mhurhangee/patent-ind-claim-en huggingface dataset:
A skin inspection device for identifying abnormalities; the device comprising: a transparent panel having an inspection area; a housing on which the transparent panel is mounted; an array of temperature sensors provided on the transparent panel to record the temperature of an area of skin of a target; one or more image capture devices for capturing an image of the area of skin of a target located in the inspection area; the captured image and recorded temperature being analysed to identify abnormalities in the area of skin of the target, wherein the temperature sensors are spaced such that optical pathways exist between the temperature sensors , allowing image capture, by the one or more image capture devices , of a portion of a target in contact with the temperature sensors ; and a processor operably coupled to the one or more image capture devices and the array of temperature sensors for controlling operations thereof; wherein the processor is configured to generate indicia indicative of the emergence of ulcers and/or other skin abnormalities. a transparent panel having an inspection area; a housing on which the transparent panel is mounted; an array of temperature sensors provided on the transparent panel to record the temperature of an area of skin of a target; one or more image capture devices for capturing an image of the area of skin of a target located in the inspection area; the captured image and recorded temperature being analysed to identify abnormalities in the area of skin of the target, wherein the temperature sensors are spaced such that optical pathways exist between the temperature sensors , allowing image capture, by the one or more image capture devices , of a portion of a target in contact with the temperature sensors ; and a processor operably coupled to the one or more image capture devices and the array of temperature sensors for controlling operations thereof; wherein the processor is configured to generate indicia indicative of the emergence of ulcers and/or other skin abnormalities.
A method for implementing a relocatable Over-The-Horizon-Radar (OTHR) comprising: transmitting mutually orthogonal signals on each of a plurality of antenna elements of an antenna of a transmitting system ; receiving and decoding the signals at a plurality of receiving systems to synthesise beams from the orthogonal signals, each receiving system having a plurality of antenna elements fewer in number than the plurality of antenna elements of said transmitting system , and connecting as a network the transmitting system , the plurality of receiving systems , and a network controller , wherein the transmitting system comprises a two-dimensional transmitting array configured to identify ionospheric modes, and the method comprises: obtaining from the networked plurality of receiving systems bistatic, scatter and direct path sounding data from across the surveillance region, to generate substantially real-time ionospheric sounding data; assimilating the substantially real-time ionospheric sounding data and georeferenced radar data into a background ionospheric model to generate a substantially real-time ionospheric model; and performing coordinate registration and frequency management using the substantially real-time ionospheric model. transmitting mutually orthogonal signals on each of a plurality of antenna elements of an antenna of a transmitting system ; receiving and decoding the signals at a plurality of receiving systems to synthesise beams from the orthogonal signals, each receiving system having a plurality of antenna elements fewer in number than the plurality of antenna elements of said transmitting system , and connecting as a network the transmitting system , the plurality of receiving systems , and a network controller , wherein the transmitting system comprises a two-dimensional transmitting array configured to identify ionospheric modes, and the method comprises: obtaining from the networked plurality of receiving systems bistatic, scatter and direct path sounding data from across the surveillance region, to generate substantially real-time ionospheric sounding data; assimilating the substantially real-time ionospheric sounding data and georeferenced radar data into a background ionospheric model to generate a substantially real-time ionospheric model; and performing coordinate registration and frequency management using the substantially real-time ionospheric model. obtaining from the networked plurality of receiving systems bistatic, scatter and direct path sounding data from across the surveillance region, to generate substantially real-time ionospheric sounding data; assimilating the substantially real-time ionospheric sounding data and georeferenced radar data into a background ionospheric model to generate a substantially real-time ionospheric model; and performing coordinate registration and frequency management using the substantially real-time ionospheric model.
A composition for a conductive ink, comprising: a solvent; conductive particles free from any nanoparticles, wherein the conductive particles further comprise one or more metals; an edible thickener; a surfactant; water in the range of 30 - 60 weight% by weight of the composition; and a dispersant comprising a water-based resin having concentration in a range of 1 to less than 5 weight% by weight of the composition, wherein said water-based resin comprises one or more compounds selected from a group comprising aldehyde ketone resin, epoxy, phenol-formaldehyde resin, polyacrylic acid (PAA) and polyvinylidene difluoride (PVDF), characterized in that said water-based resin composition having the concentration in the range of 1 to less than 5 weight% by weight makes said conductive ink erasable; and in that said conductive ink forms a conductive trace; wherein the conductive particles optionally comprise one or more particles selected from the group consisting of silver, copper, gold, carbon and any other conductive metal alloy particles; and optionally the conductive particles are added at a concentration in a range of 15 to 50 weight% by weight of the composition. a solvent; conductive particles free from any nanoparticles, wherein the conductive particles further comprise one or more metals; an edible thickener; a surfactant; water in the range of 30 - 60 weight% by weight of the composition; and a dispersant comprising a water-based resin having concentration in a range of 1 to less than 5 weight% by weight of the composition, wherein said water-based resin comprises one or more compounds selected from a group comprising aldehyde ketone resin, epoxy, phenol-formaldehyde resin, polyacrylic acid (PAA) and polyvinylidene difluoride (PVDF), characterized in that said water-based resin composition having the concentration in the range of 1 to less than 5 weight% by weight makes said conductive ink erasable; and in that said conductive ink forms a conductive trace; wherein the conductive particles optionally comprise one or more particles selected from the group consisting of silver, copper, gold, carbon and any other conductive metal alloy particles; and optionally the conductive particles are added at a concentration in a range of 15 to 50 weight% by weight of the composition.
A method of manufacturing a casing having a cylinder chamber (S) in which a rotational compression element driven by a driving machine slides, comprising: a step of disposing a cylinder liner forming the cylinder chamber (S) in a mold, and casting a casing main body by using molten metal while integrally incorporating the cylinder liner in the casted casing main body ; and characterized by further comprising a step of processing an intercommunication hole and an exhaust hole that penetrate through the cylinder liner and the casing main body together and intercommunicate with the cylinder chamber (S), the processing of the intercommunication hole and the exhaust hole being a single machining process performed from a side surface of the casing main body , wherein the single machining process is performed from an upper surface side of the casing main body , such that the intercommunication hole and the exhaust hole are arranged on the same axial center line so as to sandwich the cylinder chamber (S). a step of disposing a cylinder liner forming the cylinder chamber (S) in a mold, and casting a casing main body by using molten metal while integrally incorporating the cylinder liner in the casted casing main body ; and characterized by further comprising a step of processing an intercommunication hole and an exhaust hole that penetrate through the cylinder liner and the casing main body together and intercommunicate with the cylinder chamber (S), the processing of the intercommunication hole and the exhaust hole being a single machining process performed from a side surface of the casing main body , wherein the single machining process is performed from an upper surface side of the casing main body , such that the intercommunication hole and the exhaust hole are arranged on the same axial center line so as to sandwich the cylinder chamber (S).
An optical sensor comprising stacked layers comprising: a substrate comprising a readout circuit , a window layer which allows the passage of photons , a sensing layer for generating charges upon impinging of the photons through the window layer , a bottom electrode layer comprising at least one bottom electrode for receiving charges generated in the sensing layer , and for transferring received charges to the readout circuit , the sensing layer being sandwiched between the window layer and the bottom electrode layer , a contact layer comprising at least one contact electrically connected to the at least one bottom electrode for providing electrical connection between the at least one bottom electrode and the readout circuit , wherein the at least one bottom electrode of the bottom electrode layer has reflectivity higher than 0.7 to reflect back received photons into the sensing layer, and characterised in that it comprises a bi-layer of TiN, comprising a sub-layer of Ionized Metal Plasma TiN closest to the sensing layer , and configured to receive charges from the sensing layer , and a further sub-layer of cathodic arc TiN configured to receive charges from the sub-layer closest to the sensing layer , and for transferring these received charges via the at least one contact to the readout circuit . a substrate comprising a readout circuit , a window layer which allows the passage of photons , a sensing layer for generating charges upon impinging of the photons through the window layer , a bottom electrode layer comprising at least one bottom electrode for receiving charges generated in the sensing layer , and for transferring received charges to the readout circuit , the sensing layer being sandwiched between the window layer and the bottom electrode layer , a contact layer comprising at least one contact electrically connected to the at least one bottom electrode for providing electrical connection between the at least one bottom electrode and the readout circuit , wherein the at least one bottom electrode of the bottom electrode layer has reflectivity higher than 0.7 to reflect back received photons into the sensing layer, and characterised in that it comprises a bi-layer of TiN, comprising a sub-layer of Ionized Metal Plasma TiN closest to the sensing layer , and configured to receive charges from the sensing layer , and a further sub-layer of cathodic arc TiN configured to receive charges from the sub-layer closest to the sensing layer , and for transferring these received charges via the at least one contact to the readout circuit .
An actuating device, particularly for ink-jet printheads, comprising: two or more solenoids (S), each comprising a coil and a ferromagnetic core which is inserted concentrically within the coil ; a containment body , for containing the solenoids (S); an insulator element for each solenoid (S); each insulator element is made of a magnetic material and extends at least partially in proximity of a corresponding solenoid (S); characterized in that: the insulator elements are arranged outside of the containment body ; each insulator element comprises two longitudinal portions parallel and opposed one to another; each solenoid (S) is placed within the space between the longitudinal portions of the respective insulator element . two or more solenoids (S), each comprising a coil and a ferromagnetic core which is inserted concentrically within the coil ; a containment body , for containing the solenoids (S); an insulator element for each solenoid (S); each insulator element is made of a magnetic material and extends at least partially in proximity of a corresponding solenoid (S); characterized in that: the insulator elements are arranged outside of the containment body ; each insulator element comprises two longitudinal portions parallel and opposed one to another; each solenoid (S) is placed within the space between the longitudinal portions of the respective insulator element . the insulator elements are arranged outside of the containment body ; each insulator element comprises two longitudinal portions parallel and opposed one to another; each solenoid (S) is placed within the space between the longitudinal portions of the respective insulator element .
A multifunctional protection device for a nuclear power plant piping, which comprise: an inner pressure-bearing layer sleeved on the periphery of a piping and used for positioning and fixing the piping ; a buffer layer , an absorption layer and an outer pressure-bearing layer are sequentially connected from inside to outside by taking the inner pressure-bearing layer as a center; the buffer layer comprises a plurality of hollow tube bundle layers, and the plurality of hollow tube bundle layers are connected around the inner pressure-bearing layer to form the buffer layer ; the absorption layer comprises a plurality of multi-gap portions which are arranged in a staggered manner, and each multi-gap portion is provided with a plurality of absorption layer pores ; the outer pressure-bearing layer is arranged on the outermost layer of the multifunctional protection device of nuclear power plant piping and is used for providing rigid support and preventing the piping from leaking. an inner pressure-bearing layer sleeved on the periphery of a piping and used for positioning and fixing the piping ; a buffer layer , an absorption layer and an outer pressure-bearing layer are sequentially connected from inside to outside by taking the inner pressure-bearing layer as a center; the buffer layer comprises a plurality of hollow tube bundle layers, and the plurality of hollow tube bundle layers are connected around the inner pressure-bearing layer to form the buffer layer ; the absorption layer comprises a plurality of multi-gap portions which are arranged in a staggered manner, and each multi-gap portion is provided with a plurality of absorption layer pores ; the outer pressure-bearing layer is arranged on the outermost layer of the multifunctional protection device of nuclear power plant piping and is used for providing rigid support and preventing the piping from leaking.
A product comprising a water-soluble fibrous structure comprising a plurality of filaments; wherein the filaments comprise a filament forming material and an active agent releasable from the filaments when exposed to conditions of intended use; wherein the fibrous structure further comprises a first surface and a second surface opposite the first surface and a graphic printed directly on at least a portion of the first surface of the water-soluble fibrous structure, wherein the graphic is formed from an ink at least a portion of which penetrates the first surface of the water-soluble fibrous structure to a depth of 100 microns or less below the first surface as measured according to the Ink Penetration Test Method described herein; and wherein the fibrous structure is a nonwoven web. a water-soluble fibrous structure comprising a plurality of filaments; wherein the filaments comprise a filament forming material and an active agent releasable from the filaments when exposed to conditions of intended use; wherein the fibrous structure further comprises a first surface and a second surface opposite the first surface and a graphic printed directly on at least a portion of the first surface of the water-soluble fibrous structure, wherein the graphic is formed from an ink at least a portion of which penetrates the first surface of the water-soluble fibrous structure to a depth of 100 microns or less below the first surface as measured according to the Ink Penetration Test Method described herein; and wherein the fibrous structure is a nonwoven web.
Compressed air circuit for a rail vehicle, comprising a main pneumatic network intended to be carried on the railway vehicle, and comprising at least one safety valve , the compressed air circuit comprising a three-way check valve , of which a first way is connected to the safety valve , a second way is connected to the main pneumatic network , and a third way comprises a connection socket for connection to a secondary pneumatic network , the valve being shaped so that its first path is connected to the third path when the connection socket is connected to the secondary pneumatic network , and so that its first path is connected to the second path when the connection socket is not connected, characterised in that the compressed air circuit comprises a pressure measurement socket arranged between the check valve and the safety valve . vehicle, comprising a main pneumatic network intended to be carried on the railway vehicle, and comprising at least one safety valve , the compressed air circuit comprising a three-way check valve , of which a first way is connected to the safety valve , a second way is connected to the main pneumatic network , and a third way comprises a connection socket for connection to a secondary pneumatic network , the valve being shaped so that its first path is connected to the third path when the connection socket is connected to the secondary pneumatic network , and so that its first path is connected to the second path when the connection socket is not connected, characterised in that the compressed air circuit comprises a pressure measurement socket arranged between the check valve and the safety valve .
A piezoelectric layer composed of polycrystalline potassium sodium niobate which is a perovskite type compound represented by the formula ABO 3 , wherein, a crystal lattice in the piezoelectric layer is matched in a plane direction, wherein, in the Raman spectroscopy measurement of the piezoelectric layer which is performed while the piezoelectric layer is rotated in the in-plane direction, information on a short-range order of the crystal lattice of several grains is obtained and the measured intensity of the lattice vibration region of the perovskite type compound in the Raman spectrum obtained in polarized Raman spectroscopy measurement (yx) has a periodicity of approximately 90°, wherein, the polarized Raman spectroscopy measurement (yx) is performed while the piezoelectric layer is rotated in the in-plane direction and Raman scattering light is polarized in a direction perpendicular to that of the incident light.
An apparatus for wireless communications, comprising: a processing system configured to generate a frame for transmission on at least one channel, the frame having: first information comprising at least one of a training field, channel estimation, or header information for processing by first and second types of devices, and extended header information intended for processing by only a second type of device that is a targeted recipient of the frame, and a data portion; and an interface for outputting the frame for transmission via the at least one channel, wherein: the frame further comprises, for each of first and second spatial streams, second information comprising at least one of a training field or channel estimation information for processing by the targeted recipient of the frame; and wherein the second information for the first spatial stream is output for transmission with a delay relative to transmission of an end of the first information for the first spatial stream in order to time align the second information for the first spatial stream with the second information for the second spatial stream. first information comprising at least one of a training field, channel estimation, or header information for processing by first and second types of devices, and extended header information intended for processing by only a second type of device that is a targeted recipient of the frame, and a data portion; and an interface for outputting the frame for transmission via the at least one channel, wherein: the frame further comprises, for each of first and second spatial streams, second information comprising at least one of a training field or channel estimation information for processing by the targeted recipient of the frame; and wherein the second information for the first spatial stream is output for transmission with a delay relative to transmission of an end of the first information for the first spatial stream in order to time align the second information for the first spatial stream with the second information for the second spatial stream. the frame further comprises, for each of first and second spatial streams, second information comprising at least one of a training field or channel estimation information for processing by the targeted recipient of the frame; and wherein the second information for the first spatial stream is output for transmission with a delay relative to transmission of an end of the first information for the first spatial stream in order to time align the second information for the first spatial stream with the second information for the second spatial stream.
A paper barrier material comprising a water vapor barrier layer and a gas barrier layer provided on a paper base material in this order, the paper barrier material characterized in that the water vapor barrier layer contains a water vapor barrier resin and a water repellent, and the gas barrier layer contains a water-soluble polymer and a surface-active agent, wherein the water repellent is a paraffin water repellent primarily constituted by alkane compound, carnauba, lanolin, water repellents based on animal or plant-based natural oil, silicone-containing water repellents that contain silicone or silicone compound, fluorine-containing water repellents that contain fluorine compound, or a combination of two or more thereof; the surface-active agent is a silicone surface-active agent, a fluorine surface-active agent, an alcohol surface-active agent, an acetylene surface-active agent that contains an acetylene group, an acetylene diol surface-active agent that contains an acetylene group and two hydroxyl groups, an alkyl sulfonate surface-active agent that contains an alkyl group and sulfonic acid, an ester surface-active agent, an amide surface-active agent, an amine surface-active agent, an alkyl ether surface-active agent, a phenyl ether surface-active agent, a sulfate ester surface-active agent, a phenol surface-active agent, or a combination of two or more thereof; the blending ratio (in dry weight) of the water vapor barrier resin and the water repellent is 1 part by weight to 1000 parts by weight (in dry weight) of water repellent, relative to 100 parts by weight (in dry weight) of water vapor barrier resin; the coating quantity of the water vapor barrier layer is 3 g/m 2 to 50 g/m 2 ; and the coating quantity of the gas barrier layer is 0.2 g/m 2 to 20 g/m 2 in dry weight.