mhurhangee/ep-ind-claims huggingface dataset:
A composition having a light-emitting property comprising: a component which is a perovskite compound including constituent components A, B, and X; and a component which is inorganic fine particles having a specific surface area of 0.01 m 2 /g to 150 m 2 /g, wherein the component is inorganic fine particles of an oxide, and wherein the oxide is at least one selected from the group consisting of aluminum oxide, zinc oxide, and niobium oxide. (the constituent component A indicates a component positioned at each vertex of a hexahedron having the constituent component B at the center in a perovskite type crystal structure and is a monovalent cation, the constituent component X indicates a component positioned at each vertex of an octahedron having the constituent component B at the center in the perovskite type crystal structure and is at least one anion selected from the group consisting of a halide ion and a thiocyanate ion, and the constituent component B indicates a component positioned at the centers of the hexahedron where the constituent component A is disposed at each vertex and the octahedron where the constituent component X is disposed at each vertex in the perovskite type crystal structure and is a metal ion). a component which is a perovskite compound including constituent components A, B, and X; and a component which is inorganic fine particles having a specific surface area of 0.01 m 2 /g to 150 m 2 /g, wherein the component is inorganic fine particles of an oxide, and wherein the oxide is at least one selected from the group consisting of aluminum oxide, zinc oxide, and niobium oxide. (the constituent component A indicates a component positioned at each vertex of a hexahedron having the constituent component B at the center in a perovskite type crystal structure and is a monovalent cation, the constituent component X indicates a component positioned at each vertex of an octahedron having the constituent component B at the center in the perovskite type crystal structure and is at least one anion selected from the group consisting of a halide ion and a thiocyanate ion, and the constituent component B indicates a component positioned at the centers of the hexahedron where the constituent component A is disposed at each vertex and the octahedron where the constituent component X is disposed at each vertex in the perovskite type crystal structure and is a metal ion).
A composition for a gel polymer electrolyte, the composition comprising: a lithium salt; a non-aqueous organic solvent; an oligomer represented by Formula 1; and a polymerization initiator: wherein, in Formula 1, R 1 to R 3 are each independently a fluorine-substituted or unsubstituted alkylene group having 1 to 4 carbon atoms, R 4 and R 5 are each independently an aliphatic hydrocarbon group or an aromatic hydrocarbon group, R 6 and R 7 are each independently R 8 and R 9 are each independently wherein R 10 is an aliphatic hydrocarbon group or an aromatic hydrocarbon group, R 11 is an alkylene group having 1 to 3 carbon atoms, R 12 is hydrogen or an alkyl group having 1 to 2 carbon atoms, n is an integer of 1 to 70, and m is an integer of 1 to 3. a lithium salt; a non-aqueous organic solvent; an oligomer represented by Formula 1; and a polymerization initiator: wherein, in Formula 1, R 1 to R 3 are each independently a fluorine-substituted or unsubstituted alkylene group having 1 to 4 carbon atoms, R 4 and R 5 are each independently an aliphatic hydrocarbon group or an aromatic hydrocarbon group, R 6 and R 7 are each independently R 8 and R 9 are each independently wherein R 10 is an aliphatic hydrocarbon group or an aromatic hydrocarbon group, R 11 is an alkylene group having 1 to 3 carbon atoms, R 12 is hydrogen or an alkyl group having 1 to 2 carbon atoms, n is an integer of 1 to 70, and m is an integer of 1 to 3. R 1 to R 3 are each independently a fluorine-substituted or unsubstituted alkylene group having 1 to 4 carbon atoms, R 4 and R 5 are each independently an aliphatic hydrocarbon group or an aromatic hydrocarbon group, R 6 and R 7 are each independently R 8 and R 9 are each independently wherein R 10 is an aliphatic hydrocarbon group or an aromatic hydrocarbon group, R 11 is an alkylene group having 1 to 3 carbon atoms, R 12 is hydrogen or an alkyl group having 1 to 2 carbon atoms, n is an integer of 1 to 70, and m is an integer of 1 to 3.
Sensor for controlling an automatic door, where the sensor comprises a first sensor output port, where the sensor comprises a laser scanner for detecting presence of an object with at least one laser curtain (22, 32, 34) in a predefined detection area of a scanning field, where the sensor comprises a distance data acquisition unit that is embodied to acquire distances of points of reflection of of a reflected laser beam of the laser scanner by evaluation of time-of-flight, a presence detection unit, where distance data information as a result of the distance data acquisition unit is fed to the presence detection unit, where the presence detection unit evaluates if an object is detected within the predefined detection area by analysing the distance data, where a presence detection information is created and fed to the first sensor output port that is a physical output port characterized in that the sensor comprises a second output port and that the sensor further comprises an object information unit comprising a human body identification unit, where the object information unit receives the distance data from the distance data acquisition unit in parallel to the presence detection unit, where the human body identification unit uses the distance data to determine if the detected object is a human body, where the object information unit creates an object information that is fed to the second sensor output port that is a physical output port, that is dedicated to the object information. where the sensor comprises a first sensor output port, where the sensor comprises a laser scanner for detecting presence of an object with at least one laser curtain (22, 32, 34) in a predefined detection area of a scanning field, where the sensor comprises a distance data acquisition unit that is embodied to acquire distances of points of reflection of of a reflected laser beam of the laser scanner by evaluation of time-of-flight, a presence detection unit, where distance data information as a result of the distance data acquisition unit is fed to the presence detection unit, where the presence detection unit evaluates if an object is detected within the predefined detection area by analysing the distance data, where a presence detection information is created and fed to the first sensor output port that is a physical output port characterized in that the sensor comprises a second output port and that the sensor further comprises an object information unit comprising a human body identification unit, where the object information unit receives the distance data from the distance data acquisition unit in parallel to the presence detection unit, where the human body identification unit uses the distance data to determine if the detected object is a human body, where the object information unit creates an object information that is fed to the second sensor output port that is a physical output port, that is dedicated to the object information.
A lubricant composition comprising: a) an oil of lubricating viscosity, and b) a borate ester comprising at least one alkyl group having 10 to 32 carbon atoms, said alkyl group having a branch at the β or higher position, said borate ester being present in an amount to provide 1 to 1000 parts per million by weight of boron to the lubricant composition. a) an oil of lubricating viscosity, and b) a borate ester comprising at least one alkyl group having 10 to 32 carbon atoms, said alkyl group having a branch at the β or higher position, said borate ester being present in an amount to provide 1 to 1000 parts per million by weight of boron to the lubricant composition.
A computer-implemented method for training an image recognition model, comprising: acquiring training data, wherein the training data includes training images for a preset vertical type, and the training images include a first training image containing real data of the preset vertical type and a second training image containing virtual data of the preset vertical type, wherein the preset vertical type comprises one or more of a financial type, a card type and a bill type; building a basic model, wherein the basic model includes a deep learning network, and the deep learning network is configured to extract text data from the training images by performing image recognition; training the basic model into the image recognition model by using the training data; characterised by acquiring a newly received image for the preset vertical type, wherein the newly received image for the preset vertical type comprises: a first image containing real data of the preset vertical type, and the first image and the first training image have different formats, wherein the formats comprise positions of fields; generating a second image containing virtual data of the preset vertical type based on the first image, wherein the second image and the first image have a same format; adding the first image and the second image into the training data; and updating the image recognition model based on the training data to which the first image and the second image are added. acquiring training data, wherein the training data includes training images for a preset vertical type, and the training images include a first training image containing real data of the preset vertical type and a second training image containing virtual data of the preset vertical type, wherein the preset vertical type comprises one or more of a financial type, a card type and a bill type; building a basic model, wherein the basic model includes a deep learning network, and the deep learning network is configured to extract text data from the training images by performing image recognition; training the basic model into the image recognition model by using the training data; characterised by acquiring a newly received image for the preset vertical type, wherein the newly received image for the preset vertical type comprises: a first image containing real data of the preset vertical type, and the first image and the first training image have different formats, wherein the formats comprise positions of fields; generating a second image containing virtual data of the preset vertical type based on the first image, wherein the second image and the first image have a same format; adding the first image and the second image into the training data; and updating the image recognition model based on the training data to which the first image and the second image are added.
Method for the configuration of a communication device of an industrial automation system, in which - the communication device independently generates a communication network address (N*) assigned to the communication device from at least one prefix communicated by means of router advertisement messages by at least one router assigned within the subnetwork of said communication device and from a device-specific interface identifier, - the communication device comprises a client for dynamic DNS, by means of which it requests storage of an assignment of its communication device name to the independently generated communication network address (N*) in a name service system comprising at least one domain name system server (301, 302) which provides DNS clients with a name service according to the DNS protocol, - the communication device interrogates at the server of the name service system, according to the DNS protocol, which communication network addresses are assigned to the communication device name of the communication device in the name service system, - the communication device checks the communication network addresses of the communication device which are interrogated at the server of the name service system with regard to a correspondence to the prefix communicated by the router, - the communication device assigns to itself only those communication network addresses of the communication device interrogated at the server of the name service system which have a correspondence to the prefix communicated by the router. - the communication device independently generates a communication network address (N*) assigned to the communication device from at least one prefix communicated by means of router advertisement messages by at least one router assigned within the subnetwork of said communication device and from a device-specific interface identifier, - the communication device comprises a client for dynamic DNS, by means of which it requests storage of an assignment of its communication device name to the independently generated communication network address (N*) in a name service system comprising at least one domain name system server (301, 302) which provides DNS clients with a name service according to the DNS protocol, - the communication device interrogates at the server of the name service system, according to the DNS protocol, which communication network addresses are assigned to the communication device name of the communication device in the name service system, - the communication device checks the communication network addresses of the communication device which are interrogated at the server of the name service system with regard to a correspondence to the prefix communicated by the router, - the communication device assigns to itself only those communication network addresses of the communication device interrogated at the server of the name service system which have a correspondence to the prefix communicated by the router.
A current sense circuit, comprising: a differential difference amplifier having a first differential input terminal pair coupled across a drain electrode and a source electrode of a load transistor; and a second differential input terminal pair coupled across a drain electrode and a source electrode of a sense transistor, an auxiliary transistor coupled in series with the sense transistor, wherein the load transistor and the sense transistor have a common drain electrode and a common gate electrode, wherein a control gate electrode of the auxiliary transistor is coupled to the output terminal of the differential difference amplifier, the differential difference amplifier and the auxiliary transistor forming a feedback circuit, wherein the current sense circuit is operable to force the same voltage difference value across the drain electrode and the source electrode of the load transistor as across the drain electrode and the source electrode of the sense transistor to cause a sense current through the sense transistor, wherein the sense current is representative of a load current through the load transistor. a differential difference amplifier having a first differential input terminal pair coupled across a drain electrode and a source electrode of a load transistor; and a second differential input terminal pair coupled across a drain electrode and a source electrode of a sense transistor, a first differential input terminal pair coupled across a drain electrode and a source electrode of a load transistor; and a second differential input terminal pair coupled across a drain electrode and a source electrode of a sense transistor, an auxiliary transistor coupled in series with the sense transistor, wherein the load transistor and the sense transistor have a common drain electrode and a common gate electrode, wherein a control gate electrode of the auxiliary transistor is coupled to the output terminal of the differential difference amplifier, the differential difference amplifier and the auxiliary transistor forming a feedback circuit, wherein the current sense circuit is operable to force the same voltage difference value across the drain electrode and the source electrode of the load transistor as across the drain electrode and the source electrode of the sense transistor to cause a sense current through the sense transistor, wherein the sense current is representative of a load current through the load transistor.
A method for picking articles / objects (2a..2d), comprising the steps a) removing at least one object (2a..2d) from a source loading aid (5a, 5b) with the help of a robot and b) placing the at least one object (2a..2d) in a target loading aid (6a..6c) with the help of said robot, wherein c) after removing the object (2a..2d) from the source loading aid (5a, 5b) it is checked with the help of a first sensor system whether at least one object (2a..2d) is held by the robot, d) a number of the at least one removed object (2a..2d) is ascertained with the help of a second sensor system (14a, 14b, 17, 18) and e) the process for placing the at least one object (2a..2d) into the target loading aid (6a..6c) is aborted or modified if the check using the first sensor system reveals that e1) no object (2a..2d) is held by the robot or e2) while at least one object (2a..2d) is held by the robot, the check carried out using the second sensor system (14a, 14b, 17, 18), however, reveals that the number of the at least one object (2a..2d) removed from the source loading aid (5a, 5b) is greater than the difference between a desired number and an actual number of the objects contained in the target loading aid, wherein the desired number of objects (2a..2d) in the target loading aid (6a..6c) is defined by a picking order. a) removing at least one object (2a..2d) from a source loading aid (5a, 5b) with the help of a robot and b) placing the at least one object (2a..2d) in a target loading aid (6a..6c) with the help of said robot, wherein c) after removing the object (2a..2d) from the source loading aid (5a, 5b) it is checked with the help of a first sensor system whether at least one object (2a..2d) is held by the robot, d) a number of the at least one removed object (2a..2d) is ascertained with the help of a second sensor system (14a, 14b, 17, 18) and e) the process for placing the at least one object (2a..2d) into the target loading aid (6a..6c) is aborted or modified if the check using the first sensor system reveals that e1) no object (2a..2d) is held by the robot or e2) while at least one object (2a..2d) is held by the robot, the check carried out using the second sensor system (14a, 14b, 17, 18), however, reveals that the number of the at least one object (2a..2d) removed from the source loading aid (5a, 5b) is greater than the difference between a desired number and an actual number of the objects contained in the target loading aid, wherein the desired number of objects (2a..2d) in the target loading aid (6a..6c) is defined by a picking order. e1) no object (2a..2d) is held by the robot or e2) while at least one object (2a..2d) is held by the robot, the check carried out using the second sensor system (14a, 14b, 17, 18), however, reveals that the number of the at least one object (2a..2d) removed from the source loading aid (5a, 5b) is greater than the difference between a desired number and an actual number of the objects contained in the target loading aid, wherein the desired number of objects (2a..2d) in the target loading aid (6a..6c) is defined by a picking order.
A method for purification of a hydrated target species of biological origin in a sample comprising: contacting the sample with a hydrated surface of an undissolved material and a constraining agent in an amount sufficient to retain at least 50% of the hydrated target species at the hydrated surface under conditions wherein the hydrated target species is retained at the hydrated surface exclusively by constrained co-hydration due to the presence of the constraining agent, wherein (i) the undissolved material is a convective chromatography material; (ii) the convective chromatography material is a monolith; and (iii) the constraining agent is an aqueous soluble uncharged linear or branched non-ionic organic polymer. contacting the sample with a hydrated surface of an undissolved material and a constraining agent in an amount sufficient to retain at least 50% of the hydrated target species at the hydrated surface under conditions wherein the hydrated target species is retained at the hydrated surface exclusively by constrained co-hydration due to the presence of the constraining agent, wherein (i) the undissolved material is a convective chromatography material; (ii) the convective chromatography material is a monolith; and (iii) the constraining agent is an aqueous soluble uncharged linear or branched non-ionic organic polymer. (i) the undissolved material is a convective chromatography material; (ii) the convective chromatography material is a monolith; and (iii) the constraining agent is an aqueous soluble uncharged linear or branched non-ionic organic polymer.
Method for designing contoured knitted fabrics to be produced on a flat knitting machine with the help of a design device, wherein a) a section of the contoured knitted fabric is described by means of vector contour data and/or the vector contour data of a section are loaded from a memory of the design device; b) a graphical representation of the section based on the vector contour data and a tabular representation of the section based on the vector contour data are displayed in parallel on a display device; c) the vector contour data are changed graphically with the help of an input tool or via the table, wherein a change in the graphical representation simultaneously produces a corresponding change in the tabular representation and vice versa and the graphical representation of the section is displayed on the display device along with a symbol representation of a basic pattern. a) a section of the contoured knitted fabric is described by means of vector contour data and/or the vector contour data of a section are loaded from a memory of the design device; b) a graphical representation of the section based on the vector contour data and a tabular representation of the section based on the vector contour data are displayed in parallel on a display device; c) the vector contour data are changed graphically with the help of an input tool or via the table, wherein a change in the graphical representation simultaneously produces a corresponding change in the tabular representation and vice versa and the graphical representation of the section is displayed on the display device along with a symbol representation of a basic pattern.