mhurhangee/patent-ind-claim-en huggingface dataset:
Filter device for the filtration of gases contaminated with particles, such as welding gases, which arise in particular in manufacturing processes using 3D printers in a production area , having a filter circuit having at least one gas filter , which filters the particles from the gas, at least some of said particles passing from this gas filter into an assignable receptacle , wherein the particles pass into the receptacle as part of a backwashing process, wherein at least one further filter circuit, having at least one oil filter (NF1, NF2), is provided, said oil filter filtering an oil that comprises the particles obtained from the backwashing process, and wherein the oil contaminated with the particles from the gas filter can be passed to the unfiltered medium side of the oil filter (NF1, NF2), characterised in that cleaned oil from the filtrate side of the oil filter (NF1, NF2) can be passed into the gas filter .
A crystalline form of dolutegravir sodium of formula (I) characterized by a powder X-ray diffractogram comprising peaks at 2-Theta angles of 7.9 ± 0.2°, 9.4 ± 0.2°, 12.5 ± 0.2°, 15.9 ± 0.2° and 20.8 ± 0.2°, when measured with Cu-Kα 1,2 radiation having a wavelength of 0.15419 nm at room temperature,wherein the crystalline form of dolutegravir sodium of formula (I) comprises 0.2 to 0.7 mol of water per mol dolutegravir sodium of formula (I) when measured at a relative humidity from 30 to 70% and a temperature of 25 ± 0.1 °C.
Aircraft having stiffeners , at least one electrical harness , supports supporting the electrical harness and cooperating with the stiffeners , the stiffeners each having opposite first and second faces (52.1, 52.2) and comprising a core (54.1), a flange (54.2) having a free edge and a joining zone (54.3) connecting the core (54.1) and the flange (54.2), each support comprising first and second jaws , at least one clamping element clamping at least a part of the stiffener between the first and second jaws , the first jaw having a first contact surface bearing against the first face (52.1) of the stiffener and a first bearing surface bearing against the second jaw , the second jaw having a second contact surface bearing against the second face (52.2) of the stiffener and a second bearing surface bearing against the first bearing surface of the first jaw , the second jaw comprising a groove , separating the second contact and bearing surfaces from the second jaw , housing the free edge of the flange (54.2) of the stiffener , characterized in that the groove has a width (L76) substantially equal to a thickness (E) of the free edge of the flange (54.2) of the stiffener , in that the second contact surface of the second jaw comprises first and second facets (72.1, 72.2) bearing respectively against the core (54.1) and the flange (54.2) of the stiffener and an intermediate zone (72.3) shaped like the joining zone (54.3) of the stiffener and in that the first contact surface of the first jaw comprises a first facet (68.1) bearing against the core (54.1) of the stiffener and a curved portion (68.2) shaped like at least a part of the joining zone (54.3) of the stiffener .
A method for the selective crystallization of 2'-O-f ucosyllactose (2'-FL) from an aqueous solution comprising 2'-FL, optionally lactose, and one or more other fucosylated carbohydrates, wherein one of the one or more fucosylated carbohydrates is 2',3-di-O-fucosyllactose (DFL), the method comprising the step of adding acetic acid to the aqueous solution to crystallize 2'-FL in the form of polymorph II with a DFL content of less than 3 % and an acetic acid content of less than 3%, wherein the aqueous solution is produced by a process comprising the steps of: i) culturing, in an aqueous culture medium containing lactose, a genetically modified cell containing a recombinant gene that encodes a 1,2-fucosyl transferase and is able to produce 2'-FL by fucosylating lactose, to produce a fermentation broth containing 2'-FL and the one or more other fucosylated carbohydrates; and ii) separating non-carbohydrate particulates and contaminants from the fermentation broth. the method comprising the step of adding acetic acid to the aqueous solution to crystallize 2'-FL in the form of polymorph II with a DFL content of less than 3 % and an acetic acid content of less than 3%, wherein the aqueous solution is produced by a process comprising the steps of: i) culturing, in an aqueous culture medium containing lactose, a genetically modified cell containing a recombinant gene that encodes a 1,2-fucosyl transferase and is able to produce 2'-FL by fucosylating lactose, to produce a fermentation broth containing 2'-FL and the one or more other fucosylated carbohydrates; and ii) separating non-carbohydrate particulates and contaminants from the fermentation broth. i) culturing, in an aqueous culture medium containing lactose, a genetically modified cell containing a recombinant gene that encodes a 1,2-fucosyl transferase and is able to produce 2'-FL by fucosylating lactose, to produce a fermentation broth containing 2'-FL and the one or more other fucosylated carbohydrates; and ii) separating non-carbohydrate particulates and contaminants from the fermentation broth.
A method for producing a polyphenylsulfone hollow fiber membrane for humidifying membranes, the method comprising subjecting a hollow fiber membrane to washing in pressurized water at 121°C for 1-5 hours followed by a crosslinking treatment of heating at 160 to 180°C for 5 to 12 hours, wherein the hollow fiber membrane is obtained by a wet spinning method or a dry-wet spinning method using a spinning dope comprising polyphenylsulfone, hydrophilic polyvinylpyrrolidone, and a water-soluble organic solvent solution.
A method for creating a processing file for creating a printing plate: a) providing an image file in vector format comprising one or more image areas and one or more non-image areas ; b) receiving via a user Interface , an identification of a boundary in vector coordinates defining each image area , each image area with its identified boundary corresponding to an image patch; c) raster image processing the image file into a pixel-based format to create RIPped image information; d) associating the RIPped image information with the vector coordinates corresponding to the image patches; e) using the RIPped image information and associated vector coordinates corresponding to the image patches as an input, processing the RIPped image information to automatically create one or more RIPped image patches; f) attaching one or more register marks to each RIPped image patch; and g) saving the one or more RIPped image patches with register marks and the corresponding vector coordinates for each image patch in a processing file for creating a printing plate. a) providing an image file in vector format comprising one or more image areas and one or more non-image areas ; b) receiving via a user Interface , an identification of a boundary in vector coordinates defining each image area , each image area with its identified boundary corresponding to an image patch; c) raster image processing the image file into a pixel-based format to create RIPped image information; d) associating the RIPped image information with the vector coordinates corresponding to the image patches; e) using the RIPped image information and associated vector coordinates corresponding to the image patches as an input, processing the RIPped image information to automatically create one or more RIPped image patches; f) attaching one or more register marks to each RIPped image patch; and g) saving the one or more RIPped image patches with register marks and the corresponding vector coordinates for each image patch in a processing file for creating a printing plate.
Cable crane system comprising: - at least one trolley , - at least one suspension cable on which the at least one trolley is movably arranged or can be arranged, - at least one traction cable designed as a circulating cable , which is arranged on the at least one trolley , and - at least one cable winch device for moving the at least one trolley , by means of which the at least one traction cable can be wound up and unwound, wherein the at least one cable winch device comprises at least one electric motor for operating the at least one cable winch device , and wherein the at least one electric motor can be operated as a generator, wherein the at least one electric motor operated as a generator can be driven by a traveling movement of the at least one trolley , wherein the at least one trolley comprises at least two rollers , via which the at least one trolley can be movably arranged on a suspension cable , at least one lifting winch and a drive unit for driving the at least one lifting winch , and a further energy storage device for supplying the drive unit , wherein the further energy storage device can be charged by means of a generator traveling with the at least one trolley . - at least one trolley , - at least one suspension cable on which the at least one trolley is movably arranged or can be arranged, - at least one traction cable designed as a circulating cable , which is arranged on the at least one trolley , and - at least one cable winch device for moving the at least one trolley , by means of which the at least one traction cable can be wound up and unwound, wherein the at least one cable winch device comprises at least one electric motor for operating the at least one cable winch device , and wherein the at least one electric motor can be operated as a generator, wherein the at least one electric motor operated as a generator can be driven by a traveling movement of the at least one trolley , wherein the at least one trolley comprises at least two rollers , via which the at least one trolley can be movably arranged on a suspension cable , at least one lifting winch and a drive unit for driving the at least one lifting winch , and a further energy storage device for supplying the drive unit , wherein the further energy storage device can be charged by means of a generator traveling with the at least one trolley .
A nanofiber nonwoven product comprising polyamide nanofibers, wherein the polyamide of the nanofibers comprises N6, N66, N6T/66, N612, N6/66, N6I/66, N66/6I/6T, N11, and/or N12, wherein "N" means Nylon, wherein the product has a relative viscosity from 4 to 330 determined as described in the description using viscosity measurements according to ASTM D 789, and a TDI, thermal degradation index, from 20 to 3,500 ppm, determined as described in the description using gel permeation chromatography (GPC) with a fluorescence detector, and wherein the nanofibers have an average diameter from 100 to 950 nanometers.
A composition comprising A) 40-95 wt.-% of at least one polymer selected from the group consisting of aromatic polycarbonate and aromatic polyestercarbonate, B) 1-15 wt.-% of at least one impact-resistant modifier with core-shell structure, C) 1-15 wt.-% of at least one functional acrylic polymer containing three moieties E/X/Y, wherein E is ethylene, X is an α,β-ethylenically unsaturated monomer derived from at least one of the substances selected from the group consisting of alkyl acrylate, alkyl methacrylate and alkyl vinyl ether, and Y is an a,p-ethylenically unsaturated monomer containing a reactive group, D) 1-20 wt.-% of at least one phosphorous based flame retardant or organic halogenated compounds; E) 0.1-15 wt.-% kaolin with an average particle size of 0.1-100 μm measured by the Malvern laser diffraction method, wherein the total amount of compound B and compound C is 2-25wt.%. A) 40-95 wt.-% of at least one polymer selected from the group consisting of aromatic polycarbonate and aromatic polyestercarbonate, B) 1-15 wt.-% of at least one impact-resistant modifier with core-shell structure, C) 1-15 wt.-% of at least one functional acrylic polymer containing three moieties E/X/Y, wherein E is ethylene, X is an α,β-ethylenically unsaturated monomer derived from at least one of the substances selected from the group consisting of alkyl acrylate, alkyl methacrylate and alkyl vinyl ether, and Y is an a,p-ethylenically unsaturated monomer containing a reactive group, D) 1-20 wt.-% of at least one phosphorous based flame retardant or organic halogenated compounds; E) 0.1-15 wt.-% kaolin with an average particle size of 0.1-100 μm measured by the Malvern laser diffraction method,
Germicidal UV amalgam lamp with an elongated tubular lamp body and at least two filaments located on opposite ends of the lamp body , wherein the lamp body is hermetically sealed with a pinch-sealed portion at both opposite ends and confines a gas volume , in which a gas discharge can be produced along a discharge path between the filaments , and with two electrical connectors for each filament , the connectors having an internal portion being connected to one the filaments and being pinch-sealed into the lamp body , and with an external portion which is located outside the lamp body for electrical connection of the lamp to a controlled power supply, the pinch-sealed portion bearing a socket , wherein an electrical temperature sensor with at least two electrical connections is mounted to the socket , characterized in that the two electrical connectors of the temperature sensor are connected in parallel to the electrical connectors of the filament .
A light source of visible light for display and/or illumination, the light source comprising a heterostructure including semiconductor layers, the heterostructure forming a waveguide between a first end and a second end, the heterostructure comprising a plurality of layers and comprising an optically active zone formed by the plurality of layers, the optically active zone capable of emitting light guided by said waveguide, at least two different radiative transitions being excitable in the optically active zone by an electrical current between a p-side electrode and an n-side electrode, transition energies of said at least two different radiative transitions corresponding to wavelengths in the visible part of the optical spectrum, the light source further comprising means for preventing reflections of light from the waveguide by at least one of said first and second end back into the waveguide, thereby causing the light source to comprise a superluminescent light emitting diode, wherein the optically active zone includes one optically active region with multiple radiative transitions, whereby at least two different radiative transitions include transitions between at least three different energy levels in a single material of said optically active region.
An agent that inhibits the expression level and/or activity of at least one USP10 biomarker for use in treating a subject afflicted with FLT3 activating-mutation positive acute myeloblastic leukemia (AML), optionally wherein the at least one USP10 biomarker is selected from the group of USP10 biomarkers listed in Table 1, wherein the agent directly binds the at least one biomarker, optionally wherein the at least one USP10 biomarker is selected from the group of USP10 biomarkers listed in Table 1, preferably wherein the at least one USP10 biomarker is human USP10, preferably further comprising the use of at least one additional anti-cancer agent, optionally wherein the at least one additional anti-cancer agent inhibits the expression level and/or activity of at least one biomarker listed in Table 2. wherein the agent directly binds the at least one biomarker, optionally wherein the at least one USP10 biomarker is selected from the group of USP10 biomarkers listed in Table 1, preferably wherein the at least one USP10 biomarker is human USP10, preferably further comprising the use of at least one additional anti-cancer agent, optionally wherein the at least one additional anti-cancer agent inhibits the expression level and/or activity of at least one biomarker listed in Table 2.
A network device for processing at least one data packet including a data frame configured for time-sensitive transmission over a communication network , the data frame comprising a header portion including a destination address field in which a destination address is stored and a source address field in which a source address is stored, the network device comprising: - a packet processor for - generating an altered version of a data packet by replacing the source address field with a cut-through switching field of the same size, the cut-through switching field including at least a header check sequence sub-field , - calculating a checksum value of the header portion, by excluding from the calculation, the header check sequence sub-field, - storing the checksum value in the header check sequence sub-field, and - forwarding the altered version of the data packet to the communication network. - a packet processor for - generating an altered version of a data packet by replacing the source address field with a cut-through switching field of the same size, the cut-through switching field including at least a header check sequence sub-field , - calculating a checksum value of the header portion, by excluding from the calculation, the header check sequence sub-field, - storing the checksum value in the header check sequence sub-field, and - forwarding the altered version of the data packet to the communication network.
A filter group of air in supply to an internal combustion engine of motor vehicles, comprising an external casing provided with an inlet conduit for air to be filtered, an outlet conduit of filtered air and at least an opening , and, a filter cartridge comprising a support body and a filter wall fixed to the support body , wherein the support body comprises a chamber delimited by a base and by an upper wall , opposite the base , the base being provided with at least a perforated shank to which the filter wall is fixed, a passage opening of the filtered air being defined between the base and the upper wall , and wherein the filter cartridge is axially inserted internally of the casing through the opening , so that the opening is occluded by the support body of the filter cartridge and the passage opening is in fluid communication with the air outlet conduit.
A method for abandonment of a subsea well comprising a wellhead, comprising: deploying a lower cementing tool through the open sea to the subsea wellhead; setting a packer of the lower cementing tool against a bore of an inner casing hung from a subsea wellhead; after lowering the lower cementing tool through the open sea to the subsea wellhead, fastening a pressure control assembly (PCA) to the subsea wellhead; hanging an upper cementing tool from the PCA and stabbing the upper cementing tool into a polished bore receptacle of the lower cementing tool; perforating a wall of the inner casing below the packer; perforating the inner casing wall above the packer by operating a perforator of the upper cementing tool; mixing a resin and a hardener to form a sealant; and pumping a fluid train through bores of the cementing tools and into an inner annulus formed between the inner casing and an outer casing hung from the subsea wellhead, wherein the fluid train comprises the sealant followed by a cement slurry. deploying a lower cementing tool through the open sea to the subsea wellhead; setting a packer of the lower cementing tool against a bore of an inner casing hung from a subsea wellhead; after lowering the lower cementing tool through the open sea to the subsea wellhead, fastening a pressure control assembly (PCA) to the subsea wellhead; hanging an upper cementing tool from the PCA and stabbing the upper cementing tool into a polished bore receptacle of the lower cementing tool; perforating a wall of the inner casing below the packer; perforating the inner casing wall above the packer by operating a perforator of the upper cementing tool; mixing a resin and a hardener to form a sealant; and pumping a fluid train through bores of the cementing tools and into an inner annulus formed between the inner casing and an outer casing hung from the subsea wellhead, wherein the fluid train comprises the sealant followed by a cement slurry.
A method of controlling flatness of a metal substrate, the method comprising: directing the substrate to a work stand of a finishing line and between a pair of vertically aligned work rolls (104A-B) of the work stand ; applying, by a first work roll of the pair of vertically aligned work rolls (104A-B), a plurality of localized pressures to the substrate across a width of the substrate, wherein each of the plurality of localized pressures is applied by a corresponding flatness control zone of the first work roll , and wherein the localized pressure applied by each flatness control zone is controlled by a corresponding actuator (116A-B); measuring an actual flatness profile of the substrate with a flatness measuring device ; comparing, by a controller , the actual flatness profile with a desired flatness profile; and adjusting, by the controller , the actuators (116A-B) such that the plurality of localized pressures modify the actual flatness profile of the substrate to achieve the desired flatness profile while an overall thickness and a length of the substrate remain substantially constant as the substrate enters and exits the work stand so that the overall thickness of the substrate is reduced from 0.0% to 1.0%, and so that the work roll pressures applied to the metal substrate by the work rolls (104A-B) cause the length of the metal substrate to increase between 0.0% and 1.0%. directing the substrate to a work stand of a finishing line and between a pair of vertically aligned work rolls (104A-B) of the work stand ; applying, by a first work roll of the pair of vertically aligned work rolls (104A-B), a plurality of localized pressures to the substrate across a width of the substrate, wherein each of the plurality of localized pressures is applied by a corresponding flatness control zone of the first work roll , and wherein the localized pressure applied by each flatness control zone is controlled by a corresponding actuator (116A-B); measuring an actual flatness profile of the substrate with a flatness measuring device ; comparing, by a controller , the actual flatness profile with a desired flatness profile; and adjusting, by the controller , the actuators (116A-B) such that the plurality of localized pressures modify the actual flatness profile of the substrate to achieve the desired flatness profile while an overall thickness and a length of the substrate remain substantially constant as the substrate enters and exits the work stand so that the overall thickness of the substrate is reduced from 0.0% to 1.0%, and so that the work roll pressures applied to the metal substrate by the work rolls (104A-B) cause the length of the metal substrate to increase between 0.0% and 1.0%.
Adapter structure for transferring an electromagnetic signal between an electronic component and an antenna , the adapter structure including: - an adapter body having a base surface ; - at least one ridged adapter waveguide channel ,wherein the at least one adapter waveguide channel extends from the base surface into the adapter body ; - an electromagnetic band gap structure with a plurality of band gap elements, wherein the band gap elements are spaced apart relative to each other, project from the base surface and have a front face spaced apart from the base surface ; wherein at least one band gap element is arranged as an extension of a ridge of the at least one adapter waveguide channel . - an adapter body having a base surface ; - at least one ridged adapter waveguide channel ,wherein the at least one adapter waveguide channel extends from the base surface into the adapter body ; - an electromagnetic band gap structure with a plurality of band gap elements, wherein the band gap elements are spaced apart relative to each other, project from the base surface and have a front face spaced apart from the base surface ;