mhurhangee/patent-ind-claim-en huggingface dataset:
A system for extracting salt from metal recycling byproducts, comprising: a reaction vessel for receiving dross comprising aluminum oxides and salt, wherein the reaction vessel contains an oxygen inlet for establishing an oxidizing environment; a heat source coupled to the reaction vessel for heating the dross to a temperature at or above 1200°C to evaporate the salt as salt vapor; a gas outlet coupled to the reaction vessel for conveying gas and salt vapor from the reaction vessel ; and a salt collector coupled to the gas outlet for collecting and condensing the salt vapor, characterized in that the salt collector is coupled to a salt source to replenish the salt source through the extraction of salt from the dross within the reaction vessel , and wherein the salt source provides salt to the reaction vessel . a reaction vessel for receiving dross comprising aluminum oxides and salt, wherein the reaction vessel contains an oxygen inlet for establishing an oxidizing environment; a heat source coupled to the reaction vessel for heating the dross to a temperature at or above 1200°C to evaporate the salt as salt vapor; a gas outlet coupled to the reaction vessel for conveying gas and salt vapor from the reaction vessel ; and a salt collector coupled to the gas outlet for collecting and condensing the salt vapor, characterized in that the salt collector is coupled to a salt source to replenish the salt source through the extraction of salt from the dross within the reaction vessel , and wherein the salt source provides salt to the reaction vessel .
A composition comprising pentameric type A procyanidin at concentration ranging from about 55 % w/w to about 99% w/w, trimeric procyanidin and tetrameric procyanidin are each at concentration ranging from about 0.5 % w/w to about 35 % w/w, for use in a method of managing broncho-constrictive condition.
A child seat configured to be secured to a vehicle seat in both a rear-facing and front facing orientation with a seat belt of the vehicle defining a lap section and a shoulder section , the child seat comprising: a seat base defining a seat portion and a backrest portion , wherein the seat base is configured to receive a portion of the lap section and a portion of the shoulder section of the belt in an untensioned state to secure the child seat to the vehicle seat in an untensioned configuration; and a tensioning mechanism attached to the seat base , wherein the tensioning mechanism is movable between a first position substantially adjacent to the seat base and a second position displaced therefrom, wherein placing the tensioning mechanism in the second position allows the tensioning mechanism to engage with the portion of the lap section and the portion of the shoulder section of the belt , and movement of the tensioning mechanism from the second position to the first position applies tension to both the shoulder section and the lap section of the belt engaged with the tensioning mechanism to secure the child seat to the vehicle seat in a tensioned configuration. a seat base defining a seat portion and a backrest portion , wherein the seat base is configured to receive a portion of the lap section and a portion of the shoulder section of the belt in an untensioned state to secure the child seat to the vehicle seat in an untensioned configuration; and a tensioning mechanism attached to the seat base , wherein the tensioning mechanism is movable between a first position substantially adjacent to the seat base and a second position displaced therefrom, wherein placing the tensioning mechanism in the second position allows the tensioning mechanism to engage with the portion of the lap section and the portion of the shoulder section of the belt , and movement of the tensioning mechanism from the second position to the first position applies tension to both the shoulder section and the lap section of the belt engaged with the tensioning mechanism to secure the child seat to the vehicle seat in a tensioned configuration.
Process for preparing a dry powder inhalation formulation containing tiotropium bromide and a lactose carrier, comprising the steps: a) splitting the lactose carrier into a first, a second and a third portion, b) mixing the first and the second portion of the lactose carrier and the drug by i) placing the first portion of the lactose carrier in a mixer to obtain a first layer, ii) placing the entire drug on top of the first lactose layer to obtain a second layer, iii) placing the second portion of the lactose carrier on top of the second layer to obtain a third layer, iv) blending the three-layered composition obtained in step (iii) to obtain a preblend, v) optionally sifting the preblend, c) mixing the preblend obtained in step (b) and the third portion of the lactose carrier to obtain the dry powder inhalation formulation, and d) optionally sifting the dry powder inhalation formulation. a) splitting the lactose carrier into a first, a second and a third portion, b) mixing the first and the second portion of the lactose carrier and the drug by i) placing the first portion of the lactose carrier in a mixer to obtain a first layer, ii) placing the entire drug on top of the first lactose layer to obtain a second layer, iii) placing the second portion of the lactose carrier on top of the second layer to obtain a third layer, iv) blending the three-layered composition obtained in step (iii) to obtain a preblend, v) optionally sifting the preblend, i) placing the first portion of the lactose carrier in a mixer to obtain a first layer, ii) placing the entire drug on top of the first lactose layer to obtain a second layer, iii) placing the second portion of the lactose carrier on top of the second layer to obtain a third layer, iv) blending the three-layered composition obtained in step (iii) to obtain a preblend, v) optionally sifting the preblend, c) mixing the preblend obtained in step (b) and the third portion of the lactose carrier to obtain the dry powder inhalation formulation, and d) optionally sifting the dry powder inhalation formulation.
An exhaust device comprising a diffuser for lowering the temperature of exhaust gas of a combustion engine of a truck, wherein the diffuser comprises a cylindrical housing having a cylinder wall, first and second end wall , with an inlet opening in the first end wall , and an elongated, axially extending outlet opening in the cylinder wall extending in axial direction of the housing , which outlet opening is larger than the inlet opening, wherein the diffuser further comprises an inlet tube extending parallel to the cylinder wall within the housing , which inlet tube has one end connected to the inlet opening and characterized in that the inlet tube comprises a tube wall perforated with holes, and in that a bent guide plate is adjacent to a longitudinal side of the outlet opening of the cylindrical housing and in that the bent guide plate is perpendicular to the axial direction of the housing and in that the bent guide plate has a bent wall that partly deflects an outlet flow from the outlet opening .
A strain body, comprising: a central portion ; an outer peripheral portion surrounding the central portion; connecting portions connecting the central portion and the outer peripheral portion , and each comprising a first connecting portion adjacent to the outer peripheral portion and a second connecting portion adjacent to the central portion; strain sensors (S1-S32) provided on main surfaces of the connecting portions ; reference resistors (RS4-RS30) provided on a main surface of the central portion , and constructing a bridge circuit with the strain sensors (S1-S32); and a strain increasing portion (GR) configured to increase strain occurring at the first connecting portion more than strain occurring at the second connecting portion , on a back surface side opposed to the main surface of the first connecting portion , characterized by two of the strain sensors (S3, S5, S11, S13, S19, S21, S27, and S29) are provided on the main surface of the first connecting portion , wherein the bridge circuit (BF2, BF4, BF6, BF8) is constructed through the two of the strain sensors (S3, S5, S11, S13, S19, S21, S27, and S29) and two of the reference resistors (RS4-RS30), and further comprises a full bridge circuit (BF1, BF3, BF5, BF7) which is provided on the main surface of the second connecting portion , in which a pair of serially connected strain sensors (S1, S2, S7, S8, S9, S10, S15, S16, S17, S18, S23, S24, S25, S26, S31, and S32) are connected in parallel. a central portion ; an outer peripheral portion surrounding the central portion; connecting portions connecting the central portion and the outer peripheral portion , and each comprising a first connecting portion adjacent to the outer peripheral portion and a second connecting portion adjacent to the central portion; strain sensors (S1-S32) provided on main surfaces of the connecting portions ; reference resistors (RS4-RS30) provided on a main surface of the central portion , and constructing a bridge circuit with the strain sensors (S1-S32); and a strain increasing portion (GR) configured to increase strain occurring at the first connecting portion more than strain occurring at the second connecting portion , on a back surface side opposed to the main surface of the first connecting portion , characterized by two of the strain sensors (S3, S5, S11, S13, S19, S21, S27, and S29) are provided on the main surface of the first connecting portion , wherein the bridge circuit (BF2, BF4, BF6, BF8) is constructed through the two of the strain sensors (S3, S5, S11, S13, S19, S21, S27, and S29) and two of the reference resistors (RS4-RS30), and further comprises a full bridge circuit (BF1, BF3, BF5, BF7) which is provided on the main surface of the second connecting portion , in which a pair of serially connected strain sensors (S1, S2, S7, S8, S9, S10, S15, S16, S17, S18, S23, S24, S25, S26, S31, and S32) are connected in parallel.
A method of isolating cells comprising: providing a microfluidic device having at least one microfluidic channel coupled to an inlet and an outlet, the at least one microfluidic channel comprising at least one expansion region disposed along the length thereof, the at least one expansion region comprising an abrupt increase in a cross-sectional dimension of the at least one microfluidic channel configured to generate a vortex within the at least one expansion region in response to fluid flow; pumping a solution comprising one of blood, urine, pleural fluid, and a peritoneal wash containing a population of cells into the inlet with a pump or pressure driven pumping system; trapping at least some of the cells within the vortex created within the at least one expansion region, the at least some of the cells having diameters ≥ 10 μm; and controlling the pump or pressure driven pumping system to reduce the flow rate of solution through the at least one microfluidic channel and release the trapped cells from the plurality of expansion regions. providing a microfluidic device having at least one microfluidic channel coupled to an inlet and an outlet, the at least one microfluidic channel comprising at least one expansion region disposed along the length thereof, the at least one expansion region comprising an abrupt increase in a cross-sectional dimension of the at least one microfluidic channel configured to generate a vortex within the at least one expansion region in response to fluid flow; pumping a solution comprising one of blood, urine, pleural fluid, and a peritoneal wash containing a population of cells into the inlet with a pump or pressure driven pumping system; trapping at least some of the cells within the vortex created within the at least one expansion region, the at least some of the cells having diameters ≥ 10 μm; and controlling the pump or pressure driven pumping system to reduce the flow rate of solution through the at least one microfluidic channel and release the trapped cells from the plurality of expansion regions.
An active compound combination comprising (A) at least N-(5-chloro-2-isopropylbenzyl)-N-cyclopropyl-3-(difluoromethyl)-5-fluoro-1-methyl-1H-pyrazole-4-carboxamide or an agrochemically acceptable salt thereof, and (B) at least one further active fungicidal compound B consisting of 2-[4-(4-chlorophenoxy)-2-(trifluoromethyl)phenyl]-3-methyl-1-(1H-1,2,4-triazol-1-yl)butan-2-ol. (A) at least N-(5-chloro-2-isopropylbenzyl)-N-cyclopropyl-3-(difluoromethyl)-5-fluoro-1-methyl-1H-pyrazole-4-carboxamide or an agrochemically acceptable salt thereof, and (B) at least one further active fungicidal compound B consisting of 2-[4-(4-chlorophenoxy)-2-(trifluoromethyl)phenyl]-3-methyl-1-(1H-1,2,4-triazol-1-yl)butan-2-ol.
A method of processing an image to generate a protected printed substrate, comprising: obtaining halftone image data representing a halftone image to be printed on a substrate, the image data including substrate pixel locations within the halftone image to remain free from ink drops; determining, from the image data, substrate pixel locations within the halftone image where ink is to be deposited and substrate pixel locations within the halftone image where no ink is to be deposited; and modifying the image data to define varnish to be deposited at only some of those substrate pixel locations within the halftone image where no ink is to be deposited and which are not defined as substrate pixel locations to remain free from either varnish or ink drops to form modified image data; and depositing ink drops and varnish on the substrate according to the modified image data. obtaining halftone image data representing a halftone image to be printed on a substrate, the image data including substrate pixel locations within the halftone image to remain free from ink drops; determining, from the image data, substrate pixel locations within the halftone image where ink is to be deposited and substrate pixel locations within the halftone image where no ink is to be deposited; and modifying the image data to define varnish to be deposited at only some of those substrate pixel locations within the halftone image where no ink is to be deposited and which are not defined as substrate pixel locations to remain free from either varnish or ink drops to form modified image data; and depositing ink drops and varnish on the substrate according to the modified image data.
Method of manufacturing an insulation layer on silicon carbide (SiC), comprising the steps of - preparing a surface of the silicon carbide (SiC), - forming a first part of the insulation layer on the surface at a temperature lower than 400° Celsius, the first part being silicon oxide - forming a second part of the insulation layer by depositing a dielectric film on the first part illuminating the surface with a light at a wavelength below and/or equal to 450nm during the formation of the first part of the insulation layer using a light source (LS), wherein the light source (LS) contains at least a lamp (La) and/or a laser (LX) and/or a light emitting diode and/or a plasma, wherein the silicon oxide as the first part of the insulation layer is formed by exposing the surface to ozone (O 3 ), the ozone is generated at least partly from oxygen (O 2 ) by the light which illuminates the surface of the silicon carbide (SiC), and nitrogen oxides are provided together with the oxygen gaseous. - preparing a surface of the silicon carbide (SiC), - forming a first part of the insulation layer on the surface at a temperature lower than 400° Celsius, the first part being silicon oxide - forming a second part of the insulation layer by depositing a dielectric film on the first part illuminating the surface with a light at a wavelength below and/or equal to 450nm during the formation of the first part of the insulation layer using a light source (LS), wherein the light source (LS) contains at least a lamp (La) and/or a laser (LX) and/or a light emitting diode and/or a plasma, wherein the silicon oxide as the first part of the insulation layer is formed by exposing the surface to ozone (O 3 ), the ozone is generated at least partly from oxygen (O 2 ) by the light which illuminates the surface of the silicon carbide (SiC), and nitrogen oxides are provided together with the oxygen gaseous.
An expansion wedge unit comprising a housing , an expansion wedge and a guide unit , wherein the guide unit and the expansion wedge can be arranged in a first housing region of the housing , wherein the guide unit rests with a first guide portion on a wall of the first housing region such that it is secured against displacement and pivoting relative to the housing transversely to an actuation axis (B), wherein the expansion wedge is guided in a second guide portion of the guide unit , wherein a reset region is provided between the first guide portion and the second guide portion and allows a sprung relative movement between the first guide portion and the second guide portion , wherein the reset region comprises a rubber element , wherein the rubber element is configured as a hollow cylinder, characterized in that the first guide portion is the outer casing surface of the rubber element and wherein the second guide portion is the inner casing surface of the rubber element .
Radically curable synthetic resin mixture, characterized in that it contains a plurality of different radically curable reactive diluents in addition to a radically curable reactive resin, four or more being present as a plurality of reactive diluents.
A dimeric multispecific antigen-binding molecule specifically binding to CD16A and a target cell antigen (TA) different from CD16A, consisting of two polypeptide chains, wherein each polypeptide chain comprises: (i) a heavy chain variable domain specific for CD16A (VH_CD16A) comprising a heavy chain CDR1 having the amino acid sequence set forth in SEQ ID NO:1; a heavy chain CDR2 having the amino acid sequence set forth in SEQ ID NO:2 or 7; a heavy chain CDR3 having the amino acid sequence set forth in SEQ ID NO:3, (ii) a light chain variable domain specific for CD16A (VL_CD16A) comprising a light chain CDR1 having an amino acid sequence set forth in SEQ ID NO:4; a light chain CDR2 having an amino acid sequence set forth in SEQ ID NO:5; and a light chain CDR3 having an amino acid sequence set forth in SEQ ID NO:6, (iii) a heavy chain variable domain specific for the target cell antigen (VH_TA), and (iv) a light chain variable domain specific for the target cell antigen (VL_TA); and wherein these variable domains are linked one after another by peptide linkers L1, L2 and L3, consisting of 12 or less amino acid residues, and are positioned within each of the two polypeptide chains from the N-terminus to the C-terminus in the order: VH-TA-L1-VL_CD16A-L2-VH_CD16A-L3-VL_TA. (i) a heavy chain variable domain specific for CD16A (VH_CD16A) comprising a heavy chain CDR1 having the amino acid sequence set forth in SEQ ID NO:1; a heavy chain CDR2 having the amino acid sequence set forth in SEQ ID NO:2 or 7; a heavy chain CDR3 having the amino acid sequence set forth in SEQ ID NO:3, (ii) a light chain variable domain specific for CD16A (VL_CD16A) comprising a light chain CDR1 having an amino acid sequence set forth in SEQ ID NO:4; a light chain CDR2 having an amino acid sequence set forth in SEQ ID NO:5; and a light chain CDR3 having an amino acid sequence set forth in SEQ ID NO:6, (iii) a heavy chain variable domain specific for the target cell antigen (VH_TA), and (iv) a light chain variable domain specific for the target cell antigen (VL_TA); and
A method comprising: establishing a model to predict signal conditions for a mobile computing device having one or more antennas , said model including at least an expected transmission power level for the one or more antennas of the mobile computing device ; predicting signal conditions using the model; detecting a specific absorption rate, SAR, trigger at the mobile computing device indicative of potential for non-compliance with SAR legal limits; in response to said model indicating an expected reduction in radio frequency, RF, transmission power for the mobile device based on historic usage data for the mobile device , delaying or canceling an adjustment of RF transmission power of the mobile device based on SAR concerns; and in response to said model not indicating an expected reduction in RF transmission power for the mobile device based on historic usage data for the mobile device , reducing RF transmission power of the mobile device . establishing a model to predict signal conditions for a mobile computing device having one or more antennas , said model including at least an expected transmission power level for the one or more antennas of the mobile computing device ; predicting signal conditions using the model; detecting a specific absorption rate, SAR, trigger at the mobile computing device indicative of potential for non-compliance with SAR legal limits; in response to said model indicating an expected reduction in radio frequency, RF, transmission power for the mobile device based on historic usage data for the mobile device , delaying or canceling an adjustment of RF transmission power of the mobile device based on SAR concerns; and in response to said model not indicating an expected reduction in RF transmission power for the mobile device based on historic usage data for the mobile device , reducing RF transmission power of the mobile device .
An electronic device including an optical sensor , the optical sensor comprising: a lighting device configured to emit light; a sensor layer including a sensor array configured to detect first image information corresponding to an object (U) from light reflected by the object; and a filter layer including openings configured to transmit the light reflected by the object, the filter layer disposed on the sensor layer, wherein the first image information is filtered by the openings formed to a coded pattern , wherein a sensor (S1,S2,S3,S8) of the sensor array is configured to detect superposition of the first image information about a plurality of areas of the object; wherein the first image information includes information regarding a gradual or partial brightness variation, characterised in that the filter layer is formed of a thin film. a lighting device configured to emit light; a sensor layer including a sensor array configured to detect first image information corresponding to an object (U) from light reflected by the object; and a filter layer including openings configured to transmit the light reflected by the object, the filter layer disposed on the sensor layer, wherein the first image information is filtered by the openings formed to a coded pattern , wherein a sensor (S1,S2,S3,S8) of the sensor array is configured to detect superposition of the first image information about a plurality of areas of the object; wherein the first image information includes information regarding a gradual or partial brightness variation,