mhurhangee/ep-ind-claims huggingface dataset:
A solar cell comprising a converging busbar, wherein the converging busbar separates a first surface of the solar cell into a first region and a second region, the first region is located on a first side of the converging busbar, and the second region is located on a second side of the converging busbar, the first region comprises a plurality of first sub-busbars spaced along a first direction and extending along a second direction and a plurality of main busbars spaced along the second direction and extending along the first direction, and the plurality of main busbars are electrically connected to the plurality of first sub-busbars; the second region comprises a plurality of second sub-busbars spaced along a third direction and extending along the first direction; and the converging busbar extends along the second direction and is electrically connected to the plurality of main busbars and the plurality of second sub-busbars, the first direction is perpendicular to the second direction, and the second direction is parallel to third direction, the size of the solar cell satisfies a first formula: W 1 < W 2; and a second formula: W 1 = W 3 < W 4; where W1 denotes the length of the second sub-busbars, W2 denotes the length of the main busbars, W3 denotes the distance between the main busbar close to the boundary of the solar cell and the boundary of the solar cell along the second direction, and W4 denotes the distance between two adjacent main busbars. the first region comprises a plurality of first sub-busbars spaced along a first direction and extending along a second direction and a plurality of main busbars spaced along the second direction and extending along the first direction, and the plurality of main busbars are electrically connected to the plurality of first sub-busbars; the second region comprises a plurality of second sub-busbars spaced along a third direction and extending along the first direction; and the converging busbar extends along the second direction and is electrically connected to the plurality of main busbars and the plurality of second sub-busbars, the first direction is perpendicular to the second direction, and the second direction is parallel to third direction, the size of the solar cell satisfies a first formula: W 1 < W 2; and a second formula: W 1 = W 3 < W 4; where W1 denotes the length of the second sub-busbars, W2 denotes the length of the main busbars, W3 denotes the distance between the main busbar close to the boundary of the solar cell and the boundary of the solar cell along the second direction, and W4 denotes the distance between two adjacent main busbars.
A method for manufacturing a memory, comprising: providing a substrate, the substrate comprising a plurality of active areas disposed at intervals, and each active area comprising a first contact area and second contact areas; forming a plurality of bit lines disposed at intervals on the substrate, each of the bit lines being connected to at least one first contact area; forming first isolation layers on the respective bit lines, and forming a first trench extending along a first direction between two adjacent first isolation layers; etching the bottom of the first trench along the first trench to form a second trench, wherein the bottom of the second trench is located in the substrate, and the second contact area is exposed in the second trench; and forming a first conductive layer in the first trench and the second trench; followed by removing part of the first conductive layer to form third trenches extending along a first direction; and forming an intermediate layer in the third trenches and on the first isolation layer, the intermediate layer being filled in the third trenches and covering the first conductive layer; followed by removing part of the first conductive layer and part of the intermediate layer to form a plurality of first through holes, wherein the first conductive layer is separated into a plurality of conducting wires by the plurality of first through holes, and each of the conducting wires is connected to a respective second contact area; and forming a second isolation layer in the first through hole. providing a substrate, the substrate comprising a plurality of active areas disposed at intervals, and each active area comprising a first contact area and second contact areas; forming a plurality of bit lines disposed at intervals on the substrate, each of the bit lines being connected to at least one first contact area; forming first isolation layers on the respective bit lines, and forming a first trench extending along a first direction between two adjacent first isolation layers; etching the bottom of the first trench along the first trench to form a second trench, wherein the bottom of the second trench is located in the substrate, and the second contact area is exposed in the second trench; and forming a first conductive layer in the first trench and the second trench; followed by removing part of the first conductive layer to form third trenches extending along a first direction; and forming an intermediate layer in the third trenches and on the first isolation layer, the intermediate layer being filled in the third trenches and covering the first conductive layer; followed by removing part of the first conductive layer and part of the intermediate layer to form a plurality of first through holes, wherein the first conductive layer is separated into a plurality of conducting wires by the plurality of first through holes, and each of the conducting wires is connected to a respective second contact area; and forming a second isolation layer in the first through hole.
Injectable composition which comprises polymeric, water-insoluble, non-biodegradable, anionic particles, these particles having an irregular shape and a biocompatible carrier with a lubricated surface, wherein said composition is injectable through needles of 16 to 30 gauges, wherein the polymeric particles are dry particles having a size from 150 to 800 μm (microns) and are chosen from particles of the complex of crosslinked sodium polyacrylate polymer with a copolymer of polyvinyl alcohol-polyvinyl acetate; the pegylated forms of this complex of crosslinked sodium polyacrylate polymer with a copolymer of polyvinyl alcohol-polyvinyl acetate or mixtures thereof.
Force transducer for measuring forces which act in the longitudinal direction of a support, having a force input element which has a first coupling device for mechanically connecting the force transducer to a component, and a force output element which has a second coupling device for mechanically connecting the force transducer to another component, the first coupling device and the second coupling device being arranged on a line which is parallel to and/or coaxial with the direction of the forces to be measured, and the force transducer having a double bending beam on which a plurality of strain gauges are arranged and which has two bending beams parallel to each other and an aperture arranged in between, characterized in that the part of the force input element that adjoins the double bending beam and/or the part of the force output element that adjoins the double bending beam has a continuous cut-out, wherein the direction of the continuous cut-out in the projection onto a plane perpendicular to the longitudinal direction extends at right angles to the direction of the aperture.
A controller for an aircraft system comprising a first set of components for performing a function of the aircraft system, and a second, alternative, set of components for performing the function of the aircraft system, the controller comprising a machine learning model and being configured to: receive scenario data indicative of a scenario during which the function of the aircraft system is to be performed; where each of the first and second sets of components (110a, 110b) are operational, use the machine learning model to select between the first or the second set of components (110a, 110b) to perform the aircraft system function during the scenario based on the received scenario data; and control the selected set of components to perform the function during the scenario. receive scenario data indicative of a scenario during which the function of the aircraft system is to be performed; where each of the first and second sets of components (110a, 110b) are operational, use the machine learning model to select between the first or the second set of components (110a, 110b) to perform the aircraft system function during the scenario based on the received scenario data; and control the selected set of components to perform the function during the scenario.
An apparatus for investigating mechanical operational characteristics of a gas turbine variable vane actuation system, the apparatus including: coaxial inner and outer annular casings corresponding to inner and outer casings of an actual gas turbine engine; a circumferential row of vane substitutes, each vane substitute extending between an inner end at the inner casing and an outer end at the outer casing, and being rotatable about an axis extending through its ends to emulate the rotation of a variable vane in the actual engine; and respective loading devices for the vane substitutes, each loading device applying a mechanical load to its vane substitute between the inner and outer ends thereof as the vane substitute rotates to emulate the aerodynamic loading on a variable vane in the actual engine and to generate resulting frictional loading at the inner and outer ends which emulates the resulting frictional loading at the ends of the variable vane in the actual engine; and wherein the apparatus is configured to be fitted with a variable vane actuation system of the actual engine, the actuation system, when fitted and operated, rotating the vane substitutes such that the vane substitutes are loaded by the loading devices. coaxial inner and outer annular casings corresponding to inner and outer casings of an actual gas turbine engine; a circumferential row of vane substitutes, each vane substitute extending between an inner end at the inner casing and an outer end at the outer casing, and being rotatable about an axis extending through its ends to emulate the rotation of a variable vane in the actual engine; and respective loading devices for the vane substitutes, each loading device applying a mechanical load to its vane substitute between the inner and outer ends thereof as the vane substitute rotates to emulate the aerodynamic loading on a variable vane in the actual engine and to generate resulting frictional loading at the inner and outer ends which emulates the resulting frictional loading at the ends of the variable vane in the actual engine; and wherein the apparatus is configured to be fitted with a variable vane actuation system of the actual engine, the actuation system, when fitted and operated, rotating the vane substitutes such that the vane substitutes are loaded by the loading devices.
Snowshoe constituted by a screen of elongate shape having a longitudinal axis (X, X') which extends from the front to the rear, the front comprising a spatula, the rear constituting the heel of the snowshoe, which forms by its lower face the bearing surface of the snowshoe, while said lower surface comprises grip means (6a, 6b, 61 a, 61 b, 14) which project downwards, said snowshoe comprising retention means for the boot, the retention means having a form which allows at least the heel of the boot to pivot upwards during its progression, characterised in that the snowshoe comprises means for adjusting the longitudinal position of the grip means, allowing said grip means to be positioned beneath the heel of the boot.
A system configured to monitor and manage natural gas pressure within a plurality of sources, the system comprising: at least one low-pressure source of natural gas; at least one high-pressure source of natural gas; a low-pressure line in fluid communication with said low-pressure source of natural gas; a high-pressure line in fluid communication with said high-pressure source of natural gas; a junction joining said high-pressure line and said low-pressure line; a compressor having an inlet, said inlet being in fluid communication with said junction; a first pressure sensor monitoring the gas pressure at said inlet; a second pressure sensor monitoring the gas pressure at a location remote from said compressor; a drive mechanism suitable for operating said compressor; a programmable logic controller, said programmable logic controller configured to receive input data from said first pressure sensor and configured to receive input data from said second pressure sensor, said programmable logic controller further configured to provide output data sufficient to control the operation of said drive mechanism operating said compressor. at least one low-pressure source of natural gas; at least one high-pressure source of natural gas; a low-pressure line in fluid communication with said low-pressure source of natural gas; a high-pressure line in fluid communication with said high-pressure source of natural gas; a junction joining said high-pressure line and said low-pressure line; a compressor having an inlet, said inlet being in fluid communication with said junction; a first pressure sensor monitoring the gas pressure at said inlet; a second pressure sensor monitoring the gas pressure at a location remote from said compressor; a drive mechanism suitable for operating said compressor; a programmable logic controller, said programmable logic controller configured to receive input data from said first pressure sensor and configured to receive input data from said second pressure sensor, said programmable logic controller further configured to provide output data sufficient to control the operation of said drive mechanism operating said compressor.
Spin-on filter for a filter apparatus for fluid, in particular liquid, in particular oil or fuel, in particular of an internal combustion engine, in particular of a motor vehicle, wherein the spin-on filter features: - a housing pot in which at least one filter element is disposed, - a connecting body which is disposed frontally on the housing pot and provided with a centrally located central opening, - a filter-sided connecting part of a connecting means for releasably connecting the spin-on filter to a filter head of the filter apparatus and which is disposed at the centrally located central opening, wherein the filter-sided connecting part is releasably connectable to a union of a head-sided connecting part of the filter head by means of a plug-in and/or rotational motion with respect to a connecting axis, and wherein the filter-sided connecting part features a plurality of connecting webs which are disposed in a distributed manner in the circumferential direction of the connecting axis on a radially inner circumferential side of the connecting body around the central opening and project radially inwards into the central opening, wherein the connecting means features at least one locking means, having at least one filter-sided locking part which, in the closed position of the connecting means, can form an unlockable connection with at least one head-sided locking part, and wherein the at least one filter-sided locking part is disposed on the connecting body, in particular on the side facing the filter head. - a housing pot in which at least one filter element is disposed, - a connecting body which is disposed frontally on the housing pot and provided with a centrally located central opening, - a filter-sided connecting part of a connecting means for releasably connecting the spin-on filter to a filter head of the filter apparatus and which is disposed at the centrally located central opening,
A side window for a vehicle, in particular for a motor vehicle, comprising a pane which includes an overmold made of plastics, to which a trim is attachable or attached, wherein on one side the overmold includes one or more fastening elements, characterized in that the fastening elements for the trim are provided at the front of the overmold, that they are strip-shaped and each include a lead-in chamfer which extends inclined with respect to the plane of the pane, namely such that its distance from the pane increases with increasing distance from the edge of the pane.
Non-therapeutic use of a composition for reduction of localized fat at a local site of a subject, wherein the composition comprises a weight ratio of resveratrol to curcumin ranging from 1:30 to 10:1, wherein the composition is administered to the local site of the subject such that localized fat at the site is reduced.
A microwave-active fluid composition for medical waste remediation comprising: (a) a microwave active liquid comprising a poly(glycol), glycerol monostearate, glycerol lactate, glycerol acid esters, or combinations thereof having a boiling point from 150 °C to 300 °C, wherein said microwave active liquid when irradiated with microwave radiation (i) heats up, thereby exposing medical waste to increased temperatures, (ii) exhibits denaturing properties that allow the irradiated microwave active liquid to break down proteins and chemical bonds in other biological molecules in the medical waste and (iii) exhibits a temperature rise at least 1.5 times that of water under irradiation; (b) a microwave enhancer comprising activated carbon, SiC, Fe 3 O 4, or combinations thereof and said microwave enhancer being a solid having strong dipoles and contributing to the heating of the microwave active fluid composition; and (c) a sol-stabilizing agent comprising poly(ethylene oxide), wherein the poly(ethylene oxide) has an average molecular weight, M n of from 100,000 to 8,000,000 and said sol-stabilizing agent assisting in rendering said microwave enhancer (b) into a sol and in incorporating said sol into the microwave active liquid of (a). (a) a microwave active liquid comprising a poly(glycol), glycerol monostearate, glycerol lactate, glycerol acid esters, or combinations thereof having a boiling point from 150 °C to 300 °C, wherein said microwave active liquid when irradiated with microwave radiation (i) heats up, thereby exposing medical waste to increased temperatures, (ii) exhibits denaturing properties that allow the irradiated microwave active liquid to break down proteins and chemical bonds in other biological molecules in the medical waste and (iii) exhibits a temperature rise at least 1.5 times that of water under irradiation; (b) a microwave enhancer comprising activated carbon, SiC, Fe 3 O 4, or combinations thereof and said microwave enhancer being a solid having strong dipoles and contributing to the heating of the microwave active fluid composition; and (c) a sol-stabilizing agent comprising poly(ethylene oxide), wherein the poly(ethylene oxide) has an average molecular weight, M n of from 100,000 to 8,000,000 and said sol-stabilizing agent assisting in rendering said microwave enhancer (b) into a sol and in incorporating said sol into the microwave active liquid of (a).
A method of monitoring an uplink transmission cancellation instruction, performed by a terminal, comprising: when the terminal switches a bandwidth part, BWP, not monitoring the uplink transmission cancellation instruction; wherein, the BWP comprises at least one of an uplink BWP and a downlink BWP, wherein, when the terminal switches the BWP not monitoring the uplink transmission cancellation instruction, comprises: when the terminal switches a currently activated uplink BWP, not monitoring the uplink transmission cancellation instruction; or when the terminal switches a currently activated downlink BWP, not monitoring the uplink transmission cancellation instruction; or, when the terminal switches a currently activated downlink BWP and a currently activated uplink BWP, not monitoring the uplink transmission cancellation instruction. when the terminal switches a bandwidth part, BWP, not monitoring the uplink transmission cancellation instruction; wherein, the BWP comprises at least one of an uplink BWP and a downlink BWP, wherein, when the terminal switches the BWP not monitoring the uplink transmission cancellation instruction, comprises: when the terminal switches a currently activated uplink BWP, not monitoring the uplink transmission cancellation instruction; or when the terminal switches a currently activated downlink BWP, not monitoring the uplink transmission cancellation instruction; or, when the terminal switches a currently activated downlink BWP and a currently activated uplink BWP, not monitoring the uplink transmission cancellation instruction. when the terminal switches a currently activated uplink BWP, not monitoring the uplink transmission cancellation instruction; or when the terminal switches a currently activated downlink BWP, not monitoring the uplink transmission cancellation instruction; or, when the terminal switches a currently activated downlink BWP and a currently activated uplink BWP, not monitoring the uplink transmission cancellation instruction.
A nucleic acid molecule comprising a double-stranded structure, wherein the double-stranded structure is formed by a first strand and a second strand, wherein the first strand consists of a first stretch of contiguous nucleotides and the second strand comprises a second stretch of contiguous nucleotides, wherein the first stretch of contiguous nucleotides comprises a nucleotide sequence of 5' ACGAGCUGGACCACUGGUC 3' (SEQ ID NO: 1); and wherein the nucleic acid molecule is capable of causing post-transcriptional silencing of a gene and wherein the gene is human Notch 1.
Device for raising and lowering (6, 6') a basket (1, 1') in a container (2, 2') of a cooking appliance, in particular a fryer, said device (6, 6') comprising a support (7, 7') adapted to rest on said cooking appliance, the basket (1, 1') being mounted to be movable with respect to the support (7, 7') between a raised position and a lowered position, a handle (3, 3') mounted movably on the support (7, 7') between a first position in which the basket (1, 1') moved by raising the handle (3, 3') adopts the raised position and a second position in which the basket (1, 1') is in the lowered position, characterised in that the support (7, 7') includes a hub (8, 8') allowing a degree of rotational freedom of said hub (8, 8') relative to the device according to an axis (20, 20') extending in the direction of the basket (1, 1') for rotating the basket (1, 1') by rotating the handle (3, 3'), the handle (3, 3') being mounted movably on the hub (8, 8') according to a transverse pivot axis (21, 21') relative to the axis (20, 20') extending in the direction of the basket (1, 1') between the first position and the second position.