mhurhangee/ep-ind-claims huggingface dataset:
Automatic front pin-operation assembly for a ski binding, in particular a touring-ski binder, having two oppositely located levers (103.1, 103.2) arranged laterally, as seen in the longitudinal direction of the ski, and each having a stub (105.1, 105.2) for retaining a ski boot in a toe region of the ski boot, wherein the two levers (103.1, 103.2) are mounted in a pivotable manner such that, during a pivoting movement of the levers (103.1, 103.2), the stubs (105.1, 105.2) are moved in a transverse direction of the ski, a. wherein the automatic front pin-operation assembly has a disengagement position, in which the two stubs (105.1, 105.2) are located at a first distance from one another, and b. the automatic front pin-operation assembly has an arresting position, in which the two stubs (105.1, 105.2) are located at a second distance from one another, the second distance being smaller than the first distance, wherein the automatic front pin-operation assembly comprises a ski-boot-positioning unit for help when a user is stepping into the automatic front pin-operation assembly, by making it easier for a ski boot to be positioned relative to the automatic front pin-operation assembly in a manner which is suitable for the user to step in, the ski-boot-positioning unit of the automatic front pin-operation assembly comprising a first stop element (2.1) with a first stop (3.1) for the ski boot and also a second stop element (2.2) with a second stop (3.2) for the ski boot, wherein the first stop element (2.1) can be moved relative to the second stop element (2.2), as a result of which it is possible to alter a distance between the first stop (3.1) and the second stop (3.2), characterized in that the ski-boot-positioning unit of the automatic front pin-operation assembly comprises an elastic element (4.1, 4.2) for generating prestressing of the first stop element (2.1) relative to the second stop element (2.2) in order to minimize the distance between the first stop (3.1) and the second stop (3.2), wherein the first stop element (2.1) is prestressed in the direction of the second stop element (2.2) by the elastic element (4.1), and in that the ski-boot-positioning unit of the automatic front pin-operation assembly comprises a second elastic element (4.2), which prestresses the second stop element (2.2) in the direction of the first stop element (2.1), wherein, when the ski boot is being positioned relative to the automatic front pin-operation assembly, the distance between the first stop (3.1) and the second stop (3.2) can be adapted to a size of the ski boot. a. wherein the automatic front pin-operation assembly has a disengagement position, in which the two stubs (105.1, 105.2) are located at a first distance from one another, and b. the automatic front pin-operation assembly has an arresting position, in which the two stubs (105.1, 105.2) are located at a second distance from one another, the second distance being smaller than the first distance,
A safe and convenient disposable blood-taking needle with double-surface cap, comprising lancet body with needle tip, lancet handle and lancet cap, the lancet body is fixed inside the lancet handle and the needle tip extends out of the first end of lancet handle to be inserted into the lancet cap, wherein: the body of above described lancet cap is a block structure, which is provided with first face and second face, both first face and second face are flat and when one face faces upwards, the other face faces downwards and the included angle between them in space is less than 45°; the first face is provided with first blind hole and second face is provided with second blind hole and both first blind hole and second blind hole match the first end of lancet handle in respect of connection relationship; in the above described block structure, except the first face and second face, the other external surfaces are arcuate faces protruding outward and angular faces protruding outward; the open end of lancet cap always faces upwards when the lancet cap is placed on a work table and the open end of lancet cap means the end with the blind hole on first face or second face and the lancet cap is always in an insertion-ready state for the needle tip of the used lancet. the body of above described lancet cap is a block structure, which is provided with first face and second face, both first face and second face are flat and when one face faces upwards, the other face faces downwards and the included angle between them in space is less than 45°; the first face is provided with first blind hole and second face is provided with second blind hole and both first blind hole and second blind hole match the first end of lancet handle in respect of connection relationship; in the above described block structure, except the first face and second face, the other external surfaces are arcuate faces protruding outward and angular faces protruding outward; the open end of lancet cap always faces upwards when the lancet cap is placed on a work table and the open end of lancet cap means the end with the blind hole on first face or second face and the lancet cap is always in an insertion-ready state for the needle tip of the used lancet.
A motor vehicle light, having - a housing, - at least one light source in the housing, - an opening (Ö) for replacing the light source and - a multiple closure element for the water-tight closure of the opening (Ö), and - in addition a single closure element for the water-tight closure of the opening (Ö), which single closure element is connected to the housing such that it cannot be detached from the housing without being destroyed. - a housing, - at least one light source in the housing, - an opening (Ö) for replacing the light source and - a multiple closure element for the water-tight closure of the opening (Ö), and - in addition a single closure element for the water-tight closure of the opening (Ö), which single closure element is connected to the housing such that it cannot be detached from the housing without being destroyed.
A line striper comprising: a material deployment system configured to receive material from a material source and deliver the received material to a material deployment mechanism, wherein the material deployment mechanism is configured to apply the received material to a surface; and a mechanical debris removal system comprising a contact mechanism configured to facilitate dislodging of the debris from the surface characterized in that the mechanical debris removal system is configured to rotate between a deployed position and a storage position independently from the material deployment system and, when deployed, move along an application path ahead of the material deployment mechanism such that debris is dislodged from the surface. a material deployment system configured to receive material from a material source and deliver the received material to a material deployment mechanism, wherein the material deployment mechanism is configured to apply the received material to a surface; and a mechanical debris removal system comprising a contact mechanism configured to facilitate dislodging of the debris from the surface characterized in that the mechanical debris removal system is configured to rotate between a deployed position and a storage position independently from the material deployment system and, when deployed, move along an application path ahead of the material deployment mechanism such that debris is dislodged from the surface.
Method for forming a packaging material used to produce a product package having at least partly a print layer visible from the outside of the product package, comprising the steps, providing a first film having a base layer whereby the print layer is printed on one side of the base layer by reverse digital printing, providing a second film having at least two layers, a base layer and a core layer whereby the core layer is coated on one side of the base layer by extrusion coating, the first film and the second film are subsequently thermally laminated, whereby the print layer or an optionally present primer layer of the first film contacts the core layer or an optionally present coating layer of the second film to form the packaging material, characterized in that the digital reverse printing is achieved by using an inkjet printing device.
A vaso-occlusive device delivery assembly, comprising: a pusher assembly having proximal and distal ends (202, 204) and comprising first and second conductors (220, 222) extending between the proximal and distal ends (202, 204) of the pusher assembly, and a thermally-degradable conductive sacrificial link disposed at the distal end of the pusher assembly and electrically coupled between the respective first and second conductors (220, 222), such that the first conductor, the sacrificial link, and the second conductor form an electrical circuit; and a vaso-occlusive device secured to the pusher assembly by the sacrificial link, wherein the sacrificial link is configured to generate heat that thermally disintegrates the sacrificial link, thereby releasing the vaso-occlusive device from the pusher assembly, when a disintegration current is applied through the sacrificial link, characterized in that the delivery assembly further comprises an attachment member (320, 322, 326) secured to a proximal end of the vaso-occlusive device and secured to the pusher assembly by the sacrificial link, the attachment member (320, 322, 326) comprising a meltable tether (320, 322, 326), wherein the meltable tether (320, 322, 326) is configured such that, when a heating current, less than the disintegration current, is applied through the sacrificial link, the sacrificial link is heated by resistive heating to a temperature sufficient to sever the meltable tether (320, 322, 326) without disintegrating the sacrificial link, thereby detaching the vaso-occlusive device from the pusher assembly. a pusher assembly having proximal and distal ends (202, 204) and comprising first and second conductors (220, 222) extending between the proximal and distal ends (202, 204) of the pusher assembly, and a thermally-degradable conductive sacrificial link disposed at the distal end of the pusher assembly and electrically coupled between the respective first and second conductors (220, 222), such that the first conductor, the sacrificial link, and the second conductor form an electrical circuit; and a vaso-occlusive device secured to the pusher assembly by the sacrificial link, wherein the sacrificial link is configured to generate heat that thermally disintegrates the sacrificial link, thereby releasing the vaso-occlusive device from the pusher assembly, when a disintegration current is applied through the sacrificial link, characterized in that the delivery assembly further comprises an attachment member (320, 322, 326) secured to a proximal end of the vaso-occlusive device and secured to the pusher assembly by the sacrificial link, the attachment member (320, 322, 326) comprising a meltable tether (320, 322, 326), wherein the meltable tether (320, 322, 326) is configured such that, when a heating current, less than the disintegration current, is applied through the sacrificial link, the sacrificial link is heated by resistive heating to a temperature sufficient to sever the meltable tether (320, 322, 326) without disintegrating the sacrificial link, thereby detaching the vaso-occlusive device from the pusher assembly.
A method for preparing N,N'-bis(2-cyanoethyl)-1,2-ethylenediamine, comprising taking ethylenediamine and acrylonitrile at a molar ratio therebetween of 1: 1.9-2.1 as reactants to perform synthesis reaction in the presence of strongly acidic cation exchange resin for 5-30 minutes thereby obtaining N,N'-bis(2-cyanoethyl)-1,2-ethylenediamine, characterized in that the strongly acidic cation exchange resin is bead-form sulfonic-acid-based or carboxylic-acid-based cation exchange resin and is used in an amount of 50-100wt% based on a weight of the ethylenediamine reactant, and said synthesis reaction is performed at a temperature of 20-70°C thereby obtaining N,N'-bis(2-cyanoethyl)-1,2-ethylenediamine with a yield of 97.7% or more.
A method for wireless communications at a user equipment, UE,, comprising: receiving an uplink grant that indicates scheduling information for an uplink shared channel transmission for the UE; receiving a downlink grant after receiving the uplink grant, the downlink grant indicating scheduling information for a downlink shared channel transmission for the UE or a release of periodically scheduled resources for the UE; receiving a second downlink grant before receiving the uplink grant, the second downlink grant indicating scheduling information for a second downlink shared channel transmission for the UE or a release of periodically scheduled resources for the UE; generating a first feedback information based at least in part on the downlink grant; generating a second feedback information based at least in part on the second downlink grant; and performing the uplink shared channel transmission including the first feedback information and the second feedback information based at least in part on the scheduling information for the uplink shared channel transmission. receiving an uplink grant that indicates scheduling information for an uplink shared channel transmission for the UE; receiving a downlink grant after receiving the uplink grant, the downlink grant indicating scheduling information for a downlink shared channel transmission for the UE or a release of periodically scheduled resources for the UE; receiving a second downlink grant before receiving the uplink grant, the second downlink grant indicating scheduling information for a second downlink shared channel transmission for the UE or a release of periodically scheduled resources for the UE; generating a first feedback information based at least in part on the downlink grant; generating a second feedback information based at least in part on the second downlink grant; and performing the uplink shared channel transmission including the first feedback information and the second feedback information based at least in part on the scheduling information for the uplink shared channel transmission.
A variable-vane assembly for a variable-nozzle turbine, the variable-vane assembly comprising: a generally annular nozzle ring and an array of vanes circumferentially spaced about the nozzle ring, each vane being rotatably mounted to the nozzle ring and connected to a rotatable actuator ring such that rotation of the actuator ring relative to the nozzle ring rotates the vanes for regulating exhaust gas flow through the array of vanes; an insert having a tubular portion structured and arranged to be sealingly received into a bore of a turbine housing and having a nozzle portion extending generally radially out from one end of the tubular portion, the nozzle portion being axially spaced from the nozzle ring such that the vanes extend between the nozzle ring and the nozzle portion; characterized by a distinct, separate ring-shaped wire cage disposed radially outwardly of the vanes and having one axial end rigidly affixed to the nozzle ring and an opposite axial end rigidly affixed to the nozzle portion so as to fix a spacing between the nozzle ring and the nozzle portion in an axial direction of the variable-vane assembly, the wire cage having a plurality of circumferentially spaced wires extending generally in the axial direction between the nozzle ring and the nozzle portion. a generally annular nozzle ring and an array of vanes circumferentially spaced about the nozzle ring, each vane being rotatably mounted to the nozzle ring and connected to a rotatable actuator ring such that rotation of the actuator ring relative to the nozzle ring rotates the vanes for regulating exhaust gas flow through the array of vanes; an insert having a tubular portion structured and arranged to be sealingly received into a bore of a turbine housing and having a nozzle portion extending generally radially out from one end of the tubular portion, the nozzle portion being axially spaced from the nozzle ring such that the vanes extend between the nozzle ring and the nozzle portion; characterized by a distinct, separate ring-shaped wire cage disposed radially outwardly of the vanes and having one axial end rigidly affixed to the nozzle ring and an opposite axial end rigidly affixed to the nozzle portion so as to fix a spacing between the nozzle ring and the nozzle portion in an axial direction of the variable-vane assembly, the wire cage having a plurality of circumferentially spaced wires extending generally in the axial direction between the nozzle ring and the nozzle portion.
A method for producing a group III nitride laminate by a MOCVD method with supplying a group III raw material gas and a nitrogen source gas onto a main surface of an aluminum nitride single crystal substrate and growing a layer containing a group III nitride single crystal represented by Al X In Y Ga Z N, where X, Y, and Z in the composition formula satisfy relation of X + Y + Z = 1.0, 0.85 ≤ X < 0.99, 0.00 ≤ Y < 0.14, and 0.01 < Z ≤ 0.15, onto said main surface of said aluminum nitride single crystal substrate, wherein a surface of the layer containing the group III nitride single crystal has a root-mean-square roughness in a region of 2 × 2 μm 2 of 0.5 nm or less measured by using an atomic force microscope, and wherein the group III raw material gas is at least one selected from the group consisting of trimethylaluminum, trimethylgallium, and trimethylindium, and the nitrogen source gas is ammonia, a growth temperature when growing the layer containing the group III nitride single crystal is set to 1000°C or more and 1200°C or less, a growth rate when growing the layer containing the group III nitride single crystal is set to 0.1 μm/h or more and 0.5 μm/h or less, and a V/III ratio representing a molar ratio of the nitrogen source gas to the group III raw material gas is set to 5000 or more and 15000 or less. wherein a surface of the layer containing the group III nitride single crystal has a root-mean-square roughness in a region of 2 × 2 μm 2 of 0.5 nm or less measured by using an atomic force microscope, and wherein the group III raw material gas is at least one selected from the group consisting of trimethylaluminum, trimethylgallium, and trimethylindium, and the nitrogen source gas is ammonia, a growth temperature when growing the layer containing the group III nitride single crystal is set to 1000°C or more and 1200°C or less, a growth rate when growing the layer containing the group III nitride single crystal is set to 0.1 μm/h or more and 0.5 μm/h or less, and a V/III ratio representing a molar ratio of the nitrogen source gas to the group III raw material gas is set to 5000 or more and 15000 or less.
A single-crystal diamond material having a transmittance of light of less than or equal to 15% for any wavelength greater than or equal to 410 nm and less than or equal to 750 nm, when a thickness of the single-crystal diamond material is between 0.8 mm and 4.8 mm, the single-crystal diamond material being at least either of an electrical insulator according to optical evaluation and an electrical insulator according to electrical evaluation, wherein a criterion of said optical evaluation is a transmittance of light with a wavelength of 10.6 μm of greater than or equal to 1% when a thickness of the single crystal diamond material is between 0.8 mm and 4.8 mm, a criterion of said electrical evaluation is an average resistivity of greater than or equal to 1 × 10 6 Ωcm, and the transmittance of light refers to the transmittance of light that enters with an angle of deviation from the perpendicular direction of less than or equal to 0.1° to one principal surface and radiates from the other principal surface irrespectively of the wavelength of the light, when two planes randomly specified in the single-crystal diamond material are defined as principal surfaces, the two planes having an arithmetic mean roughness Ra of surface defined by JIS B0601:2013 of less than or equal to 2 nm and a degree of parallelism of less than or equal to 0.1°.
A method for fault detection in line protection for a power transmission system, comprising: obtaining a voltage at a measurement point, at which a protection device for the line protection is installed, on an electrical line; obtaining a current at the measurement point; determining a differential value of the current; determining a voltage at a setting point on the electrical line from the voltage at the measurement point, the current at the measurement point and the differential value of the current according to a time domain lumped parameter model for the electrical line; determining a voltage change between the determined voltage at the setting point during fault period and a voltage at the setting point determined during a pre-fault period; and performing the fault detection based on the determined voltage change and a fault threshold, wherein the fault threshold is a product of a reliable coefficient and the voltage at the setting point determined during the pre-fault period during a non-power swing period, and the fault threshold is a product of the reliable coefficient and a fixed voltage during a power swing period. obtaining a voltage at a measurement point, at which a protection device for the line protection is installed, on an electrical line; obtaining a current at the measurement point; determining a differential value of the current; determining a voltage at a setting point on the electrical line from the voltage at the measurement point, the current at the measurement point and the differential value of the current according to a time domain lumped parameter model for the electrical line; determining a voltage change between the determined voltage at the setting point during fault period and a voltage at the setting point determined during a pre-fault period; and performing the fault detection based on the determined voltage change and a fault threshold, wherein the fault threshold is a product of a reliable coefficient and the voltage at the setting point determined during the pre-fault period during a non-power swing period, and the fault threshold is a product of the reliable coefficient and a fixed voltage during a power swing period.