mhurhangee/patent-ind-claim-en huggingface dataset:
A method for user identification, the method comprising: responsive to detecting that a fingerprint of a user is in contact with a preset fingerprint identification region, determining a surface humidity of the preset fingerprint identification region; when the surface humidity is greater than a preset humidity, acquiring the fingerprint of the user through an optical fingerprint sensor; matching the fingerprint acquired through the optical fingerprint sensor with pre-stored fingerprint information; and unlocking a screen in case of successful matching, characterized by : detecting an air humidity in an environment; and determining the optical fingerprint sensor as a default fingerprint identification sensor, responsive to detecting that the air humidity is greater than an air humidity threshold. responsive to detecting that a fingerprint of a user is in contact with a preset fingerprint identification region, determining a surface humidity of the preset fingerprint identification region; when the surface humidity is greater than a preset humidity, acquiring the fingerprint of the user through an optical fingerprint sensor; matching the fingerprint acquired through the optical fingerprint sensor with pre-stored fingerprint information; and unlocking a screen in case of successful matching, characterized by : detecting an air humidity in an environment; and determining the optical fingerprint sensor as a default fingerprint identification sensor, responsive to detecting that the air humidity is greater than an air humidity threshold. detecting an air humidity in an environment; and determining the optical fingerprint sensor as a default fingerprint identification sensor, responsive to detecting that the air humidity is greater than an air humidity threshold.
A turbine rotor blade for a gas turbine engine, the turbine rotor blade comprising an airfoil comprising: a tip at an outer radial end; a pressure sidewall and a suction sidewall that join together at a leading edge and a trailing edge of the airfoil, the pressure sidewall and the suction sidewall extending from a root to the tip and defining an airfoil chamber therein; and wherein: the tip includes: a rail that defines a tip cavity ; and a tip plate , the rail being disposed near or at a periphery of the tip plate; the rail includes an inner rail surface , which faces inwardly toward the tip cavity, and an outer rail surface, the rail also including a circumscribing rail microchannel that extends around the inner rail surface to surround the tip cavity; characterized in that a feed microchannel extends across the tip plate and a portion of the rail , the feed microchannel comprising an upstream end, which is positioned on the tip plate , and a downstream end, which is positioned on the rail ; wherein the upstream end of the feed microchannel connects to a coolant passageway that passes through the tip plate to the airfoil chamber; and the downstream end fluidly connects to the circumscribing rail microchannel . a tip at an outer radial end; a pressure sidewall and a suction sidewall that join together at a leading edge and a trailing edge of the airfoil, the pressure sidewall and the suction sidewall extending from a root to the tip and defining an airfoil chamber therein; and wherein: the tip includes: a rail that defines a tip cavity ; and a tip plate , the rail being disposed near or at a periphery of the tip plate; the rail includes an inner rail surface , which faces inwardly toward the tip cavity, and an outer rail surface, the rail also including a circumscribing rail microchannel that extends around the inner rail surface to surround the tip cavity; characterized in that a feed microchannel extends across the tip plate and a portion of the rail , the feed microchannel comprising an upstream end, which is positioned on the tip plate , and a downstream end, which is positioned on the rail ; the tip includes: a rail that defines a tip cavity ; and a tip plate , the rail being disposed near or at a periphery of the tip plate; the rail includes an inner rail surface , which faces inwardly toward the tip cavity, and an outer rail surface, the rail also including a circumscribing rail microchannel that extends around the inner rail surface to surround the tip cavity; characterized in that a feed microchannel extends across the tip plate and a portion of the rail , the feed microchannel comprising an upstream end, which is positioned on the tip plate , and a downstream end, which is positioned on the rail ; wherein the upstream end of the feed microchannel connects to a coolant passageway that passes through the tip plate to the airfoil chamber; and the downstream end fluidly connects to the circumscribing rail microchannel .
A device for delivering ablative medical treatments to biological tissue to improve biomechanics of an eye comprising: a laser for generating a beam of laser radiation, operable for use in ablative medical treatments to a target eye tissue to create a matrix of pores that improves biomechanics of the eye; a controller in communication with the laser and operable to control dosimetry of the beam of laser radiation; a lens operable to focus the beam of laser radiation onto the target eye tissue; an eye tracking subsystem for tracking landmarks and movements of the eye; a depth control subsystem for controlling a depth of ablation on the target eye tissue; a scanning system communicatively coupled to the eye tracking subsystem and the depth control subsystem for scanning a focus spot over an area of the target eye tissue; an avoidance subsystem for identifying critical biological obstacles or locations of the eye; a power source operable to provide power to the device; and wherein the scanning system includes a biofeedback control loop configured to provide real-time feedback about the characteristics of the irradiated target eye tissue, including thickness, topography, focus, hydration during the ablative medical treatments; and wherein, the scanning system is configured to deliver the medical treatments comprising a complete circumferential treatment using a golden spiral pattern, the pattern having one of clockwise direction, counterclockwise direction, or combination thereof, the golden spiral being a logarithmic spiral that grows by a factor of φ = 1.618 for each quarter turn of the spiral. a laser for generating a beam of laser radiation, operable for use in ablative medical treatments to a target eye tissue to create a matrix of pores that improves biomechanics of the eye; a controller in communication with the laser and operable to control dosimetry of the beam of laser radiation; a lens operable to focus the beam of laser radiation onto the target eye tissue; an eye tracking subsystem for tracking landmarks and movements of the eye; a depth control subsystem for controlling a depth of ablation on the target eye tissue; a scanning system communicatively coupled to the eye tracking subsystem and the depth control subsystem for scanning a focus spot over an area of the target eye tissue; an avoidance subsystem for identifying critical biological obstacles or locations of the eye; a power source operable to provide power to the device; and wherein the scanning system includes a biofeedback control loop configured to provide real-time feedback about the characteristics of the irradiated target eye tissue, including thickness, topography, focus, hydration during the ablative medical treatments; and wherein, the scanning system is configured to deliver the medical treatments comprising a complete circumferential treatment using a golden spiral pattern, the pattern having one of clockwise direction, counterclockwise direction, or combination thereof, the golden spiral being a logarithmic spiral that grows by a factor of φ = 1.618 for each quarter turn of the spiral.
A transmitter comprising an image processor configured to: set region information corresponding to a region (1 - 4) set for an image for each row in the image, and to transmit the set region information and region data corresponding to the region for each row, wherein the region data is stored in payload, wherein, based on the region data, the region (1 - 4) in the image is specified, wherein the region data corresponds to a region of interest set for the image, and wherein the region information includes information indicating a position of a row and information indicating a position of a column of the region included in the row, set the region by analyzing the image or on a basis of externally acquired region-designating information, selectively switch between transmitting the region data and transmitting data representing the entire image, in a case where there is an overlapping part at which a plurality of the regions (1 - 4) overlap, determine whether to cause data of the overlapping part to be transmitted overlappingly by the region data corresponding to each of the plurality of the regions (1 - 4), and in a case of determining that the overlapping transmission is performed, cause the data of the overlapping part to be transmitted overlappingly, wherein overlappingly refers to transfer data of the overlapping part included in region data for each region in which the overlapping part is present for transmission. set region information corresponding to a region (1 - 4) set for an image for each row in the image, and to transmit the set region information and region data corresponding to the region for each row, wherein the region data is stored in payload, wherein, based on the region data, the region (1 - 4) in the image is specified, wherein the region data corresponds to a region of interest set for the image, and wherein the region information includes information indicating a position of a row and information indicating a position of a column of the region included in the row, set the region by analyzing the image or on a basis of externally acquired region-designating information, selectively switch between transmitting the region data and transmitting data representing the entire image, in a case where there is an overlapping part at which a plurality of the regions (1 - 4) overlap, determine whether to cause data of the overlapping part to be transmitted overlappingly by the region data corresponding to each of the plurality of the regions (1 - 4), and in a case of determining that the overlapping transmission is performed, cause the data of the overlapping part to be transmitted overlappingly, wherein overlappingly refers to transfer data of the overlapping part included in region data for each region in which the overlapping part is present for transmission.
A method of marking a batch of carbon dioxide formed from a mixture of several batches, each batch comprising carbon dioxide recycled in industrial or agricultural uses or captured and sequestered to address climate issues, the method comprising for each batch the following steps a. b. c: a. Creation by a traceability computer system of a reference to the batch of carbon dioxide in a database of a computer system listing a plurality of batches of carbon dioxide; b. Injection of a chemical tracer into the batch of carbon dioxide, the final concentration of tracer in each batch being less than 1% by mass; c. Recording the chemical tracer formula of the batch in the computerised traceability system; Where the chemical tracer formula is batch specific and is in the form of a combination of at least two chemicals; Then : Blending of the said several batches to form a new batch of carbon dioxide, the tracer composition of which, being the combination weighted by the assembled amounts of the tracers of each batch in the blend, constitutes a single characteristic for the identification of this new batch so composed. a. Creation by a traceability computer system of a reference to the batch of carbon dioxide in a database of a computer system listing a plurality of batches of carbon dioxide; b. Injection of a chemical tracer into the batch of carbon dioxide, the final concentration of tracer in each batch being less than 1% by mass; c. Recording the chemical tracer formula of the batch in the computerised traceability system;
An apparatus for producing a semi-finished product comprising a strip of sealing compound for building tyres , the sealing compound comprising at least the following components: (a) at least one unsaturated styrene thermoplastic elastomer; (b) at least one bonding resin; (c) at least one cross-linking agent; wherein the apparatus comprises: - a continuous mixer comprising an inner chamber and structured for receiving the components of the sealing compound and to continuously mix them until the sealing compound is obtained; - a buffer device having a respective inner chamber and coupled in series with structural continuity to the continuous mixer, downstream of the latter, in a manner such that the two respective inner chambers are physically connected without interruption; - a gear pump having a respective inner chamber and a gear system housed in the respective inner chamber, and coupled with structural continuity to the buffer device downstream of the latter, in a manner such that the two respective inner chambers are physically connected without interruption; - an extrusion head coupled directly and with structural continuity to the gear pump, downstream of the latter, in a manner such to receive in input the sealing compound from the gear pump and deliver in output the sealing compound in the form of said strip having predetermined transverse size, wherein the buffer device is arranged and structured for receiving the sealing compound from the continuous mixer and for feeding the gear pump. (a) at least one unsaturated styrene thermoplastic elastomer; (b) at least one bonding resin; (c) at least one cross-linking agent; - a continuous mixer comprising an inner chamber and structured for receiving the components of the sealing compound and to continuously mix them until the sealing compound is obtained; - a buffer device having a respective inner chamber and coupled in series with structural continuity to the continuous mixer, downstream of the latter, in a manner such that the two respective inner chambers are physically connected without interruption; - a gear pump having a respective inner chamber and a gear system housed in the respective inner chamber, and coupled with structural continuity to the buffer device downstream of the latter, in a manner such that the two respective inner chambers are physically connected without interruption; - an extrusion head coupled directly and with structural continuity to the gear pump, downstream of the latter, in a manner such to receive in input the sealing compound from the gear pump and deliver in output the sealing compound in the form of said strip having predetermined transverse size, wherein the buffer device is arranged and structured for receiving the sealing compound from the continuous mixer and for feeding the gear pump.
An elevator system which is suitable both for normal operating situations and for emergency situations, having: - a drive device, - an elevator car which can be displaced directly or indirectly within an elevator shaft by the drive device, - a guide means which is connected to the elevator car , - a derailment protection device which is connected to the elevator car , and - a guide rail which has a first subregion which works together with the guide means and serves to guide the elevator car along the guide rail , and which has a second subregion which can interact with the derailment protection device , characterized in that , a clearance (s) between the derailment protection device and the second subregion of the guide rail is large enough that the derailment protection device and the second subregion of the guide rail remain spaced apart from each other during normal operating situations. - a drive device, - an elevator car which can be displaced directly or indirectly within an elevator shaft by the drive device, - a guide means which is connected to the elevator car , - a derailment protection device which is connected to the elevator car , and - a guide rail which has a first subregion which works together with the guide means and serves to guide the elevator car along the guide rail , and which has a second subregion which can interact with the derailment protection device ,
A microneedle array comprising: a multilayer polymer having a first side and an opposing second side , the multilayer polymer defining a plurality of microneedles on the first side , each microneedle having a distal end and a base between the distal end and the second side of the multilayer polymer, the base of each of the microneedles having a cross-sectional area larger than that of the respective distal end ; where the multilayer polymer comprises: a first layer having the first side and that includes polymethylmethacrylate (PMMA); and a second layer having the second side and that includes polycarbonate (PC) wherein a hardness of the first layer comprises a pencil hardness of H or greater. a multilayer polymer having a first side and an opposing second side , the multilayer polymer defining a plurality of microneedles on the first side , each microneedle having a distal end and a base between the distal end and the second side of the multilayer polymer, the base of each of the microneedles having a cross-sectional area larger than that of the respective distal end ; where the multilayer polymer comprises: a first layer having the first side and that includes polymethylmethacrylate (PMMA); and a second layer having the second side and that includes polycarbonate (PC) wherein a hardness of the first layer comprises a pencil hardness of H or greater. a first layer having the first side and that includes polymethylmethacrylate (PMMA); and a second layer having the second side and that includes polycarbonate (PC) wherein a hardness of the first layer comprises a pencil hardness of H or greater.
A gripping and carrying device for moving a container having a longitudinal axis (A L ) and a transversal axis (A T ) characterized in that said device comprises a substantially L-shaped frame extending along the longitudinal axis (A L ) and configured to be connected onto a mobile crane , said frame having a distal end and a proximal end provided with a grabbing and gripping deck having : - grab handles rotationally mounted onto said deck , said grab handles being mobile between a first position and a second position, - gripping means translationally mounted onto said deck , mobile between a releasing position wherein the gripping means are disengaged from the container and a gripping position wherein the gripping means are configured to engage into the container , the grab handles and the gripping means being operatively connected within said deck so that a rotation of the grab handles from the first position to the second position causes a translation of the gripping means from the releasing position to the gripping position, characterized in that the distal end of the frame is provided with at least one hooking mean configured to engage onto at least one complementary hooking means provided on the container . - grab handles rotationally mounted onto said deck , said grab handles being mobile between a first position and a second position, - gripping means translationally mounted onto said deck , mobile between a releasing position wherein the gripping means are disengaged from the container and a gripping position wherein the gripping means are configured to engage into the container , the grab handles and the gripping means being operatively connected within said deck so that a rotation of the grab handles from the first position to the second position causes a translation of the gripping means from the releasing position to the gripping position, characterized in that the distal end of the frame is provided with at least one hooking mean configured to engage onto at least one complementary hooking means provided on the container .
A speech-enhancement system for a vehicle , the system comprising: a location-determining subsystem configured to determine a first location (L1) of the vehicle and to generate location data representing the first location (L1) of the vehicle ; and a speech-enhancement processor for processing a speech signal, wherein the processor is coupled to a memory to store noise data for a route, the noise data collected by the vehicle or obtained from an external source and including a noise frequency spectrum and location coordinates; wherein the processor is communicatively coupled to the location-determining subsystem for receiving the location data and configured to identify noise patterns in the route; wherein the processor is configured to predict expected noise (N2) at a second location (L2) corresponding to a predicted location of the vehicle before the vehicle is at the predicted location, the processor being configured to predict the expected noise based on the noise patterns in the route; and wherein the processor is further configured to suppress noise based on the expected noise (N2) when the vehicle is at the second location (L2) to thereby enhance the speech signal. a location-determining subsystem configured to determine a first location (L1) of the vehicle and to generate location data representing the first location (L1) of the vehicle ; and a speech-enhancement processor for processing a speech signal, wherein the processor is coupled to a memory to store noise data for a route, the noise data collected by the vehicle or obtained from an external source and including a noise frequency spectrum and location coordinates; wherein the processor is communicatively coupled to the location-determining subsystem for receiving the location data and configured to identify noise patterns in the route; wherein the processor is configured to predict expected noise (N2) at a second location (L2) corresponding to a predicted location of the vehicle before the vehicle is at the predicted location, the processor being configured to predict the expected noise based on the noise patterns in the route; and wherein the processor is further configured to suppress noise based on the expected noise (N2) when the vehicle is at the second location (L2) to thereby enhance the speech signal.
An optical fiber comprising: a core region containing an alkali metal in an average concentration of 0.2 atomic ppm or more and 50 atomic ppm or less, and chlorine in a minimum concentration of 1,000 atomic ppm or more and in an average concentration of 2,000 atomic ppm or more; and a cladding region surrounding the core region, wherein the chlorine concentration in the optical fiber is the lowest near the central portion of the core region and is high at the outer peripheral portion of the core region. a core region containing an alkali metal in an average concentration of 0.2 atomic ppm or more and 50 atomic ppm or less, and chlorine in a minimum concentration of 1,000 atomic ppm or more and in an average concentration of 2,000 atomic ppm or more; and a cladding region surrounding the core region, wherein the chlorine concentration in the optical fiber is the lowest near the central portion of the core region and is high at the outer peripheral portion of the core region.