mhurhangee/ep-ind-claims huggingface dataset:
System for separating and identifying items, comprising: a source position, preferably comprising a feeding conveyor element, for providing items, preferably in containers, a discharging conveyor element for discharging identified, separated items, a handling unit for transferring items from the source position in the direction of the discharging conveyor element, a sensor unit for detecting the position and/or orientation of the items at the source position, wherein the handling unit is configured to pick up the items from the source position according to the position and/or orientation detected by the sensor unit, and an identification unit which is configured to identify the items transferred by the handling unit in the direction of the discharging conveyor element, characterised in that the discharging conveyor element comprises a position conveyor which is configured to convey the item to a first position (P 1) if it was successfully identified by the identification unit and to convey the item to a second position if was not successfully identified by the identification unit, the items at the second position being stored separately from the items at the source position, wherein the second position is arranged in a grip region of the handling unit and the handling unit is configured to pick up an item present at the second position again and to transfer it to the position conveyor via the identification unit. a source position, preferably comprising a feeding conveyor element, for providing items, preferably in containers, a discharging conveyor element for discharging identified, separated items, a handling unit for transferring items from the source position in the direction of the discharging conveyor element, a sensor unit for detecting the position and/or orientation of the items at the source position, wherein the handling unit is configured to pick up the items from the source position according to the position and/or orientation detected by the sensor unit, and an identification unit which is configured to identify the items transferred by the handling unit in the direction of the discharging conveyor element, characterised in that the discharging conveyor element comprises a position conveyor which is configured to convey the item to a first position (P 1) if it was successfully identified by the identification unit and to convey the item to a second position if was not successfully identified by the identification unit, the items at the second position being stored separately from the items at the source position, wherein the second position is arranged in a grip region of the handling unit and the handling unit is configured to pick up an item present at the second position again and to transfer it to the position conveyor via the identification unit.
A pole part of a circuit-breaker arrangement comprising an insulation housing for accommodating a vacuum interrupter insert containing a pair of corresponding electrical switching contacts (4, 6), wherein a fixed upper electrical contact is connected to an upper electrical terminal molded in the insulation housing and a movable lower electrical contact is connected to a lower electrical terminal of the insulation housing via an electrical conductor which is operated by an adjacent pushrod, wherein the lower electrical terminal is connected to a ring shaped heat transfer shield (9-9"") arranged along the inner wall or at least partly inside the wall of the insulation housing surrounding the pushrod and/or the distal end of the movable lower electrical contact, whereby the movable lower electrical contact is electrically connected to the lower electrical terminal via a sliding contact arrangement and characterized in that the heat transfer shield is axially arranged between the sliding contact arrangement and the bottom side of the vacuum interrupter insert.
A cosmetic comprising an organosiloxane graft polyvinyl alcohol polymer comprising: a structural unit shown by the following general formula, and a structural unit shown by the following general formula, wherein the cosmetic comprises the organosiloxane graft polyvinyl alcohol polymer in an amount of 0.01 to 20 mass% relative to the total amount of the cosmetic, wherein the organosiloxane graft polyvinyl alcohol polymer has a number average molecular weight (Mn) of 5,000 to 500,000 as measured by GPC in terms of polystyrene, wherein M 1 and M 2 each represent a hydrogen atom, an acetyl group, or a siloxane group shown by the following general formula, provided that at least one of M 1 and M 2 is a siloxane group shown by the general formula; and A represents a single bond, wherein R 1 represents a monovalent organic group having 1 to 6 carbon atoms; R 2, R 3, and R 4 each represent a monovalent organic group having 1 to 6 carbon atoms or a siloxy group shown by -OSiR 5 R 6 R 7, where R 5, R 6, and R 7 each represent a monovalent organic group having 1 to 6 carbon atoms; "n" represents an integer of 1 to 10; and "a" represents an integer of 0 to 2, wherein M 3 represents a hydrogen atom, an acetyl group, or a siloxane group shown by the general formula. wherein the cosmetic comprises the organosiloxane graft polyvinyl alcohol polymer in an amount of 0.01 to 20 mass% relative to the total amount of the cosmetic, wherein the organosiloxane graft polyvinyl alcohol polymer has a number average molecular weight (Mn) of 5,000 to 500,000 as measured by GPC in terms of polystyrene, wherein M 1 and M 2 each represent a hydrogen atom, an acetyl group, or a siloxane group shown by the following general formula, provided that at least one of M 1 and M 2 is a siloxane group shown by the general formula; and A represents a single bond, wherein R 1 represents a monovalent organic group having 1 to 6 carbon atoms; R 2, R 3, and R 4 each represent a monovalent organic group having 1 to 6 carbon atoms or a siloxy group shown by -OSiR 5 R 6 R 7, where R 5, R 6, and R 7 each represent a monovalent organic group having 1 to 6 carbon atoms; "n" represents an integer of 1 to 10; and "a" represents an integer of 0 to 2, wherein M 3 represents a hydrogen atom, an acetyl group, or a siloxane group shown by the general formula.
An apparatus comprising: a lower end fitting of a fuel assembly of a nuclear reactor, the lower end fitting including: a plate having flow channels to allow reactor primary coolant water to flow through the plate and having a bottom surface that includes a plurality of raised support pads, a plurality of locating pins extending from the bottom surface of the plate wherein the plate is rectangular with four corners and the plurality of locating pins includes four locating pins, one locating pin being disposed at each corner of the plate, and wherein the plurality of raised support pads include four raised support pads, one raised support pad at each corner of the plate, and each locating pin is secured to a mounting hole formed into one of the raised support pads. a lower end fitting of a fuel assembly of a nuclear reactor, the lower end fitting including: a plate having flow channels to allow reactor primary coolant water to flow through the plate and having a bottom surface that includes a plurality of raised support pads, a plurality of locating pins extending from the bottom surface of the plate wherein the plate is rectangular with four corners and the plurality of locating pins includes four locating pins, one locating pin being disposed at each corner of the plate, and wherein the plurality of raised support pads include four raised support pads, one raised support pad at each corner of the plate, and each locating pin is secured to a mounting hole formed into one of the raised support pads. a plate having flow channels to allow reactor primary coolant water to flow through the plate and having a bottom surface that includes a plurality of raised support pads, a plurality of locating pins extending from the bottom surface of the plate wherein the plate is rectangular with four corners and the plurality of locating pins includes four locating pins, one locating pin being disposed at each corner of the plate, and wherein the plurality of raised support pads include four raised support pads, one raised support pad at each corner of the plate, and each locating pin is secured to a mounting hole formed into one of the raised support pads.
A laying nest comprising: • at least one box having at least a bottom, sidewalls, a back wall, and a roof; • an expulsion system which comprises ∘ at least one shaft provided with at least one gear wheel which is fixedly connected with the shaft; ∘ at least one expulsion plate which is rotatably connected with the shaft and which via a support shaft is pivotably and slidably connected with the box; ∘ at least one gear rack which is fixedly arranged in the box and which is configured for cooperation with said gear wheel, such that upon rotation of the shaft, this shaft moves along the gear rack, thereby carrying along the expulsion plate. • at least one box having at least a bottom, sidewalls, a back wall, and a roof; • an expulsion system which comprises ∘ at least one shaft provided with at least one gear wheel which is fixedly connected with the shaft; ∘ at least one expulsion plate which is rotatably connected with the shaft and which via a support shaft is pivotably and slidably connected with the box; ∘ at least one gear rack which is fixedly arranged in the box and which is configured for cooperation with said gear wheel, such that upon rotation of the shaft, this shaft moves along the gear rack, thereby carrying along the expulsion plate. ∘ at least one shaft provided with at least one gear wheel which is fixedly connected with the shaft; ∘ at least one expulsion plate which is rotatably connected with the shaft and which via a support shaft is pivotably and slidably connected with the box; ∘ at least one gear rack which is fixedly arranged in the box and which is configured for cooperation with said gear wheel, such that upon rotation of the shaft, this shaft moves along the gear rack, thereby carrying along the expulsion plate.
Method for stabilising a soft, pliable ground for a dam to be filled up or a heap, wherein walls (5, 6) which are resistant to bending are erected at the boundary of the planned fill for formation of the dam or the heap on at least two opposing sides of the planned fill and, at the height of the surface of the soft ground, high-strength tension members are laid out on the soft ground parallel to one another and are connected to the walls (5, 6) in as rigid a manner as possible and a length of fabric or plastic film lying on the surface of the soft ground and the tension members is arranged between the walls (5, 6), which length of material or plastic film separates the soft ground from the fill, characterised in that the walls are driven deep into the ground and composed from steel profiles, sheet piles or poles and that the tension members are flexible tension members, in particular cables, thread bundles, chains, strips.
A computer-implemented method for detecting graphical elements in a user interface, UI, comprising: providing, by a designer application, a selection interface (620, 720) that allows selection of graphical element detection techniques of a plurality of graphical element detection techniques for individual activities of a robotic process automation, RPA, workflow on a per-activity basis; receiving, by the designer application, a selection from the selection interface of an activity to be configured in the RPA workflow; receiving, by the designer application, selections of and/or modifications to one or more graphical element detection techniques of the plurality of graphical element detection techniques, one or more UI descriptor attributes of the one or more graphical element detection techniques, or a combination thereof, for the selected activity; and configuring the selected activity, by the designer application, based on the received selections and/or modifications, generate an RPA robot to implement an RPA workflow including the configured activities, to analyse a user interface, UI, at runtime to identify UI elements. providing, by a designer application, a selection interface (620, 720) that allows selection of graphical element detection techniques of a plurality of graphical element detection techniques for individual activities of a robotic process automation, RPA, workflow on a per-activity basis; receiving, by the designer application, a selection from the selection interface of an activity to be configured in the RPA workflow; receiving, by the designer application, selections of and/or modifications to one or more graphical element detection techniques of the plurality of graphical element detection techniques, one or more UI descriptor attributes of the one or more graphical element detection techniques, or a combination thereof, for the selected activity; and configuring the selected activity, by the designer application, based on the received selections and/or modifications, generate an RPA robot to implement an RPA workflow including the configured activities, to analyse a user interface, UI, at runtime to identify UI elements.
A device for determining at least one substance parameter of a substance, said substance flowing in a pipeline, wherein said device comprises electromagnetic wave transmitting means and receiving means for transmitting and receiving, respectively, electromagnetic waves through said substance, wherein said device comprises an outer chamber, an inner transfer pipeline element configured with at least two opposed wall segments that are essentially parallel with each other and wherein said electromagnetic wave transmitting means and receiving means comprises two antennas, wherein said two antennas each are positioned at a respective one of said at least two opposed wall segments, wherein said two antennas are configured to pass electromagnetic waves through said substance flowing via said inner transfer pipeline element, characterized in that said outer chamber is an outer metal chamber, which is lined at least partly with an interior layer of electromagnetic wave absorber material, and in that the electromagnetic waves passed through said substance have a planar wave front.
A method for preparing 2-chloro-5-trifluoromethylpyridine, wherein the method is a two-stage process, comprising: chlorofluorination reaction: the temperature of chlorofluorination is maintained at 150-320°C in the presence of a chlorofluorination catalyst, and introduce 3-methylpyridine, chlorine gas and hydrogen fluoride to a chlorofluorination reaction zone to obtain a gas mixture containing 3-trifluoromethylpyridine; chlorination reaction: the temperature of chlorination is maintained at 220-380°C in the presence of a chlorination catalyst, and introduce the gas mixture containing 3-trifluoromethylpyridine obtained in the step into a chlorination reaction zone to obtain 2-chloro-5-trifluoromethylpyridine, the chlorination catalyst is chosen from a fluoride, an oxide, a hydroxide, a carbonate, or a chloride of magnesium, calcium, and barium, and a supported palladium catalyst supported on activated carbon, alumina, or aluminum fluoride. chlorofluorination reaction: the temperature of chlorofluorination is maintained at 150-320°C in the presence of a chlorofluorination catalyst, and introduce 3-methylpyridine, chlorine gas and hydrogen fluoride to a chlorofluorination reaction zone to obtain a gas mixture containing 3-trifluoromethylpyridine; chlorination reaction: the temperature of chlorination is maintained at 220-380°C in the presence of a chlorination catalyst, and introduce the gas mixture containing 3-trifluoromethylpyridine obtained in the step into a chlorination reaction zone to obtain 2-chloro-5-trifluoromethylpyridine, the chlorination catalyst is chosen from a fluoride, an oxide, a hydroxide, a carbonate, or a chloride of magnesium, calcium, and barium, and a supported palladium catalyst supported on activated carbon, alumina, or aluminum fluoride.
A wireless tag communication apparatus comprising: a plurality of communication units (100A, 100B), including a first communication unit and a second communication unit, each communication unit being configured to communicate with a wireless tag and disposed such that communicable ranges of the communication units (100A, 100B) overlap each other; and a control unit configured to control each of the communication units (100A, 100B) to alternate between a communication state and a pause state, wherein the control unit is configured to control the first communication unit to be in the communication state and the second communication unit to be in the pause state when the wireless tag is positioned within communication ranges of both of the first and second communication units (100A, 100B) of the plurality of communication units characterized in that the communication units (100A, 100B) are configured to move relatively to a plurality of wireless tags and are disposed along a direction perpendicular to a traveling direction thereof and are configured to communicate with a plurality of wireless tags disposed along the traveling direction. a plurality of communication units (100A, 100B), including a first communication unit and a second communication unit, each communication unit being configured to communicate with a wireless tag and disposed such that communicable ranges of the communication units (100A, 100B) overlap each other; and a control unit configured to control each of the communication units (100A, 100B) to alternate between a communication state and a pause state, wherein the control unit is configured to control the first communication unit to be in the communication state and the second communication unit to be in the pause state when the wireless tag is positioned within communication ranges of both of the first and second communication units (100A, 100B) of the plurality of communication units characterized in that the communication units (100A, 100B) are configured to move relatively to a plurality of wireless tags and are disposed along a direction perpendicular to a traveling direction thereof and are configured to communicate with a plurality of wireless tags disposed along the traveling direction.
Electrical connector assembly for an electrical circuit of a motor vehicle, comprising - a first housing part defining at least one cavity extending longitudinally along an insertion direction, - a power terminal with a connection portion configured to be inserted, in the insertion direction, in said at least one cavity, the power terminal having an external cylindrical surface and an internal cylindrical surface, - a first electrical conductor at least a portion of which being covered by the first housing part, and configured to be connected to the power terminal through said at least one cavity, when said power terminal is inserted in the said at least one cavity, this connector assembly being characterized - in that said cavity has an internal surface from which protrudes at least one protection structure, said at least one protection structure being configured to prevent the insertion, in the insertion direction, in said cavity, of a solid cylinder having a diameter equal to or greater than 12 mm, past said at least one protection structure, - in that at least one slot is defined in said external surface, said external cylindrical surface having a diameter greater than 12 mm, each slot extending longitudinally parallel to the insertion direction and extending radially only over a portion of the thickness of the terminal between the external cylindrical surface and the internal cylindrical surface, and - in that said at least one protection structure can slide parallel to the insertion direction in at least one slot. - a first housing part defining at least one cavity extending longitudinally along an insertion direction, - a power terminal with a connection portion configured to be inserted, in the insertion direction, in said at least one cavity, the power terminal having an external cylindrical surface and an internal cylindrical surface, - a first electrical conductor at least a portion of which being covered by the first housing part, and configured to be connected to the power terminal through said at least one cavity, when said power terminal is inserted in the said at least one cavity, - in that said cavity has an internal surface from which protrudes at least one protection structure, said at least one protection structure being configured to prevent the insertion, in the insertion direction, in said cavity, of a solid cylinder having a diameter equal to or greater than 12 mm, past said at least one protection structure, - in that at least one slot is defined in said external surface, said external cylindrical surface having a diameter greater than 12 mm, each slot extending longitudinally parallel to the insertion direction and extending radially only over a portion of the thickness of the terminal between the external cylindrical surface and the internal cylindrical surface, and - in that said at least one protection structure can slide parallel to the insertion direction in at least one slot.
A method for transferring micro-LEDs (1003r, 1003g, 1003b) at wafer level, comprising: temporarily bonding micro-LEDs (1003r, 1003g, 1003b) on a laser-transparent original substrate onto a carrier substrate via a first bonding layer; irradiating the original substrate from the original substrate side with laser, to lift-off selected micro-LEDs (1003r, 1003g, 1003b) from the original substrate; performing a partial release on the first bonding layer, to transfer the selected micro-LEDs (1003r, 1003g, 1003b) to the carrier substrate; temporarily bonding the selected micro-LEDs (1003r, 1003g, 1003b) on the carrier substrate onto a transfer head substrate (1008, 1010, 1012) via a second bonding layer (1007, 1009, 1011); performing a full release on the first bonding layer, to transfer the selected micro-LEDs (1003r, 1003g, 1003b) to the transfer head substrate (1008, 1010, 1012); bonding the selected micro-LEDs (1003r, 1003g, 1003b) on the transfer head substrate (1008, 1010, 1012) onto a receiving substrate; and removing the transfer head substrate (1008, 1010, 1012) by releasing the second bonding layer (1007, 1009, 1011), to transfer the selected micro-LEDs (1003r, 1003g, 1003b) to the receiving substrate. temporarily bonding micro-LEDs (1003r, 1003g, 1003b) on a laser-transparent original substrate onto a carrier substrate via a first bonding layer; irradiating the original substrate from the original substrate side with laser, to lift-off selected micro-LEDs (1003r, 1003g, 1003b) from the original substrate; performing a partial release on the first bonding layer, to transfer the selected micro-LEDs (1003r, 1003g, 1003b) to the carrier substrate; temporarily bonding the selected micro-LEDs (1003r, 1003g, 1003b) on the carrier substrate onto a transfer head substrate (1008, 1010, 1012) via a second bonding layer (1007, 1009, 1011); performing a full release on the first bonding layer, to transfer the selected micro-LEDs (1003r, 1003g, 1003b) to the transfer head substrate (1008, 1010, 1012); bonding the selected micro-LEDs (1003r, 1003g, 1003b) on the transfer head substrate (1008, 1010, 1012) onto a receiving substrate; and removing the transfer head substrate (1008, 1010, 1012) by releasing the second bonding layer (1007, 1009, 1011), to transfer the selected micro-LEDs (1003r, 1003g, 1003b) to the receiving substrate.