mhurhangee/patent-ind-claim-en huggingface dataset:
A physical-quantity detection device that measures a physical quantity of a gas to be measured which passes through a main passage, comprising: a housing including a sub-passage into which the gas to be measured is taken from the main passage; at least one pressure sensor that is disposed in the sub-passage and detects a pressure of the gas to be measured ; a humidity sensor that is disposed in the sub-passage and detects humidity of the gas to be measured ; and a circuit substrate in which the pressure sensor and the humidity sensor are provided, and a detection signal of the humidity sensor and a detection signal of the pressure sensor are subjected to operation processing, wherein the pressure sensor and the humidity sensor are disposed in a row to be parallel to each other along a flow direction of the gas to be measured that passes through the sub-passage , at least one of the pressure sensor is disposed on an upstream side in the flow direction of the gas to be measured , and the humidity sensor is disposed on a downstream side in the flow direction of the gas to be measured in comparison to the at least one of the pressure sensor ; and the circuit substrate includes a substrate main body and wherein a circuit unit and a flow rate detection unit are provided on a front surface of the substrate main body , and the pressure sensor and the humidity sensor are provided on a rear surface of said substrate main body . a housing including a sub-passage into which the gas to be measured is taken from the main passage; at least one pressure sensor that is disposed in the sub-passage and detects a pressure of the gas to be measured ; a humidity sensor that is disposed in the sub-passage and detects humidity of the gas to be measured ; and a circuit substrate in which the pressure sensor and the humidity sensor are provided, and a detection signal of the humidity sensor and a detection signal of the pressure sensor are subjected to operation processing, wherein the pressure sensor and the humidity sensor are disposed in a row to be parallel to each other along a flow direction of the gas to be measured that passes through the sub-passage , at least one of the pressure sensor is disposed on an upstream side in the flow direction of the gas to be measured , and the humidity sensor is disposed on a downstream side in the flow direction of the gas to be measured in comparison to the at least one of the pressure sensor ; and the circuit substrate includes a substrate main body and wherein a circuit unit and a flow rate detection unit are provided on a front surface of the substrate main body , and the pressure sensor and the humidity sensor are provided on a rear surface of said substrate main body .
A mobility management method, performed by an access network control device, wherein the method comprises: receiving (S201), by the access network control device, a location area request message of user equipment, UE, through a first station, wherein the UE is located in a cell managed by the first station, the UE is in an idle state or a deactivated state and the UE supports multimode communication; configuring (S202), by the access network control device, at least one location area identity list for the UE based on the location area request message, wherein the location area identity list comprises at least one location area identity, and the location area identity is used to identify a location area, wherein the configuring (S202), by the access network control device, at least one location area identity list for the UE based on the location area request message comprises: configuring, by the access network control device, a first location area identity list and a second location area identity list for the UE based on the location area request message, wherein all cells comprised in a location area identified by any location area identity in the first location area identity list use a first radio access technology, RAT, all cells comprised in a location area identified by any location area identity in the second location area identity list use a second RAT, and the first RAT is different from the second RAT; and sending (S203), by the access network control device, the at least one location area identity list to the UE through the first station. receiving (S201), by the access network control device, a location area request message of user equipment, UE, through a first station, wherein the UE is located in a cell managed by the first station, the UE is in an idle state or a deactivated state and the UE supports multimode communication; configuring (S202), by the access network control device, at least one location area identity list for the UE based on the location area request message, wherein the location area identity list comprises at least one location area identity, and the location area identity is used to identify a location area, wherein the configuring (S202), by the access network control device, at least one location area identity list for the UE based on the location area request message comprises: configuring, by the access network control device, a first location area identity list and a second location area identity list for the UE based on the location area request message, wherein all cells comprised in a location area identified by any location area identity in the first location area identity list use a first radio access technology, RAT, all cells comprised in a location area identified by any location area identity in the second location area identity list use a second RAT, and the first RAT is different from the second RAT; and sending (S203), by the access network control device, the at least one location area identity list to the UE through the first station.
A molding die used for molding a composite material, the molding die comprising: a molding member having a molding surface (P2); a support frame provided on a lower side of the molding member , the support frame being configured to support the molding member ; and a plurality of height adjustment mechanisms provided between the molding member and the support frame , the height adjustment mechanism being capable of adjusting a height of the molding member with respect to the support frame ; each of the height adjustment mechanisms includes: a container attached to the support frame , the container being capable of storing a fluid therein; a floating body configured to float on the fluid stored in the container ; and a contact member connected to the floating body , the contact member being configured to come into contact with the molding member ; wherein in the plurality of height adjustment mechanisms , interiors of a plurality of containers are connected with each other via communication flow paths . a molding member having a molding surface (P2); a support frame provided on a lower side of the molding member , the support frame being configured to support the molding member ; and a plurality of height adjustment mechanisms provided between the molding member and the support frame , the height adjustment mechanism being capable of adjusting a height of the molding member with respect to the support frame ; each of the height adjustment mechanisms includes: a container attached to the support frame , the container being capable of storing a fluid therein; a floating body configured to float on the fluid stored in the container ; and a contact member connected to the floating body , the contact member being configured to come into contact with the molding member ; wherein in the plurality of height adjustment mechanisms , interiors of a plurality of containers are connected with each other via communication flow paths . a container attached to the support frame , the container being capable of storing a fluid therein; a floating body configured to float on the fluid stored in the container ; and a contact member connected to the floating body , the contact member being configured to come into contact with the molding member ; wherein in the plurality of height adjustment mechanisms , interiors of a plurality of containers are connected with each other via communication flow paths .
A dental sensor having a fastening system for the dental sensor, comprising: a transverse connector for passing through an interdental space ; and a support element for supporting the transverse connector on the teeth (107-1, 107-2) laterally of the interdental space . a transverse connector for passing through an interdental space ; and a support element for supporting the transverse connector on the teeth (107-1, 107-2) laterally of the interdental space .
Roller suitable for wiping a sponge board over a washing bucket , with an axle or axle stubs , which is designed in such a way that it can be rotatably mounted in bearings at or on the edge of a washing bucket and then spans the clear width of the washing bucket, wherein the roller is formed as a hollow body of half-shells with press or snap-in connections and has a profiled outer circumference with a plurality of openings , the openings are situated at least partially offset from one another and in that the openings are at least partially enclosed by raised webs , characterized in that in that the roller can be telescoped via an internal telescoping device and a separating area wherein the half-shells of the roller can be pulled apart variably at length over a first length (L1) and a second length (L2) at the separating area and can be latched in a desired extended state with the inner telescoping device , wherein the inner telescoping device also has a profiled outer circumference with a plurality of openings .
A method for feeding a welding wire into a welding torch having a contact sleeve , whereas the welding wire being passed through the welding torch and the contact sleeve , and the contact sleeve being contacted by the welding wire , and a wire forming unit being arranged in the welding torch upstream of the contact sleeve , through which wire forming unit the welding wire is passed, whereas the wire forming unit being arranged in the welding torch in a defined and fixed installation position relative to the welding torch and whereas the welding wire is led over three ball bearing-mounted rollers arranged one behind the other in the longitudinal direction (x) of the welding torch in the wire forming unit , whereas the central roller , when viewed in the longitudinal direction (x), is offset in the wire-forming unit relative to the two outer rollers , when viewed in the longitudinal direction (x), by a transverse offset (V) in a transverse direction (y) transverse to the longitudinal direction (x) in order to form a zig-zag-shaped path for the welding wire through the wire forming unit , whereas the two outer rollers , when viewed in the longitudinal direction (x), are arranged at an axial distance (A) of maximally 20 mm, so that the welding wire leaves the wire-forming unit with a defined bend (direction of curvature), whereas the bend acts like a pretensioning of the welding wire such that it is ensured by the defined curvature radius (R) and the defined orientation, that the welding wire contacts the contact sleeve always at the substantially same contact point with the substantially same contact force.
A nanoparticle, comprising: a shell structure including an internal layer and an external layer, the internal layer structured to enclose a hollow interior region and structured to form one or more holes penetrating through the internal layer, and the external layer formed of a porous material arranged around the internal layer and including pores of a smaller size than the one or more holes; an enzyme contained within the interior region of the shell structure, the internal layer structured to form the one or more holes sized to allow the enzyme to pass through the internal layer; wherein the porous material of the external layer is structured to prevent the enzyme from passing through the external layer while permitting a substance smaller than the enzyme to pass through the pores; and nanoscale structures including nanowires or nanoparticles protruding from an interior surface of the internal layer toward the hollow interior region, wherein the nanoscale structures are structured to initiate cavitation of microscale bubbles when ultrasonic acoustic energy is applied at the nanoparticle. a shell structure including an internal layer and an external layer, the internal layer structured to enclose a hollow interior region and structured to form one or more holes penetrating through the internal layer, and the external layer formed of a porous material arranged around the internal layer and including pores of a smaller size than the one or more holes; an enzyme contained within the interior region of the shell structure, the internal layer structured to form the one or more holes sized to allow the enzyme to pass through the internal layer; wherein the porous material of the external layer is structured to prevent the enzyme from passing through the external layer while permitting a substance smaller than the enzyme to pass through the pores; and
A nickel-based superalloy comprising, in mass percentages: - 5 to 6.5% aluminum, - 4.5 to 7% cobalt, - 14.5 to 16.5% chromium, - 0 to 0.2% hafnium, - 0 to 1.5% molybdenum, - 2 to 3.5% tantalum, - 0 to 2% titanium, - 1 to 2.5% tungsten, - 0 to 0.08% zirconium, - 0 to 0.03% boron, - 0 to 0.07% carbon, the remainder consisting of nickel and unavoidable impurities. - 5 to 6.5% aluminum, - 4.5 to 7% cobalt, - 14.5 to 16.5% chromium, - 0 to 0.2% hafnium, - 0 to 1.5% molybdenum, - 2 to 3.5% tantalum, - 0 to 2% titanium, - 1 to 2.5% tungsten, - 0 to 0.08% zirconium, - 0 to 0.03% boron, - 0 to 0.07% carbon,
An exercise device, comprising: a crank, configured for rotation by at least one limb of a human, wherein each of the at least one limb has a joint and a thigh length; at least one sensor adapted to measure position of the crank; a controller (108; 608), coupled to the at least one sensor, wherein the controller is programmed to generate functional electrical stimulation to a person using the exercise device, by: for each of at least one human limb, determining a torque transfer ratio between the joint of the human limb and the crank based on the thigh length of the limb; and for each of the at least one human limbs, dynamically generating a control signal to control delivery of electrical stimulation to each of the at least one human limb based on the determined torque transfer ratio at the measured position of the crank. a crank, configured for rotation by at least one limb of a human, wherein each of the at least one limb has a joint and a thigh length; at least one sensor adapted to measure position of the crank; a controller (108; 608), coupled to the at least one sensor, wherein the controller is programmed to generate functional electrical stimulation to a person using the exercise device, by: for each of at least one human limb, determining a torque transfer ratio between the joint of the human limb and the crank based on the thigh length of the limb; and for each of the at least one human limbs, dynamically generating a control signal to control delivery of electrical stimulation to each of the at least one human limb based on the determined torque transfer ratio at the measured position of the crank. for each of at least one human limb, determining a torque transfer ratio between the joint of the human limb and the crank based on the thigh length of the limb; and for each of the at least one human limbs, dynamically generating a control signal to control delivery of electrical stimulation to each of the at least one human limb based on the determined torque transfer ratio at the measured position of the crank.
A thyristor starter for starting a synchronous machine , comprising: a converter converting first AC power to DC power; an inverter converting said DC power to second AC power at a variable frequency and supplying the second AC power to said synchronous machine ; a speed operation portion finding a rotation speed of said synchronous machine ; a control angle operation portion including a function or a table showing relation between the rotation speed of said synchronous machine and a phase control angle of said inverter and finding a phase control angle having a value in accordance with the rotation speed of said synchronous machine found by said speed operation portion ; and a control unit controlling said inverter based on the phase control angle found by said control angle operation portion , wherein the control angle operation portion is adapted to vary said phase control angle from a minimum value to a maximum value in accordance with the rotation speed of said synchronous machine , characterised in that the control angle operation portion is adapted to vary a rate of increase in said phase control angle relative to the rotation speed of said synchronous machine in a plurality of steps in accordance with the rotation speed of said synchronous machine such that a DC voltage which appears at an input terminal of said inverter is constant in spite of variation in rotation speed of said synchronous machine . a converter converting first AC power to DC power; an inverter converting said DC power to second AC power at a variable frequency and supplying the second AC power to said synchronous machine ; a speed operation portion finding a rotation speed of said synchronous machine ; a control angle operation portion including a function or a table showing relation between the rotation speed of said synchronous machine and a phase control angle of said inverter and finding a phase control angle having a value in accordance with the rotation speed of said synchronous machine found by said speed operation portion ; and a control unit controlling said inverter based on the phase control angle found by said control angle operation portion , wherein the control angle operation portion is adapted to vary said phase control angle from a minimum value to a maximum value in accordance with the rotation speed of said synchronous machine , characterised in that the control angle operation portion is adapted to vary a rate of increase in said phase control angle relative to the rotation speed of said synchronous machine in a plurality of steps in accordance with the rotation speed of said synchronous machine such that a DC voltage which appears at an input terminal of said inverter is constant in spite of variation in rotation speed of said synchronous machine .
A measuring tool for measuring a delivered dose of radiation emitted by at least one electron beam emitter (2a-b) in a substantially flat irradiation area used to sterilise packaging material to be later formed into a package, the measuring tool comprising: a plurality of transducers configured to convert a characteristic of the delivered dose of radiation to another characteristic and configured to be inserted into the irradiation area , wherein the plurality of transducers is substantially flat; a frame configured to hold the plurality of transducers and insert plurality of transducers into the irradiation area , the frame and the plurality of transducers being substantially flat in a common plane; and at least one connector configured to allow signal transfer from plurality of transducers to a read-out system remote of the irradiation area . a plurality of transducers configured to convert a characteristic of the delivered dose of radiation to another characteristic and configured to be inserted into the irradiation area , wherein the plurality of transducers is substantially flat; a frame configured to hold the plurality of transducers and insert plurality of transducers into the irradiation area , the frame and the plurality of transducers being substantially flat in a common plane; and at least one connector configured to allow signal transfer from plurality of transducers to a read-out system remote of the irradiation area .
Locking device for a pre-tensioning arrangement of a roller blind or a venetian blind, comprising a sleeve and a plug element adapted to be inserted into the sleeve , a locking member and a pin , wherein the sleeve on its inner circumferential surface comprises at least one recess , and the plug element comprises a wall having a longitudinal and circumferential extension, and the wall defining a cavity adapted to receive the pin , and wherein the wall comprises a through-going opening , the opening being adapted to receive the locking member , characterized in that the pin along its longitudinal extension comprises a locking portion and a releasing portion , and wherein the pin is movable inside and along the longitudinal extension of the cavity of the plug element between a locking position and a releasing position; in which locking position the locking portion of the pin longitudinally coincides with the through-going opening of the wall , whereby the locking member will engage the locking portion and be urged by the locking portion radially outwardly into the recess of the sleeve thereby preventing the plug element from being rotated in view of the sleeve , and in which releasing position the releasing portion of the pin longitudinally coincides with the through-going opening of the wall , whereby the locking member will engage the releasing portion of the pin and be allowed to move radially inwardly out of the recess of the sleeve , thereby allowing the plug element to be rotated in view of the sleeve .
A method of forming an array of patterns on a substrate , the method comprising providing a substrate including a first major surface providing a tiling region on the first major surface of the substrate, wherein the tiling region comprises an array of sub-regions providing a protective tile to cover each of the sub-regions, comprising depositing a layer of protectant resin within each sub-region, and solidifying the protectant resin to form an array of the protective tiles corresponding to the array of sub-regions; and sequentially repeating steps (i) and (ii) for each sub-region to form an array of patterns on the array of sub-regions of the substrate: (i) removing the protective tile from a selected one of the sub-regions to expose the first major surface underneath; and (ii) forming a pattern on the exposed first major surface within the selected one of the sub-regions. providing a substrate including a first major surface providing a tiling region on the first major surface of the substrate, wherein the tiling region comprises an array of sub-regions providing a protective tile to cover each of the sub-regions, comprising depositing a layer of protectant resin within each sub-region, and solidifying the protectant resin to form an array of the protective tiles corresponding to the array of sub-regions; and sequentially repeating steps (i) and (ii) for each sub-region to form an array of patterns on the array of sub-regions of the substrate: (i) removing the protective tile from a selected one of the sub-regions to expose the first major surface underneath; and (ii) forming a pattern on the exposed first major surface within the selected one of the sub-regions. (i) removing the protective tile from a selected one of the sub-regions to expose the first major surface underneath; and (ii) forming a pattern on the exposed first major surface within the selected one of the sub-regions.