mhurhangee/patent-ind-claim-en huggingface dataset:
A flame detector comprising: a bolometer having a pixel array with one or more pixels including a coating that allows the pixel to absorb mid wave infrared radiation; a lens situated at a first distance from the bolometer , where light passes through the lens to the pixel array; and a long wave infrared filter situated at a second distance from the bolometer that is different from the first distance, and configured to filter long wave infrared radiation from substantially all of the light passing through the lens to the plurality of pixels of the pixel array; wherein infrared radiation from a scene promulgates through the lens and the long wave infrared filter , in either order, to the bolometer ; wherein long wave infrared radiation of the infrared radiation from the scene between the filter and the bolometer has a magnitude less than the magnitude of mid wave infrared radiation of the infrared radiation from the scene between the long wave infrared filter and the bolometer ; and characterized in that the long wave infrared filter consists of an AlON material. a bolometer having a pixel array with one or more pixels including a coating that allows the pixel to absorb mid wave infrared radiation; a lens situated at a first distance from the bolometer , where light passes through the lens to the pixel array; and a long wave infrared filter situated at a second distance from the bolometer that is different from the first distance, and configured to filter long wave infrared radiation from substantially all of the light passing through the lens to the plurality of pixels of the pixel array; wherein infrared radiation from a scene promulgates through the lens and the long wave infrared filter , in either order, to the bolometer ; wherein long wave infrared radiation of the infrared radiation from the scene between the filter and the bolometer has a magnitude less than the magnitude of mid wave infrared radiation of the infrared radiation from the scene between the long wave infrared filter and the bolometer ; and characterized in that the long wave infrared filter consists of an AlON material.
- Tyre for a heavy goods vehicle, having a radial carcass reinforcement comprising a crown reinforcement formed of at least two working crown layers of reinforcing elements that are crossed from one layer to another, forming angles of between 10° and 45° with the circumferential direction, said crown reinforcement itself being capped radially with a tread, said tread being joined to two beads by way of two sidewalls, said tyre additionally comprising, in each shoulder, at least one end of a layer of reinforcing elements that are mutually parallel in the layer and are oriented circumferentially, said end of said layer of reinforcing elements that are mutually parallel in the layer and are oriented circumferentially is axially outside said at least two working crown layers , characterized in that the reinforcing elements of the carcass reinforcement are cords comprising at least two layers having a diameter less than 0.85 mm, and in that said reinforcing elements of the carcass reinforcement are made up of threads with a diameter less than 0.16 mm and in that at least one inner layer of the cords comprising at least two layers of the carcass reinforcement is sheathed with a layer consisting of a polymer composition, such as a non-crosslinkable, crosslinkable or crosslinked rubber composition, preferably based on at least one diene elastomer.
A vehicle seat device comprising: a back base that is fixed to a frame (F) of a seat back ; a movable member (MP) that is rotatably connected to the back base; and an air bag that is provided on an inside of a seat cover (X, X0, X1, X2) covering the back base and the movable member, wherein the movable member is rotated so that a backrest surface of the seat back is divided to develop a child seat , and the air bag is expanded so that the seat cover is bulged to form a support shape of the child seat. a back base that is fixed to a frame (F) of a seat back ; a movable member (MP) that is rotatably connected to the back base; and an air bag that is provided on an inside of a seat cover (X, X0, X1, X2) covering the back base and the movable member, wherein the movable member is rotated so that a backrest surface of the seat back is divided to develop a child seat , and the air bag is expanded so that the seat cover is bulged to form a support shape of the child seat.
A porous metal foam body obtainable by applying molten zinc, aluminum, tin or their alloys to an open-pore non-metallic substrate and allowing the molten zinc, aluminum, tin or their alloys to penetrate into the open pores of said non-metallic substrate to form a metal foam body, wherein said applying of the molten zinc, aluminum, tin or their alloys is effected by applying droplets of molten zinc, aluminum, tin or their alloys by thermal spraying, by atomizing a molten metal, or by rotational atomization of molten metals in one or more layers, and said molten zinc, aluminum, tin or their alloys is deposited on the surface of at least a partial population of the pores to obtain a metallized surface of the pores.
A method of programming a phase change memory comprising a first layer of a phase change material capable of switching between a crystalline and an amorphous state and vice versa, the method comprising the application of a programming current through the first layer such that an evolution of the areal current density (J 0 ) as a function of time t decreases from a first level (J 0_max ), between a first time instant (t 2 ) and a second time instant (t 3 ), following a first evolution in time respecting, or being close to, J 0 ( t ) = K t where K is a constant, characterized in that , the first evolution is close to J 0 ( t ) = K t if it creates, when superimposed thereon, one or more surfaces between the first evolution and J 0 t = K t , and the ratio of the area of each surface to the integral of J 0 t = K t between the first and the second time instants (t 2 , t 3 ) is less than 0.2.
A method of operating a solenoid valve assembly , wherein the solenoid is driven by a drive voltage, the method comprising the steps of: applying a positive overboost voltage across the solenoid to actuate a moveable plunger to open or close a flow path through the valve assembly, wherein the overboost voltage comprises a voltage sufficient to dissipate at least two times the nominal power of the valve assembly if the overboost voltage were applied for a time period sufficient to allow the current through the solenoid to reach a steady state; further characterized by monitoring the solenoid closure time over a plurality of different energising and de-energising cycles of the solenoid; and generating an output to indicate a need for valve maintenance based on changes to the monitored solenoid closure time between at least one first measured cycle and at least one second measured cycle. applying a positive overboost voltage across the solenoid to actuate a moveable plunger to open or close a flow path through the valve assembly, wherein the overboost voltage comprises a voltage sufficient to dissipate at least two times the nominal power of the valve assembly if the overboost voltage were applied for a time period sufficient to allow the current through the solenoid to reach a steady state; further characterized by monitoring the solenoid closure time over a plurality of different energising and de-energising cycles of the solenoid; and generating an output to indicate a need for valve maintenance based on changes to the monitored solenoid closure time between at least one first measured cycle and at least one second measured cycle.
An insect trapping device , comprising: a base comprising an upstanding shroud having a front surface ; a cartridge releasably engaging the base , the cartridge defining an opening for receiving a flying or crawling insect, and the cartridge comprising an adhesive portion for trapping the insect, the adhesive portion having a front face and a rear face; and a light source, characterized in that said shroud having disposed therein an electric heating element for heating the front surface of the shroud , said cartridge defining a bottom opening through which the shroud passes when the cartridge engages the base , and said light source is positioned external to the shroud producing light that illuminates at least a portion of the front surface of the shroud and at least a portion of the rear face of the adhesive portion when the cartridge engages the base , wherein at least a portion of the light illuminating the portion of the front surface is reflected by the front surface toward the rear face of the adhesive portion . a base comprising an upstanding shroud having a front surface ; a cartridge releasably engaging the base , the cartridge defining an opening for receiving a flying or crawling insect, and the cartridge comprising an adhesive portion for trapping the insect, the adhesive portion having a front face and a rear face; and a light source, characterized in that said shroud having disposed therein an electric heating element for heating the front surface of the shroud , said cartridge defining a bottom opening through which the shroud passes when the cartridge engages the base , and said light source is positioned external to the shroud producing light that illuminates at least a portion of the front surface of the shroud and at least a portion of the rear face of the adhesive portion when the cartridge engages the base , wherein at least a portion of the light illuminating the portion of the front surface is reflected by the front surface toward the rear face of the adhesive portion .
A method, comprising: defining a first dataset based on a first scan of a first area of an object using a first scanning mechanism including a laser, the first area being associated with a Cartesian grid; defining a second dataset based on a second scan of a second area of the object using a second scanning mechanism including a laser, the first area of the object intersecting the second area of the object , the second scan being performed during a time period that overlaps the time period during which the first scan is performed; calculating , based on the first dataset, a velocity of the object along a direction of the laser, a first rotational velocity of the object about a first axis orthogonal to the direction of the laser, and a second rotational velocity of the object about a second axis orthogonal to the direction of the laser, the first axis being different than the second axis; defining a subset of the second dataset; resampling the subset of the second dataset as a resampled subset dataset, the resampling of the subset of the second dataset including performing an interpolation of the subset of the second dataset to align the subset of the second dataset with the Cartesian grid; estimating a motion correction based on the first dataset and the resampled subset dataset, the motion correction including an estimate to a velocity of the object in a direction perpendicular to the direction of the laser; and modifying at least one of the first dataset or the second dataset based on the motion correction. defining a first dataset based on a first scan of a first area of an object using a first scanning mechanism including a laser, the first area being associated with a Cartesian grid; defining a second dataset based on a second scan of a second area of the object using a second scanning mechanism including a laser, the first area of the object intersecting the second area of the object , the second scan being performed during a time period that overlaps the time period during which the first scan is performed; calculating , based on the first dataset, a velocity of the object along a direction of the laser, a first rotational velocity of the object about a first axis orthogonal to the direction of the laser, and a second rotational velocity of the object about a second axis orthogonal to the direction of the laser, the first axis being different than the second axis; defining a subset of the second dataset; resampling the subset of the second dataset as a resampled subset dataset, the resampling of the subset of the second dataset including performing an interpolation of the subset of the second dataset to align the subset of the second dataset with the Cartesian grid; estimating a motion correction based on the first dataset and the resampled subset dataset, the motion correction including an estimate to a velocity of the object in a direction perpendicular to the direction of the laser; and modifying at least one of the first dataset or the second dataset based on the motion correction.
A controller for controlling a plurality of light sources, the controller comprising: - a plurality of microphones, - an orientation and/or a location sensor, - a receiver configured to receive a sound input from a plurality of microphones, the sound input being a user input from a user, - a localization module configured to determine a user location of the user relative to the plurality of microphones based on differences between the sound input received at different microphones of the plurality of microphones, and - a processor configured to receive location information indicative of locations of the plurality of light sources, receive an orientation signal indicative of an orientation of the controller from the orientation sensor and/or a location signal from the location sensor indicative of a location of the controller , determine the locations of the plurality of light sources relative to the controller based on the orientation signal and/or the location signal, determine which one or more light sources of the plurality of light sources are associated with the user location based on the locations of the plurality of light sources relative to the controller , and control the one or more light sources based on the sound input, wherein the plurality of light sources are distributed over a plurality of areas, and wherein the location information is indicative of in which areas the plurality of light sources are located, and wherein the localization module is configured to determine a user area wherein the user is located based on the user location, and wherein the processor is configured to determine which one or more light sources are located in the user area, and to control one or more light sources located in the user area based on the sound input. - a plurality of microphones, - an orientation and/or a location sensor, - a receiver configured to receive a sound input from a plurality of microphones, the sound input being a user input from a user, - a localization module configured to determine a user location of the user relative to the plurality of microphones based on differences between the sound input received at different microphones of the plurality of microphones, and - a processor configured to receive location information indicative of locations of the plurality of light sources, receive an orientation signal indicative of an orientation of the controller from the orientation sensor and/or a location signal from the location sensor indicative of a location of the controller , determine the locations of the plurality of light sources relative to the controller based on the orientation signal and/or the location signal, determine which one or more light sources of the plurality of light sources are associated with the user location based on the locations of the plurality of light sources relative to the controller , and control the one or more light sources based on the sound input,
A pasta filata cheese comprising a moisture content of at least 55% by weight, a solids-non-fat content of up to 45% by weight, the solids-non-fat comprising at least 70% by weight protein, the protein comprising at least 65% by weight casein, and a mineral content comprising a) a total divalent cation content of 25 to 75 mMol of divalent cations/100 g casein, and b) a total monovalent cation content of 100 to 250 mMol monovalent cations/100 g casein, and c) a total cation content of 150 to 300 mMol total cations/100 g casein. a) a total divalent cation content of 25 to 75 mMol of divalent cations/100 g casein, and b) a total monovalent cation content of 100 to 250 mMol monovalent cations/100 g casein, and c) a total cation content of 150 to 300 mMol total cations/100 g casein.
A biostimulator comprising: a battery assembly including a cell can containing an electrolyte; an attachment feature coupled to the battery assembly , wherein the attachment feature includes: a stem having an annular stem wall extending between a base and a button ; an exterior surface ; and an interior surface around an internal cavity ; and a low-polarization coating on the exterior surface of the attachment feature , characterized in that the low-polarization coating, which is on the exterior surface, covers also a portion of the interior surface of the attachment feature . a battery assembly including a cell can containing an electrolyte; an attachment feature coupled to the battery assembly , wherein the attachment feature includes: a stem having an annular stem wall extending between a base and a button ; an exterior surface ; and an interior surface around an internal cavity ; and a stem having an annular stem wall extending between a base and a button ; an exterior surface ; and an interior surface around an internal cavity ; and a low-polarization coating on the exterior surface of the attachment feature , characterized in that the low-polarization coating, which is on the exterior surface, covers also a portion of the interior surface of the attachment feature .
A computer-implemented method for creating an account for a transaction activity in a blockchain system , the method comprising: receiving activity data for creating an account for the transaction activity from a user, wherein the activity data includes at least an identifier of a smart contract in a blockchain and an expiration time of the transaction activity, and the smart contract includes computer-readable instructions for conducting the transaction activity; sending the activity data to an authentication server for requesting a digital certificate of the activity data, wherein the digital certificate stores the identifier of the smart contract, and an expiration time of the digital certificate is set to be the expiration time of the transaction activity; receiving the digital certificate from the authentication server, and causing the blockchain system to perform: determining whether the digital certificate is valid using a public key associated with the authentication server; and creating the account for the transaction activity based on a determination that the digital certificate is valid, wherein the created account is associated with the identifier of the smart contract; receiving , from the blockchain system, an identifier of the account for the transaction activity; and sending an indication that the account has been created to the user. receiving activity data for creating an account for the transaction activity from a user, wherein the activity data includes at least an identifier of a smart contract in a blockchain and an expiration time of the transaction activity, and the smart contract includes computer-readable instructions for conducting the transaction activity; sending the activity data to an authentication server for requesting a digital certificate of the activity data, wherein the digital certificate stores the identifier of the smart contract, and an expiration time of the digital certificate is set to be the expiration time of the transaction activity; receiving the digital certificate from the authentication server, and causing the blockchain system to perform: determining whether the digital certificate is valid using a public key associated with the authentication server; and creating the account for the transaction activity based on a determination that the digital certificate is valid, wherein the created account is associated with the identifier of the smart contract; determining whether the digital certificate is valid using a public key associated with the authentication server; and creating the account for the transaction activity based on a determination that the digital certificate is valid, wherein the created account is associated with the identifier of the smart contract; receiving , from the blockchain system, an identifier of the account for the transaction activity; and sending an indication that the account has been created to the user.
A longitudinal luminaire comprising a cylindrical casing extending along a longitudinal direction (X), said casing being at least partly transparent, and a lighting device disposed inside the casing , wherein the lighting device and the casing are assembled only by means of a plurality of brackets , wherein the casing has a circular cross-section, each bracket comprising a lug for blocking in rotation the lighting device about the axis of the casing relative to said bracket, characterized in that the lighting device comprises a support extending longitudinally and comprising a pair of first grooves extending longitudinally, the lug of each bracket being engaged in a first groove .
A method of controlling oxygen concentration in III-V compound semiconductor substrate, comprising: providing a plurality of III-V crystal substrates in a sealable container; providing a predetermined amount of material having high oxygen reactivity with oxygen atoms in the container, the material comprising at least one of carbon, aluminum, titanium, and boron; maintaining a predetermined pressure within the sealed container; and annealing the plurality of III-V crystal substrates to yield an oxygen concentration in the crystal substrates, wherein the oxygen concentration is associated with the predetermined amount of material having high oxygen reactivity with oxygen atoms, wherein the annealing further comprises heating the container to a platform temperature between 1000°C and 1100°C at a predetermined heating rate of less than 100°C/hour. providing a plurality of III-V crystal substrates in a sealable container; providing a predetermined amount of material having high oxygen reactivity with oxygen atoms in the container, the material comprising at least one of carbon, aluminum, titanium, and boron; maintaining a predetermined pressure within the sealed container; and annealing the plurality of III-V crystal substrates to yield an oxygen concentration in the crystal substrates, wherein the oxygen concentration is associated with the predetermined amount of material having high oxygen reactivity with oxygen atoms, wherein the annealing further comprises heating the container to a platform temperature between 1000°C and 1100°C at a predetermined heating rate of less than 100°C/hour.
A compound selected from: No. Structure 1 12 37 95 113 114 115 116 117 143 148 149 150 196 239 240 269 and 329 or a pharmaceutically acceptable salt thereof.