mhurhangee/ep-ind-claims huggingface dataset:
A method for printing a three-dimensional article, comprising the steps of: a) providing a tank comprising an optically transparent portion located on the bottom wall of the tank and forming at least one compartment for holding a liquid resin; b) providing a volume of the liquid resin comprising cyanoacrylate-based monomers, a photoinitiator, and a source of acidic inhibitors held in the at least one compartment of the tank for holding the liquid resin; c) providing a movable platform, which is submerged in the liquid resin; d) providing an additional source of acidic inhibitors located below the compartment holding the liquid resin; e) defining a zone between the bottom surface of the platform and the bottom of the compartment holding the liquid resin, which is divided into a first dead zone located in the vicinity of the bottom of the compartment holding the liquid resin, and a second polymerization zone atop of it; f) emitting and controlling light and transmitting it to the liquid resin through the optically transparent portion for selectively polymerizing the liquid resin in the polymerization zone; g) concurrently preventing the polymerization of the monomers using acidic inhibitors outside the polymerization zone including in the first dead zone; h) obtaining a three-dimensional article made of polymerized resin. a) providing a tank comprising an optically transparent portion located on the bottom wall of the tank and forming at least one compartment for holding a liquid resin; b) providing a volume of the liquid resin comprising cyanoacrylate-based monomers, a photoinitiator, and a source of acidic inhibitors held in the at least one compartment of the tank for holding the liquid resin; c) providing a movable platform, which is submerged in the liquid resin; d) providing an additional source of acidic inhibitors located below the compartment holding the liquid resin; e) defining a zone between the bottom surface of the platform and the bottom of the compartment holding the liquid resin, which is divided into a first dead zone located in the vicinity of the bottom of the compartment holding the liquid resin, and a second polymerization zone atop of it; f) emitting and controlling light and transmitting it to the liquid resin through the optically transparent portion for selectively polymerizing the liquid resin in the polymerization zone; g) concurrently preventing the polymerization of the monomers using acidic inhibitors outside the polymerization zone including in the first dead zone; h) obtaining a three-dimensional article made of polymerized resin.
A method comprising: a) receiving, by a computer node comprising a first software module, a second software module, a third software module, and an optional fourth software module, a cryptographic key; b) generating, by the first software module, a first random number; c) providing, by the first software module, a first key portion comprising the first random number and an initial message to be encrypted or decrypted to the second software module; d) providing, by the first software module, a second key portion comprising a value derived from the first random number and the cryptographic key to the third software module; e) providing, by the second software module to the third software module or the optional fourth software module, a garbled circuit; f) providing, by the second software module to the third software module or the optional fourth software module, a first garbled value corresponding to the first key portion; g) providing, by the second software module to the third software module or the optional fourth software module, a garbled message corresponding to the initial message; and h) applying, by the third software module or the optional fourth software module, the first garbled value, a second garbled value corresponding to the second key portion, and the garbled message as inputs to the garbled circuit to produce a subsequent message corresponding to the initial message. a) receiving, by a computer node comprising a first software module, a second software module, a third software module, and an optional fourth software module, a cryptographic key; b) generating, by the first software module, a first random number; c) providing, by the first software module, a first key portion comprising the first random number and an initial message to be encrypted or decrypted to the second software module; d) providing, by the first software module, a second key portion comprising a value derived from the first random number and the cryptographic key to the third software module; e) providing, by the second software module to the third software module or the optional fourth software module, a garbled circuit; f) providing, by the second software module to the third software module or the optional fourth software module, a first garbled value corresponding to the first key portion; g) providing, by the second software module to the third software module or the optional fourth software module, a garbled message corresponding to the initial message; and h) applying, by the third software module or the optional fourth software module, the first garbled value, a second garbled value corresponding to the second key portion, and the garbled message as inputs to the garbled circuit to produce a subsequent message corresponding to the initial message.
A method for molecular characterization of a rice plant comprising amplifying, by PCR, an AHAS gene of a rice plant, wherein the rice plant is a rice plant of lines IMINTA 1, 4 or 5, or a progeny thereof, and wherein seed of the IMINTA 1 rice line is deposited with the NCIMB under Patent Deposit Designation Number NCIMB 41206, seed of the IMINTA 4 rice line is deposited with the NCIMB under Patent Deposit Designation Number NCIMB 41207, and seed of the IMINTA 5 rice line is deposited with the NCIMB under Patent Deposit Designation Number NCIMB 41208.
A detection method for a system mountable in a vehicle, the system including a camera and a processor attached to the camera, the method including the steps of: capturing a first image frame without illuminating the vicinity from a light attached to the vehicle; while illuminating the vicinity by the light attached to the vehicle, capturing a second image frame; comparing said first image frame and said second image frame thereby detecting an object in the vicinity of the vehicle. capturing a first image frame without illuminating the vicinity from a light attached to the vehicle; while illuminating the vicinity by the light attached to the vehicle, capturing a second image frame; comparing said first image frame and said second image frame thereby detecting an object in the vicinity of the vehicle.
A method of manufacturing a metal sheet having a layer plated with a nickel-cobalt alloy comprising: preparing a plating bath comprising a plating liquid and an anode (70a, 70b, 70c, 70d), the plating liquid containing nickel ions and cobalt ions; and passing a metal strip continuously through the plating bath to perform electroplating in the plating bath, wherein the anode (70a, 70b, 70c, 70d) is obtained by mixing nickel pellets and cobalt pellets, characterized in that the current density when performing the electroplating is 1 to 40 A/dm 2, the pH of the plating liquid is 1.5 to 5, and the temperature of the plating liquid is 40° C to 80° C, a weight ratio z(Co), which unit is %, of cobalt in the layer is within a range of 40≤z(Co)≤60, and the mixing ratios of the nickel pellets and the cobalt pellets that constitute the anode are determined such that a total surface area ratio x(Co), which unit is %, of all the cobalt pellets satisfies Expressions and below in relation to the z(Co) and a dissolution ratio y(Co), which unit is %, of the cobalt pellets that constitute the anode: z Co − 21 ≤ y Co ≤ z Co + 21 y Co = − 0.8 ⁢ x Co 2 / 100 + 1.8 ⁢ x Co preparing a plating bath comprising a plating liquid and an anode (70a, 70b, 70c, 70d), the plating liquid containing nickel ions and cobalt ions; and passing a metal strip continuously through the plating bath to perform electroplating in the plating bath, wherein the anode (70a, 70b, 70c, 70d) is obtained by mixing nickel pellets and cobalt pellets, characterized in that the current density when performing the electroplating is 1 to 40 A/dm 2, the pH of the plating liquid is 1.5 to 5, and the temperature of the plating liquid is 40° C to 80° C, a weight ratio z(Co), which unit is %, of cobalt in the layer is within a range of 40≤z(Co)≤60, and the mixing ratios of the nickel pellets and the cobalt pellets that constitute the anode are determined such that a total surface area ratio x(Co), which unit is %, of all the cobalt pellets satisfies Expressions and below in relation to the z(Co) and a dissolution ratio y(Co), which unit is %, of the cobalt pellets that constitute the anode: z Co − 21 ≤ y Co ≤ z Co + 21 y Co = − 0.8 ⁢ x Co 2 / 100 + 1.8 ⁢ x Co
A method for manufacturing a TFT substrate, characterized in that the method for manufacturing the TFT substrate comprises: providing a silicon-wafer plate coated with a layer of photoresist material; patterning the photoresist material with an etching solution corresponding to the photoresist material to form first masking structures on the silicon-wafer plate, plasma etching the silicon-wafer plate via the first masking structures to form island structures; cutting the island structures layer by layer along a direction parallel to an extending direction of the silicon-wafer plate to form a silicon-wafer sub-plate; and attaching the silicon-wafer sub-plate on a substrate to form the TFT substrate. providing a silicon-wafer plate coated with a layer of photoresist material; patterning the photoresist material with an etching solution corresponding to the photoresist material to form first masking structures on the silicon-wafer plate, plasma etching the silicon-wafer plate via the first masking structures to form island structures; cutting the island structures layer by layer along a direction parallel to an extending direction of the silicon-wafer plate to form a silicon-wafer sub-plate; and attaching the silicon-wafer sub-plate on a substrate to form the TFT substrate.
A non-platinum based compound which generates chemotherapeutic effects for use in the absence of radiation in the treatment of a cancer or a tumor that is treatable by a platinum (Pt)-based anti-cancer drug, wherein the compound is selected from the group consisting of: and or a pharmaceutically acceptable salt thereof.
A method of performing communication by a user equipment, UE, in a wireless communication system, the method comprising: detecting a downlink control information, DCI, format that includes a search space, SS, set group switching flag value for cells included in a cell group configured for an SS set group switching operation; and starting physical downlink control channel, PDCCH, monitoring according to SS sets of a first SS set group and stopping PDCCH monitoring according to SS sets of a second SS set group, for the cells in the cell group, at a first slot that is at least P symbols after a last symbol of a PDCCH carrying the DCI format, wherein the P symbols is determined for the cell group based on a smallest subcarrier spacing, SCS, among configured bandwidth parts, BWPs, in the cell group. detecting a downlink control information, DCI, format that includes a search space, SS, set group switching flag value for cells included in a cell group configured for an SS set group switching operation; and starting physical downlink control channel, PDCCH, monitoring according to SS sets of a first SS set group and stopping PDCCH monitoring according to SS sets of a second SS set group, for the cells in the cell group, at a first slot that is at least P symbols after a last symbol of a PDCCH carrying the DCI format, wherein the P symbols is determined for the cell group based on a smallest subcarrier spacing, SCS, among configured bandwidth parts, BWPs, in the cell group.
Apparatus for detecting products in a self-service checkout system, having a transport device (1, 13) for transporting the products (5, 6, 7, 8, 20) in a predefined transport direction (4, 14), having at least one optical image recording device (2, 15) which is arranged in a stationary manner on the transport device (1, 13) and is intended to record at least one image of each product transported on the transport device (1, 13), having at least one scanning device (3, 16) which is arranged in a stationary manner on the transport device (1, 13) and is intended to detect machine-readable codes with which the products (5, 6) are equipped, having a balance (9, 17) which is arranged downstream of the scanning device (3, 16) in the transport direction (4, 14) and/or having an additional handheld scanning device beside the transport device (1, 13), the transport device (1, 13) being equipped with a control device, characterized in that it is equipped with a sensor (11, 18) which detects when a product (8, 20) which has not been detected by the scanning device (3, 16) and is transported on the transport device (1, 13) has arrived at a predetermined position, and in that the sensor (11, 18) is coupled to the control device in order to stop the transport device (1, 13) when a product (8, 20) not detected by the scanning device (3, 16) has arrived at the sensor (11, 18) and in order to move the transport device (1, 13) again when the product is no longer arranged at the sensor (11, 18).
An optical switch, comprising: a semiconductor substrate, comprising a first rotation part and a first torsion beam disposed at two ends of the first rotation part, wherein the first torsion beam is configured to drive the first rotation part to rotate, wherein the first rotation part has a round structure, the first torsion beam comprises a first beam body and a second beam body, and the first beam body and the second beam body extend outwards from external walls of two ends of the first rotation part along a radial direction of the first rotation part; a microreflector, disposed on a surface of the first rotation part of the semiconductor substrate; and a first latching structure, disposed on the first torsion beam, the first latching structure comprising a form self remolding, FSR, material layer and a thermal field source, wherein the thermal field source is configured to provide a thermal field for the FSR material layer, and the FSR material layer is configured to undergo form remolding under the thermal field and under the excitation of deformation of the torsion beam, so as to latch the first rotation part and the microreflector in a position after rotation after the thermal field is removed, wherein the semiconductor substrate has concave portions in the first beam body and the second beam body of the first torsion beam, and the first latching structure is accommodated in the concave portions. a semiconductor substrate, comprising a first rotation part and a first torsion beam disposed at two ends of the first rotation part, wherein the first torsion beam is configured to drive the first rotation part to rotate, wherein the first rotation part has a round structure, the first torsion beam comprises a first beam body and a second beam body, and the first beam body and the second beam body extend outwards from external walls of two ends of the first rotation part along a radial direction of the first rotation part; a microreflector, disposed on a surface of the first rotation part of the semiconductor substrate; and a first latching structure, disposed on the first torsion beam, the first latching structure comprising a form self remolding, FSR, material layer and a thermal field source, wherein the thermal field source is configured to provide a thermal field for the FSR material layer, and the FSR material layer is configured to undergo form remolding under the thermal field and under the excitation of deformation of the torsion beam, so as to latch the first rotation part and the microreflector in a position after rotation after the thermal field is removed, wherein the semiconductor substrate has concave portions in the first beam body and the second beam body of the first torsion beam, and the first latching structure is accommodated in the concave portions.
An optoelectronic circuit comprising series-connected assemblies (D i) of light-emitting diodes and a module (Module 0) for controlling said assemblies, characterized in that the assemblies of light-emitting diodes are arranged on a support and are distributed on a succession of aligned elementary circuits (Modulej) located on the support, each elementary circuit comprising at least one light-emitting diode of each assembly.
Mechanical groove-cleaning device for removing resin from grooves which are provided for accommodating rotor or stator windings of an electric machine, characterized in that the mechanical groove-cleaning device has a device carrier which is movable linearly by means of two guide rails, which are provided in the axial direction and are arranged in parallel, of a pair of rails of the mechanical groove-cleaning device, the device carrier having at least one cleaning tool (5, 17, 18) which is connected thereto, on which guide rails the device carrier is displaceable in the longitudinal direction, and the cleaning tool (5, 17, 18) is movable up and down perpendicularly to the guide surface defined by the guide rails arranged in parallel, and wherein cutting surfaces for lying against a groove wall protrude to the left and right on two outer surfaces of the cleaning tool (5, 12, 17, 18).
A displacement system for displacing vehicles of an aerial lift facility by pull cable when the vehicles are disengaged from the pull cable, the displacement system comprising: - a slow-down device intended to be disposed in a station of the aerial lift facility and configured to slow down vehicles disengaged from the pull cable along a slow-down path, the slow-down device including at least one first slow-down belt and a second slow-down belt, the first slow-down belt being configured to cooperate with and slow down a vehicle along a first portion of the slow-down path, the second slow-down belt being configured to cooperate with and slow down a vehicle along a second portion of the slow-down path, - a first drive device including a first drive motor configured to drive the first slow-down belt at a first variable displacement speed, and - a second drive device including a second drive motor configured to drive the second slow-down belt at a second variable displacement speed. - a slow-down device intended to be disposed in a station of the aerial lift facility and configured to slow down vehicles disengaged from the pull cable along a slow-down path, the slow-down device including at least one first slow-down belt and a second slow-down belt, the first slow-down belt being configured to cooperate with and slow down a vehicle along a first portion of the slow-down path, the second slow-down belt being configured to cooperate with and slow down a vehicle along a second portion of the slow-down path, - a first drive device including a first drive motor configured to drive the first slow-down belt at a first variable displacement speed, and - a second drive device including a second drive motor configured to drive the second slow-down belt at a second variable displacement speed.
A phosphorus doped silicon single crystal having a diameter in the range of 175 mm to 225 mm, an axial length in the range of 50 mm to 1000 mm and an oxygen content below 2·10 16 cm -3, the phosphorus doped silicon single crystal in a transverse plane having a density of dopant atoms providing a target resistivity, ρ NTD, in the range of 55 Ωcm to 2000 Ωcm for a wafer cut from the phosphorus doped silicon ingot, wherein a RRV value of 2% or less as determined according to the SEMI standard SEMI MF81 is obtained for at least 75% of wafers cut from the phosphorus doped silicon single crystal when the resistivity is measured after annealing the silicon at a temperature in the range of 800°C to 1300°C.
Method for removing the lubricating glass layer from an extruded metal tube, wherein the lubricating glass layer located on the outside of the metal tube is removed via nozzles annularly arranged around the metal tube by means of high-pressure water jets, characterised in that the metal tube is straightened by means of a straightener, whereby the lubricating glass layer located in the metal tube is broken up and detached, whereupon the glass particles located in the tube are loosened and removed by suction by means of a vacuum system.
A connector for lighting devices including a planar support with at least one electrical contact formation at an edge of the planar support, the connector including: - a fork-shaped shell with a notch coupleable with said planar support edge with said planar support edge configured to be inserted in said notch, and - electrical contact means on at least one side, and preferably on both sides, of said notch for providing electrical contact with the at least one electrical contact formation on said edge configured to be inserted in said notch, wherein said electrical contact means include resilient electrical contact means for clamping said planar support edge configured to be inserted in said notch, the connector characterized in that it includes a plug element comprising at least one penetrating member, and wherein the fork-shaped shell comprises a cavity for receiving the penetrating member, whereby the penetrating member is insertable into the fork-shaped shell by traversing the edge of the planar support configured to be received in the notch, thereby achieving a firm mechanical coupling, adapted to retain said connector on said planar support edge. - a fork-shaped shell with a notch coupleable with said planar support edge with said planar support edge configured to be inserted in said notch, and - electrical contact means on at least one side, and preferably on both sides, of said notch for providing electrical contact with the at least one electrical contact formation on said edge configured to be inserted in said notch, wherein said electrical contact means include resilient electrical contact means for clamping said planar support edge configured to be inserted in said notch,
A sole structure for an article of footwear, the sole structure comprising: a component including a first bundle of fibers affixed to a substrate (228; 228a, 228b); a ground-engaging assembly (218; 218a-218f) including a first traction element, a second traction element, and a connecting member (250; 250a-250f) extending between and connecting the first traction element and the second traction element; and a resin consolidating the first bundle of fibers and entrapping the connecting member (250; 250a-250f) to fix a position of the first traction element, the second traction element, and the connecting member (250; 250a-250f) relative to the substrate (228; 228a, 228b), characterized in that at least one of the first traction element, the second traction element, and the connecting member (250; 250a-250f) includes a projection (252; 252b-252f) extending in a direction toward the substrate (228; 228a, 228b). a component including a first bundle of fibers affixed to a substrate (228; 228a, 228b); a ground-engaging assembly (218; 218a-218f) including a first traction element, a second traction element, and a connecting member (250; 250a-250f) extending between and connecting the first traction element and the second traction element; and a resin consolidating the first bundle of fibers and entrapping the connecting member (250; 250a-250f) to fix a position of the first traction element, the second traction element, and the connecting member (250; 250a-250f) relative to the substrate (228; 228a, 228b), characterized in that at least one of the first traction element, the second traction element, and the connecting member (250; 250a-250f) includes a projection (252; 252b-252f) extending in a direction toward the substrate (228; 228a, 228b).