mhurhangee/patent-ind-claim-en huggingface dataset:
A laser apparatus , comprising: a laser unit that is housed inside a box-shaped housing having a plurality of faces; a frame that supports a substrate , with a first mount interposed between the substrate and the frame ; wherein the substrate comprises one face on which the laser unit is mounted, and wherein a radiator is attached to another face of the substrate which is opposite to the one face of the substrate on which the laser unit is mounted; a cooling gas flow generation unit that is attached to a member different from the frame and generates a flow of cooling gas for cooling the laser unit , wherein the cooling gas flow generation unit is disposed facing the laser unit and on a side of a face having a largest area or a face opposite to the face having the largest area among the plurality of faces of the housing , the frame has a through-hole penetrating from the one face on which the laser unit is supported, to the other face, the cooling gas moves through the through-hole of the frame between the cooling gas flow generation unit and the laser unit . a laser unit that is housed inside a box-shaped housing having a plurality of faces; a frame that supports a substrate , with a first mount interposed between the substrate and the frame ; wherein the substrate comprises one face on which the laser unit is mounted, and wherein a radiator is attached to another face of the substrate which is opposite to the one face of the substrate on which the laser unit is mounted; wherein the substrate comprises one face on which the laser unit is mounted, and wherein a radiator is attached to another face of the substrate which is opposite to the one face of the substrate on which the laser unit is mounted; a cooling gas flow generation unit that is attached to a member different from the frame and generates a flow of cooling gas for cooling the laser unit , wherein the cooling gas flow generation unit is disposed facing the laser unit and on a side of a face having a largest area or a face opposite to the face having the largest area among the plurality of faces of the housing , the frame has a through-hole penetrating from the one face on which the laser unit is supported, to the other face, the cooling gas moves through the through-hole of the frame between the cooling gas flow generation unit and the laser unit .
A draw texturing machine comprising plural twisting units each of which includes a rotating member (45 to 48) rotated at the time of twisting a yarn (Y) and which are aligned in a predetermined arrangement direction and provided on plural stages, characterized in that a partition is provided between a yarn path of the yarn (Y) passing one of the plural twisting units on one of the plural stages and the rotating member (45 to 48) of another one of the plural twisting units on another stage of the plural stages, the another one of the plural twisting units being close to the yarn path.
Gas turbine component, in particular a guide vane cluster , comprising at least one radial flange having a radial groove for spoke-centering of a gas turbine element, in particular an inner ring , in which spoke-centering a web of the gas turbine element engages into the radial groove or engages through the radial groove, the radial groove comprising a first groove flank , an adjoining groove base and an adjoining second groove flank , characterized in that the groove base is asymmetrical to a central plane (M) which extends radially and perpendicularly to the circumferential direction and centrally between the two groove flanks .
A magnetic resonance imaging system comprising a spatially fixed coupled imaging device SFCID for producing combined anatomical and real time functional light images, the SFCID comprising: a nonconductive housing defining a volume of interest VOI; a maneuverable imaging system MIS positioned within said housing , said MIS comprising an imaging platform IMP for accommodating an immobilized subject ; a least one optical imaging module OIM coupled to the IMP configured for detecting photons emitted or reflected from at least one region of said immobilized subject so as to generate real time functional optical images of said at least one region, said OIM comprises a plurality of optical detectors disposed about the perimeter of said housing ; at least one magnetic resonance imaging module MIM configured for generating three-dimensional anatomical images of said at least one region, said at least one MIM comprising at least one RF transmitting coil encompassing said housing and at least one RF receiver coil positionable within said housing ; and, a coupled imaging system CIS adapted to fuse at least one three-dimensional anatomical image with at least one optical image; characterized in that it further comprises a mechanical translation system configured for providing linear motion to said at least one RF receiver coil and for reproducibly fixing the position thereof to an accuracy of not less than 3 mm, so that said RF receiver coil can be moved to enable direct line-of-sight access from the subject to the detectors during the collection of the optical images without moving the subject from its position during the collection of the anatomical images. a nonconductive housing defining a volume of interest VOI; a maneuverable imaging system MIS positioned within said housing , said MIS comprising an imaging platform IMP for accommodating an immobilized subject ; a least one optical imaging module OIM coupled to the IMP configured for detecting photons emitted or reflected from at least one region of said immobilized subject so as to generate real time functional optical images of said at least one region, said OIM comprises a plurality of optical detectors disposed about the perimeter of said housing ; at least one magnetic resonance imaging module MIM configured for generating three-dimensional anatomical images of said at least one region, said at least one MIM comprising at least one RF transmitting coil encompassing said housing and at least one RF receiver coil positionable within said housing ; and, a coupled imaging system CIS adapted to fuse at least one three-dimensional anatomical image with at least one optical image; characterized in that it further comprises a mechanical translation system configured for providing linear motion to said at least one RF receiver coil and for reproducibly fixing the position thereof to an accuracy of not less than 3 mm, so that said RF receiver coil can be moved to enable direct line-of-sight access from the subject to the detectors during the collection of the optical images without moving the subject from its position during the collection of the anatomical images.
An electronic device comprising: a display ; a proximity sensor ; a camera ; and a controller configured to switch between gesture detection based on a value output from the proximity sensor and gesture detection based on a value output from the camera , in accordance with a state in which a user uses the electronic device , wherein the controller is configured to determine the state in which the user uses the electronic device based on an environment in which the electronic device is being used by the user, characterized in that , when an illuminance of an ambient light is equal to or more than a first threshold and less than a second threshold, the controller is configured to perform gesture detection based on the value output from the camera , and when the illuminance of the ambient light is not within the range equal to or more than the first threshold and less than the second threshold, the controller is configured to perform gesture detection using the proximity sensor , and in that , when the illuminance of the ambient light is less than the first threshold, gesture detection using the proximity sensor is enabled and the electronic device is configured to turn on the display upon detecting a user gesture in which a hand is held over the electronic device . a display ; a proximity sensor ; a camera ; and a controller configured to switch between gesture detection based on a value output from the proximity sensor and gesture detection based on a value output from the camera , in accordance with a state in which a user uses the electronic device , wherein the controller is configured to determine the state in which the user uses the electronic device based on an environment in which the electronic device is being used by the user, characterized in that , when an illuminance of an ambient light is equal to or more than a first threshold and less than a second threshold, the controller is configured to perform gesture detection based on the value output from the camera , and when the illuminance of the ambient light is not within the range equal to or more than the first threshold and less than the second threshold, the controller is configured to perform gesture detection using the proximity sensor , and in that , when the illuminance of the ambient light is less than the first threshold, gesture detection using the proximity sensor is enabled and the electronic device is configured to turn on the display upon detecting a user gesture in which a hand is held over the electronic device .
Method for controlling a motor vehicle , the control being secured by a confidential code stored in the memory of an onboard computer of the motor vehicle , allowing the updating of the confidential code, with the aid of a mobile terminal with which a user positioned in the passenger compartment of said motor vehicle is equipped, including steps of: - the user entering a new confidential code on the mobile terminal , - the mobile terminal transmitting said new confidential code to the onboard computer , the method characterized in that it furthermore includes the steps: - the mobile terminal or the onboard computer transmitting a request for the user to actuate a predefined physical means from the passenger compartment of said motor vehicle , and - the onboard computer storing and validating the new confidential code if said predefined physical means has been actuated in a predefined period. - the user entering a new confidential code on the mobile terminal , - the mobile terminal transmitting said new confidential code to the onboard computer , the method characterized in that it furthermore includes the steps: - the mobile terminal or the onboard computer transmitting a request for the user to actuate a predefined physical means from the passenger compartment of said motor vehicle , and - the onboard computer storing and validating the new confidential code if said predefined physical means has been actuated in a predefined period. - the mobile terminal or the onboard computer transmitting a request for the user to actuate a predefined physical means from the passenger compartment of said motor vehicle , and - the onboard computer storing and validating the new confidential code if said predefined physical means has been actuated in a predefined period.
A kit for airborne decontamination, comprising - at least one unmanned aerial vehicle , in particular a rotor-powered drone, which comprises a drive unit , a power supply and at least one interface for coupling a decontamination module ; - a set of decontamination modules for coupling to the interface of the unmanned aerial vehicle , comprising at least one diagnostic module for detecting a contamination condition, and at least one treatment module for decontamination, wherein the at least one diagnostic module comprises at least one sensor for detecting the contamination state, and wherein the at least one treatment module is configured for generating and/or utilizing a fluid flow for decontamination purposes; and - a control device for the unmanned aerial vehicle . - at least one unmanned aerial vehicle , in particular a rotor-powered drone, which comprises a drive unit , a power supply and at least one interface for coupling a decontamination module ; - a set of decontamination modules for coupling to the interface of the unmanned aerial vehicle , comprising at least one diagnostic module for detecting a contamination condition, and at least one treatment module for decontamination, wherein the at least one diagnostic module comprises at least one sensor for detecting the contamination state, and wherein the at least one treatment module is configured for generating and/or utilizing a fluid flow for decontamination purposes; and - a control device for the unmanned aerial vehicle .
An automatic tensioning system for strengthening a beam, a slab and a column by a pre-stressed FRP plate, comprising a tensioning end anchor , a fixed end anchor , and a tensioning bracket connected to the tensioning end anchor ; characterized in that a centre-hole jack is provided in the middle of the tensioning bracket , a threaded rod passes through the tensioning bracket and is then connected to the centre-hole jack , an upper toothed nut and a lower toothed nut respectively drivable by a driving mechanism are provided on two sides of the tensioning bracket on the threaded rod ; further comprising a binary clip-type fixture , wherein the upper surface of the binary clip-type fixture is provided with a cylinder , and a sleeve nested outside the cylinder is connected to the threaded rod ; one end of an FRP plate is clamped into the clip-type fixture , and the other end of the FRP plate is anchored to the fixed end anchor , wherein a left motor and a right motor are respectively installed at the two sides of the centre-hole jack , the left motor is configured to drive the lower toothed nut through a left gear arranged on a motor shaft, and the right motor is configured to drive the upper toothed nut through a right gear arranged on the motor shaft and wherein the plane of the centre-hole jack relative to the lower toothed nut is provided with a lower contact sensor , and the plane of the tensioning bracket relative to the upper toothed nut is provided with an upper contact sensor .
A short milk tube for permitting the flow of fluid therethrough, said short milk tube comprising a flexible tubular body having a first end capable of connecting to a manifold and a free end , characterized in that said body has disposed between said ends biasing means for predetermining a fold point and the direction of displacement of the free end of flexible tubular body relative to the first end .
A liferaft container having first and second relatively moveable portions , in combination with a liferaft container heater, the liferaft container heater comprising at least one sheet of material for fitting over an exterior surface of the liferaft container and configured to heat an interior volume of the liferaft container , wherein the sheet of material comprises first and second regions for fitting over respective ones of the first and second relatively moveable portions of the liferaft container , and wherein the first region is attached to the second region by an automatically releaseable coupling .
An insulin formulation, comprising: insulin at a minimal concentration of 1-13 mM; a salt at a concentration of 50-150 mM; a pH buffering agent at a concentration of 3-24 mM, wherein the pH buffering agent comprises citrate; zinc at a ratio of 1.9-2.7 zinc ions per insulin hexamer; and a pH in the range of 7.2 to 8.0, wherein the formulation does not contain preservatives or stabilizers. insulin at a minimal concentration of 1-13 mM; a salt at a concentration of 50-150 mM; a pH buffering agent at a concentration of 3-24 mM, wherein the pH buffering agent comprises citrate; zinc at a ratio of 1.9-2.7 zinc ions per insulin hexamer; and a pH in the range of 7.2 to 8.0, wherein the formulation does not contain preservatives or stabilizers.
An imaging system comprising a sensor for use with an operational waveband over any subset of 7.5-13.5μm; and an imaging lens for imaging the operational waveband onto the sensor , the imaging lens comprising: a first optical element of a first high-index material, the first optical element having a front surface (A) and a rear surface (B); and a second optical element of a second high-index material, the second optical element having a front surface (E) and a rear surface (F), the front surface (E) of the second optical element facing the rear surface (B) of the first optical element , wherein at least two surfaces (A, B, E, F) of the first and second optical elements are optically powered surfaces, wherein a largest clear aperture of all optically powered surfaces does not exceed a diameter of an image circle of the imaging lens corresponding to a field of view of 55 degrees or greater by more than 30%; characterized in that a center thickness of each of the first and second optical elements is greater than 500 μm and less than 1500 μm, the second optical element is closer to a cover glass of the sensor than to the first optical element , and the first and second optical elements are the only elements having optically powered surfaces in the imaging lens. a first optical element of a first high-index material, the first optical element having a front surface (A) and a rear surface (B); and a second optical element of a second high-index material, the second optical element having a front surface (E) and a rear surface (F), the front surface (E) of the second optical element facing the rear surface (B) of the first optical element , wherein at least two surfaces (A, B, E, F) of the first and second optical elements are optically powered surfaces, wherein a largest clear aperture of all optically powered surfaces does not exceed a diameter of an image circle of the imaging lens corresponding to a field of view of 55 degrees or greater by more than 30%; characterized in that a center thickness of each of the first and second optical elements is greater than 500 μm and less than 1500 μm, the second optical element is closer to a cover glass of the sensor than to the first optical element , and the first and second optical elements are the only elements having optically powered surfaces in the imaging lens.
A method for use in control of temperature, comprising performing sequentially the steps of: (i) measuring a first temperature of an object, a system or an environment using a first temperature sensor located at a first position at a first time, and measuring a second temperature of the object, the system or the environment using a second temperature sensor located at a second position at or around the first time; (ii) determining a temperature difference between the first and the second temperatures; the method is characterised in that the method further comprises performing sequentially the following steps: (iii) removing the second temperature sensor from the object, the system, or the environment; (iv) measuring a third temperature of the object, the system or the environment using the first temperature sensor at a second time, without the second temperature sensor within the object, system or environment; (v) using the third temperature and the determined temperature difference to determine an inferred temperature at the second position at the second time; wherein the determined temperature at the second position at the second time is used for controlling a plant for heating and/or cooling the object, system or environment until the inferred temperature at the second position reaches a desired temperature. (i) measuring a first temperature of an object, a system or an environment using a first temperature sensor located at a first position at a first time, and measuring a second temperature of the object, the system or the environment using a second temperature sensor located at a second position at or around the first time; (ii) determining a temperature difference between the first and the second temperatures; the method is characterised in that the method further comprises performing sequentially the following steps: (iii) removing the second temperature sensor from the object, the system, or the environment; (iv) measuring a third temperature of the object, the system or the environment using the first temperature sensor at a second time, without the second temperature sensor within the object, system or environment; (v) using the third temperature and the determined temperature difference to determine an inferred temperature at the second position at the second time; (iii) removing the second temperature sensor from the object, the system, or the environment; (iv) measuring a third temperature of the object, the system or the environment using the first temperature sensor at a second time, without the second temperature sensor within the object, system or environment; (v) using the third temperature and the determined temperature difference to determine an inferred temperature at the second position at the second time;
A mold for a multi-layer container, comprising: a cold-half portion including a cavity ; and a hot-half portion including a first resin flow path for connecting an interior of a first injection cylinder to the cavity, a second resin flow path for connecting an interior of a second injection cylinder to the cavity , and a junction portion of the first resin flow path and the second resin flow path, characterized in that the junction portion included in the hot-half portion is positioned upstream of a gate portion opened to the cavity included in the cold-half portion , and the second resin flow path includes means for partially inhibiting a resin flow , and wherein: the means for partially inhibiting a resin flow comprises means for providing a convex portion in at least one part in the second resin flow path; and a longest portion in a diameter direction and a longest portion in a circumferential tangential direction of a cross-section in a direction perpendicular to a flow direction of the second resin flow path have a length of a mm and a length of b mm, respectively, a and b satisfying the following relationships: 0.01 r ≤ a ≤ 1 r and 0.01 r ≤ b ≤ 1 r where r represents a radius (mm) of the second resin flow path. a cold-half portion including a cavity ; and a hot-half portion including a first resin flow path for connecting an interior of a first injection cylinder to the cavity, a second resin flow path for connecting an interior of a second injection cylinder to the cavity , and a junction portion of the first resin flow path and the second resin flow path, characterized in that the junction portion included in the hot-half portion is positioned upstream of a gate portion opened to the cavity included in the cold-half portion , and the second resin flow path includes means for partially inhibiting a resin flow , and wherein: the means for partially inhibiting a resin flow comprises means for providing a convex portion in at least one part in the second resin flow path; and a longest portion in a diameter direction and a longest portion in a circumferential tangential direction of a cross-section in a direction perpendicular to a flow direction of the second resin flow path have a length of a mm and a length of b mm, respectively, a and b satisfying the following relationships: 0.01 r ≤ a ≤ 1 r and 0.01 r ≤ b ≤ 1 r where r represents a radius (mm) of the second resin flow path. the means for partially inhibiting a resin flow comprises means for providing a convex portion in at least one part in the second resin flow path; and a longest portion in a diameter direction and a longest portion in a circumferential tangential direction of a cross-section in a direction perpendicular to a flow direction of the second resin flow path have a length of a mm and a length of b mm, respectively, a and b satisfying the following relationships: 0.01 r ≤ a ≤ 1 r and 0.01 r ≤ b ≤ 1 r where r represents a radius (mm) of the second resin flow path.