mhurhangee/patent-ind-claim-en huggingface dataset:
Expansion anchor having - an anchor bolt , - an expansion sleeve , as a first element, wherein the expansion sleeve surrounds the anchor bolt , - a wedge body , as a second element, for expanding the expansion sleeve , wherein the wedge body is provided on the anchor bolt , and - a double coating that is provided on one of the first and second elements at least in an area of contact with the other of the first and second elements, - wherein the element, on which the double coating is provided, is a carbon steel part, characterized in that - the double coating comprises a zinc flake and/or aluminium flake top layer and a hot dip galvanized zinc, a ZnNi or a ZnFe base layer that is covered by the zinc flake and/or aluminium flake top layer . - an anchor bolt , - an expansion sleeve , as a first element, wherein the expansion sleeve surrounds the anchor bolt , - a wedge body , as a second element, for expanding the expansion sleeve , wherein the wedge body is provided on the anchor bolt , and - a double coating that is provided on one of the first and second elements at least in an area of contact with the other of the first and second elements, - wherein the element, on which the double coating is provided, is a carbon steel part, characterized in that - the double coating comprises a zinc flake and/or aluminium flake top layer and a hot dip galvanized zinc, a ZnNi or a ZnFe base layer that is covered by the zinc flake and/or aluminium flake top layer .
A nuclear medicine examination apparatus , comprising: a pixel-type radiation detection device comprising a chamber comprising a gas, wherein the pixel-type radiation detection device is configured to detect information of a charged particle generated by Compton scattering in the gas; one or a plurality of sensors configured to detect a physical amount of the gas in the chamber , such as pressure and/or temperature; and a controller configured to control at least one of pressure, temperature, and a composition of the gas based on output signals from the one or plurality of sensors , wherein the controller comprises a gas state control unit , characterized in that the gas state control unit is configured to increase a pressure of the gas in the chamber causing the Compton scattering, with a reduction in amount of radiation emitted from a radiation source embedded in a specimen with a lapse of time. a pixel-type radiation detection device comprising a chamber comprising a gas, wherein the pixel-type radiation detection device is configured to detect information of a charged particle generated by Compton scattering in the gas; one or a plurality of sensors configured to detect a physical amount of the gas in the chamber , such as pressure and/or temperature; and a controller configured to control at least one of pressure, temperature, and a composition of the gas based on output signals from the one or plurality of sensors , wherein the controller comprises a gas state control unit , characterized in that the gas state control unit is configured to increase a pressure of the gas in the chamber causing the Compton scattering, with a reduction in amount of radiation emitted from a radiation source embedded in a specimen with a lapse of time.
Crystal form A of a compound of formula (I), characterized by an X-ray powder diffraction pattern comprising characteristic peaks at 6.6±0.2°, 10.0±0.2°, 13.2±0.2°, 17.4±0.2°, 20.1±0.2°, and 20.6±0.2° expressed as 2θ angles using Cu-Kα radiation,
A thermal system for a stage light source module comprising: a lamp chamber for housing a light source ; a light condenser which is provided in the lamp chamber and by which light emitted from the light source is converged into a light beam defining a main optical axis; wherein the lamp chamber is of a hollow columnar structure defined by at least five side walls, or of a hollow cylindrical structure, or of a hollow elliptic cylindrical structure, a support plate is provided above the lamp chamber ; a heat-shield assembly is provided above the support plate and defines a heat dissipation chamber together with the support plate ; and the support plate is provided with a first through hole which is closely fitted to the opening at an end of the light condenser . a lamp chamber for housing a light source ; a light condenser which is provided in the lamp chamber and by which light emitted from the light source is converged into a light beam defining a main optical axis; wherein the lamp chamber is of a hollow columnar structure defined by at least five side walls, or of a hollow cylindrical structure, or of a hollow elliptic cylindrical structure, a support plate is provided above the lamp chamber ; a heat-shield assembly is provided above the support plate and defines a heat dissipation chamber together with the support plate ; and the support plate is provided with a first through hole which is closely fitted to the opening at an end of the light condenser .
A process of fabricating a solar cell, the process comprising: removing a non-uniform dielectric film that covers a backside surface of a plurality of P-type and N-type diffusion regions to expose the backside surface of the plurality of P-type and N-type diffusion regions; after removing the non-uniform dielectric film , forming a substantially uniform layer of dielectric on the backside surface of the plurality of P-type and N-type diffusion regions; using a laser to form a plurality of contact holes through the substantially uniform layer of dielectric , each contact hole in the plurality of contact holes exposing a surface of a corresponding P-type or N-type diffusion region in the plurality of P-type and N-type diffusion regions; and forming a metal contact in each of the plurality of contact holes to form an electrical connection to an exposed surface of each of the plurality of P-type and N-type diffusion regions. removing a non-uniform dielectric film that covers a backside surface of a plurality of P-type and N-type diffusion regions to expose the backside surface of the plurality of P-type and N-type diffusion regions; after removing the non-uniform dielectric film , forming a substantially uniform layer of dielectric on the backside surface of the plurality of P-type and N-type diffusion regions; using a laser to form a plurality of contact holes through the substantially uniform layer of dielectric , each contact hole in the plurality of contact holes exposing a surface of a corresponding P-type or N-type diffusion region in the plurality of P-type and N-type diffusion regions; and forming a metal contact in each of the plurality of contact holes to form an electrical connection to an exposed surface of each of the plurality of P-type and N-type diffusion regions.
A microchannel heat exchanger , comprising: a cover with a first access channel and a second access channel, a thermally conductive base , a plurality of thermally conductive sheets between the cover and the base that each define a series of side-by-side lanes aligned with a flow direction, wherein the lanes each include a plurality of aligned slots that define microchannel segments that extend along the flow direction and are separated by cross ribs extending across the lanes , wherein the sheets further define common cut-out areas in communication with the lanes at either end of the lanes , wherein the sheets are stacked in a direction perpendicular to the flow direction between the base and cover so as to cause at least some of the ribs to be offset from each other along the flow direction in adjacent sheets and thereby allow the microchannel segments in the same lane in adjacent sheets to communicate with each other along the flow direction to define a plurality of adjacent, plural-sheet microchannels in the heat exchanger that each extend between the cut-out areas along the flow direction, and wherein the sheets are stacked between the base and cover so that the common cut-out areas form at least one input manifold and at least one output manifold that are respectfully aligned with the first access channel and the second access channel on the cover . a cover with a first access channel and a second access channel, a thermally conductive base , a plurality of thermally conductive sheets between the cover and the base that each define a series of side-by-side lanes aligned with a flow direction, wherein the lanes each include a plurality of aligned slots that define microchannel segments that extend along the flow direction and are separated by cross ribs extending across the lanes , wherein the sheets further define common cut-out areas in communication with the lanes at either end of the lanes , wherein the sheets are stacked in a direction perpendicular to the flow direction between the base and cover so as to cause at least some of the ribs to be offset from each other along the flow direction in adjacent sheets and thereby allow the microchannel segments in the same lane in adjacent sheets to communicate with each other along the flow direction to define a plurality of adjacent, plural-sheet microchannels in the heat exchanger that each extend between the cut-out areas along the flow direction, and wherein the sheets are stacked between the base and cover so that the common cut-out areas form at least one input manifold and at least one output manifold that are respectfully aligned with the first access channel and the second access channel on the cover .
A pharmaceutical composition for intranasal delivery to a human patient, comprising a solution or suspension of therapeutically effective amount of betahistine dihydrochloride and a viscosity enhancing agent selected from the group consisting of hydroxypropyl methylcellulose, polyvinyl pyrrolidone, polyvinyl alcohol, methylcellulose, carboxymethyl cellulose-Na, hydroxyethylcellulose, hydroxypropyl cellulose, polyethylene-oxide, Carbopol, polyethylene glycol, propylene glycol, glycerin, alginates, carrageenan, pectins, maltodextrin, sodium starch glycolatc, tragacanth gum, gum arabic, microcrystalline cellulose and combinations thereof.
A permanent magnet, comprising: a composition represented by a composition formula: R(Fe p M q Cu r Co r1-p-q-r ) z where R is at least one element selected from the group consisting of rare-earth elements, M is at least one element selected from the group consisting of Zr, Ti, and Hf, p is a number satisfying 0.3 ≤ p ≤ 0.4 (atomic ratio), q is a number satisfying 0.01 ≤ q ≤ 0.05 (atomic ratio), r is a number satisfying 0.01 ≤ r ≤ 0.1 (atomic ratio), and z is a number satisfying 7 ≤ z ≤ 8.5 (atomic ratio); and a structure including a cell phase having a Th 2 Zn 17 crystal phase, and a cell wall phase existing to surround the cell phase, characterized in that the cell wall phase has a region in which a Cu concentration is 40 atomic% or more and which is formed in the vicinity of the center of the cell wall phase, the vicinity being a region separated from the center by ± 0.5 nm, and an average magnetization of the cell wall phase is 0.2 T or less. a composition represented by a composition formula: R(Fe p M q Cu r Co r1-p-q-r ) z where R is at least one element selected from the group consisting of rare-earth elements, M is at least one element selected from the group consisting of Zr, Ti, and Hf, p is a number satisfying 0.3 ≤ p ≤ 0.4 (atomic ratio), q is a number satisfying 0.01 ≤ q ≤ 0.05 (atomic ratio), r is a number satisfying 0.01 ≤ r ≤ 0.1 (atomic ratio), and z is a number satisfying 7 ≤ z ≤ 8.5 (atomic ratio); and a structure including a cell phase having a Th 2 Zn 17 crystal phase, and a cell wall phase existing to surround the cell phase, characterized in that the cell wall phase has a region in which a Cu concentration is 40 atomic% or more and which is formed in the vicinity of the center of the cell wall phase, the vicinity being a region separated from the center by ± 0.5 nm, and an average magnetization of the cell wall phase is 0.2 T or less.
Assembly including a first part and a second part that is part of the body of a motor vehicle, said first part being intended for assembly on said second part , - said second part comprising a projecting element extending along a main axis X, - said first part comprising a holder provided with a guide member for guiding said first part relative to said projecting element , - said holder supporting an element for locking said projecting element in a position for assembly of said first part on said second part , - said locking element being configured to lock said projecting element in the assembly position via a movement along an axis separate from said main axis X, said assembly being characterised in that said locking element comprises a head which closes an opening in an outer surface of said first part in the assembly position, and which is flush with said outer surface . - said second part comprising a projecting element extending along a main axis X, - said first part comprising a holder provided with a guide member for guiding said first part relative to said projecting element , - said holder supporting an element for locking said projecting element in a position for assembly of said first part on said second part , - said locking element being configured to lock said projecting element in the assembly position via a movement along an axis separate from said main axis X,
An aircraft propulsion module comprising - a hydrogen storage system , - at least one electrochemical converter connected to the hydrogen storage system , wherein the at least one electrochemical converter is adapted to convert hydrogen supplied from the hydrogen storage system into electric energy, and - at least one electric motor electrically connected to the at least one electrochemical converter , wherein the electric motor is adapted to generate thrust; wherein - the propulsion module comprises at least one separation means adapted to separate at least one component of the propulsion module from the propulsion module , and wherein - at least one component of the at least one separable component is tethered to the propulsion module after removal. - a hydrogen storage system , - at least one electrochemical converter connected to the hydrogen storage system , wherein the at least one electrochemical converter is adapted to convert hydrogen supplied from the hydrogen storage system into electric energy, and - at least one electric motor electrically connected to the at least one electrochemical converter , wherein the electric motor is adapted to generate thrust; wherein - the propulsion module comprises at least one separation means adapted to separate at least one component of the propulsion module from the propulsion module , and wherein - at least one component of the at least one separable component is tethered to the propulsion module after removal.
A breeding system for fish belonging to the family of cyprinids, and more particularly for zebrafish of the species Danio rerio, said system comprising: - a breeding tank having a bottom and side walls , - a laying support placed in the breeding tank and comprising a platform forming a laying area placed at a distance from the bottom of the breeding tank , and - a water circulation system configured to modify a level of water in the breeding tank and at least partially flood the platform of the laying support , said system being characterized in that the laying support comprises a funnel including a truncated conical wall having a lower orifice , extending in the vicinity of the bottom of the breeding tank and in fluid communication with the water circulation system through a pipe , and an upper orifice extending at a distance from the bottom , the platform being fixed in the vicinity of the upper orifice of the funnel , and the breeding system further comprises a removable closure member configured to at least partially plug the pipe of the laying support in order to increase a level of water in the breeding tank to at least partially flood the platform , the closure member comprising a pipe at the end of which through holes are formed, said pipe having a height greater than a distance between the lower orifice and the upper orifice . - a breeding tank having a bottom and side walls , - a laying support placed in the breeding tank and comprising a platform forming a laying area placed at a distance from the bottom of the breeding tank , and - a water circulation system configured to modify a level of water in the breeding tank and at least partially flood the platform of the laying support ,
An optical laminate, comprising: an optical functional layer ; and a reddening-resistant layer formed on at least one side of the optical functional layer , characterized in that the optical functional layer is a polarizing layer, the reddening-resistant layer is a void-containing layer or a laminate comprising the void-containing layer, wherein the void-containing layer does not comprise solid particles, and an average reflectance of the optical laminate with respect to light having wavelength of from 380 nm to 780 nm is 2% or more, wherein the average surface reflectance is measured by a spectrophotometer for light having the wavelength of 380nm to 780nm. an optical functional layer ; and a reddening-resistant layer formed on at least one side of the optical functional layer , characterized in that the optical functional layer is a polarizing layer, the reddening-resistant layer is a void-containing layer or a laminate comprising the void-containing layer, wherein the void-containing layer does not comprise solid particles, and an average reflectance of the optical laminate with respect to light having wavelength of from 380 nm to 780 nm is 2% or more, wherein the average surface reflectance is measured by a spectrophotometer for light having the wavelength of 380nm to 780nm.
A water filter component comprises: a double layer pleated filter media that is cylindrical having a first end and a second end, the double layer pleated filter media comprising: a first media layer comprising a pathogen killing ply and a pathogen catching ply ; and a second media layer comprising pathogen killing ply and a pathogen catching ply , wherein the second media layer overlays the first media layer such that the first media layer and the second media layer are pleated together without bonding to form the double layer pleated filter media ; a first cap sealingly engaged to the first end of the double layer pleated filter media; and a second cap sealingly engaged to the second end of the double layer pleated filter media, the first cap and second cap configured to prevent leakage. a double layer pleated filter media that is cylindrical having a first end and a second end, the double layer pleated filter media comprising: a first media layer comprising a pathogen killing ply and a pathogen catching ply ; and a second media layer comprising pathogen killing ply and a pathogen catching ply , wherein the second media layer overlays the first media layer such that the first media layer and the second media layer are pleated together without bonding to form the double layer pleated filter media ; a first media layer comprising a pathogen killing ply and a pathogen catching ply ; and a second media layer comprising pathogen killing ply and a pathogen catching ply , wherein the second media layer overlays the first media layer such that the first media layer and the second media layer are pleated together without bonding to form the double layer pleated filter media ; a first cap sealingly engaged to the first end of the double layer pleated filter media; and a second cap sealingly engaged to the second end of the double layer pleated filter media, the first cap and second cap configured to prevent leakage.
A device comprising: an antenna ; a power harvesting circuit for harvesting power from a radio frequency field received at the antenna in order to power functions of the device; a communication unit coupled to the antenna for transmitting and receiving signals by means of the antenna, the communication unit being configured to communicate according to a protocol in which a party to a communication session deems the session to have timed out if during a predetermined period it does not receive a signal from another party to the session; and a module comprising a processing circuit; characterised in that the device is configured to interrupt the operation of the module when the communication unit is transmitting a wait time extension message by means of the antenna. an antenna ; a power harvesting circuit for harvesting power from a radio frequency field received at the antenna in order to power functions of the device; a communication unit coupled to the antenna for transmitting and receiving signals by means of the antenna, the communication unit being configured to communicate according to a protocol in which a party to a communication session deems the session to have timed out if during a predetermined period it does not receive a signal from another party to the session; and a module comprising a processing circuit; characterised in that the device is configured to interrupt the operation of the module when the communication unit is transmitting a wait time extension message by means of the antenna.
An application and infusion system for applying a resin to one or more fiber tows and for infusing the fiber tows with the resin , wherein each of the fiber tows is moving at a respective fiber speed, the application and infusion system comprising: a deposition and infusion system comprising a plurality of nozzles configured to deposit the resin on a respective one of the fiber tows ; and a controller configured to control a flow rate of the resin through each of the nozzles relative to the fiber speed of the respective ones of the fiber tows ; wherein the nozzles are configured to deposit the resin on both an upper side and a lower side of the fiber tows ; and the deposition and infusion system further comprises a rod oriented in a direction substantially transverse to a feed path of the fiber tows , wherein the nozzles are arranged in two rows with the rod being disposed aft of the two rows of nozzles , wherein the nozzles in a first one of the rows are configured to deposit the resin on one of the sides of the fiber tows , wherein the nozzles in a second one of the rows are configured to deposit the resin on the other side of the fiber tows , and wherein the rod is configured to press the fiber tows against the nozzles . a deposition and infusion system comprising a plurality of nozzles configured to deposit the resin on a respective one of the fiber tows ; and a controller configured to control a flow rate of the resin through each of the nozzles relative to the fiber speed of the respective ones of the fiber tows ; wherein the nozzles are configured to deposit the resin on both an upper side and a lower side of the fiber tows ; and the deposition and infusion system further comprises a rod oriented in a direction substantially transverse to a feed path of the fiber tows , wherein the nozzles are arranged in two rows with the rod being disposed aft of the two rows of nozzles , wherein the nozzles in a first one of the rows are configured to deposit the resin on one of the sides of the fiber tows , wherein the nozzles in a second one of the rows are configured to deposit the resin on the other side of the fiber tows , and wherein the rod is configured to press the fiber tows against the nozzles .