mhurhangee/patent-ind-claim-en huggingface dataset:
A turbine injector comprising an annular ring extending around a longitudinal axis (A) and having a radially outer edge and a radially inner edge , the ring having a plurality of channels intended to fluidly connect the radially outer edge to the radially inner edge , each channel extending in a radial plane (P) of the ring and having an inlet opening near the outer edge and an outlet opening near the radially inner edge , each channel having a progressive variation of its orientation according to a tangential component between the inlet section ( Φ22 ) of the inlet opening and the outlet section ( Φ24 ) of the outlet opening , characterized in that it is obtained by additive manufacturing and in that each inlet section ( Φ22 ) has the shape of a parallelogram surmounted by a triangle, or the shape of a triangle.
A system for depositing a compound into a void within a structure , the system comprising: a dispenser for holding the compound to be dispensed into the void ; a vacuum canister , comprising: a canister inlet configured to allow the compound to flow from the dispenser into at least a portion of the vacuum canister ; a canister outlet configured to allow the compound to flow into the void , wherein the vacuum canister is configured to be selectively positioned with respect to the void such that the canister outlet circumscribes the void ; and a vacuum port configured to enable a vacuum system to reduce an air pressure within the vacuum canister and the void to a reduced air pressure; and a valve operable in a first position to retain the compound in the dispenser , and operable in a second position to enable the compound to flow into the void while the air pressure within the vacuum canister and the void is being maintained at the reduced air pressure; characterized in that the dispenser is formed unitarily with the vacuum canister . a dispenser for holding the compound to be dispensed into the void ; a vacuum canister , comprising: a canister inlet configured to allow the compound to flow from the dispenser into at least a portion of the vacuum canister ; a canister outlet configured to allow the compound to flow into the void , wherein the vacuum canister is configured to be selectively positioned with respect to the void such that the canister outlet circumscribes the void ; and a vacuum port configured to enable a vacuum system to reduce an air pressure within the vacuum canister and the void to a reduced air pressure; and a canister inlet configured to allow the compound to flow from the dispenser into at least a portion of the vacuum canister ; a canister outlet configured to allow the compound to flow into the void , wherein the vacuum canister is configured to be selectively positioned with respect to the void such that the canister outlet circumscribes the void ; and a vacuum port configured to enable a vacuum system to reduce an air pressure within the vacuum canister and the void to a reduced air pressure; and a valve operable in a first position to retain the compound in the dispenser , and operable in a second position to enable the compound to flow into the void while the air pressure within the vacuum canister and the void is being maintained at the reduced air pressure; characterized in that the dispenser is formed unitarily with the vacuum canister .
A method for receiving downlink control information, DCI, by a user equipment, UE , served by a plurality of cells in a wireless communication system, the method comprising: receiving Radio Resource Control, RRC, configuration information including a Radio Network Temporary Identifier, RNTI, used for resource format indication; receiving a Physical Downlink Control Channel, PDCCH, including the DCI related to the resource format indication based on the RNTI, wherein the DCI includes a plurality of resource format indicators related to reconfiguration of uplink-downlink configurations, UL-DL configurations, for each of the plurality of cells; and communicating, for each of the plurality of cells, based on a resource format determined based on one of the plurality of resource format indicators. receiving Radio Resource Control, RRC, configuration information including a Radio Network Temporary Identifier, RNTI, used for resource format indication; receiving a Physical Downlink Control Channel, PDCCH, including the DCI related to the resource format indication based on the RNTI, wherein the DCI includes a plurality of resource format indicators related to reconfiguration of uplink-downlink configurations, UL-DL configurations, for each of the plurality of cells; and communicating, for each of the plurality of cells, based on a resource format determined based on one of the plurality of resource format indicators.
A cartridge for a vaporization device, the cartridge comprising: a mouthpiece ; a reservoir configured to hold a vaporizable material ; a wick configured to draw at least a portion of the vaporizable material from the reservoir to a vaporization region of the wick, the wick comprising a thermally conductive core and a porous wicking material surrounding at least a portion of the thermally conductive core, the thermally conductive core being more thermally conductive than the porous wicking material; and a heating element disposed near the vaporization region of the wick and configured to heat the at least a portion of the vaporizable material drawn from the reservoir . a wick configured to draw at least a portion of the vaporizable material from the reservoir to a vaporization region of the wick, the wick comprising a thermally conductive core and a porous wicking material surrounding at least a portion of the thermally conductive core, the thermally conductive core being more thermally conductive than the porous wicking material; and a heating element disposed near the vaporization region of the wick and configured to heat the at least a portion of the vaporizable material drawn from the reservoir .
Display device for a motor vehicle , comprising a display panel for displaying at least one graphic display object and a control apparatus, wherein the display panel stands freely in a room, and wherein the display panel comprises a multiplicity of predetermined partial regions , which have respectively an adjustable degree of a light permeability, wherein depending on the degree of the light permeability an environment of the display panel is visible in the display panel , and wherein the control apparatus is configured for each of the multiplicity of predetermined partial regions of the display panel to set individually a respective light permeability to a predetermined degree, wherein the display panel of the display device has at least two layers arranged parallel to one another, characterised in that - at least one first layer is transparent and is configured to display the at least one graphic display object as a transparent luminous image ; and wherein - at least one second layer is electrically conductive, wherein the predetermined degree of light permeability at least in those predetermined partial regions of the display panel , in which the at least one transparent luminous image is at least partially displayed in the first layer , can be varied by applying an electrical voltage in the respective predetermined partial region of the second layer ; so that all in all the respective at least one graphic display object is displayed on the display panel as a light-emitting display object . - at least one first layer is transparent and is configured to display the at least one graphic display object as a transparent luminous image ; and wherein - at least one second layer is electrically conductive, wherein the predetermined degree of light permeability at least in those predetermined partial regions of the display panel , in which the at least one transparent luminous image is at least partially displayed in the first layer , can be varied by applying an electrical voltage in the respective predetermined partial region of the second layer ; so that
A semiconductor light emitting element comprising: a semiconductor structure including a first conductivity type semiconductor layer ; and a second conductivity type semiconductor layer arranged above the first conductivity type semiconductor layer ; a first electrode arranged on the first conductivity type semiconductor layer ; a second electrode arranged on the second conductivity type semiconductor layer ; a first light transmissive insulating film partially formed between the first conductivity type semiconductor layer and the first electrode ; and a second light transmissive insulating film partially formed between the second conductivity type semiconductor layer and the second electrode , wherein the second electrode includes: a first layer arranged on the second conductivity type semiconductor layer and the second light transmissive insulating film ; and a second layer arranged on the first layer , and wherein the second layer of the second electrode is provided inside an area where the second light transmissive insulating film is formed in a plan view of the light emitting element. a semiconductor structure including a first conductivity type semiconductor layer ; and a second conductivity type semiconductor layer arranged above the first conductivity type semiconductor layer ; a first electrode arranged on the first conductivity type semiconductor layer ; a second electrode arranged on the second conductivity type semiconductor layer ; a first light transmissive insulating film partially formed between the first conductivity type semiconductor layer and the first electrode ; and a second light transmissive insulating film partially formed between the second conductivity type semiconductor layer and the second electrode , wherein the second electrode includes: a first layer arranged on the second conductivity type semiconductor layer and the second light transmissive insulating film ; and a second layer arranged on the first layer , and a first layer arranged on the second conductivity type semiconductor layer and the second light transmissive insulating film ; and a second layer arranged on the first layer , and wherein the second layer of the second electrode is provided inside an area where the second light transmissive insulating film is formed in a plan view of the light emitting element.
Insulation element for insulating a structural element in a vehicle, the insulation element comprising a support element with a first surface and a second surface and an expandable material , which is arranged at least on partial regions of the first surface of the support element , wherein the support element has at least one penetration and the expandable material projects through the penetration and forms a protrusion on one side of the second surface of the support element , characterized in that the protrusion has a constant cross section, wherein the protrusion is dimensioned and the expandable material designed in such a way that the protrusion has a larger cross section after expansion than a cross section of the penetration .
A computer implemented method comprising generating 4D light-field data representative of at least one volume in an object space of a first optical system occupied by a set of rays of light passing through a pupil of said first optical system and a conjugate , in said object space of the first optical system, of at least one pixel of a sensor associated with said first optical system, said volume occupied by said set of rays of light being called a pixel beam , characterized in that it further comprises - computing a value of a parameter representing a radiance transmitted through an imaged pixel beam associated with at least one element of at least one grid defined on a projection surface located at a distance D from a second optical system and belonging to an intersection between said at least one imaged pixel beam and the projection surface, wherein the grid on the projection surface is a pixel grid and wherein said imaged pixel beam is a conjugate of said at least one pixel beam through the second optical system . - computing a value of a parameter representing a radiance transmitted through an imaged pixel beam associated with at least one element of at least one grid defined on a projection surface located at a distance D from a second optical system and belonging to an intersection between said at least one imaged pixel beam and the projection surface, wherein the grid on the projection surface is a pixel grid and wherein said imaged pixel beam is a conjugate of said at least one pixel beam through the second optical system .
A resin- and mineral oil-free pressure-sensitive adhesive composition, comprising 55% - 99% by weight of a copolymer of propylene and one or more further monomers selected from the group composed of ethylene and 1-olefins having 4 to 20 carbon atoms, wherein the copolymer has been prepared with the aid of metallocene catalysts and is characterized by a. a melt viscosity at 170°C of 20 to 8000 mPas (DIN 53019); b. a density of 0.84 to 0.90 g/cm 3 (23°C, ISO 1183); c. a glass transition temperature of less than -30°C (DIN EN ISO 11357-2:2014); d. a flow point, measured according to ASTM D97, of less than 50°C, wherein the resin content, formed from low molecular weight products from the C5 or C9 stream of the petroleum preparation, which contain aromatics and have a glass transition temperature above room temperature, and the mineral oil content being in each case less than 1% by weight, based on the pressure sensitive adhesive composition according to the invention, and wherein a further polymer may optionally be present in the pressure-sensitive adhesive composition. a. a melt viscosity at 170°C of 20 to 8000 mPas (DIN 53019); b. a density of 0.84 to 0.90 g/cm 3 (23°C, ISO 1183); c. a glass transition temperature of less than -30°C (DIN EN ISO 11357-2:2014); d. a flow point, measured according to ASTM D97, of less than 50°C,
A method for fixing hydroxyapatite to a titanium-based metal substrate which comprises a step of subjecting a surface of a titanium-based metal substrate comprising pure titanium or a titanium alloy to surface roughening treatment so that a surface roughness Ra becomes 1.6 μm or more and 4.0 μm or less, a step of adhering hydroxyapatite powder to entire surface or a part of the surface of the titanium-based metal substrate, which has been subjected to the surface roughening treatment, at a ratio of 25 mg/cm 2 or more and 70 mg/cm 2 or less, and a step of retaining the titanium-based metal substrate, to which the hydroxyapatite powder has been adhered, at a sintering temperature of 800°C or higher to 1,150 °C or lower for 3 hours or longer and 11 hours or shorter when an atmosphere is air, argon gas or carbon dioxide gas, or retaining the titanium-based metal substrate at a sintering temperature of 1,050°C or higher for 3 hours or longer and 11 hours or shorter when the atmosphere is nitrogen gas, or retaining the titanium-based metal substrate at a sintering temperature of 900°C or higher for 3 hours or longer and 11 hours or shorter when the atmosphere is oxygen gas, to sinter the hydroxyapatite powder on the surface of the metal substrate. a step of adhering hydroxyapatite powder to entire surface or a part of the surface of the titanium-based metal substrate, which has been subjected to the surface roughening treatment, at a ratio of 25 mg/cm 2 or more and 70 mg/cm 2 or less, and a step of retaining the titanium-based metal substrate, to which the hydroxyapatite powder has been adhered, at a sintering temperature of 800°C or higher to 1,150 °C or lower for 3 hours or longer and 11 hours or shorter when an atmosphere is air, argon gas or carbon dioxide gas, or retaining the titanium-based metal substrate at a sintering temperature of 1,050°C or higher for 3 hours or longer and 11 hours or shorter when the atmosphere is nitrogen gas, or retaining the titanium-based metal substrate at a sintering temperature of 900°C or higher for 3 hours or longer and 11 hours or shorter when the atmosphere is oxygen gas, to sinter the hydroxyapatite powder on the surface of the metal substrate.
A system for treating and distributing drink water, the system comprising: a first container ; an input conduit , configured to supply water to the first container ; a first sensor , configured to measure a characteristic of the water within the first container ; a treatment delivery system , configured to deliver a mineral composition into the first container ; a controller , configured to control the treatment delivery system to selectively deliver the mineral composition into the first container based on the characteristic of the water measured by the first sensor , such that the mineral composition mixes with and dissolves in the water to produce treated water having a programmed mineral profile; a second container defining a storage container; a total dissolved solids (TDS) meter, and a water level sensor disposed in the second container , each of which is configured to produce sensor data, wherein the controller is configured to execute at least one algorithm to control the mixing of the mineral composition to the water supplied to the first container further based upon the sensor data associated with the TDS meter and the water level sensor from the second container ; a transfer conduit , configured to transfer the treated water from the first container to the second container ; and an output conduit coupled to the second container to distribute the treated water from the second container to a destination. a first container ; an input conduit , configured to supply water to the first container ; a first sensor , configured to measure a characteristic of the water within the first container ; a treatment delivery system , configured to deliver a mineral composition into the first container ; a controller , configured to control the treatment delivery system to selectively deliver the mineral composition into the first container based on the characteristic of the water measured by the first sensor , such that the mineral composition mixes with and dissolves in the water to produce treated water having a programmed mineral profile; a second container defining a storage container; a total dissolved solids (TDS) meter, and a water level sensor disposed in the second container , each of which is configured to produce sensor data, wherein the controller is configured to execute at least one algorithm to control the mixing of the mineral composition to the water supplied to the first container further based upon the sensor data associated with the TDS meter and the water level sensor from the second container ; a transfer conduit , configured to transfer the treated water from the first container to the second container ; and an output conduit coupled to the second container to distribute the treated water from the second container to a destination.
A system comprising: a brake assembly configured to be positioned within a wheel cavity of a wheel , wherein the brake assembly defines a plurality of cooling channels ; and a distributor configured to receive a flow of cooling fluid and supply the cooling fluid to the plurality of cooling channels , wherein at least one cooling channel of the plurality of cooling channels is configured to receive a portion of the cooling fluid from the distributor and discharge the portion of the cooling fluid into the wheel cavity when the brake assembly is positioned within the wheel cavity , and wherein the brake assembly includes: a torque tube ; and a plurality of splines connected and/or attached to the torque tube , wherein the plurality of splines define the plurality of cooling channels . a brake assembly configured to be positioned within a wheel cavity of a wheel , wherein the brake assembly defines a plurality of cooling channels ; and a distributor configured to receive a flow of cooling fluid and supply the cooling fluid to the plurality of cooling channels , wherein at least one cooling channel of the plurality of cooling channels is configured to receive a portion of the cooling fluid from the distributor and discharge the portion of the cooling fluid into the wheel cavity when the brake assembly is positioned within the wheel cavity , and wherein the brake assembly includes: a torque tube ; and a plurality of splines connected and/or attached to the torque tube , wherein the plurality of splines define the plurality of cooling channels . a torque tube ; and a plurality of splines connected and/or attached to the torque tube , wherein the plurality of splines define the plurality of cooling channels .
A method for removing a positively charged substance from an aqueous liquid (I) containing said substance by contacting the liquid with a cation-exchanger under conditions permitting binding of said substance to said cation-exchanger , possibly followed by a subsequent desorption of said substance, characterized in that said cation-exchanger has been selected to be capable of (a) binding to said substance by cation-exchange in an aqueous liquid reference (II) at an ionic strength corresponding to 0.3 M NaCl and (b) permitting a break through capacity for said substance ≥ 200%, such as ≥ 300% or ≥ 500 %, of the break-through capacity of said substance for a reference cation-exchanger containing sulphopropyl groups -CH 2 CH 2 CH 2 SO 2 O - ; and in that the cation-exchanger comprises a plurality of cation-exchange ligands which are firmly attached to a support matrix and have the structure: - A(HB)(X) where (a) X is selected among sulphonate (-SO 3 - /-SO 3 H), sulphate (̵-OSO 3 - /-OSO 3 H)̵, carboxylate (̵-COO - /-COOH)̵, phosphate (̵-OPO 3 2- /-OPO 3 H - /-OPO 3 H 2 and phosphonate (̵-PO 3 2- /-PO 3 - H/-PO 3 H 2 )̵. (b) A represents an organic group comprising an organic chain (̵A')̵ stretching from X to the support matrix, with the provision that if there is a cation-exchange group (̵X')̵ in A the distance between X' and the support matrix is always shorter or equal to the length of A', wherein A' provides only one or two sp 3 -hybridised carbon between HB and X; HB is a group containing at least one carbon atom plus a hydrogen-bonding atom which is located at a distance of 1-7 atoms from the cation-exchange group (X), wherein HB comprises either a homoaromatic ring and a group selected among ether oxygen (̵-O-)̵, thioether sulphur (̵-S-)̵, amide (-COHN-, -N(OCR)-, -CONH 2 , -SO 2 NH-, -N(SO 2 R)-, - SO 2 NH 2 )̵, hydroxy, halo, or a heteroaromatic ring with an oxygen, nitrogen or sulphur heteroatom. (a) binding to said substance by cation-exchange in an aqueous liquid reference (II) at an ionic strength corresponding to 0.3 M NaCl and (b) permitting a break through capacity for said substance ≥ 200%, such as ≥ 300% or ≥ 500 %, of the break-through capacity of said substance for a reference cation-exchanger containing sulphopropyl groups -CH 2 CH 2 CH 2 SO 2 O - ; (a) X is selected among sulphonate (-SO 3 - /-SO 3 H), sulphate (̵-OSO 3 - /-OSO 3 H)̵, carboxylate (̵-COO - /-COOH)̵, phosphate (̵-OPO 3 2- /-OPO 3 H - /-OPO 3 H 2 and phosphonate (̵-PO 3 2- /-PO 3 - H/-PO 3 H 2 )̵. (b) A represents an organic group comprising an organic chain (̵A')̵ stretching from X to the support matrix, with the provision that if there is a cation-exchange group (̵X')̵ in A the distance between X' and the support matrix is always shorter or equal to the length of A', wherein A' provides only one or two sp 3 -hybridised carbon between HB and X;