mhurhangee/patent-ind-claim-en huggingface dataset:
Device for the decontamination of a material , for decontaminating, in particular, an aircraft such as a military helicopter , the device comprising - a protective cover that can be adapted to the shape of the material , able to form a fluidtight decontamination tunnel around said material , - at least one decontamination module, able to eliminate the contamination from the material arranged inside the tunnel formed by the protective cover , - a hot air-blowing module able to be arranged at the entrance to the tunnel formed by the protective cover in order to dispatch hot air into said tunnel, and - a filtration module able to be positioned at the exit from the tunnel formed by the protective cover in order to destroy contaminated air vapors and/or to recover the decontaminant at the exit from said tunnel, characterized in that the decontamination module is a suctioning module, able to be positioned under, or at the outside of, the tunnel formed by the protective cover to suction the contaminated particles on the material , and characterized in that the hot air-blowing module constitutes the decontamination module, or one of the decontamination modules, by moving hot air inside the tunnel formed by the protective cover making it possible to remove the contaminated particles from the walls or from the inside of the material . - a protective cover that can be adapted to the shape of the material , able to form a fluidtight decontamination tunnel around said material , - at least one decontamination module, able to eliminate the contamination from the material arranged inside the tunnel formed by the protective cover , - a hot air-blowing module able to be arranged at the entrance to the tunnel formed by the protective cover in order to dispatch hot air into said tunnel, and - a filtration module able to be positioned at the exit from the tunnel formed by the protective cover in order to destroy contaminated air vapors and/or to recover the decontaminant at the exit from said tunnel, characterized in that the decontamination module is a suctioning module, able to be positioned under, or at the outside of, the tunnel formed by the protective cover to suction the contaminated particles on the material , and characterized in that the hot air-blowing module constitutes the decontamination module, or one of the decontamination modules, by moving hot air inside the tunnel formed by the protective cover making it possible to remove the contaminated particles from the walls or from the inside of the material .
A high-frequency heating device comprising: a first surface wave excitation body and a second surface wave excitation body configured to propagate the high-frequency power as respective surface waves to heat a heating-target object ; a high-frequency power supply unit ; a high-frequency power generation unit configured to generate high-frequency power and to supply the high-frequency power only to the first surface wave excitation body , wherein the high-frequency power is supplied to the first surface wave excitation body via the high-frequency power supply unit ; and a stand on which the heating-target object is mounted, wherein the first and second surface wave excitation bodies are disposed at locations opposite to each other in such a manner that the heating-target object is put between them and characterized in that spatial coupling is obtained between the first and second surface wave excitation bodies , such that a part of high-frequency power propagating as a surface wave along the first surface wave excitation body is supplied by spatial coupling to the second surface wave excitation body , and such that the heating-target object is heated by the high-frequency power propagating as the surface wave along the first surface wave excitation body and the second surface wave excitation body . a first surface wave excitation body and a second surface wave excitation body configured to propagate the high-frequency power as respective surface waves to heat a heating-target object ; a high-frequency power supply unit ; a high-frequency power generation unit configured to generate high-frequency power and to supply the high-frequency power only to the first surface wave excitation body , wherein the high-frequency power is supplied to the first surface wave excitation body via the high-frequency power supply unit ; and a stand on which the heating-target object is mounted, wherein the first and second surface wave excitation bodies are disposed at locations opposite to each other in such a manner that the heating-target object is put between them and characterized in that spatial coupling is obtained between the first and second surface wave excitation bodies , such that a part of high-frequency power propagating as a surface wave along the first surface wave excitation body is supplied by spatial coupling to the second surface wave excitation body , and such that the heating-target object is heated by the high-frequency power propagating as the surface wave along the first surface wave excitation body and the second surface wave excitation body .
A system for differentiating between magnetic field distortion and physical movement in a hybrid magnetic and impedance tracking system for navigating a medical device within a patient, the system comprising: an impedance localization system comprising a first drive patch and a second drive patch configured to be coupled to an external surface of the patient's body, the first and second drive patches configured to generate an electrical field within the body for locating an electrode on the medical device ; a magnetic localization system configured to generate a magnetic field; a magnetic sensor coupled to one of the first and second drive patches and configured to receive signals from the magnetic localization system; and an electronic control unit configured to receive drive patch location data from the impedance localization system and magnetic sensor location data from the magnetic localization system, wherein the electronic control circuit is configured to detect a location change of the magnetic sensor and use the drive patch location data and magnetic sensor location data to determine whether the detected location change of the magnetic sensor is caused by a magnetic field distortion or a physical movement of the magnetic sensor . an impedance localization system comprising a first drive patch and a second drive patch configured to be coupled to an external surface of the patient's body, the first and second drive patches configured to generate an electrical field within the body for locating an electrode on the medical device ; a magnetic localization system configured to generate a magnetic field; a magnetic sensor coupled to one of the first and second drive patches and configured to receive signals from the magnetic localization system; and an electronic control unit configured to receive drive patch location data from the impedance localization system and magnetic sensor location data from the magnetic localization system, wherein the electronic control circuit is configured to detect a location change of the magnetic sensor and use the drive patch location data and magnetic sensor location data to determine whether the detected location change of the magnetic sensor is caused by a magnetic field distortion or a physical movement of the magnetic sensor .
Intaglio gravure printing press comprising at least one gravure printing unit, comprising at least one forme cylinder and at least one impression cylinder , at least one inking unit and/or at least one ink collecting cylinder , including at least one assigned inking unit , being arranged at the at least one forme cylinder , the intaglio gravure printing press comprising at least one print head , which is arranged at the at least one impression cylinder , or the intaglio gravure printing press comprising at least one print head , which is arranged at the at least one forme cylinder , at least one wiping device being arranged at the at least one forme cylinder , the at least one wiping device being arranged along the direction of rotation of the at least one forme cylinder , downstream from the at least one print head , when the at least one print head is arranged at the at least one forme cylinder , and the at least one wiping device being arranged along the direction of rotation of the at least one forme cylinder , upstream from a contact region of the at least one forme cylinder with the at least one impression cylinder .
An in vitro method for predicting bone metastasis of a triple negative (including basal-like) breast cancer in a subject suffering from said cancer which comprises i) determining the expression level, or amplification of the c-MAF gene in a sample of said subject and ii) comparing the expression level obtained in step i) with a reference value or the amplification obtained in step i) with a reference gene copy number, wherein increased expression level of said gene with respect to said reference value or increased amplification of said gene with respect to a reference gene copy number is indicative of increased risk of developing bone metastasis. i) determining the expression level, or amplification of the c-MAF gene in a sample of said subject and ii) comparing the expression level obtained in step i) with a reference value or the amplification obtained in step i) with a reference gene copy number,
A brake system for an elevator car comprising: a multiple of sequentially operated brake segments (60a-c) arranged to control a timing and a rate of brake torque for deceleration of the elevator car, wherein: a pressure plate of each of the multiple of brake segments is about equal in brake torque capability; and a first of the multiple of brake segments includes a first electromagnetic coil with a characteristic different than a second electromagnetic coil of a second of the multiple of brake segments, characterized in that the multiple of brake segments include at least three brake segments. a pressure plate of each of the multiple of brake segments is about equal in brake torque capability; and a first of the multiple of brake segments includes a first electromagnetic coil with a characteristic different than a second electromagnetic coil of a second of the multiple of brake segments, characterized in that the multiple of brake segments include at least three brake segments.
A method for screening a compound useful for treating or preventing a viral infection or a virus-related condition in an individual, comprising at least the steps of: a) determining the ability of a candidate compound to promote the interaction between CBP20 and CBP80 in a sample, and b) selecting the candidate compound that is determined to promote said interaction at step a). a) determining the ability of a candidate compound to promote the interaction between CBP20 and CBP80 in a sample, and b) selecting the candidate compound that is determined to promote said interaction at step a).
A method, comprising applying (S31) a traffic management rule comprising a filter and first quality of service settings including a bandwidth amount, and receiving (S32) a data packet of a service data flow, characterized in matching (S33) said data packet with said filter, reserving (S34), based on said bandwidth amount, bandwidth resources for potential future data packets of a transport connection associated with said service data flow based on a matching result, and releasing said bandwidth resources, if a predetermined period of time is elapsed after receiving (S32) a data packet matching said filter without receiving a further data packet matching said filter. applying (S31) a traffic management rule comprising a filter and first quality of service settings including a bandwidth amount, and receiving (S32) a data packet of a service data flow, characterized in matching (S33) said data packet with said filter, reserving (S34), based on said bandwidth amount, bandwidth resources for potential future data packets of a transport connection associated with said service data flow based on a matching result, and releasing said bandwidth resources, if a predetermined period of time is elapsed after receiving (S32) a data packet matching said filter without receiving a further data packet matching said filter.
A vehicle glazing , said glazing comprising a glazed element , at least one portion of extruded seal , at least one trim having an elongate form which extends along an edge of said glazed element and having an outer face visible from the outside of the vehicle and an inner face situated opposite said outer face , and a core , having an elongate form and having, in cross section, a head and a foot , said core being situated under said trim with at least a part of said head in contact with said inner face of the trim and said foot which protrudes under said trim with at least a part of said foot which is not in contact with said inner face of the trim , said portion of extruded seal , seen in cross section, being in contact with said glazed element , said foot and a part of said outer face of the trim , characterized in that said portion of extruded seal is manufactured by molding a plastic material on said glazed element , on said foot and on a part of said outer face of the trim .
A fluid pressurizing and displacement device comprising: a grip assembly having a first end and a second end ; a syringe body which extends from the first end of the grip assembly; a plunger which extends from the second end of the syringe body , said plunger having a thread thereon; an actuating mechanism in the device having a thread thereon which is engaged with the thread on the plunger , and which is configured to automatically disengage the thread on the plunger upon the plunger being pushed or pulled relative to the grip assembly, characterised in that the fluid pressurizing and displacement device is configured such that pulling the plunger relative to the grip assembly fills the device with fluid, pushing the plunger relative to the grip assembly purges the device of fluid, and rotating the plunger relative to the grip assembly causes the thread on the plunger to interact with the thread on the actuating mechanism .
A method of increasing a photosynthesis rate of a plant, the method comprising overexpressing within said plant an exogenous Rieske iron sulphur protein to form a transgenic plant, wherein the transgenic plant has an increased photosynthesis rate as compared to a control plant, wherein the control plant is a wild-type plant of the same variety as the transgenic plant, wherein the method comprises introducing into at least one cell a nucleic acid molecule comprising a nucleic acid sequence selected from: a) a nucleic acid sequence as set forth in SEQ. ID. No. 2 or SEQ. ID. No. 3; b) a nucleic acid sequence having at least 70% sequence identity to the nucleic acid sequence as set forth in SEQ. ID. No. 2 or SEQ. ID. No. 3 and which encodes a Rieske iron sulphur protein; c) a nucleic acid sequence which hybridises under stringent conditions to (a) and which encodes a Rieske iron sulphur protein; and d) a nucleic acid sequence which differs from (a) by virtue of the degeneracy of the genetic code and which encodes a Rieske iron sulphur protein. wherein the transgenic plant has an increased photosynthesis rate as compared to a control plant, wherein the control plant is a wild-type plant of the same variety as the transgenic plant, wherein the method comprises introducing into at least one cell a nucleic acid molecule comprising a nucleic acid sequence selected from: a) a nucleic acid sequence as set forth in SEQ. ID. No. 2 or SEQ. ID. No. 3; b) a nucleic acid sequence having at least 70% sequence identity to the nucleic acid sequence as set forth in SEQ. ID. No. 2 or SEQ. ID. No. 3 and which encodes a Rieske iron sulphur protein; c) a nucleic acid sequence which hybridises under stringent conditions to (a) and which encodes a Rieske iron sulphur protein; and d) a nucleic acid sequence which differs from (a) by virtue of the degeneracy of the genetic code and which encodes a Rieske iron sulphur protein. a) a nucleic acid sequence as set forth in SEQ. ID. No. 2 or SEQ. ID. No. 3; b) a nucleic acid sequence having at least 70% sequence identity to the nucleic acid sequence as set forth in SEQ. ID. No. 2 or SEQ. ID. No. 3 and which encodes a Rieske iron sulphur protein; c) a nucleic acid sequence which hybridises under stringent conditions to (a) and which encodes a Rieske iron sulphur protein; and d) a nucleic acid sequence which differs from (a) by virtue of the degeneracy of the genetic code and which encodes a Rieske iron sulphur protein.
A glycidyl ether toughener, made from a method comprising the steps of: a. providing a polymer; b. adding epichlorohydrin to the polymer with mixing; c. heating the mixture to a maximum temperature of 90° C; d. holding the mixture for a set time; e. distilling the mixture with aqueous sodium hydroxide; f. filtering the mixture; g. adjusting the pH with monosodium phosphate; h. adding the mixture to water; and i separating the organic layer for further distillation and removal of volatiles, wherein - the glycidyl ether toughener is an epoxy terminated butadiene polymer toughener, and the polymer in steps a. and b. is hydroxyl terminated butadiene polymer; or - the glycidyl ether toughener is an epoxy terminated butadiene acrylonitrile copolymer toughener, and the polymer in steps a. and b. is hydroxyl terminated butadiene copolymer. a. providing a polymer; b. adding epichlorohydrin to the polymer with mixing; c. heating the mixture to a maximum temperature of 90° C; d. holding the mixture for a set time; e. distilling the mixture with aqueous sodium hydroxide; f. filtering the mixture; g. adjusting the pH with monosodium phosphate; h. adding the mixture to water; and i separating the organic layer for further distillation and removal of volatiles, wherein - the glycidyl ether toughener is an epoxy terminated butadiene polymer toughener, and the polymer in steps a. and b. is hydroxyl terminated butadiene polymer; or - the glycidyl ether toughener is an epoxy terminated butadiene acrylonitrile copolymer toughener, and the polymer in steps a. and b. is hydroxyl terminated butadiene copolymer. - the glycidyl ether toughener is an epoxy terminated butadiene polymer toughener, and the polymer in steps a. and b. is hydroxyl terminated butadiene polymer; or - the glycidyl ether toughener is an epoxy terminated butadiene acrylonitrile copolymer toughener, and the polymer in steps a. and b. is hydroxyl terminated butadiene copolymer.
A method for detecting biometric characteristics comprising: determining, by a processor, an approximate center point location of a biometric characteristic, the biometric characteristic being included in a frame, the frame being included in a video of the biometric characteristic of a user; translating a region of interest into positions over the frame, the region of interest including the approximate center point location in each position; calculating a set of feature values for each position of the region of interest; generating horizontal and vertical displacements of the centre point location for each set of feature values; determining a median horizontal displacement and a median vertical displacement from the displacements; and adjusting the approximate center point location by the median value of the displacements. determining, by a processor, an approximate center point location of a biometric characteristic, the biometric characteristic being included in a frame, the frame being included in a video of the biometric characteristic of a user; translating a region of interest into positions over the frame, the region of interest including the approximate center point location in each position; calculating a set of feature values for each position of the region of interest; generating horizontal and vertical displacements of the centre point location for each set of feature values; determining a median horizontal displacement and a median vertical displacement from the displacements; and adjusting the approximate center point location by the median value of the displacements.
Method of treating a surface on a wafer or a die comprising the steps of: (a) providing a wafer or a die, (b) placing the wafer or the die on a support , (c) providing material for forming a boundary surrounding the surface to be treated, (d) applying the material for the surrounding boundary in such a way that a depression is formed around the surface to be treated from which a liquid is unable to escape (e) filling the depression with a treatment liquid, wherein the treatment comprises cleaning and removal of treatment liquid by centrifuging, characterised in that the material for the surrounding boundary according to step d) is applied in such a way that a bevel exists which slopes down from the top edge of the boundary to the surface intended for cleaning, wherein the depression is so designed such that its floor is completely formed by the wafer or the die. (a) providing a wafer or a die, (b) placing the wafer or the die on a support , (c) providing material for forming a boundary surrounding the surface to be treated, (d) applying the material for the surrounding boundary in such a way that a depression is formed around the surface to be treated from which a liquid is unable to escape (e) filling the depression with a treatment liquid,
A computer-implemented method comprising: receiving (i) a query image, and (ii) a user tap location indicative of a point or an area of the query image selected by a user; processing the received query image based on the user tap location, by defining an area of interest around the user tap location; identifying one or more entities associated with the processed query image by processing the processed query image using a descriptor matching engine and extracting a higher density of descriptors in the defined area of interest compared to other areas in the processed query image; and in response to receiving (i) the query image, and (ii) the user tap location, providing information about the identified one or more of the entities. receiving (i) a query image, and (ii) a user tap location indicative of a point or an area of the query image selected by a user; processing the received query image based on the user tap location, by defining an area of interest around the user tap location; identifying one or more entities associated with the processed query image by processing the processed query image using a descriptor matching engine and extracting a higher density of descriptors in the defined area of interest compared to other areas in the processed query image; and in response to receiving (i) the query image, and (ii) the user tap location, providing information about the identified one or more of the entities.