mhurhangee/ep-ind-claims huggingface dataset:
An organic light-emitting device comprising: a first electrode; a second electrode; and an organic layer between the first electrode and the second electrode, wherein the organic layer comprises an emission layer comprising a first layer, the first layer comprises a first compound, a second compound, and a third compound, wherein the first, second, and third compounds have different structures from each other, the first compound is a hole transporting host compound, the second compound is an electron transporting host compound, the third compound is a hole transporting host compound or an electron transporting host compound, the first compound and the second compound form a first exciplex, the first compound and the third compound, or the second compound and the third compound, form a second exciplex, and the first exciplex and the second exciplex are different from each other. a first electrode; a second electrode; and an organic layer between the first electrode and the second electrode, wherein the organic layer comprises an emission layer comprising a first layer, the first layer comprises a first compound, a second compound, and a third compound, wherein the first, second, and third compounds have different structures from each other, the first compound is a hole transporting host compound, the second compound is an electron transporting host compound, the third compound is a hole transporting host compound or an electron transporting host compound, the first compound and the second compound form a first exciplex, the first compound and the third compound, or the second compound and the third compound, form a second exciplex, and the first exciplex and the second exciplex are different from each other.
A method for fabricating a seamless spectacle frame made of a cellulose acetate sheet embedded with a metal material, the method comprising the following steps: S10: providing a cellulose acetate sheet main material, and punching four positioning holes in the main material; S20: cutting the main material by a CNC engraving and cutting machine; S30: providing an auxiliary material for the cellulose acetate sheet, and cutting the auxiliary material by the CNC engraving and cutting machine; S40: splicing the main material and the auxiliary material, and wrapping the spliced main and auxiliary materials with a plastic sheet for a period of time; S50: removing the plastic sheet, and placing the spliced main and auxiliary materials in an oven for baking; S60: placing the spliced main and auxiliary materials in the CNC engraving and cutting machine for cutting, so as to form inner rings and an outer ring, as well as a groove; S70: placing the cut main and auxiliary materials in the oven for preheating; S80: placing a metal component in the groove of the spliced main and auxiliary materials, and baking the metal component and the main and auxiliary materials in the oven; S90: pressing the baked metal component and main and auxiliary materials in a die of a hydraulic press to form a shape of a spectacle rim; and S100: mounting fittings on the formed spectacle rim. S10: providing a cellulose acetate sheet main material, and punching four positioning holes in the main material; S20: cutting the main material by a CNC engraving and cutting machine; S30: providing an auxiliary material for the cellulose acetate sheet, and cutting the auxiliary material by the CNC engraving and cutting machine; S40: splicing the main material and the auxiliary material, and wrapping the spliced main and auxiliary materials with a plastic sheet for a period of time; S50: removing the plastic sheet, and placing the spliced main and auxiliary materials in an oven for baking; S60: placing the spliced main and auxiliary materials in the CNC engraving and cutting machine for cutting, so as to form inner rings and an outer ring, as well as a groove; S70: placing the cut main and auxiliary materials in the oven for preheating; S80: placing a metal component in the groove of the spliced main and auxiliary materials, and baking the metal component and the main and auxiliary materials in the oven; S90: pressing the baked metal component and main and auxiliary materials in a die of a hydraulic press to form a shape of a spectacle rim; and S100: mounting fittings on the formed spectacle rim.
A method of operating an intelligent programmable logic controller, the method comprising: executing, by a processor included in the intelligent programmable logic controller, a control program for controlling operation of devices in an automation system; extracting a control model from the control program based on context specific knowledge related to the control program; storing, by a non-volatile storage medium included in the intelligent programmable logic controller, the control model; using, by a control monitoring component, the control model to perform a monitoring operation related to execution of the control program on the intelligent programmable logic controller; and generating events, by the control monitoring component related to the operation of the intelligent programmable logic controller responsive to the monitoring operation; and deploying a monitoring rule for a controller variable using a key performance indicator; wherein the monitoring operation comprises monitoring the controller variable during execution of the control program. executing, by a processor included in the intelligent programmable logic controller, a control program for controlling operation of devices in an automation system; extracting a control model from the control program based on context specific knowledge related to the control program; storing, by a non-volatile storage medium included in the intelligent programmable logic controller, the control model; using, by a control monitoring component, the control model to perform a monitoring operation related to execution of the control program on the intelligent programmable logic controller; and generating events, by the control monitoring component related to the operation of the intelligent programmable logic controller responsive to the monitoring operation; and deploying a monitoring rule for a controller variable using a key performance indicator; wherein the monitoring operation comprises monitoring the controller variable during execution of the control program.
Panel assembly strip by clamping the periphery of this panel on a section of a support structure to form a closed chamber, this strip comprising a body including a base prolonged by two sides (39, 41) that together delimit a straight groove that will overlap one edge of the panel and one edge of the section to clamp them together, one of the edges comprising several threaded holes, each threaded hole being provided with a clamping screw, also comprising a bearing buffer of the same length as the body and running along the side that supports each clamping screw, at least one clamping screw being fixed to the pressure buffer while being free to rotate relative to this bearing buffer.
A node (510b, 530b) included in an optical power supply system (500, 501, 502, 503, 504, 520) which includes three or more nodes (110, 120, 510a, 510b, 510c, 510d, 530a, 530b) and a multi-core fiber (600, 610, 620) having a plurality of cores (601, 602, 603), the multi-core fiber (600, 610, 620) being used in at least a partial segment of the connection between the nodes (110, 120, 510a, 510b, 510c, 510d, 530a, 530b), the node (510b, 530b) comprising: a power supply light dropping unit (740, 840, 850, 940) configured to drop a portion or all of a power supply light from one core (602, 603) of the plurality of cores of the multi-core fiber (600, 610, 620); a photoelectric conversion unit configured to convert the portion or all of the power supply light dropped by the power supply light dropping unit (740, 840, 850, 940) to an electrical signal; and a power supply target facility configured to operate with the electrical signal converted by the photoelectric conversion unit, characterized in that: the multi-core fiber (600, 610, 620) has a common cladding to the plurality of cores (601, 602, 603) of the multi-core fiber (600, 610, 620) in a cross-sectional view of the multi-core fiber (600, 610, 620) and, each of the plurality of cores (601, 602, 603) of the multi-core fiber (600, 610, 620) does not contain the other of the plurality of cores (601, 602, 603) of the multi-core fiber (600, 610, 620). a power supply light dropping unit (740, 840, 850, 940) configured to drop a portion or all of a power supply light from one core (602, 603) of the plurality of cores of the multi-core fiber (600, 610, 620); a photoelectric conversion unit configured to convert the portion or all of the power supply light dropped by the power supply light dropping unit (740, 840, 850, 940) to an electrical signal; and a power supply target facility configured to operate with the electrical signal converted by the photoelectric conversion unit, characterized in that: the multi-core fiber (600, 610, 620) has a common cladding to the plurality of cores (601, 602, 603) of the multi-core fiber (600, 610, 620) in a cross-sectional view of the multi-core fiber (600, 610, 620) and, each of the plurality of cores (601, 602, 603) of the multi-core fiber (600, 610, 620) does not contain the other of the plurality of cores (601, 602, 603) of the multi-core fiber (600, 610, 620). the multi-core fiber (600, 610, 620) has a common cladding to the plurality of cores (601, 602, 603) of the multi-core fiber (600, 610, 620) in a cross-sectional view of the multi-core fiber (600, 610, 620) and, each of the plurality of cores (601, 602, 603) of the multi-core fiber (600, 610, 620) does not contain the other of the plurality of cores (601, 602, 603) of the multi-core fiber (600, 610, 620).
A method for producing a plant protein based absorbent material, the method comprising the steps of i. providing a mixture or suspension comprising a liquid and a plant protein, wherein said plant protein is insoluble in the liquid, ii. acylating said plant protein by adding an acylating agent thereto, and iii. obtaining said plant protein based absorbent material, wherein said plant protein is sufficiently aggregated so as to be insoluble in said liquid. i. providing a mixture or suspension comprising a liquid and a plant protein, wherein said plant protein is insoluble in the liquid, ii. acylating said plant protein by adding an acylating agent thereto, and iii. obtaining said plant protein based absorbent material,
A catalyst warm-up control method for a hybrid vehicle configured to supply electric power to an electric motor by a battery, to charge the battery by a power generation engine, and to treat exhaust gas discharged from the engine with a catalyst, the hybrid vehicle capable of selecting a manner mode in which power generation using the engine is stopped, wherein: catalyst warm-up control is performed such that when a temperature of the catalyst becomes lower than a threshold temperature for activating the catalyst, a target rotation speed of the engine is controlled to a first warm-up required rotation speed at which the catalyst can be heated to a temperature higher than the threshold temperature; the method being characterized in that when the manner mode is selected, the catalyst warm-up control is performed when the temperature of the catalyst becomes lower than a manner mode threshold temperature that is equal to or less than the threshold temperature. catalyst warm-up control is performed such that when a temperature of the catalyst becomes lower than a threshold temperature for activating the catalyst, a target rotation speed of the engine is controlled to a first warm-up required rotation speed at which the catalyst can be heated to a temperature higher than the threshold temperature; the method being characterized in that when the manner mode is selected, the catalyst warm-up control is performed when the temperature of the catalyst becomes lower than a manner mode threshold temperature that is equal to or less than the threshold temperature.
An impact-absorbing member comprising: a main body including a plurality of fiber-reinforced resin layers (4, 6, 7) that absorb an impact through self-fracture when subjected to the impact; and a leading portion including a plurality of fiber-reinforced resin layers (4, 5, 6) that absorb the impact through self-fracture when subjected to the impact, the leading portion fracturing initially when subjected to the impact, wherein at least one of the fiber-reinforced resin layers (4, 5, 6) of the leading portion has reinforcing fibers oriented at an angular difference of 10° or more with respect to an energy-absorption axis direction, the main body has a higher strength and elastic modulus in the energy-absorption axis direction than the leading portion, and at least one of the fiber-reinforced resin layers (4, 6, 7) of the main body and at least one of the fiber-reinforced resin layers (4, 5, 6) of the leading portion is the same fiber-reinforced resin layer, characterized in that the fiber-reinforced resin layers of the main body and the fiber-reinforced resin layers of the leading portion which are included in the same fiber-reinforced resin layer, have the reinforcing fibers in the fiber-reinforced resin layers of the main body oriented at an angle within a range of 0°±45° with respect to the energy-absorption axis direction, and have the reinforcing fibers in the fiber-reinforced resin layers of the leading portion oriented at an angle within a range of 90°±45° with respect to the energy-absorption axis direction. a main body including a plurality of fiber-reinforced resin layers (4, 6, 7) that absorb an impact through self-fracture when subjected to the impact; and a leading portion including a plurality of fiber-reinforced resin layers (4, 5, 6) that absorb the impact through self-fracture when subjected to the impact, the leading portion fracturing initially when subjected to the impact, wherein at least one of the fiber-reinforced resin layers (4, 5, 6) of the leading portion has reinforcing fibers oriented at an angular difference of 10° or more with respect to an energy-absorption axis direction, the main body has a higher strength and elastic modulus in the energy-absorption axis direction than the leading portion, and at least one of the fiber-reinforced resin layers (4, 6, 7) of the main body and at least one of the fiber-reinforced resin layers (4, 5, 6) of the leading portion is the same fiber-reinforced resin layer, characterized in that the fiber-reinforced resin layers of the main body and the fiber-reinforced resin layers of the leading portion which are included in the same fiber-reinforced resin layer, have the reinforcing fibers in the fiber-reinforced resin layers of the main body oriented at an angle within a range of 0°±45° with respect to the energy-absorption axis direction, and have the reinforcing fibers in the fiber-reinforced resin layers of the leading portion oriented at an angle within a range of 90°±45° with respect to the energy-absorption axis direction.
A method for providing an operating signal for a motor vehicle comprising the steps of: a) receiving a signal indicating that an authorised user has been authenticated, b) monitoring an actuation region outside the motor vehicle via an optical sensor system, c) detecting a distance (a) between an object in the actuation region and an optical sensor via the optical sensor system, d) comparing the distance (a) with a specification via the optical sensor system, e) providing an operating signal if the specification is satisfied, characterized in that the actuation region is only monitored for a predetermined actuating period (tB). a) receiving a signal indicating that an authorised user has been authenticated, b) monitoring an actuation region outside the motor vehicle via an optical sensor system, c) detecting a distance (a) between an object in the actuation region and an optical sensor via the optical sensor system, d) comparing the distance (a) with a specification via the optical sensor system, e) providing an operating signal if the specification is satisfied,
A dust collecting device that is adapted to be attached to an impact tool and is adapted to collect dust generated by the impact tool in which a tool bit detachably coupled to a front end region of a tool body is caused to rectilinearly move in an axial direction of the tool bit, comprising: a dust collecting part having a dust suction port through which dust is sucked up, a dust collecting hose which is connected to the dust collecting part and through which dust is transferred downstream, and a hose holding part for holding the dust collecting hose, wherein the hose holding part can be mounted to the tool body by a wrapping member which is detachably wrapped around the tool body, and wherein the hose holding part comprises a holder body, characterized in that the dust collecting hose comprises a tubular member made of rubber or resin and having a bellows-like part formed at least in part of the dust collecting hose, the dust collecting hose is held by the hose holding part by engagement between rib-like projections of the hose holder body and valleys of the bellows-like part of the dust collecting hose. a dust collecting part having a dust suction port through which dust is sucked up, a dust collecting hose which is connected to the dust collecting part and through which dust is transferred downstream, and a hose holding part for holding the dust collecting hose, wherein the hose holding part can be mounted to the tool body by a wrapping member which is detachably wrapped around the tool body, and wherein the hose holding part comprises a holder body, characterized in that the dust collecting hose comprises a tubular member made of rubber or resin and having a bellows-like part formed at least in part of the dust collecting hose, the dust collecting hose is held by the hose holding part by engagement between rib-like projections of the hose holder body and valleys of the bellows-like part of the dust collecting hose.
A method of inspecting an air-gap of an electrical machine, which method comprises the steps of - directing at least one laser beam into the air-gap; characterised by - detecting the laser beam after reflection; - determining the distance (d OK, d F) travelled by the laser beam; and - analysing the travelled distance (d OK, d F) to detect an irregularity (F pole, F oval, F object) in the air-gap. - directing at least one laser beam into the air-gap; characterised by - detecting the laser beam after reflection; - determining the distance (d OK, d F) travelled by the laser beam; and - analysing the travelled distance (d OK, d F) to detect an irregularity (F pole, F oval, F object) in the air-gap.
An agricultural work machine, comprising: a communication system configured to receive an information map that includes values of a first agricultural characteristic corresponding to different geographic locations in a field; a geographic position sensor configured to detect a geographic location of the agricultural work machine; an in-situ sensor configured to detect a value of a second agricultural characteristic indicative of a characteristic of processed material corresponding to the geographic location; a predictive model generator configured to generate a predictive agricultural model that models a relationship between the first agricultural characteristic and the second agricultural characteristic based on a value of the first agricultural characteristic in the information map at the geographic location and a value of the second agricultural characteristic sensed by the in-situ sensor at the geographic location; and a predictive map generator configured to generate a functional predictive agricultural map of the field that maps predictive values of the second agricultural characteristic to the different geographic locations in the field based on the values of the first agricultural characteristic in the information map and based on the predictive agricultural model, and a control system configured to generate control signals to control a controllable subsystem on the agricultural work machine based on the functional predictive agricultural map. a communication system configured to receive an information map that includes values of a first agricultural characteristic corresponding to different geographic locations in a field; a geographic position sensor configured to detect a geographic location of the agricultural work machine; an in-situ sensor configured to detect a value of a second agricultural characteristic indicative of a characteristic of processed material corresponding to the geographic location; a predictive model generator configured to generate a predictive agricultural model that models a relationship between the first agricultural characteristic and the second agricultural characteristic based on a value of the first agricultural characteristic in the information map at the geographic location and a value of the second agricultural characteristic sensed by the in-situ sensor at the geographic location; and a predictive map generator configured to generate a functional predictive agricultural map of the field that maps predictive values of the second agricultural characteristic to the different geographic locations in the field based on the values of the first agricultural characteristic in the information map and based on the predictive agricultural model, and a control system configured to generate control signals to control a controllable subsystem on the agricultural work machine based on the functional predictive agricultural map.
A method for producing a sialylated second sugar chain, comprising reacting a first sugar chain, or said first sugar chain containing an amino acid, a peptide, a protein, a linker, a fluorescent group, a lipid, a low-molecular-weight compound or a radioactive compound at the reducing end, with CMP-sialic acid in the presence of sialyltransferase and phosphatase, at a temperature below 37°C, for 8 to 48 hours to transfer sialic acid to a non-reducing end of the first sugar chain, wherein said sialyltransferase comprises the amino acid sequence encoded by the nucleic acid sequence of SEQ ID No:1.