mhurhangee/patent-ind-claim-en huggingface dataset:
A spectacle lens comprising a multilayer film of a vapor deposition film excluding a metal film and a metal alloy film, the multilayer film being directly or indirectly at least on one surface of a lens substrate, wherein the multilayer film includes at least one high refractive index layer and at least one low refractive index layer, the total optical film thickness of the at least one high refractive index layer is λ/4 or more at a wavelength λ = 780 nm, and a reflection spectrum measured in a wavelength range of 380 to 2000 nm on a surface having the multilayer film has a maximum reflectance in a wavelength range of 800 to 1350 nm, characterized in that wherein the high refractive index layer is a vapor deposition film made of a high refractive index material being selected from the group consisting of zirconium oxide and niobium oxide and having a refractive index of 2.0 or more and less than 2.4 at a wavelength 780 nm, and wherein the low refractive index layer is a vapor deposition film made of a low refractive index material being silicon oxide and having a refractive index of 1.2 or more and 1.8 or less at a wavelength 780 nm, the layer number of the multilayer film being five or more, wherein the total layer number of the high refractive index layer and the low refractive index layer is nine or less, wherein the luminous transmittance is 90% or more. the multilayer film includes at least one high refractive index layer and at least one low refractive index layer, the total optical film thickness of the at least one high refractive index layer is λ/4 or more at a wavelength λ = 780 nm, and a reflection spectrum measured in a wavelength range of 380 to 2000 nm on a surface having the multilayer film has a maximum reflectance in a wavelength range of 800 to 1350 nm, characterized in that wherein the high refractive index layer is a vapor deposition film made of a high refractive index material being selected from the group consisting of zirconium oxide and niobium oxide and having a refractive index of 2.0 or more and less than 2.4 at a wavelength 780 nm, and wherein the low refractive index layer is a vapor deposition film made of a low refractive index material being silicon oxide and having a refractive index of 1.2 or more and 1.8 or less at a wavelength 780 nm, the layer number of the multilayer film being five or more, wherein the total layer number of the high refractive index layer and the low refractive index layer is nine or less, wherein the luminous transmittance is 90% or more.
A biosensor component for use in analyzing a biological sample, said biosensor component comprising: a substrate; a conductive layer coated on said substrate; and wherein said conductive layer comprises nickel, chromium, and molybdenum, wherein the weight percent of nickel in the conductive layer is in the range of 55 to 60 weight percent, wherein the weight percent of chromium in the conductive layer is in the range of 15 to 34 weight percent, wherein the weight percent of molybdenum in the conductive layer is in the range of 7 to 17 weight percent. a substrate; a conductive layer coated on said substrate; and wherein said conductive layer comprises nickel, chromium, and molybdenum, wherein the weight percent of nickel in the conductive layer is in the range of 55 to 60 weight percent, wherein the weight percent of chromium in the conductive layer is in the range of 15 to 34 weight percent, wherein the weight percent of molybdenum in the conductive layer is in the range of 7 to 17 weight percent.
A method for controlling the warning lights of an unmanned aerial vehicle , in a system, in which one or more warning lights are connected to a controller , which controller is also connected via a communication interface to a decision subsystem adapted to receive an activation signal from a delivery module providing the activation signal, which method comprises the following steps: a) delivery of the activation signal by the delivery module providing the activation signal to the decision subsystem , b) generation of a request to turn the warning lights on or off by the decision subsystem based on the activation signal, and transfer of this request via the interface to the controller , c) turning the warning lights on or off by the controller according to the request received in step b) cha racterised in that the delivery module generates the activation signal due to failure of one or more subsystems of the unmanned aerial vehicle or due to the unmanned aerial vehicle exit beyond a specified airspace being defined earlier as a spatial solid or its projection on the ground surface in which the unmanned aerial vehicle can stay and move . a) delivery of the activation signal by the delivery module providing the activation signal to the decision subsystem , b) generation of a request to turn the warning lights on or off by the decision subsystem based on the activation signal, and transfer of this request via the interface to the controller , c) turning the warning lights on or off by the controller according to the request received in step b) cha racterised in that the delivery module generates the activation signal due to failure of one or more subsystems of the unmanned aerial vehicle or due to the unmanned aerial vehicle exit beyond a specified airspace being defined earlier as a spatial solid or its projection on the ground surface in which the unmanned aerial vehicle can stay and move . due to failure of one or more subsystems of the unmanned aerial vehicle or due to the unmanned aerial vehicle exit beyond a specified airspace being defined earlier as a spatial solid or its projection on the ground surface in which the unmanned aerial vehicle can stay and move .
A device (10; 100) for vapor ablation, the device (10; 100) comprising: a sheath (11; 110) extending from a proximal end to a distal portion, wherein the sheath (11; 110) includes a lumen (20; 120) terminating distally at a lumen opening (22; 122); a vapor delivery member (24; 124) received in the lumen (20; 120), wherein the vapor delivery member (24; 124) includes a channel configured to receive vapor and at least one aperture (38; 138) configured to deliver the vapor to a body tissue; and an electrical component (30A, 30B; 130) having a chip, wherein the chip is disposed proximate to the distal lumen opening (22; 122), wherein the sheath (11;110) includes a working channel (40; 140) extending from the proximal end and terminating distally at a working channel opening (42; 142), and wherein the electrical component (30A, 30B; 130) is disposed radially between the working channel opening (42; 142) and the lumen opening (22;122). a sheath (11; 110) extending from a proximal end to a distal portion, wherein the sheath (11; 110) includes a lumen (20; 120) terminating distally at a lumen opening (22; 122); a vapor delivery member (24; 124) received in the lumen (20; 120), wherein the vapor delivery member (24; 124) includes a channel configured to receive vapor and at least one aperture (38; 138) configured to deliver the vapor to a body tissue; and an electrical component (30A, 30B; 130) having a chip, wherein the chip is disposed proximate to the distal lumen opening (22; 122), wherein the sheath (11;110) includes a working channel (40; 140) extending from the proximal end and terminating distally at a working channel opening (42; 142), and wherein the electrical component (30A, 30B; 130) is disposed radially between the working channel opening (42; 142) and the lumen opening (22;122).
A T cell receptor with specificity for NY-ESO-1 comprising: (i) a T cell receptor α-chain comprising a hypervariable region comprising at least the CDR3 sequence of the T cell receptor α-chain of SEQ ID NO: 44, and (ii) a T cell receptor β-chain comprising a hypervariable region comprising at least the CDR3 sequence of the T cell receptor β-chain of SEQ ID NO: 45, wherein said hypervariable region comprises CDR1, CDR2 and CDR3 of a T cell receptor. (i) a T cell receptor α-chain comprising a hypervariable region comprising at least the CDR3 sequence of the T cell receptor α-chain of SEQ ID NO: 44, and (ii) a T cell receptor β-chain comprising a hypervariable region comprising at least the CDR3 sequence of the T cell receptor β-chain of SEQ ID NO: 45,
A method of optimizing data exchange in a communications network, the method comprising: providing access to the network via a first radio access technology and a second radio access technology (2 - 8), wherein cells of the second radio access network technology (2 - 8) are temporarily switched off; and Characterized in that sending via the first radio access technology to a subscriber station an indication of the switched-off second radio access technology (2-8), which would be available if switched on. providing access to the network via a first radio access technology and a second radio access technology (2 - 8), wherein cells of the second radio access network technology (2 - 8) are temporarily switched off; and Characterized in that sending via the first radio access technology to a subscriber station an indication of the switched-off second radio access technology (2-8), which would be available if switched on.
A method of preparing a vinyl chloride-based resin, comprising preparing a slurry through suspension polymerization by mixing a monomer, an oil soluble initiator, a dispersant, and an additive, wherein the additive includes an emulsifier, a water-soluble initiator, or a combination of the emulsifier and the water-soluble initiator, wherein the monomer includes vinyl chloride, an unsaturated carboxylic acid-based compound, and an ethylenic unsaturated compound that is copolymerizable therewith, the emulsifier includes a non-ionic emulsifier, or a combination of the non-ionic emulsifier and an anionic emulsifier, wherein the non-ionic emulsifier is a C6 to C20 alcohol, and wherein the additive comprises the emulsifier, and when the emulsifier comprises the anionic emulsifier and the non-ionic emulsifier, the anionic emulsifier and the non-ionic emulsifier are included in a weight ratio of 1:0.5 to 1:200.
A leadless cardiac pacemaker (LCP) (14; 50; 104; 106) configured for implantation entirely within a heart chamber of a patient or adjacent to a heart chamber of a patient, the LCP (14; 50; 104; 106) comprising: a plurality of electrodes for therapy delivery and cardiac electrical sensing; pacing means to generate pacing therapy outputs; and control means to control the use of the pacing means using signals sensed from the electrodes ; characterized in that the control means is configured to provide cardiac resynchronization therapy (CRT) in sets using a predetermined reduction factor and a set parameter, "N", comprising delivering sets of CRT therapy including N pacing therapy outputs by: sensing a native R-R interval for the patient's heart; delivering a synchronization pace therapy at an interval, relative to a native ventricular event, calculated using the native R-R interval and the reduction factor; and delivering a plurality of additional pace therapies at intervals approximately equal to the native R-R interval. a plurality of electrodes for therapy delivery and cardiac electrical sensing; pacing means to generate pacing therapy outputs; and control means to control the use of the pacing means using signals sensed from the electrodes ; characterized in that the control means is configured to provide cardiac resynchronization therapy (CRT) in sets using a predetermined reduction factor and a set parameter, "N", comprising delivering sets of CRT therapy including N pacing therapy outputs by: sensing a native R-R interval for the patient's heart; delivering a synchronization pace therapy at an interval, relative to a native ventricular event, calculated using the native R-R interval and the reduction factor; and delivering a plurality of additional pace therapies at intervals approximately equal to the native R-R interval. sensing a native R-R interval for the patient's heart; delivering a synchronization pace therapy at an interval, relative to a native ventricular event, calculated using the native R-R interval and the reduction factor; and delivering a plurality of additional pace therapies at intervals approximately equal to the native R-R interval.
A tire abnormality detection device , comprising: an MCU module that is located at a center of a surface of a tire inner liner ; a first sensor module that is formed on one side of the MCU module in a width direction of the inner liner ; and a second sensor module that is formed on the other side of the MCU module in the width direction of the inner liner , wherein the first sensor module and the second sensor module are symmetrically located with respect to the MCU module , characterized in that the MCU module is configured to receive a first data value measured by the first sensor module and a second data value measured by the second sensor module , and the MCU module is configured to compare the first data value and the second data value to determine whether the tire is abnormal. an MCU module that is located at a center of a surface of a tire inner liner ; a first sensor module that is formed on one side of the MCU module in a width direction of the inner liner ; and a second sensor module that is formed on the other side of the MCU module in the width direction of the inner liner , wherein the first sensor module and the second sensor module are symmetrically located with respect to the MCU module , characterized in that the MCU module is configured to receive a first data value measured by the first sensor module and a second data value measured by the second sensor module , and the MCU module is configured to compare the first data value and the second data value to determine whether the tire is abnormal.
A detection system for measuring one or more conditions within a predetermined area comprising: a fiber harness having at least one fiber optic cable for transmitting light, the at least one fiber optic cable defining a node arranged to measure the one or more conditions; a control system operably coupled to the fiber harness such that scattered light associated with the node is transmitted to the control system, wherein the control system analyzes the scattered light to determine at least one of a presence and magnitude of the one or more conditions at the node; an optical enhancement device operably connected to the fiber harness to reduce interference sources transmitted from the node; at least one light sensitive device associated with the node, wherein the at least one light sensitive device receives scattered light from the node indicating a scattered light received by the node; and wherein the optical enhancement device is one or more of a filter, a polarizer, an antireflective coating, or a wave plate; characterised in that the optical enhancement device is disposed at the node. a fiber harness having at least one fiber optic cable for transmitting light, the at least one fiber optic cable defining a node arranged to measure the one or more conditions; a control system operably coupled to the fiber harness such that scattered light associated with the node is transmitted to the control system, wherein the control system analyzes the scattered light to determine at least one of a presence and magnitude of the one or more conditions at the node; an optical enhancement device operably connected to the fiber harness to reduce interference sources transmitted from the node; at least one light sensitive device associated with the node, wherein the at least one light sensitive device receives scattered light from the node indicating a scattered light received by the node; and wherein the optical enhancement device is one or more of a filter, a polarizer, an antireflective coating, or a wave plate; characterised in that the optical enhancement device is disposed at the node.
An aircraft system for exchanging data between an aircraft having multiple aircraft systems and an operator , the aircraft system comprising: a first near-field communication interface located within the aircraft and operably coupled to at least some of the multiple aircraft systems ; and a handheld device having a second near-field communication interface ; wherein the handheld device is required to be brought within 25cm of the first near field communication interface for the first and second near-field communication interfaces to communicate; wherein when the handheld device is brought within 25cm of the first near field communication interface such that the first and second near-field communication interfaces may communicate, information may be exchanged through the near-field communication interfaces for at least some of the multiple aircraft systems and the handheld device. a first near-field communication interface located within the aircraft and operably coupled to at least some of the multiple aircraft systems ; and a handheld device having a second near-field communication interface ; wherein the handheld device is required to be brought within 25cm of the first near field communication interface for the first and second near-field communication interfaces to communicate; wherein when the handheld device is brought within 25cm of the first near field communication interface such that the first and second near-field communication interfaces may communicate, information may be exchanged through the near-field communication interfaces for at least some of the multiple aircraft systems and the handheld device. wherein the handheld device is required to be brought within 25cm of the first near field communication interface for the first and second near-field communication interfaces to communicate; wherein when the handheld device is brought within 25cm of the first near field communication interface such that the first and second near-field communication interfaces may communicate, information may be exchanged through the near-field communication interfaces for at least some of the multiple aircraft systems and the handheld device.
A computer implemented welding mark inspection method, characterized by comprising: acquiring (S210) a first picture, wherein the first picture comprises a welding mark; and obtaining (S220) a classification type of the welding mark based on the first picture and a welding mark classification model, wherein the welding mark classification model is used for classifying the welding mark based on characteristics of the welding mark, and wherein the classification type comprises acceptable, burst point, or bad, wherein in case the classification type of the welding mark is burst point, further judgment is needed, characterized in that the method further comprises: in a case that the classification type of the welding mark is burst point, extracting a target region in the first picture, wherein the target region is a region with a sudden color change in the first picture; and determining the welding mark as acceptable or bad based on the target region. acquiring (S210) a first picture, wherein the first picture comprises a welding mark; and obtaining (S220) a classification type of the welding mark based on the first picture and a welding mark classification model, wherein the welding mark classification model is used for classifying the welding mark based on characteristics of the welding mark, and wherein the classification type comprises acceptable, burst point, or bad, wherein in case the classification type of the welding mark is burst point, further judgment is needed, characterized in that the method further comprises: in a case that the classification type of the welding mark is burst point, extracting a target region in the first picture, wherein the target region is a region with a sudden color change in the first picture; and determining the welding mark as acceptable or bad based on the target region. in a case that the classification type of the welding mark is burst point, extracting a target region in the first picture, wherein the target region is a region with a sudden color change in the first picture; and determining the welding mark as acceptable or bad based on the target region.
A motorcycle tire comprising: a tread portion curved convexly and having a first tread edge (Tel) and a second tread edge (Te2), the tread portion provided with first inclined main grooves and second inclined main grooves which are arranged alternately in the tire circumferential direction while inclining in opposite directions to each other, wherein the first inclined main grooves extend from the first tread edge (Tel) toward the second tread edge (Te2) across the tire equator (C) to the respective second inclined main grooves which extend from the second tread edge (Te2) toward the first tread edge (Tel) across the tire equator (C) to the respective first inclined main grooves which are respectively next to the above-said first inclined main grooves , whereby the tread portion is provided with a first region delimited by the first tread edge (Te1), two of the first inclined main grooves and one of the second inclined main grooves , the first region is provided with blocks whose ground contacting top surfaces have vertices , characterised in that each of the vertices has an angle of not less than 60 degrees. a tread portion curved convexly and having a first tread edge (Tel) and a second tread edge (Te2), the tread portion provided with first inclined main grooves and second inclined main grooves which are arranged alternately in the tire circumferential direction while inclining in opposite directions to each other, wherein the first inclined main grooves extend from the first tread edge (Tel) toward the second tread edge (Te2) across the tire equator (C) to the respective second inclined main grooves which extend from the second tread edge (Te2) toward the first tread edge (Tel) across the tire equator (C) to the respective first inclined main grooves which are respectively next to the above-said first inclined main grooves , whereby the tread portion is provided with a first region delimited by the first tread edge (Te1), two of the first inclined main grooves and one of the second inclined main grooves , the first region is provided with blocks whose ground contacting top surfaces have vertices , characterised in that each of the vertices has an angle of not less than 60 degrees.