mhurhangee/ep-ind-claims huggingface dataset:
Safety system for a rail vehicle site, the rail vehicle site comprising - at least one rail vehicle track with two rails, - at least one rail vehicle, and - the safety system wherein the safety system comprises at least one scotch element for at least one wheel of the rail vehicle, at least one sensor (50, 51, 52), at least one control unit and at least one apparatus for moving the scotch element, characterized in that - a safety condition on the rail vehicle site is observable by the sensor (50, 51, 52), and if the safety condition is met the control unit activates the apparatus, - a movement of the scotch element on one of the rails of the rail vehicle track is controllable by the control unit and - the movement of the scotch element is dependent on the safety condition. - at least one rail vehicle track with two rails, - at least one rail vehicle, and - the safety system wherein the safety system comprises at least one scotch element for at least one wheel of the rail vehicle, at least one sensor (50, 51, 52), at least one control unit and at least one apparatus for moving the scotch element, characterized in that - a safety condition on the rail vehicle site is observable by the sensor (50, 51, 52), and if the safety condition is met the control unit activates the apparatus, - a movement of the scotch element on one of the rails of the rail vehicle track is controllable by the control unit and - the movement of the scotch element is dependent on the safety condition.
A method for preparing a 1,2,3-triazole compound comprising contacting an organic azide with a 2-substituted-1-haloalkyne in the presence of a copper catalyst and an copper-coordinating ligand in a liquid reaction medium, thereby forming a 1,4,5-substituted-1,2,3-triazole compound including a halo substituent at the 5-position of the triazole, the organic portion of the organic azide at the 1-position of the triazole, and the substituent of the 1-haloalkyne at the 4-position of the triazole.
A multi-layer susceptor assembly for inductively heating an aerosol-forming substrate, the susceptor assembly comprising at least: - a first layer comprising a first susceptor material; - a second layer intimately coupled to the first layer, comprising a second susceptor material having a Curie temperature lower than 500 °C; characterized in that the susceptor assembly further comprises a third layer intimately coupled to the second layer, comprising a specific stress-compensating material and a specific layer thickness such that after intimately coupling the layers to each other and/or after a heat treatment of the multi-layer susceptor assembly the third layer exerts a tensile or compressive stress onto the second layer at least in a compensation temperature range for counteracting a compressive or tensile stress exerted by the first layer onto the second layer, wherein the compensation temperature range extends at least from 20 K below the Curie temperature of the second susceptor material up to the Curie temperature of the second susceptor material. - a first layer comprising a first susceptor material; - a second layer intimately coupled to the first layer, comprising a second susceptor material having a Curie temperature lower than 500 °C;
A method for monitoring a production line, comprising: acquiring operating data on individual mechanical devices in a target production line; primarily classifying the operating data according to characteristics attributed to the operating data to obtain various types of status data; and processing, for each type of status data included in the various types of status data, the status data according to a processing rule matching the status data to obtain a monitoring result; wherein the method is characterized in that: - characteristics attributed to the operating data include upper-level storage addresses of the operating data, wherein the upper-level storage addresses are addresses where the operating data are stored in a controller of the individual mechanical devices; and - the step of primarily classifying the operating data according to characteristics attributed to the operating data to obtain various types of status data comprises: - assigning the operating data to corresponding data storage variables depending on the upper-level storage addresses of the operating data, to obtain intermediate data; - classifying the intermediate data according to definitions attributed to the corresponding data storage variables to obtain various types of status data: wherein the step of acquiring operating data on individual mechanical devices in a target production line, and the step of processing for each type of status data included in the various types of status data, the status data according to a processing rule matching the status data to obtain a monitoring result, are carried out separately by using asynchronous threads. acquiring operating data on individual mechanical devices in a target production line; primarily classifying the operating data according to characteristics attributed to the operating data to obtain various types of status data; and processing, for each type of status data included in the various types of status data, the status data according to a processing rule matching the status data to obtain a monitoring result; - characteristics attributed to the operating data include upper-level storage addresses of the operating data, wherein the upper-level storage addresses are addresses where the operating data are stored in a controller of the individual mechanical devices; and - the step of primarily classifying the operating data according to characteristics attributed to the operating data to obtain various types of status data comprises: - assigning the operating data to corresponding data storage variables depending on the upper-level storage addresses of the operating data, to obtain intermediate data; - classifying the intermediate data according to definitions attributed to the corresponding data storage variables to obtain various types of status data: - assigning the operating data to corresponding data storage variables depending on the upper-level storage addresses of the operating data, to obtain intermediate data; - classifying the intermediate data according to definitions attributed to the corresponding data storage variables to obtain various types of status data:
A skin treatment device, comprising: a potting containing at least one light source for emitting electromagnetic radiation having desired characteristics for treating one or more skin conditions; a skin contacting surface disposed at one end of the potting, the skin contacting surface being adapted for transmitting electromagnetic radiation emitted from the at least one light source to a user's skin; a vibrator directly or indirectly contacting other end of the potting, the vibrator being adapted to cause the skin contacting surface to vibrate; and a control assembly for controlling operation of the light source and the vibrator; wherein the potting acts to transfer heat generated from the at least one light source to a user's skin through skin contacting surface, wherein the at least one light source and the vibrator are aligned along an axis extending from the one end of the potting to the other end of the potting, and wherein the device further comprises a housing accommodating electric circuitry components aligned along the axis with the light source and the vibrator and a bias axially pressing the electrical circuitry components against each other so as to prevent dislodging of the components in case of a disturbance. a potting containing at least one light source for emitting electromagnetic radiation having desired characteristics for treating one or more skin conditions; a skin contacting surface disposed at one end of the potting, the skin contacting surface being adapted for transmitting electromagnetic radiation emitted from the at least one light source to a user's skin; a vibrator directly or indirectly contacting other end of the potting, the vibrator being adapted to cause the skin contacting surface to vibrate; and a control assembly for controlling operation of the light source and the vibrator; wherein a housing accommodating electric circuitry components aligned along the axis with the light source and the vibrator and a bias axially pressing the electrical circuitry components against each other so as to prevent dislodging of the components in case of a disturbance.
An isotope production target (10, 30, 40, 76, 140), comprising: an outer diameter wall (3, 32, 52, 82); an inner diameter wall (9, 34, 54, 84); an isotope source (31, 143) located between the inner diameter wall and the outer diameter wall, wherein the isotope source comprises fissile material (36, 53, 56) interspersed with one or more voided regions (38, 58); and a central region (15, 35, 45, 85, 145) located within the inner diameter wall, wherein the central region is configured to house a neutron thermalization volume; wherein the central region is configured to cause neutrons that are generated in the fissile material to be thermalized by the neutron thermalization volume before re-entering the fissile material. an outer diameter wall (3, 32, 52, 82); an inner diameter wall (9, 34, 54, 84); an isotope source (31, 143) located between the inner diameter wall and the outer diameter wall, wherein the isotope source comprises fissile material (36, 53, 56) interspersed with one or more voided regions (38, 58); and a central region (15, 35, 45, 85, 145) located within the inner diameter wall, wherein the central region is configured to house a neutron thermalization volume; wherein the central region is configured to cause neutrons that are generated in the fissile material to be thermalized by the neutron thermalization volume before re-entering the fissile material.
An infrared reflective film comprising an infrared ray reflective layer and a transparent protective layer on a transparent film backing in this order, wherein the infrared ray reflective layer comprises: a first metal oxide layer; a metal layer comprising a primary component consisting of silver; and a second metal oxide layer comprised of a composite metal oxide containing zinc oxide and tin oxide, which are arranged in this order from the side of the transparent film backing, and wherein the transparent protective layer has a thickness of 30 nm to 130 nm, the transparent protective layer being an organic layer. wherein the infrared ray reflective layer comprises: a first metal oxide layer; a metal layer comprising a primary component consisting of silver; and a second metal oxide layer comprised of a composite metal oxide containing zinc oxide and tin oxide, which are arranged in this order from the side of the transparent film backing, and wherein the transparent protective layer has a thickness of 30 nm to 130 nm, the transparent protective layer being an organic layer.
A method for annealing a metal preform of a container, the preform having a sidewall, a closed end and an open end, the annealing method comprising the steps of: generating an electro-magnetic field; and shock annealing at least one region of the metal preform by exposing the preform to the electro-magnetic field for inductively heating the preform material to generate a temperature rise in the material of at least 120°C/sec to reach an annealing temperature in the range of 65% to 98% of the melting point temperature of the preform material. generating an electro-magnetic field; and shock annealing at least one region of the metal preform by exposing the preform to the electro-magnetic field for inductively heating the preform material to generate a temperature rise in the material of at least 120°C/sec to reach an annealing temperature in the range of 65% to 98% of the melting point temperature of the preform material.
A measurement method performed by a user equipment, UE, accessing a serving base station serving a serving cell, the method comprising: • receiving first restrictive measurement resources from a first base station serving a first neighboring cell and receiving second restrictive measurement resources from a second base station serving a second neighboring cell (step 101), the first and the second base stations are deployed in the coverage area of the serving base station, and • performing, based on the first and second restrictive measurement resources, a radio resource management, RRM, measurement on a neighboring cell among the two neighboring cells, whose measurement resource needs to be limited, and/or performing radio link monitoring, RLM, on the serving cell of the UE based on the first and second restrictive measurement resources (step 102). • receiving first restrictive measurement resources from a first base station serving a first neighboring cell and receiving second restrictive measurement resources from a second base station serving a second neighboring cell (step 101), the first and the second base stations are deployed in the coverage area of the serving base station, and • performing, based on the first and second restrictive measurement resources, a radio resource management, RRM, measurement on a neighboring cell among the two neighboring cells, whose measurement resource needs to be limited, and/or performing radio link monitoring, RLM, on the serving cell of the UE based on the first and second restrictive measurement resources (step 102).
A method for welding at least two profiles (12, 14, 54, 56, 58, 60) to form a frame portion, with the following steps: - Providing two profiles (12, 14, 54, 56, 58, 60) to be welded via welding surfaces; - Heating the welding surfaces of the profiles (12, 14, 54, 56, 58, 60) via a heating unit having at least one heating surface that faces at least one welding surface of the profiles (12, 14, 54, 56, 58, 60); - Effecting a relative movement between the at least one heating surface and at least one welding surface in a welding plane being substantially parallel to the at least one welding surface while the at least one heating surface facing the welding surface; and - Coupling the profiles (12, 14, 54, 56, 58, 60) via their heated welding surfaces to form the frame portion, characterized in that a pressure is applied to at least one interface defined by the heating unit and at least one welding surface via a pressure unit. - Providing two profiles (12, 14, 54, 56, 58, 60) to be welded via welding surfaces; - Heating the welding surfaces of the profiles (12, 14, 54, 56, 58, 60) via a heating unit having at least one heating surface that faces at least one welding surface of the profiles (12, 14, 54, 56, 58, 60); - Effecting a relative movement between the at least one heating surface and at least one welding surface in a welding plane being substantially parallel to the at least one welding surface while the at least one heating surface facing the welding surface; and - Coupling the profiles (12, 14, 54, 56, 58, 60) via their heated welding surfaces to form the frame portion, characterized in that a pressure is applied to at least one interface defined by the heating unit and at least one welding surface via a pressure unit.
A cosmetic agent for cosmetically treating keratin-containing fibers, in particular human hair, containing, in a cosmetically acceptable carrier, (a) at least one amphiphilic, cationic polymer comprising at least one structural unit of formula, at least one structural unit of formula, at least one structural unit of formula and at least one structural unit of formula, in which R 1 and R 4 represent, independently of one another, a hydrogen atom or a methyl group, X 1 and X 2 represent, independently of one another, an oxygen atom or an NH group, A 1 and A 2 represent, independently of one another, an ethane-1,2-diyl group, a propane-1,3-diyl group or a butane-1,4-diyl group, R 2, R 3, R 5 and R 6 represent, independently of one another, a (C 1 to C 4) alkyl group, R 7 represents a (C 8 to C 30) alkyl group, and (b) at least one copolymer comprising at least one structural unit of formula, at least one structural unit of formula, and at least one structural unit of formula, in which R 1, R 3 and R 7 represent, independently of one another, a hydrogen atom or a methyl group, R 2 represents a (C 1 to C 4) alkyl group, R 4 represents a hydroxy (C 2 to C 6) alkyl group. (a) at least one amphiphilic, cationic polymer comprising at least one structural unit of formula, at least one structural unit of formula, at least one structural unit of formula and at least one structural unit of formula, in which R 1 and R 4 represent, independently of one another, a hydrogen atom or a methyl group, X 1 and X 2 represent, independently of one another, an oxygen atom or an NH group, A 1 and A 2 represent, independently of one another, an ethane-1,2-diyl group, a propane-1,3-diyl group or a butane-1,4-diyl group, R 2, R 3, R 5 and R 6 represent, independently of one another, a (C 1 to C 4) alkyl group, R 7 represents a (C 8 to C 30) alkyl group, and R 1 and R 4 represent, independently of one another, a hydrogen atom or a methyl group, X 1 and X 2 represent, independently of one another, an oxygen atom or an NH group, A 1 and A 2 represent, independently of one another, an ethane-1,2-diyl group, a propane-1,3-diyl group or a butane-1,4-diyl group, R 2, R 3, R 5 and R 6 represent, independently of one another, a (C 1 to C 4) alkyl group, R 7 represents a (C 8 to C 30) alkyl group, (b) at least one copolymer comprising at least one structural unit of formula, at least one structural unit of formula, and at least one structural unit of formula, in which R 1, R 3 and R 7 represent, independently of one another, a hydrogen atom or a methyl group, R 2 represents a (C 1 to C 4) alkyl group, R 4 represents a hydroxy (C 2 to C 6) alkyl group. R 1, R 3 and R 7 represent, independently of one another, a hydrogen atom or a methyl group, R 2 represents a (C 1 to C 4) alkyl group, R 4 represents a hydroxy (C 2 to C 6) alkyl group.
An insulated glazing unit comprising a first laminated pane comprising two glass sheets (11, 13), each no more than 2 mm thick, that are bonded to one another by an intermediate adhesive layer, a second structural laminated pane providing the mechanical strength required for the flight conditions, in particular resistance to bird strike and control of glazing unit deformation under pressure difference conditions during a flight on either side of the insulated glazing unit, and a gas gap between the first and second laminated panes (1, 2), the first laminated pane being provided with a heating system.
A vehicle lighting device comprising: a socket; a substrate provided on one end side of the socket; at least one light emitting element provided on the substrate; a frame part that has a frame shape, is provided on the substrate, and surrounds the light emitting element; a sealing part that is provided on an inner side of the frame part and covers the light emitting element; and a lens that is provided on the sealing part and comprises an optical part into which a light emitted from the light emitting element enters, wherein the optical part comprises a first portion (26a2) from which the light entered is emitted, the first portion (26a2) protrudes to a side opposite to a sealing part side, characterised in that a contour of the first portion (26a2) is a substantially rectangular shape as viewed from a direction along a central axis of the optical part. a socket; a substrate provided on one end side of the socket; at least one light emitting element provided on the substrate; a frame part that has a frame shape, is provided on the substrate, and surrounds the light emitting element; a sealing part that is provided on an inner side of the frame part and covers the light emitting element; and a lens that is provided on the sealing part and comprises an optical part into which a light emitted from the light emitting element enters, wherein the optical part comprises a first portion (26a2) from which the light entered is emitted, the first portion (26a2) protrudes to a side opposite to a sealing part side, characterised in that a contour of the first portion (26a2) is a substantially rectangular shape as viewed from a direction along a central axis of the optical part.
A separation device comprising: a movable mesh that has a first surface and a second surface in a front and back relationship; a first ejection unit that ejects a material containing a fiber together with gas and supplies the material onto the first surface of the mesh; a first suction unit that is provided on the second surface side of the mesh and configured to suck a part of the material supplied onto the first surface together with gas; a second ejection unit that is provided on the second surface side of the mesh, is disposed downstream in a movement direction of the mesh with respect to the first suction unit, and ejects gas toward the second surface; and a second suction unit that is provided on the first surface side of the mesh and sucks and collects the material that does not pass through the mesh by the first suction unit and remains on the first surface, characterised in that Q1 < Q2 and Q3 < Q4, where a flow rate of gas ejected from the first ejection unit is Q1, a flow rate of gas sucked by the first suction unit is Q2, a flow rate of gas ejected from the second ejection unit is Q3, and a flow rate of gas sucked by the second suction unit is Q4. a movable mesh that has a first surface and a second surface in a front and back relationship; a first ejection unit that ejects a material containing a fiber together with gas and supplies the material onto the first surface of the mesh; a first suction unit that is provided on the second surface side of the mesh and configured to suck a part of the material supplied onto the first surface together with gas; a second ejection unit that is provided on the second surface side of the mesh, is disposed downstream in a movement direction of the mesh with respect to the first suction unit, and ejects gas toward the second surface; and a second suction unit that is provided on the first surface side of the mesh and sucks and collects the material that does not pass through the mesh by the first suction unit and remains on the first surface, characterised in that Q1 < Q2 and Q3 < Q4, where a flow rate of gas ejected from the first ejection unit is Q1, a flow rate of gas sucked by the first suction unit is Q2, a flow rate of gas ejected from the second ejection unit is Q3, and a flow rate of gas sucked by the second suction unit is Q4.