mhurhangee/ep-ind-claims huggingface dataset:
A caster (Ro) for making easier to move items such as pieces of furniture, baggage, or the like, comprising: • at least one wheel comprising a hub of axis and a tread situated around the hub; • an "intermediate" cover-plate; and • clip means suitable for clipping the "intermediate" cover-plate to said hub; characterized by the fact that the means for clipping the "intermediate" cover-plate to said hub include at least one hole made in the hub and defined by an edge having at least first and second edge portions (34-1, 34-2) with a direction that is substantially radial relative to said axis of the hub, and at least two hooks (31, 32) mounted projecting from the cover-plate so that, when the cover-plate is clipped to the hub, the two hooks (31, 32) deform elastically and catch respectively on the radial first and second edge portions (34-1, 34-2) while defining between them an inter-hook empty space. • at least one wheel comprising a hub of axis and a tread situated around the hub; • an "intermediate" cover-plate; and • clip means suitable for clipping the "intermediate" cover-plate to said hub;
Piston for a combustion engine, comprising a piston head, two connecting rod supports (3a, 3b) spaced apart in a first radial direction (YY') perpendicular to an axial direction (ZZ') defined by the piston, and bearing elements (6i, 6j) forming skirts arranged at each of the lower ends of each of said connecting rod supports (3a, 3b) so as to be spaced apart from one another in a circumferential direction centred on said axial direction (ZZ'), said bearing elements (6i, 6j) having a same height (h1, h2) as measured along the axial direction (ZZ'), said height (h1, h2) being less than or equal to the height of said connecting rod supports (3a, 3b), wherein the two connecting rod supports (3a, 3b) extend in a second radial direction (XX') perpendicular to the first radial direction (YY'), characterized in that each connecting rod support (3a, 3b) exhibits at each end a left-hand lateral edge and a right-hand lateral edge extending parallel to the axial direction (ZZ') over the entire height of the connecting rod supports (3a, 3b), and in that said bearing elements (6i, 6j) are arranged on the left-hand and right-hand lateral edges of each connecting rod support (3a, 3b) and each define a contact surface whose width, in the first radial direction (YY'), corresponds to the width of said left-hand and right-hand lateral edges of the connecting rod supports (3a, 3b).
Non-therapeutic use of Zeaxanthin in a method of improving reaction time and coincidence anticipation ability in a subject in need, the method comprising administering to the subject a pharmaceutically effective amount of zeaxanthin, wherein the subject is required to perceive and react to temporally varying stimuli under lighting conditions that are known to be detrimental to visual function, wherein the subject does not suffer from an ocular disorder.
A method performed by an electronic device, the method comprising: obtaining, by the electronic device, a description file of the application, wherein the description file is used to indicate a function that needs to be implemented by the application, and the description file is defined according to the non-intrusive interaction protocol, wherein the non-intrusive interaction protocol is JavaScript Object Notation, JSON; determining, by the electronic device, a first component based on the description file, wherein the first component is a component that is in components of the electronic device and that can implement the function that needs to be implemented by the application, and the component of the electronic device is a module that is in the electronic device and that is configured based on a non-intrusive interaction protocol to provide a device capability service, and can implement an independent function; and running, by the electronic device, the first component based on the description file to provide a device capability service for the application, to implement the function that needs to be implemented by the application; wherein the description file comprises a field used to identify a component that can implement the function that needs to be implemented by the application. obtaining, by the electronic device, a description file of the application, wherein the description file is used to indicate a function that needs to be implemented by the application, and the description file is defined according to the non-intrusive interaction protocol, wherein the non-intrusive interaction protocol is JavaScript Object Notation, JSON; determining, by the electronic device, a first component based on the description file, wherein the first component is a component that is in components of the electronic device and that can implement the function that needs to be implemented by the application, and the component of the electronic device is a module that is in the electronic device and that is configured based on a non-intrusive interaction protocol to provide a device capability service, and can implement an independent function; and running, by the electronic device, the first component based on the description file to provide a device capability service for the application, to implement the function that needs to be implemented by the application; wherein the description file comprises a field used to identify a component that can implement the function that needs to be implemented by the application.
A helicopter, comprising: a fuselage; a main rotor system connected to the fuselage and configured to rotate in a rotor direction, the main rotor system comprising a retreating rotor blade side and an opposing advancing rotor blade side; a first wing extending from the fuselage on the retreating rotor blade side; wherein the first wing carries a thrust generator to selectively counter torque generated by the main rotor and a split flaperon (118,120) configured to selectively create drag for yaw control. a fuselage; a main rotor system connected to the fuselage and configured to rotate in a rotor direction, the main rotor system comprising a retreating rotor blade side and an opposing advancing rotor blade side; a first wing extending from the fuselage on the retreating rotor blade side; wherein the first wing carries a thrust generator to selectively counter torque generated by the main rotor and a split flaperon (118,120) configured to selectively create drag for yaw control.
A composite material (100, 400), comprising: a first constituent material; a second constituent material for non-destructively detecting imperfections in the composite material, wherein a third constituent material that forms a sandwich layer with the second constituent material is impregnated with the first constituent material; wherein the first constituent material filling at least partially at least some cavities of a plurality of cavities of the second constituent material, characterized in that the second constituent material comprises an indicator grid (402, 501) and hollow elements (301, 302, 403, 502) that are threaded on the indicator grid (402, 501) and form the plurality of cavities of the second constituent material. a first constituent material; a second constituent material for non-destructively detecting imperfections in the composite material, wherein a third constituent material that forms a sandwich layer with the second constituent material is impregnated with the first constituent material; wherein the first constituent material filling at least partially at least some cavities of a plurality of cavities of the second constituent material, characterized in that the second constituent material comprises an indicator grid (402, 501) and hollow elements (301, 302, 403, 502) that are threaded on the indicator grid (402, 501) and form the plurality of cavities of the second constituent material.
Alumina exhibiting a structure with a porosity such that the volume of the pores having a diameter of between 7 nm (70 Å) and 200 nm (2000 Å), determined by mercury porosimetry, is between 0.15 and 0.50 ml/g, comprising at least one alkali metal, such that the content by weight of alkali metal, expressed as M 2 O, is between 400 and 1500 ppm with respect to the total weight of the alumina, exhibiting a BET specific surface area of at least 150 m 2 /g and containing at most 500 ppm by weight of silica, expressed as SiO 2, with respect to the total weight of said alumina.
Passive ventilation device for use in a building, comprising a housing, a ventilation passage which extends through the housing between an inlet of the housing which is to be turned towards the exterior of the building and an outlet of the housing to be turned towards the interior of the building in order to provide an airflow between the inlet and the outlet, a flap for closing or opening the ventilation passage, as well as heating means (20, 20') incorporated in the housing, wherein a thermally insulated support means is provided from which the heating means (20, 20') is suspended and the heating means (20, 20') has heat-exchanging surfaces facing away from each other, characterized in that the thermally insulated support means has a thermal conductivity which is lower than that of the housing.
A method for producing a diol represented by Formula, the method comprising using water as a solvent to carry out a cyclodehydration reaction of a 1,4-cyclohexanedione derivative represented by Formula below with a triol represented by Formula below to produce the diol represented by Formula; in Formula, R 4 each independently denotes a hydrogen atom, a heteroatom-containing group, a halogen atom-containing group, a linear alkyl group having from 1 to 6 carbon atoms, a branched alkyl group having from 3 to 6 carbon atoms, or a group including an aryl group and having from 6 to 12 carbon atoms; in Formula, R 5 denotes a linear alkyl group having from 1 to 7 carbon atoms, a branched alkyl group having from 3 to 7 carbon atoms or an aryl group; and in Formula, R 1 and R 2 each independently denote a linear alkyl group having from 1 to 7 carbon atoms, a branched alkyl group having from 3 to 7 carbon atoms or an aryl group, and R 3 each independently denotes a hydrogen atom, a heteroatom-containing group, a halogen atom-containing group, a linear alkyl group having from 1 to 6 carbon atoms, a branched alkyl group having from 3 to 6 carbon atoms, or a group including an aryl group and having from 6 to 12 carbon atoms, wherein one type of triol represented by Formula is used alone, or two or more types are used, and water accounts for 80 mass% or more of the reaction solvents. one type of triol represented by Formula is used alone, or two or more types are used, and water accounts for 80 mass% or more of the reaction solvents.
A nozzle for a laser machining device for machining a workpiece by means of a laser beam, the nozzle comprising: - a base body having a longitudinal axis, wherein the base body has an inner volume for passing the laser beam and process gas and a nozzle mouth having an exit orifice for the exit of the laser beam and a core flow of the process gas, - a movable sleeve having a collar region which is displaceable along a guide region of the base body, and an annular gap region which is spaced apart from the base body and, together with the base body, forms an annular gap for the exit of an annular flow of the process gas, characterised in that the collar region extends radially inwards towards the guide region of the base body and surrounds a part of the guide region, wherein radially inwards designates a radial direction pointing towards the longitudinal axis of the base body, in that the guide region is formed substantially in a cylindrical-ring-shape, and in that the base body has at least one connecting channel which connects the inner volume of the base body to a region between the base body and the sleeve in order to direct a part of the process gas into the annular gap. - a base body having a longitudinal axis, wherein the base body has an inner volume for passing the laser beam and process gas and a nozzle mouth having an exit orifice for the exit of the laser beam and a core flow of the process gas, - a movable sleeve having a collar region which is displaceable along a guide region of the base body, and an annular gap region which is spaced apart from the base body and, together with the base body, forms an annular gap for the exit of an annular flow of the process gas, the collar region extends radially inwards towards the guide region of the base body and surrounds a part of the guide region, wherein radially inwards designates a radial direction pointing towards the longitudinal axis of the base body, in that the guide region is formed substantially in a cylindrical-ring-shape, and in that the base body has at least one connecting channel which connects the inner volume of the base body to a region between the base body and the sleeve in order to direct a part of the process gas into the annular gap.
A raw setter (1, 1') which is used for firing a honeycomb formed body, comprising a plurality of polygonal cells defined by lattice-shaped cell partition walls, has a plate shape, is made of the same material as the honeycomb formed body, has a chamfered portion in which a circumferential portion of one end face is chamfered in an oblique direction, and has a tapered cross-sectional shape reducing a diameter of the one end face to an outer diameter, the setter further having a chamfered portion in which a circumferential portion of the other end face is chamfered in an oblique direction and has a tapered cross-sectional shape reducing a diameter of the other end face to an outer diameter; wherein an area ratio R of a flat portion excluding the chamfered portion of the one end face to a cross section of the raw setter is from 10 to 85%, an angle θ formed between the flat portion and the chamfered portion is from 3 to 50°, the other end face has a flat portion parallel to the flat portion of the one end face, the flatness of each of the flat portion of the one end face and the flat portion of the other end face is 0.3 mm or less, the thickness of the cell partition walls is 0.1 mm or less, and a circumferential portion of the raw setter has the same shape as a circumferential portion of the honeycomb formed body to be loaded.
Control method for controlling heating elements said method comprising the steps of: - providing a thermoforming machine configured for thermoforming a product made of thermoplastics, said thermoforming machine comprising heating elements; - creating a graphic representation of said heating elements, such that with each heating element a zone of said product is associated intended for being heated by a corresponding heating element; - setting, for each heating element, a power value so as to heat a corresponding zone of said product and define a power distribution on said product; - assigning to each of said zones a respective power value; - detecting, preferably at each heating cycle, for each of said zones, a detected temperature value by a thermal imaging camera included in said thermoforming machine; - creating by said thermal imaging camera, preferably after each heating cycle, a thermal image of said product that has just been heated so as to define a temperature distribution on said product that has just been heated; characterized by comprising the step of - superimposing said thermal image on said graphic representation so as to display how said temperature distribution is correlated with said power distribution. - providing a thermoforming machine configured for thermoforming a product made of thermoplastics, said thermoforming machine comprising heating elements; - creating a graphic representation of said heating elements, such that with each heating element a zone of said product is associated intended for being heated by a corresponding heating element; - setting, for each heating element, a power value so as to heat a corresponding zone of said product and define a power distribution on said product; - assigning to each of said zones a respective power value; - detecting, preferably at each heating cycle, for each of said zones, a detected temperature value by a thermal imaging camera included in said thermoforming machine; - creating by said thermal imaging camera, preferably after each heating cycle, a thermal image of said product that has just been heated so as to define a temperature distribution on said product that has just been heated; - superimposing said thermal image on said graphic representation so as to display how said temperature distribution is correlated with said power distribution.
A track system (40, 2040, 3040, 4040, 5040, 6040) for use with a vehicle having a chassis, characterized in that the track system comprises: an attachment assembly (3100, 4100) connectable to the chassis of the vehicle, the attachment assembly including a first pivot (110, 3126) extending vertically and defining a yaw pivot axis (114, 3128) of the track system, and a second pivot (122, 3116) extending laterally and defining a pitch pivot axis (118, 3118) of the track system, a frame assembly (200, 3200, 4200, 5200) disposed laterally outwardly from the attachment assembly and connected to the attachment assembly, the frame assembly including at least one wheel-bearing frame member (210 l, 210 t); at least one actuator (3150 l, 3150t, 4500) connected between the attachment assembly and the frame assembly for pivoting the frame assembly about the yaw pivot axis; a leading idler wheel assembly (400 l) at least indirectly connected to the at least one wheel-bearing frame member; a trailing idler wheel assembly (400 t) at least indirectly connected to the at least one wheel-bearing frame member; at least one support wheel assembly (410a, 410b, 410c, 410d) at least indirectly connected to the at least one wheel-bearing frame member and disposed between the leading idler wheel assembly and the trailing idler wheel assembly; and an endless track extending around the leading idler wheel assembly, the trailing idler wheel assembly, and the at least one support wheel assembly. an attachment assembly (3100, 4100) connectable to the chassis of the vehicle, the attachment assembly including a first pivot (110, 3126) extending vertically and defining a yaw pivot axis (114, 3128) of the track system, and a second pivot (122, 3116) extending laterally and defining a pitch pivot axis (118, 3118) of the track system, a first pivot (110, 3126) extending vertically and defining a yaw pivot axis (114, 3128) of the track system, and a second pivot (122, 3116) extending laterally and defining a pitch pivot axis (118, 3118) of the track system, a frame assembly (200, 3200, 4200, 5200) disposed laterally outwardly from the attachment assembly and connected to the attachment assembly, the frame assembly including at least one wheel-bearing frame member (210 l, 210 t); at least one actuator (3150 l, 3150t, 4500) connected between the attachment assembly and the frame assembly for pivoting the frame assembly about the yaw pivot axis; a leading idler wheel assembly (400 l) at least indirectly connected to the at least one wheel-bearing frame member; a trailing idler wheel assembly (400 t) at least indirectly connected to the at least one wheel-bearing frame member; at least one support wheel assembly (410a, 410b, 410c, 410d) at least indirectly connected to the at least one wheel-bearing frame member and disposed between the leading idler wheel assembly and the trailing idler wheel assembly; and an endless track extending around the leading idler wheel assembly, the trailing idler wheel assembly, and the at least one support wheel assembly.
A skin treatment device (100, 102) using polarized light to initiate a multi-photon ionization process at a target position in skin tissue, the skin treatment device (100, 102) comprising: a light source constructed and configured for generating linearly polarized probe light and linearly polarized treatment light, a polarization modulator constructed and configured for controlling a polarization direction of the probe light and a polarization direction of the treatment light, a polarization sensitive sensor constructed and configured for sensing a level of depolarization of the probe light by sensing an intensity of back-scattered probe light from the target position at a predefined polarization direction of the polarization sensitive sensor, and a controller constructed and configured for receiving a measurement signal (Sm) from the sensor and providing a control signal (Sc) to the polarization modulator and the light source, the controller being configured for controlling the polarization modulator such as to scan the polarization direction of the probe light over a predefined range of polarization directions while receiving the measurement signal (Sm) and for selecting an optimum polarization direction for which the level of depolarization of the probe light is at a minimum. a light source constructed and configured for generating linearly polarized probe light and linearly polarized treatment light, a polarization modulator constructed and configured for controlling a polarization direction of the probe light and a polarization direction of the treatment light, a polarization sensitive sensor constructed and configured for sensing a level of depolarization of the probe light by sensing an intensity of back-scattered probe light from the target position at a predefined polarization direction of the polarization sensitive sensor, and a controller constructed and configured for receiving a measurement signal (Sm) from the sensor and providing a control signal (Sc) to the polarization modulator and the light source, the controller being configured for controlling the polarization modulator such as to scan the polarization direction of the probe light over a predefined range of polarization directions while receiving the measurement signal (Sm) and for selecting an optimum polarization direction for which the level of depolarization of the probe light is at a minimum.