mhurhangee/ep-ind-claims huggingface dataset:
A user identity verification method, executed by a server, the method comprising: sending a first facial quality score threshold and a first number of eye-print collection steps corresponding to an identity verification mode to a client to obtain facial images based on the first facial quality score threshold and obtain a plurality of eye-print pair images corresponding to the first number of eye-print collection steps; receiving a facial image and eye-print pair images corresponding to an identity verification object from the client, wherein the facial image meets the first facial quality score threshold and the eye-print pair images correspond in number to the number of eye-print collection steps; comparing the facial image to a preset facial image, and comparing the eye-print pair images to preset eye-print templates corresponding to the identity verification object; and sending successful identity verification information to the client if comparison results for the facial image and the eye-print pair images meet preset conditions. sending a first facial quality score threshold and a first number of eye-print collection steps corresponding to an identity verification mode to a client to obtain facial images based on the first facial quality score threshold and obtain a plurality of eye-print pair images corresponding to the first number of eye-print collection steps; receiving a facial image and eye-print pair images corresponding to an identity verification object from the client, wherein the facial image meets the first facial quality score threshold and the eye-print pair images correspond in number to the number of eye-print collection steps; comparing the facial image to a preset facial image, and comparing the eye-print pair images to preset eye-print templates corresponding to the identity verification object; and sending successful identity verification information to the client if comparison results for the facial image and the eye-print pair images meet preset conditions.
A shield member, disposed over a gap between platform portions of adjacent turbine rotor blades, made from a ceramic matrix composite, and configured to shield the gap between the platform portions, characterized in that the platform portions each include a platform portion body formed extending in a direction intersecting a longitudinal direction of a corresponding one of the turbine rotor blades, and a front skirt provided on a leading edge side of the platform portion body, and the shield member comprises a shield member body formed elongated and including a first shield surface located between shank portions connected to the platform portions of the adjacent turbine rotor blades, the first shield surface configured to shield a gap between the platform portion bodies of the adjacent turbine rotor blades by coming into contact with inner surfaces of the platform portion bodies along the inner surfaces of the platform portion bodies, and a leading edge-side shield portion formed elongated and including a second shield surface located between the shank portions of the adjacent turbine rotor blades, a first end in a longitudinal direction of the leading edge-side shield portion integrally provided to a first end in a longitudinal direction of the shield member body while bent from the shield member body, the second shield surface configured to shield a gap between the front skirts of the adjacent turbine rotor blades by coming into contact with inner surfaces of the front skirts along the inner surfaces of the front skirts.
A pre-evacuatable or pre-evacuated container for medical purposes, for sucking in of liquids, consisting of a container body which is open at one side with a peripherally extending container wall and a bottom, and a cover element, characterised in that the peripherally extending container wall of the container body has an end groove, into which a sealing element for sealing off the container body with respect to the cover element is or can be inserted and the cover element has a receiving space for receiving and/or embracing the portion, having the sealing element, of the container wall of the container body.
A brake system (160, 360) for a vehicle, said vehicle comprising: one or more first wheel brake(s), said one or more first wheel brake(s) being connected to the one or more first wheel(s) and, said one or more first wheel brake(s) being capable of applying a braking force to said one or more first wheel(s) of said vehicle; one or more second wheel brake(s), said one or more second wheel brake(s) being connected to one or more second wheel (s), and said one or more second wheel brake(s) being capable of applying braking forces to said one or more second wheel(s) of said vehicle; a first brake lever, said first brake lever being functionally coupled to said one or more first wheel brake(s) through a first actuating member; a second brake lever (165, 365), said second brake lever (165, 365) being capable of actuating both said one or more first wheel brake(s) and said one or more second wheel brake(s) synchronously; and a second actuating member (145, 345) capable of actuating said one or more second wheel brake(s), wherein said second brake lever (165, 365) is configured to directly actuate said second actuating member (145, 345), and wherein said first actuating member is synchronously actuated by a reaction force of said second actuating member, characterised in that said second actuating member is rotatably pivoted to a structural member of said vehicle. one or more first wheel brake(s), said one or more first wheel brake(s) being connected to the one or more first wheel(s) and, said one or more first wheel brake(s) being capable of applying a braking force to said one or more first wheel(s) of said vehicle; one or more second wheel brake(s), said one or more second wheel brake(s) being connected to one or more second wheel (s), and said one or more second wheel brake(s) being capable of applying braking forces to said one or more second wheel(s) of said vehicle; a first brake lever, said first brake lever being functionally coupled to said one or more first wheel brake(s) through a first actuating member; a second brake lever (165, 365), said second brake lever (165, 365) being capable of actuating both said one or more first wheel brake(s) and said one or more second wheel brake(s) synchronously; and a second actuating member (145, 345) capable of actuating said one or more second wheel brake(s), wherein said second brake lever (165, 365) is configured to directly actuate said second actuating member (145, 345), and wherein said first actuating member is synchronously actuated by a reaction force of said second actuating member, characterised in that said second actuating member is rotatably pivoted to a structural member of said vehicle. said second brake lever (165, 365) is configured to directly actuate said second actuating member (145, 345), and wherein said first actuating member is synchronously actuated by a reaction force of said second actuating member, characterised in that said second actuating member is rotatably pivoted to a structural member of said vehicle.
A method of establishing an ad hoc cellular network having an ad hoc cellular base station or integrating an ad hoc cellular base station into a fixed cellular network comprising the steps of: a. analyzing a speed to determine a mobility state of an ad hoc cellular base station; b. querying a local or remote cache stored in a computing server to determine a backhaul configuration or an access configuration for the ad hoc cellular base station; c. receiving the backhaul configuration or the access configuration for the ad hoc cellular base station from the local or remote cache; d. evaluating an operational parameter of a neighboring cellular base station; e. determining if the access configuration or backhaul configuration should be updated based on the operational parameter; and f. transmitting or receiving an access signal or a backhaul signal using the access configuration or the backhaul configuration. a. analyzing a speed to determine a mobility state of an ad hoc cellular base station; b. querying a local or remote cache stored in a computing server to determine a backhaul configuration or an access configuration for the ad hoc cellular base station; c. receiving the backhaul configuration or the access configuration for the ad hoc cellular base station from the local or remote cache; d. evaluating an operational parameter of a neighboring cellular base station; e. determining if the access configuration or backhaul configuration should be updated based on the operational parameter; and f. transmitting or receiving an access signal or a backhaul signal using the access configuration or the backhaul configuration.
A secondary battery comprising: a positive electrode active material-containing layer; a negative electrode active material-containing layer comprising a negative electrode active material comprising at least one selected from a group consisting of a carbon material, a graphite material, a lithium alloy, a metal oxide, and a metal sulfide; and a composite electrolyte which is provided between the positive electrode active material-containing layer and the negative electrode active material-containing layer, and comprises: lithium-containing oxide particles having a specific surface area, which is measured by a BET adsorption method using N 2, of 10 m 2 /g to 500 m 2 /g, an average size of the lithium-containing oxide particles being 0.01 μm to 0.5 μm; and an electrolytic composition comprising lithium ions, an organic solvent, and a polymer. a positive electrode active material-containing layer; a negative electrode active material-containing layer comprising a negative electrode active material comprising at least one selected from a group consisting of a carbon material, a graphite material, a lithium alloy, a metal oxide, and a metal sulfide; and a composite electrolyte which is provided between the positive electrode active material-containing layer and the negative electrode active material-containing layer, and comprises: lithium-containing oxide particles having a specific surface area, which is measured by a BET adsorption method using N 2, of 10 m 2 /g to 500 m 2 /g, an average size of the lithium-containing oxide particles being 0.01 μm to 0.5 μm; and an electrolytic composition comprising lithium ions, an organic solvent, and a polymer. lithium-containing oxide particles having a specific surface area, which is measured by a BET adsorption method using N 2, of 10 m 2 /g to 500 m 2 /g, an average size of the lithium-containing oxide particles being 0.01 μm to 0.5 μm; and an electrolytic composition comprising lithium ions, an organic solvent, and a polymer.
A method of integrating a fuel cell with a steam methane reformer, comprising: • at least one fuel cell comprising an anode and a cathode, • a steam methane reformer comprising a syngas stream, and a flue gas stream, the method comprising: a) introducing at least a portion of the flue gas stream to the cathode, thereby producing a CO2 depleted flue gas stream, b) introducing a hydrocarbon containing stream to the anode, thereby producing an electrical energy output and a carbon dioxide and hydrogen containing stream from the fuel cell, c) separating a hydrogen-rich stream from the carbon dioxide and hydrogen containing stream, thereby producing a carbon dioxide rich stream, d) combining the hydrogen-rich stream with the syngas stream, thereby producing a combined syngas stream, and e) introducing the combined syngas stream into a hydrogen separation device, thereby producing a second high purity hydrogen stream. • at least one fuel cell comprising an anode and a cathode, • a steam methane reformer comprising a syngas stream, and a flue gas stream, a) introducing at least a portion of the flue gas stream to the cathode, thereby producing a CO2 depleted flue gas stream, b) introducing a hydrocarbon containing stream to the anode, thereby producing an electrical energy output and a carbon dioxide and hydrogen containing stream from the fuel cell, c) separating a hydrogen-rich stream from the carbon dioxide and hydrogen containing stream, thereby producing a carbon dioxide rich stream, d) combining the hydrogen-rich stream with the syngas stream, thereby producing a combined syngas stream, and e) introducing the combined syngas stream into a hydrogen separation device, thereby producing a second high purity hydrogen stream.
A fluid-absorbent core comprising at least two layers, an upper layer and a lower layer, each layer comprising from 0 to 10% by weight fibrous material and from 90 to 100% by weight water-absorbent polymer particles, based on the sum of water-absorbent polymer particles and fibrous material, wherein the water-absorbent polymer particles within the upper layer are a water absorbent mixture comprising at least 10% by weight of a first type of water-absorbent polymer particles, water-absorbent polymer particles G, with a vortex of less than 30 s, determined according to the method disclosed in the description and at least 50% by weight of a second type of water-absorbent polymer particles, water-absorbent polymer particles H, with a CRC of at least 25 g/g determined by the EDANA test method No. WSP 241.3 wherein water-absorbent polymer particles G are obtained by agglomerating fine water-absorbing polymer particles by using a solution or suspension comprising a) 0,04 to 1,2 % by weight water-soluble or water-dispersible polymeric binders or a mixture thereof, based on the water-absorbent polymer particles, b) 20 to 70% by weight of water based on the water-absorbent polymer particles, and c) 5 to 20% by weight of a water-miscible organic solvent based on the water-absorbent polymer particles and wherein fine water-absorbing polymer particles having an average particle diameter of not larger than 300 μm. wherein the water-absorbent polymer particles within the upper layer are a water absorbent mixture comprising at least 10% by weight of a first type of water-absorbent polymer particles, water-absorbent polymer particles G, with a vortex of less than 30 s, determined according to the method disclosed in the description and at least 50% by weight of a second type of water-absorbent polymer particles, water-absorbent polymer particles H, with a CRC of at least 25 g/g determined by the EDANA test method No. WSP 241.3 wherein water-absorbent polymer particles G are obtained by agglomerating fine water-absorbing polymer particles by using a solution or suspension comprising a) 0,04 to 1,2 % by weight water-soluble or water-dispersible polymeric binders or a mixture thereof, based on the water-absorbent polymer particles, b) 20 to 70% by weight of water based on the water-absorbent polymer particles, and c) 5 to 20% by weight of a water-miscible organic solvent based on the water-absorbent polymer particles a) 0,04 to 1,2 % by weight water-soluble or water-dispersible polymeric binders or a mixture thereof, based on the water-absorbent polymer particles, b) 20 to 70% by weight of water based on the water-absorbent polymer particles, and c) 5 to 20% by weight of a water-miscible organic solvent based on the water-absorbent polymer particles and wherein fine water-absorbing polymer particles having an average particle diameter of not larger than 300 μm.
A data acquisition unit (UNIT) able to cooperate with a communication device (DISP), the unit comprising: - at least one electrical pulse relay wire able to be positioned in a data communication mode, and - a cut-off detection wire with which a state is associated, characterised in that it includes a control unit able to: - control the state of the cut-off detection wire, - if the state of the cut-off detection wire has been modified, check whether the pulse relay wire is positioned in a data communication mode according to a determined communication protocol; and - exchange data with the communication device according to the communication protocol via the pulse relay wire when said wire is positioned in said communication mode. - at least one electrical pulse relay wire able to be positioned in a data communication mode, and - a cut-off detection wire with which a state is associated, - control the state of the cut-off detection wire, - if the state of the cut-off detection wire has been modified, check whether the pulse relay wire is positioned in a data communication mode according to a determined communication protocol; and - exchange data with the communication device according to the communication protocol via the pulse relay wire when said wire is positioned in said communication mode.
Spring articulation module for an industrial chair, in particular for an industrial swivel chair or an industrial swivel stool, comprising a seat coupling portion and a base coupling portion, which are arranged along a primary axis and which are resiliently interconnected via a spring articulation so as to be tiltable perpendicular to the primary axis, the spring articulation comprising a resilient element and an adjustment element which cooperates therewith, the resilient element being arranged stationary, the adjustment element being provided so as to be rotatable relative to the resilient element, and the adjustment element and the resilient element cooperating with one another in such a way that, relative to the resilient element, the adjustment element has a first position, in which the spring articulation is blocked, and a second position, in which the spring articulation is flexibly tiltable, characterised in that the adjustment element is formed as an adjustment ring, which is provided with projections and is rotatable in particular about the primary axis.
An electronic device comprising: a first temperature sensing device positioned at a first location at or proximate to an exterior surface of the electronic device and that is configured to provide a first signal indicative of a first temperature experienced by the first temperature sensing device; a second temperature sensing device positioned at a second location at or proximate to the exterior surface of the electronic device and that is configured to provide a second signal indicative of a second temperature experienced by the second temperature device; a memory device storing a look-up table having expected thermal difference values corresponding to a plurality of different operation modes of the electronic device, wherein the expected thermal different values indicate different temperature differentials that correspond to expected measurements based on the first temperature sensing device and the second temperature sensing device; at least one processing device (256, 204) configured to receive the first and second signals from the first and second temperature sensing devices, respectively, and generate based thereon an indication of a difference between the first and second temperatures, and the at least one processing device (256, 204) being further configured to predict an operational context of the electronic device based at least in part upon the difference and at least one of the expected thermal difference values stored in the look-up table that corresponds to a current operation mode of the electronic device. a first temperature sensing device positioned at a first location at or proximate to an exterior surface of the electronic device and that is configured to provide a first signal indicative of a first temperature experienced by the first temperature sensing device; a second temperature sensing device positioned at a second location at or proximate to the exterior surface of the electronic device and that is configured to provide a second signal indicative of a second temperature experienced by the second temperature device;
A transmission to be installed in a regular bicycle or an electrical bike that has a wheel hub, characterized in that the transmission comprises an active centrifugal impeller, a top plate and a passive centrifugal impeller; an outer ring of a single direction bearing installed in a direction along a center line in a shaft sleeve of the active centrifugal impeller; the top plate mounted along the centre line on an upper surface of blades to the passive centrifugal impeller; whereby the transmission is activated when the outer ring of the single direction bearing is rotated, and an inner ring of the single direction bearing and the active centrifugal impeller are rotated together, and the active centrifugal impeller generates air pressure to rotate the passive centrifugal impeller, and the passive centrifugal impeller generates torque to rotate a wheel hub and a shaft and attain acceleration.
Workpiece carrier for receiving a plurality of workpieces, comprising: a base element (4.1; 4.2) that defines a horizontal plane; and a plurality of workpiece receptacles, arranged on the base element (4.1; 4.2), for one workpiece each, wherein each workpiece receptacle comprises at least two positioning elements (6.1, 6.2; 6.3; 6.4) for positioning the workpiece, wherein the positioning elements (6.1, 6.2; 6.3; 6.4) are arranged in a manner spaced apart from one another, characterized in that the positioning elements (6.1, 6.2; 6.3; 6.4) of each workpiece receptacle exhibit a variable horizontal spacing from one another, in order to adapt the workpiece receptacles to different workpieces, in that the workpiece carrier has a displacement element (5.1; 5.2; 16) that is arranged so as to be displaceable horizontally in a longitudinal direction with respect to the base element (4.1; 4.2), and in that the positioning elements (6.1, 6.2; 6.3; 6.4) cooperate with the base element (4.1; 4.2) and the displacement element (5.1; 5.2; 16) such that a displacement of the displacement element (5.1; 5.2; 16) in the longitudinal direction with respect to the base element (4.1; 4.2) brings about a simultaneous change in spacing of the positioning elements (6.1, 6.2; 6.3; 6.4) of a plurality of workpiece receptacles. a base element (4.1; 4.2) that defines a horizontal plane; and a plurality of workpiece receptacles, arranged on the base element (4.1; 4.2), for one workpiece each, wherein each workpiece receptacle comprises at least two positioning elements (6.1, 6.2; 6.3; 6.4) for positioning the workpiece, wherein the positioning elements (6.1, 6.2; 6.3; 6.4) are arranged in a manner spaced apart from one another, in that the positioning elements (6.1, 6.2; 6.3; 6.4) of each workpiece receptacle exhibit a variable horizontal spacing from one another, in order to adapt the workpiece receptacles to different workpieces, in that the workpiece carrier has a displacement element (5.1; 5.2; 16) that is arranged so as to be displaceable horizontally in a longitudinal direction with respect to the base element (4.1; 4.2), and in that the positioning elements (6.1, 6.2; 6.3; 6.4) cooperate with the base element (4.1; 4.2) and the displacement element (5.1; 5.2; 16) such that a displacement of the displacement element (5.1; 5.2; 16) in the longitudinal direction with respect to the base element (4.1; 4.2) brings about a simultaneous change in spacing of the positioning elements (6.1, 6.2; 6.3; 6.4) of a plurality of workpiece receptacles.
A monitoring system for a refrigeration system comprising a controller and a pressure monitoring unit, the controller being configured to control operation of a drive to evacuate refrigerant from a second section of the refrigeration system characterised by releasing the refrigerant into a first section until pressure in the second section is substantially at a predetermined threshold and then substantially seal the second section in a substantially evacuated state; and the pressure monitoring unit being configured to monitor the pressure of the second section while in the substantially evacuated state, the monitoring system being arranged to communicate an alert upon the pressure monitoring unit detecting a change in pressure of the second section while in the substantially evacuated state.