mhurhangee/patent-ind-claim-en huggingface dataset:
Fastener comprising a substantially rotationally cylindrical surface disposed along an axis , said surface comprising a ridged shape selected from a thread, an internal thread and a plurality of tension grooves, said fastener being made of a beta-metastable titanium alloy comprising by weight between 4 and 6% aluminium, between 4 and 6% vanadium, between 4 and 6% molybdenum and between 2 and 4% chromium, characterised in that the beta-metastable titanium alloy has a first microstructure consisting of a first matrix and alpha phase nodules distributed in said first matrix, the first matrix consisting of beta phase and groups of alpha phase lamellae oriented in the same direction. said fastener being made of a beta-metastable titanium alloy comprising by weight between 4 and 6% aluminium, between 4 and 6% vanadium, between 4 and 6% molybdenum and between 2 and 4% chromium, characterised in that the beta-metastable titanium alloy has a first microstructure consisting of a first matrix and alpha phase nodules distributed in said first matrix, the first matrix consisting of beta phase and groups of alpha phase lamellae oriented in the same direction.
Coating booth comprising: - at least a coating compartment able to accommodate the processing steps for the coating of products to be coated; - at least an access opening able to allow the entry into said compartment ; - cleaning means of said compartment movable between a rest configuration, wherein said cleaning means are arranged outside said compartment , and a work configuration, wherein said cleaning means are arranged at least partly inside said compartment ; - at least a guide element able to guide said cleaning means through said access opening for the entry/exit of the cleaning means themselves into/from said compartment ; wherein said cleaning means comprise: - a handling assembly associated with said guide element and able to slide along it between said rest configuration and said work configuration and vice versa; - at least a blowing device mounted on said handling assembly and able to blow a pressurized fluid into said compartment ; characterized in that said blowing device is rotatable and/or translatable with respect to said handling assembly . - at least a coating compartment able to accommodate the processing steps for the coating of products to be coated; - at least an access opening able to allow the entry into said compartment ; - cleaning means of said compartment movable between a rest configuration, wherein said cleaning means are arranged outside said compartment , and a work configuration, wherein said cleaning means are arranged at least partly inside said compartment ; - at least a guide element able to guide said cleaning means through said access opening for the entry/exit of the cleaning means themselves into/from said compartment ; - a handling assembly associated with said guide element and able to slide along it between said rest configuration and said work configuration and vice versa; - at least a blowing device mounted on said handling assembly and able to blow a pressurized fluid into said compartment ;
A method of performing automated defect detection, the method comprising: providing an image capture device ; the image device being for capturing and transmitting video image data of a plurality of blades within one stage of at least one of an engine and a turbine; obtaining video images of the plurality of blades via the image capturing device ; creating a normal model of an undamaged blade of the plurality of blades by performing Robust Principal Component Analysis (RPCA) of the video images into a low rank matrix representing a normal blade part or region and a sparse matrix representing a blade anomaly; and performing an anomaly detection utilizing the normal model to determine defects within any of the blades . providing an image capture device ; the image device being for capturing and transmitting video image data of a plurality of blades within one stage of at least one of an engine and a turbine; obtaining video images of the plurality of blades via the image capturing device ; creating a normal model of an undamaged blade of the plurality of blades by performing Robust Principal Component Analysis (RPCA) of the video images into a low rank matrix representing a normal blade part or region and a sparse matrix representing a blade anomaly; and performing an anomaly detection utilizing the normal model to determine defects within any of the blades .
An electronic device comprising: a microphone ; a memory storing at least one instruction; and a processor configured to execute the at least one instruction, wherein the processor , by executing the at least one instruction, is configured to: obtain first voice data input via the microphone , obtain second voice data by inputting the first voice data to a first model trained to enhance sound quality, obtain a weight by inputting the first voice data and the second voice data to a second model , wherein the weight is a parameter to determine input data to be input to a third model , and identify input data to be input to the third model using the weight, at least by: based on the weight being greater than a first threshold value, identify the second voice data as the input data, based on the weight being greater than a second threshold value and less than the first threshold value, linearly combine the first voice data and the second voice data based on the weight and identify the linearly combined value as the input data, and based on the weight being less than the second threshold value, identify the first voice data as the input data, wherein the first threshold value is a value greater than the second threshold value. a microphone ; a memory storing at least one instruction; and a processor configured to execute the at least one instruction, wherein the processor , by executing the at least one instruction, is configured to: obtain first voice data input via the microphone , obtain second voice data by inputting the first voice data to a first model trained to enhance sound quality, obtain a weight by inputting the first voice data and the second voice data to a second model , wherein the weight is a parameter to determine input data to be input to a third model , and identify input data to be input to the third model using the weight, at least by: based on the weight being greater than a first threshold value, identify the second voice data as the input data, based on the weight being greater than a second threshold value and less than the first threshold value, linearly combine the first voice data and the second voice data based on the weight and identify the linearly combined value as the input data, and based on the weight being less than the second threshold value, identify the first voice data as the input data, wherein the first threshold value is a value greater than the second threshold value. based on the weight being greater than a first threshold value, identify the second voice data as the input data, based on the weight being greater than a second threshold value and less than the first threshold value, linearly combine the first voice data and the second voice data based on the weight and identify the linearly combined value as the input data, and based on the weight being less than the second threshold value, identify the first voice data as the input data, wherein the first threshold value is a value greater than the second threshold value.
Hob having a first communication interface which is embodied to receive control commands by means of a first radio link through a portable multimedia device , wherein the hob has a second communication interface which is embodied to communicate with the multimedia device via a second radio link , characterised in that the first radio link is configured as a WLAN or WIFI wireless network and the second radio link is configured as an NFC radio link and a release takes place via the second radio link to implement the control commands transmitted by means of the first communication interface , wherein the control commands can be transmitted to the hob without prior release via the WLAN connection and are stored there until they are released via the second radio link , or until they are deleted.
An aerosol delivery device sensory system, comprising: an outer body of an aerosol delivery device ; an atomizer comprising a heating element and received in the outer body ; an infrared sensor configured to measure infrared radiation produced by the heating element of the atomizer ; a component of the aerosol delivery device positioned between the atomizer and the infrared sensor ; and a fiber optic cable having a first end positioned proximate the infrared sensor and extending around the component to a second end positioned proximate the heating element of the atomizer to receive infrared radiation produced by the heating element , the infrared sensor being configured to measure infrared radiation received from the heating element of the atomizer through the fiber optic cable . an outer body of an aerosol delivery device ; an atomizer comprising a heating element and received in the outer body ; an infrared sensor configured to measure infrared radiation produced by the heating element of the atomizer ; a component of the aerosol delivery device positioned between the atomizer and the infrared sensor ; and a fiber optic cable having a first end positioned proximate the infrared sensor and extending around the component to a second end positioned proximate the heating element of the atomizer to receive infrared radiation produced by the heating element , the infrared sensor being configured to measure infrared radiation received from the heating element of the atomizer through the fiber optic cable .
An apparatus comprising: a distribution conduit (310; 1505), the distribution conduit defining an aperture ; a diffuser body (300; 1500), the diffuser body defining a mating tube (330; 1535), at least a portion of the mating tube passing through the aperture, and the mating tube defining a mating tube passage (335; 1540) therethrough with an inside sidewall (400; 1545) that is at least partially tapered; and an insert (305; 1100; 1510, 1515), the insert at least partially disposed in the mating tube passage, defining an insert channel (360; 1115; 1525, 1532) passing straight through an entire length of the insert so that opposite faces of the insert define opposite openings to the insert channel, and the insert is at least partially externally tapered; wherein a tapered portion of the insert presses against a tapered portion of the inside sidewall so as to cause the mating tube to expand such that removal of the mating tube from the distribution conduit is inhibited by mechanical interference. a distribution conduit (310; 1505), the distribution conduit defining an aperture ; a diffuser body (300; 1500), the diffuser body defining a mating tube (330; 1535), at least a portion of the mating tube passing through the aperture, and the mating tube defining a mating tube passage (335; 1540) therethrough with an inside sidewall (400; 1545) that is at least partially tapered; and an insert (305; 1100; 1510, 1515), the insert at least partially disposed in the mating tube passage, defining an insert channel (360; 1115; 1525, 1532) passing straight through an entire length of the insert so that opposite faces of the insert define opposite openings to the insert channel, and the insert is at least partially externally tapered; wherein a tapered portion of the insert presses against a tapered portion of the inside sidewall so as to cause the mating tube to expand such that removal of the mating tube from the distribution conduit is inhibited by mechanical interference.
Fuel cell including a stack of elementary cells (C) separated by bipolar plates , each elementary cell (C) including an anode , a cathode and an electrolyte between the anode and the cathode , and defining with a bipolar plate on the anode side an anode compartment and on the cathode side a cathode compartment, a first manifold for supplying the anode compartments with a first reactant, a second manifold for supplying the cathode compartments with a second reactant, and at least one manifold for evacuating the reaction by-products, wherein said first supply manifold includes two ends (10.1, 10.2) configured to be connected to a source of the first reactant, wherein said first supply manifold is divided into two portions (P1, P2) by a first wall impermeable to the first reactant, each portion (P1, P2) being fluidly connected to anode compartments by fluid connections, said first wall including a first film inserted between a cell (C) and a bipolar plate or being formed by a peripheral part of an elementary cell, and/or wherein the second supply manifold includes two ends configured to be connected to a source of the second reactant, wherein said second supply manifold is divided into two portions by a wall impermeable to the second reactant, each portion being fluidly connected to cathode compartments by fluid connections, said second wall including a second film inserted between a cell (C) and a bipolar plate or being formed by a peripheral part of an elementary cell, and wherein said fuel cell includes control means configured to separately control the supply of the first and second ends of the first and/or second supply manifold.
A liner comprising a sole , an upper to which is associable at least one deformable hollow insert , adapted to custom fit said liner to a user's foot, a plastically deformable filling material being reversibly injectable into said at least one deformable hollow insert , said plastically deformable filling material being injectable at room temperature by applying an injection pressure by means of a device , said plastically deformable filling material being also adapted to be suctioned at room temperature by means of said device from said at least one deformable hollow insert by applying a suction pressure, characterized in that said at least one deformable hollow insert comprises a valve , said valve comprising a shutter element tightly closing said valve by means of electrostatic adhesion.
Polypropylene composition, comprising (A) a heterophasic polypropylene (HECO), said heterophasic polypropylene comprising a matrix (M) being a propylene homopolymer and an elastomeric propylene-ethylene copolymer dispersed in said matrix (M), and (B) a bimodal metallocene linear low-density polyethylene (mLLDPE), said bimodal metallocene linear low-density polyethylene (mLLDPE) (a) being a terpolymer of ethylene and two different comonomers selected from alpha olefins having from 4 to 10 carbon atoms and (b) being produced with a metallocene catalyst and (c) having a density of 915 to 930 kg/m3 (according to ISO 1183) (C) optionally a polypropylene homopolymer with a melt flow rate MFR2 (ISO 1133; 230°C; 2.16kg) in the range of 0.5 to 100.0 g/10 min and/or (D) optionally an alpha nucleating agent (A) a heterophasic polypropylene (HECO), said heterophasic polypropylene comprising a matrix (M) being a propylene homopolymer and an elastomeric propylene-ethylene copolymer dispersed in said matrix (M), and (B) a bimodal metallocene linear low-density polyethylene (mLLDPE), said bimodal metallocene linear low-density polyethylene (mLLDPE) (a) being a terpolymer of ethylene and two different comonomers selected from alpha olefins having from 4 to 10 carbon atoms and (b) being produced with a metallocene catalyst and (c) having a density of 915 to 930 kg/m3 (according to ISO 1183) (a) being a terpolymer of ethylene and two different comonomers selected from alpha olefins having from 4 to 10 carbon atoms and (b) being produced with a metallocene catalyst and (c) having a density of 915 to 930 kg/m3 (according to ISO 1183) (C) optionally a polypropylene homopolymer with a melt flow rate MFR2 (ISO 1133; 230°C; 2.16kg) in the range of 0.5 to 100.0 g/10 min and/or (D) optionally an alpha nucleating agent
A method for managing an enablement state of an energy consuming load , wherein the enablement state is either a load enabled state or a load disabled state, wherein the load enabled state is a state where the load is capable of operating even when the load is not actually operating, and wherein the load disabled state is a state where the load is not capable of operating, the method comprising: (a) assigning an assigned duty cycle to the load which represents a percentage of time that the load is in the load enabled state; (b) measuring an amount of energy consumed by the load while the load is in the load enabled state, and determining a load enabled utilization value for the load, wherein the load enabled utilization value is a ratio of the measured amount of energy consumed by the load while the load is in the load enabled state to an amount of energy which would be consumed by the load if the load were actually operating at all times while the load is in the load enabled state; and (c) adjusting the assigned duty cycle for the load using the load enabled utilization value, wherein the load operates according to a natural duty cycle which represents a percentage of time that the load must actually operate in order to provide a particular result, and wherein the operation of the load according to the natural duty cycle is constrained by the assigned duty cycle for the load; wherein the load is a discretionary load, such that the natural duty cycle for the load is less than 100 percent and wherein the assigned duty cycle for the load is less than 100 percent. (a) assigning an assigned duty cycle to the load which represents a percentage of time that the load is in the load enabled state; (b) measuring an amount of energy consumed by the load while the load is in the load enabled state, and determining a load enabled utilization value for the load, wherein the load enabled utilization value is a ratio of the measured amount of energy consumed by the load while the load is in the load enabled state to an amount of energy which would be consumed by the load if the load were actually operating at all times while the load is in the load enabled state; and (c) adjusting the assigned duty cycle for the load using the load enabled utilization value, wherein the load operates according to a natural duty cycle which represents a percentage of time that the load must actually operate in order to provide a particular result, and wherein the operation of the load according to the natural duty cycle is constrained by the assigned duty cycle for the load;
A method for increasing the resistance of a brominated carbonaceous sorbent to water leaching of bromine species, which method comprises contacting a carbonaceous substrate with at least one organic compound in liquid or gaseous form that contains at least one olefinic double bond, wherein bromination of the carbonaceous substrate using a bromine-containing compound is conducted prior to, during, and/or after said treatment with the organic compound, wherein said organic compound that contains at least one olefinic double bond is in an amount in the range of 0.5 wt% to 20 wt% relative to the total weight of the brominated carbonaceous sorbent, and wherein the sorbent has a content in the range of 0.1 to 20 wt.% bromine, based on the weight of the brominated carbonaceous sorbent after contact with the bromine-containing compound.
A method of producing a coiled tubing (RW) from a thermoplastic plastics material, in which in a first shaping step a tubular extrudate (EX) is extruded by way of an annular nozzle gap of an extruder and the extrudate (EX), which is drawn down from the nozzle gap and capable of being shaped plastically, is calibrated and formed into the coiled tubing (RW) in a second shaping step directly subsequent to the first shaping step in a shaping device to achieve a geometrically defined profile cross-section (PQ), before the coiled tubing (RW) with the geometrically defined profile cross-section (PQ) solidifies, wherein the calibrating of the extrudate (EX) capable of being shaped plastically is carried out in the shaping device with the feed of supporting air via a cavity (HR) of the extrudate (EX). in a first shaping step a tubular extrudate (EX) is extruded by way of an annular nozzle gap of an extruder and the extrudate (EX), which is drawn down from the nozzle gap and capable of being shaped plastically, is calibrated and formed into the coiled tubing (RW) in a second shaping step directly subsequent to the first shaping step in a shaping device to achieve a geometrically defined profile cross-section (PQ), before the coiled tubing (RW) with the geometrically defined profile cross-section (PQ) solidifies, wherein the calibrating of the extrudate (EX) capable of being shaped plastically is carried out in the shaping device with the feed of supporting air via a cavity (HR) of the extrudate (EX).
A method performed by a wireless communications device, the method comprising: disabling transmission by a WLAN transceiver during a WWAN scan interval; permitting transmission by both a WPAN transceiver and a WWAN transceiver during the WWAN scan interval, wherein the WWAN transceiver transmits a frame synchronization signal to the WPAN transceiver during the WWAN scan interval; and adjusting a beginning of a time slot of a frame transmitted by the WPAN transceiver in the WWAN scan interval based on one or more preambles of frames from the WWAN transceiver . disabling transmission by a WLAN transceiver during a WWAN scan interval; permitting transmission by both a WPAN transceiver and a WWAN transceiver during the WWAN scan interval, wherein the WWAN transceiver transmits a frame synchronization signal to the WPAN transceiver during the WWAN scan interval; and adjusting a beginning of a time slot of a frame transmitted by the WPAN transceiver in the WWAN scan interval based on one or more preambles of frames from the WWAN transceiver .