mhurhangee/patent-ind-claim-en huggingface dataset:
Process for producing synthetic quartz glass, characterized by the following process steps: evaporating a feedstock containing at least one organosilicon starting compound to form a feedstock vapor; feeding the feedstock vapor to a reaction zone in which the feedstock vapor is burned in a flame in the presence of oxygen and is converted to SiO 2 soot particles by oxidation and/or by hydrolysis; depositing the SiO 2 soot particles resulting from process step on a deposition surface to form a soot body; and if necessary, drying and vitrification of the SiO 2 particles resulting from process step to form synthetic fused silica; characterized in that the conversion of the feedstock vapor to be carried out in process step is carried out at an air number in the burner of less than or equal to 1.00, whereby the process step is carried out by means of a burner having a concentric cross-section comprising a feed stream nozzle, a separation gas nozzle and a nozzle for oxygen-containing gas, wherein the feedstock vapor is introduced together with oxygen as feed-mix into the burner flame and the feed-mix is separated from the oxygen-containing oxidizing gas by the non-oxidizing separation gas. evaporating a feedstock containing at least one organosilicon starting compound to form a feedstock vapor; feeding the feedstock vapor to a reaction zone in which the feedstock vapor is burned in a flame in the presence of oxygen and is converted to SiO 2 soot particles by oxidation and/or by hydrolysis; depositing the SiO 2 soot particles resulting from process step on a deposition surface to form a soot body; and if necessary, drying and vitrification of the SiO 2 particles resulting from process step to form synthetic fused silica;
Wall made of insulating blocks stacked in superimposed rows, each insulating block including: • two parallel main faces surrounded and connected to one another by means of four perimetral faces , wherein the distance existing between the main faces is at least 7 cm; • a body of insulating material having a compressive strength of at least 100 kPa; • at least one cladding panel of rigid material selected from ceramic panel, stone panel and artificial stone panel attached to the body of insulating material , said cladding panel covering a main face of the insulating material body and forming at least one main face of the block; • said at least one cladding panel taking up less than 25% of the block volume; • the body of insulating material of the stacked insulating blocks providing load transmission and supporting vertical loads for the erection of a self-supporting wall at least 3 m high made up of said insulating blocks; • the insulating material has a density of between 100 and 200 kg/m 3 ; • each insulating block is configured to provide a vertical separation between cladding panels of superimposed insulating blocks by having the body of insulating material a height at least several millimeters greater than the height of the cladding panel attached thereto; • the cladding panel is arranged only on one of the main faces of the insulating block, covering only one main face of the body of insulating material ; • the cladding panels included in the wall made of said insulating blocks are vertically separated and the vertical load transmission through said cladding panels is prevented. • two parallel main faces surrounded and connected to one another by means of four perimetral faces , wherein the distance existing between the main faces is at least 7 cm; • a body of insulating material having a compressive strength of at least 100 kPa; • at least one cladding panel of rigid material selected from ceramic panel, stone panel and artificial stone panel attached to the body of insulating material , said cladding panel covering a main face of the insulating material body and forming at least one main face of the block; • said at least one cladding panel taking up less than 25% of the block volume; • the body of insulating material of the stacked insulating blocks providing load transmission and supporting vertical loads for the erection of a self-supporting wall at least 3 m high made up of said insulating blocks; • the insulating material has a density of between 100 and 200 kg/m 3 ; • each insulating block is configured to provide a vertical separation between cladding panels of superimposed insulating blocks by having the body of insulating material a height at least several millimeters greater than the height of the cladding panel attached thereto; • the cladding panel is arranged only on one of the main faces of the insulating block, covering only one main face of the body of insulating material ; • the cladding panels included in the wall made of said insulating blocks are vertically separated and the vertical load transmission through said cladding panels is prevented.
An extravascular system for accessing the vasculature of a patient, comprising: a catheter adapter having a distal end supporting a catheter , and further comprising a proximal opening, the catheter adapter having a lumen; an introducer needle comprising a sharpened tip and a needle feature ; a blood control septum disposed within the lumen of the catheter adapter and dividing the lumen into a proximal fluid chamber and a distal fluid chamber; a septum activator movably positioned within the proximal fluid chamber, the septum activator having a base and a probe end ; and a needle shield removably coupled to the proximal opening of the catheter adapter and comprising a safety clip , the safety clip further forming a washer, wherein the safety clip is biased away from a distal aperture of the needle shield when the needle is disposed within the distal aperture, characterized in that : in response to the sharpened tip of the needle being withdrawn into the needle shield beyond the distal aperture, the safety clip is released from the biased position and blocks the distal aperture thereby preventing the sharpened tip from exiting a distal end of the needle shield ; and the washer of the safety clip is configured to prevent passage of the needle feature . a catheter adapter having a distal end supporting a catheter , and further comprising a proximal opening, the catheter adapter having a lumen; an introducer needle comprising a sharpened tip and a needle feature ; a blood control septum disposed within the lumen of the catheter adapter and dividing the lumen into a proximal fluid chamber and a distal fluid chamber; a septum activator movably positioned within the proximal fluid chamber, the septum activator having a base and a probe end ; and a needle shield removably coupled to the proximal opening of the catheter adapter and comprising a safety clip , the safety clip further forming a washer, wherein the safety clip is biased away from a distal aperture of the needle shield when the needle is disposed within the distal aperture, characterized in that : in response to the sharpened tip of the needle being withdrawn into the needle shield beyond the distal aperture, the safety clip is released from the biased position and blocks the distal aperture thereby preventing the sharpened tip from exiting a distal end of the needle shield ; and the washer of the safety clip is configured to prevent passage of the needle feature . in response to the sharpened tip of the needle being withdrawn into the needle shield beyond the distal aperture, the safety clip is released from the biased position and blocks the distal aperture thereby preventing the sharpened tip from exiting a distal end of the needle shield ; and the washer of the safety clip is configured to prevent passage of the needle feature .
A pharmaceutical oral composition comprising furazidin, characterized in that it is in the form of powder or/and granules or/and coated granules, and it comprises from 0.5% by weight to 95% by weight of furazidin and it comprises at least one bulking agent in an amount from 5% by weight to 99% by weight chosen from the group consisting of starch, gelatinized starch, microcrystalline cellulose, lactose, glucose, mannitol, sorbitol, anhydrous colloidal silica, talc, dextrins or/and their mixture, and it comprises at least one compound having binding or/and coating properties chosen from the group consisting of saccharides, polyhydric alcohols, polymers of acrylic acid derivatives, polymers of methacrylic acid derivatives, polymers of vinyl alcohol derivatives, chemically modified cellulose derivatives, polyvinylpyrrolidones and/or polyethylene oxides in an amount from 0.1% by weight to 30 % by weight.
A method of preparing polyester elastomer meltblown nonwoven fabric membrane with pores and high bonding strength, comprising the following steps of adding a reaction solvent with 0.5-20 parts by weight to thermoplastic polyester elastomer (TPEE) powder or granules to prepare a solvent mixture, the reaction solvent being methyl formate or ethyl acetate, adding a modifier with 0.5-10 parts by weight to the solvent mixture, and mixing uniformly to prepare a first mixture, the modifier including at least one of o-xylylenediamine, m-xylylenediamine, alpha, alpha'-diamino-p-xylene, 2,3,5,6-Tetrachloro-p-xylene-alpha,alpha'-diamine, and 1,3,5,7-Tetraazatricyclodecane, adding an initiator with 0.5-20 parts by weight to the first mixture, and mixing uniformly to prepare a second mixture, the initiator including a photo initiator or a thermal initiator, drying the second mixture in environment with a temperature between 95°C and 115°C to form a masterbatch with a moisture content of 500 to 1000 ppm, and preparing the polyester elastomer meltblown nonwoven fabric membrane by passing the masterbatch through a meltblown process. adding a reaction solvent with 0.5-20 parts by weight to thermoplastic polyester elastomer (TPEE) powder or granules to prepare a solvent mixture, the reaction solvent being methyl formate or ethyl acetate, adding a modifier with 0.5-10 parts by weight to the solvent mixture, and mixing uniformly to prepare a first mixture, the modifier including at least one of o-xylylenediamine, m-xylylenediamine, alpha, alpha'-diamino-p-xylene, 2,3,5,6-Tetrachloro-p-xylene-alpha,alpha'-diamine, and 1,3,5,7-Tetraazatricyclodecane, adding an initiator with 0.5-20 parts by weight to the first mixture, and mixing uniformly to prepare a second mixture, the initiator including a photo initiator or a thermal initiator, drying the second mixture in environment with a temperature between 95°C and 115°C to form a masterbatch with a moisture content of 500 to 1000 ppm, and preparing the polyester elastomer meltblown nonwoven fabric membrane by passing the masterbatch through a meltblown process.
A color prediction model construction method for constructing a color prediction model for predicting a color of a patch in a color chart including a plurality of first type patches obtained by applying an ink on a base material with ink densities of a plurality of levels, the color prediction model construction method comprising: a teaching data acquisition step (S100, S200) of acquiring a plurality of pieces of teaching data including spectral characteristics of a reference patch (PA2) that is a prescribed patch in the color chart and color values of a color prediction target patch in the color chart, the color prediction target patch being at least one patch among patches in the color chart excluding patches having a maximum ink density or a minimum ink density among the plurality of first type patches; and a learning step (S110, S210) of performing machine learning by a neural network that takes the spectral characteristics of the reference patch (PA2) as input data and takes the color values of the color prediction target patch as output data, using the plurality of pieces of teaching data. a teaching data acquisition step (S100, S200) of acquiring a plurality of pieces of teaching data including spectral characteristics of a reference patch (PA2) that is a prescribed patch in the color chart and color values of a color prediction target patch in the color chart, the color prediction target patch being at least one patch among patches in the color chart excluding patches having a maximum ink density or a minimum ink density among the plurality of first type patches; and a learning step (S110, S210) of performing machine learning by a neural network that takes the spectral characteristics of the reference patch (PA2) as input data and takes the color values of the color prediction target patch as output data, using the plurality of pieces of teaching data.
A method for controlling a wind turbine , the wind turbine comprises a power generator , a machine side converter , a line side converter , a DC link , with a DC link voltage (UDC) and a chopper electrically connected to an output of the machine side converter and an input of the grid side converter, characterized in that the method comprises - determining a virtual synchronous machine rotational speed (ωVSM) and/or a synchronous machine angle (θVSM), where the virtual synchronous machine rotational speed (ωVSM) is determined based on a combination of a feedback of a damping power (Pd), a power reference (Pref) for a desired power output of the wind turbine, a grid power (Pgrid) supplied by the wind turbine to a power grid and controlling a chopper power (Pchop) dissipation by the chopper and an inertial integration model , where the synchronous machine angle (θVSM) is determined based on an integration of the synchronous machine rotational speed (ωVSM), - determining a chopper power reference (Pchop_ref) for the chopper, based on a comparison of the DC link voltage (UDC) with a DC-link voltage reference (UDC_ref) and/or a comparison of the grid power (Pgrid) with the power reference (Pref), and - determining the damping power (Pd) based on the virtual synchronous machine rotational speed (ωVSM). - determining a virtual synchronous machine rotational speed (ωVSM) and/or a synchronous machine angle (θVSM), where the virtual synchronous machine rotational speed (ωVSM) is determined based on a combination of a feedback of a damping power (Pd), a power reference (Pref) for a desired power output of the wind turbine, a grid power (Pgrid) supplied by the wind turbine to a power grid and controlling a chopper power (Pchop) dissipation by the chopper and an inertial integration model , where the synchronous machine angle (θVSM) is determined based on an integration of the synchronous machine rotational speed (ωVSM), - determining a chopper power reference (Pchop_ref) for the chopper, based on a comparison of the DC link voltage (UDC) with a DC-link voltage reference (UDC_ref) and/or a comparison of the grid power (Pgrid) with the power reference (Pref), and - determining the damping power (Pd) based on the virtual synchronous machine rotational speed (ωVSM).
An antenna , comprising: a rigid substrate having a non-planar region ; and a conductive ink positioned on the non-planar region ; characterised in that : the conductive ink is sintered , the sintered conductive ink has a light transmission of at least 80%, and the sintered conductive ink has a trace depth of 6 to 20 micrometers, preferably wherein the sintered conductive ink has a trace depth of 8 to 10 micrometers. a rigid substrate having a non-planar region ; and a conductive ink positioned on the non-planar region ; characterised in that : the conductive ink is sintered , the sintered conductive ink has a light transmission of at least 80%, and the sintered conductive ink has a trace depth of 6 to 20 micrometers, preferably wherein the sintered conductive ink has a trace depth of 8 to 10 micrometers. the conductive ink is sintered , the sintered conductive ink has a light transmission of at least 80%, and the sintered conductive ink has a trace depth of 6 to 20 micrometers, preferably wherein the sintered conductive ink has a trace depth of 8 to 10 micrometers.
Method for manufacturing a decorative composite body, comprising the following steps: (a) printing a prescribed part motive (B) onto a carrier material (A) (b) applying an adhesive layer (C) onto the printed side of the carrier material, (c) applying a plurality of gemstones (D), (d) printing a second prescribed part motive (E) onto the gemstones (D), so that the prescribed part motive (B) and the second prescribed part motive (E) are superimposed in order to form an overall motive, and (e) optionally applying a protective layer (F). (a) printing a prescribed part motive (B) onto a carrier material (A) (b) applying an adhesive layer (C) onto the printed side of the carrier material, (c) applying a plurality of gemstones (D), (d) printing a second prescribed part motive (E) onto the gemstones (D), so that the prescribed part motive (B) and the second prescribed part motive (E) are superimposed in order to form an overall motive, and (e) optionally applying a protective layer (F).
A wind farm comprising a plurality of wind turbine generators , each of which comprises a rotor having one or more blades, an electrical generator driven by said rotor for converting rotation thereof into electrical power, a rectifier for converting alternating current power from the electrical generator to direct current power, a power inverter for converting direct current power from the rectifier to alternating current power, and a DC-link connecting the rectifier and the power inverter , wherein each of the plurality of wind turbine generators further comprises an electrolyzer arrangement for production of hydrogen arranged for using electrical power from the generator , wherein the electrolyzer arrangement is adapted for being powered by direct current power from the DC-link , or a data processing centre having one or more data processing units connected to a data communication network and configured to receive, process, store, and transmit data over the data communication network , wherein the data processing centre is arranged for being powered by obtaining direct current power from the DC-link , and wherein the nominal power capacity of the power inverter constitutes no more than 65%, preferably no more than 50%, such as in the range of 15% to 40%, of the nominal power capacity of the electrical generator of that wind turbine generator . a rotor having one or more blades, an electrical generator driven by said rotor for converting rotation thereof into electrical power, a rectifier for converting alternating current power from the electrical generator to direct current power, a power inverter for converting direct current power from the rectifier to alternating current power, and a DC-link connecting the rectifier and the power inverter , wherein each of the plurality of wind turbine generators further comprises an electrolyzer arrangement for production of hydrogen arranged for using electrical power from the generator , wherein the electrolyzer arrangement is adapted for being powered by direct current power from the DC-link , or a data processing centre having one or more data processing units connected to a data communication network and configured to receive, process, store, and transmit data over the data communication network , wherein the data processing centre is arranged for being powered by obtaining direct current power from the DC-link , and wherein the nominal power capacity of the power inverter constitutes no more than 65%, preferably no more than 50%, such as in the range of 15% to 40%, of the nominal power capacity of the electrical generator of that wind turbine generator .
A wind power collection and electricity generation system comprising: wind power generation units including a plurality of central wind power units vertically installed along a center line of a roadway, on which vehicles run in two opposite lanes, and a plurality of first ceiling wind power units extending horizontally to at least a first side from upper ends of the central wind power units , wherein the central wind power units and the first ceiling wind power units generate electricity using torque of blades that are rotated perpendicular to a flow direction of wind generated by vehicles, whereby the central wind power units and the first ceiling wind power units are connected by an assembly of bevel gears . wind power generation units including a plurality of central wind power units vertically installed along a center line of a roadway, on which vehicles run in two opposite lanes, and a plurality of first ceiling wind power units extending horizontally to at least a first side from upper ends of the central wind power units , wherein the central wind power units and the first ceiling wind power units generate electricity using torque of blades that are rotated perpendicular to a flow direction of wind generated by vehicles, whereby the central wind power units and the first ceiling wind power units are connected by an assembly of bevel gears .
Mounting apparatus for piles, the mounting apparatus comprising a mounting device and an anchor component with a bearing surface for a pile, for assembling with components such as stones, side plates, wherein the anchor component has connecting elements in the area of the bearing surface for the mounting device which is assigned to the pile, and the anchor component includes at least one bearing surface which is assigned to the bearing surface at an angle for positioning against the component, wherein the anchor component is formed by panel elements and the mounting device constructed as a panel element , characterized in that the one panel element of the anchor component and the panel element of the mounting device have corresponding dimensions, wherein the panel element of the mounting device supports an insertion shoe for the pile, and wherein the panel element is fastened to the one panel element of the anchor component.
A mutated Bordetella pertussis strain for use in eliciting protective immunity against an allergic skin disease, wherein the strain is attenuated and wherein the pertussis toxin ( ptx ) gene is mutated, the dermonecrotic ( dnt ) gene is deleted or mutated, and the Bordetella ampG gene is replaced by a heterologous ampG .
A process for preventing the formation of biofouling on a surface of a material in contact with an aqueous medium or with air having a relative humidity of 90% or more, comprising treating the surface with an exopolysaccharide: - having a peak molecular weight as measured by liquid chromatography of steric exclusion greater than 1,000,000 Da, - comprising less than 5% by weight, preferably less than 1% by weight, of sulphate based on the dry weight of the exopolysaccharide, and - obtained by fermentation of a bacterium of the genus Vibrio parahaemolyticus. - having a peak molecular weight as measured by liquid chromatography of steric exclusion greater than 1,000,000 Da, - comprising less than 5% by weight, preferably less than 1% by weight, of sulphate based on the dry weight of the exopolysaccharide, and - obtained by fermentation of a bacterium of the genus Vibrio parahaemolyticus.