen display, the screen image displayed by starting up an application, when the screen image is touched by a user, and switching the screen image of the touch screen display from the captured screen image to another screen image with a lower gradation when drawing of the locus of the stroke by the drawing means starts after capturing the screen image; and storing means for storing, as scrap data, the captured screen image with the locus of the stroke drawn by the drawing means; generation means for generating thumbnail data for displaying thumbnails of images corresponding to the scrap data, wherein the display control means is configured to display, when a range selection mode for specifying a handwriting range on the captured screen image and a handwriting input mode are designated, an inside of a rectangular range specified by a user with a gradation at a start of the application, to not display the screen image outside of the rectangular range, and to display, on the captured screen image, buttons (631, 632, 633) for associating the scrap data with one of scrap notes, and the generation means is configured to generate the thumbnail data corresponding to the scrap data when one of the buttons (631 632 633) is tapped, wherein each button is associated to a scrap note, and wherein a scrap note comprises thumbnails of scrap data.
A measuring method of a machine accuracy in a machine tool for measuring the machine accuracy by determining a central coordinate of a reference sphere installed at a predetermined position of a machine according to a five-axis geometrical error measuring method and setting the central coordinate to a reference, wherein the method switches directions of a measurement plane P(Pa, Pb) and a measurement axis A(Aa, Ab) in the five-axis geometrical error measuring method in correspondence to a range of an angle of inclination in a touch probe which detects the reference sphere, characterized in that the method switches in the five-axis geometrical error measuring method between a first measurement plane and a first measurement axis, which is orthogonal to the first measurement plane, and a second measurement plane including a first measurement axis and one axis of the first measurement plane and a second measurement axis which is orthogonal to the second measurement plane, when the angle of inclination of the touch probe changes between a first angular range extending from -45° to +45° and a second angular range extending from -90° to -45° and from +45° to +90°.
A body protector laminate comprising a first laminated layer having first and second skins of fabric bonded to either side of a first inner foam core, one or more cuts (16, 18, 20) being provided through the first skin and through the first inner foam core, and one or more further cuts (22, 24, 30) being provided through the second skin and through the first inner foam core, enabling compound bending of the laminate for substantially fitting to or against a body having convex and concave surfaces.
Transmission device (2a, 2b, 2c, 2d, 2e) for energy transmission between multiple electrical energy networks (1a, 1b, 1c), each providing a multi-phase supply voltage at a network frequency for electrical energy supply, wherein the transmission device (2a, 2b, 2c, 2d, 2e) comprises: a) multi-phase multilevel power converters (7a, 7b, 7c), which are each connected to one of the energy networks (1a, 1b, 1c) and to one another via a first multi-phase transformer (8a, 8b, 8c) and therefore electrically isolated from each other, wherein the first multi-phase transformer (8a, 8b, 8c) is configured so that, via said first multi-phase transformer, at a specified transmission frequency electrical energy flows from at least one energy-supplying energy network (1a, 1b, 1c) into at least one energy-consuming energy network (1a, 1b, 1c), wherein the transmission frequency is greater than any of the network frequencies, and b) a control device, which adjusts the transmission of energy into the at least one energy-receiving energy network (1a, 1b, 1c) according to a setpoint value by controlling the multilevel power converters (7a, 7b, 7c), characterized in that the first transformer has one three-phase connection side and three two-phase connection sides, wherein on each of the two-phase connection sides one multilevel power converter is connected to two phase connections on the transformer side.
An apparatus, comprising: an optical lens and an electrically variable iris (140; 206; 312), the electrically variable iris comprising: a plurality of transparent conductive layers (104; 304) coupled to an optical surface of the optical lens; and a liquid crystal film separated into a number of portions by the plurality of transparent conductive layers (104; 304), wherein a transmissive state of each portion, from the number of portions of the liquid crystal film, with respect to light is configured to change in response to application of a voltage to the plurality of transparent conductive layers (104; 304) to alter an aperture through the liquid crystal film, wherein the liquid crystal film comprises two stacked layers which comprise a first liquid crystal film blocking light of a right-handed polarization under no application of a voltage and a second liquid crystal film blocking light of a left-handed polarization under no application of a voltage, or vice versa, and wherein the first liquid crystal film is sandwiched between two separate transparent conductive layers from the plurality of transparent conductive layers and the second liquid crystal film is sandwiched between two separate transparent conductive layers from the plurality of transparent conductive layers. a plurality of transparent conductive layers (104; 304) coupled to an optical surface of the optical lens; and a liquid crystal film separated into a number of portions by the plurality of transparent conductive layers (104; 304), wherein a transmissive state of each portion, from the number of portions of the liquid crystal film, with respect to light is configured to change in response to application of a voltage to the plurality of transparent conductive layers (104; 304) to alter an aperture through the liquid crystal film, wherein the liquid crystal film comprises two stacked layers which comprise a first liquid crystal film blocking light of a right-handed polarization under no application of a voltage and a second liquid crystal film blocking light of a left-handed polarization under no application of a voltage, or vice versa, and wherein the first liquid crystal film is sandwiched between two separate transparent conductive layers from the plurality of transparent conductive layers and the second liquid crystal film is sandwiched between two separate transparent conductive layers from the plurality of transparent conductive layers.
A laminated structure comprising: (a) a first film comprising a first polyolefin; (b) an intermediate layer comprising a laminate adhesive; and (c) a second film comprising a second polyolefin; wherein the laminated structure exhibits an elastic recovery greater than 80% in both the cross direction and the machine direction for 15% of strain, greater than 70% in both the cross direction and the machine direction for 50% strain, and greater than 50% in both the cross direction and the machine direction for 100 % strain when measured at room temperature according to ASTM D5459, and wherein the laminated structure has a delamination force greater than 118 g/cm (300 g/in) when measured at 23°C according to ASTM F904; and wherein the laminate adhesive comprises a polyurethane, or an acrylic; wherein both the first polyolefin and the second polyolefin comprise a polyethylene, wherein the polyethylene of the first polyolefin and the polyethylene of the second polyolefin are the same polyethylene, or wherein the polyethylene of the first polyolefin and the polyethylene of the second polyolefin are different polyethylenes. (a) a first film comprising a first polyolefin; (b) an intermediate layer comprising a laminate adhesive; and (c) a second film comprising a second polyolefin;
A method of determining when to initiate a channel access comprising: determining if at least one transmit queue (205A-205D) of an access point is eligible based on channel access rules applicable for a current transmit opportunity; initiating a channel access if at least one of the following has occurred: a timer (210A-210D) associated with the eligible transmit queue (205A-205D) has expired, wherein the timer is started when a first packet is stored into the empty transmit queue; and a count associated with the eligible transmit queue has exceeded a threshold; wherein the channel access comprises an attempt to transmit data over a shared wireless channel. determining if at least one transmit queue (205A-205D) of an access point is eligible based on channel access rules applicable for a current transmit opportunity; initiating a channel access if at least one of the following has occurred: a timer (210A-210D) associated with the eligible transmit queue (205A-205D) has expired, wherein the timer is started when a first packet is stored into the empty transmit queue; and a count associated with the eligible transmit queue has exceeded a threshold; a timer (210A-210D) associated with the eligible transmit queue (205A-205D) has expired, wherein the timer is started when a first packet is stored into the empty transmit queue; and a count associated with the eligible transmit queue has exceeded a threshold; wherein the channel access comprises an attempt to transmit data over a shared wireless channel.
A method of operating a moving object having a plurality of identity devices, the method comprising: generating a plurality of data in the moving object; transmitting first data of the plurality of data to a first base station (820-1, 920) through a first identity device of the moving object and transmitting second data of the plurality of data to a second base station (820-2, 930) through a second identity device of the moving object; receiving the first data of the plurality of data from the first base station (820-1, 920) and receiving the second data of the plurality of data from the second base station (820-2, 930); and operating the moving object based on the first data of the plurality of data and the second data of the plurality of data characterised in that; transmitting comprises separating the first data from the plurality of data; and separating the second data from the plurality of data, receiving comprises receiving a first result data distributed and processed in the first base station (820-1, 920) and receiving a second result data distributed and processed in the second base station (820-2, 930), and operating the moving object comprises: combining the first result data and the second result data, generating a final data using the first result data and the second result data, and operating the moving object based on the final data. generating a plurality of data in the moving object; transmitting first data of the plurality of data to a first base station (820-1, 920) through a first identity device of the moving object and transmitting second data of the plurality of data to a second base station (820-2, 930) through a second identity device of the moving object; receiving the first data of the plurality of data from the first base station (820-1, 920) and receiving the second data of the plurality of data from the second base station (820-2, 930); and operating the moving object based on the first data of the plurality of data and the second data of the plurality of data characterised in that; transmitting comprises separating the first data from the plurality of data; and separating the second data from the plurality of data, receiving comprises receiving a first result data distributed and processed in the first base station (820-1, 920) and receiving a second result data distributed and processed in the second base station (820-2, 930), and operating the moving object comprises: combining the first result data and the second result data, generating a final data using the first result data and the second result data, and operating the moving object based on the final data. combining the first result data and the second result data, generating a final data using the first result data and the second result data, and operating the moving object based on the final data.
A steam-water separator comprising a steam-water riser pipe through which a two-phase flow of water and steam goes up, the steam-water riser pipe including, a curved part at a lower part and a swirl vane provided inside the steam-water riser pipe between the curved part and upper end of the steam-water riser pipe; a downcomer barrel provided surrounding the steam-water riser pipe to form an annular downcomer space; a deck plate that is arranged opposite upper ends of the steam-water riser pipe and the downcomer barrel with a predetermined space therefrom and that includes an orifice arranged above the steam-water riser pipe; and a liquid film adjusting unit, characterized in that the liquid film adjusting unit is arranged at a location between the curved part and the swirl vane and adjusts a thickness of a liquid film formed on an inner face of the steam-water riser pipe.
A computer-implemented method for rendering a virtual image as seen from a virtual camera, given an articulated object model, wherein the articulated object model is a computer based 3D model of a real world object observed by two or more source cameras, and the articulated object model represents a plurality of joints and of links that link the joints, and wherein the pose of the articulated object model is defined by the spatial location of the joints, the method comprising the steps of • determining an estimate of the 3D pose, that is, the 3D joint positions of the articulated object model; • associating each link with one or more projection surfaces, wherein the projection surfaces are surfaces defined in the 3D model, and the position and orientation of each projection surface is determined by the position and orientation of the associated link; • wherein the projection surfaces, for each link, comprise a fan of billboards, each billboard being associated with a source camera, and each billboard being a planar surface spanned by its associated link and a vector that is normal to both this link and to a line connecting a point of the link to the source camera; • for each source camera, projecting segments of the associated source image onto the associated billboard, creating billboard images; • for each link, projecting the billboard images into the virtual image and blending the billboard images to form a corresponding part of the virtual image. • determining an estimate of the 3D pose, that is, the 3D joint positions of the articulated object model; • associating each link with one or more projection surfaces, wherein the projection surfaces are surfaces defined in the 3D model, and the position and orientation of each projection surface is determined by the position and orientation of the associated link; • wherein the projection surfaces, for each link, comprise a fan of billboards, each billboard being associated with a source camera, and each billboard being a planar surface spanned by its associated link and a vector that is normal to both this link and to a line connecting a point of the link to the source camera; • for each source camera, projecting segments of the associated source image onto the associated billboard, creating billboard images; • for each link, projecting the billboard images into the virtual image and blending the billboard images to form a corresponding part of the virtual image.
A multimeric multiepitope polypeptide comprising multiple copies of a plurality of influenza virus peptide epitopes arranged in a configuration selected from alternating sequential polymeric structure (X 1 X 2 X 3..X 9) n and a block copolymer structure (X 1) n (X 2) n (X 3) n...(X 9) n, wherein n is at each occurrence independently an integer of 3-5; and each of X 1 -X 9 is a different influenza peptide epitope selected from the group consisting of HA 354-372 corresponding to E1 and SEQ ID NO: 82, HA 91-108 corresponding to E2 and SEQ ID NO: 48, M1 2-12 corresponding to E3 and SEQ ID NO: 25, HA 150-159 corresponding to E4 and SEQ ID NO: 52, HA 143-149 corresponding to E5 and SEQ ID NO: 51, NP 206-229 corresponding to E6 and SEQ ID NO: 64, HA 307-319 corresponding to E7 and SEQ ID NO: 59, NP 335-350 corresponding to E8 and SEQ ID NO: 69, and NP 380-393 corresponding to E9 and SEQ ID NO: 70.