mhurhangee/patent-ind-claim-en huggingface dataset:
Methanation process comprising the conversion of CO 2 , which originates from a power station flue gas of a power station fired with a carbonaceous fuel and having a connected water/steam circuit , to methane in a methanation plant , wherein the power station is formed as an integral component of a connected industrial plant, in particular formed by a smelting plant or a chemical plant, and is integrated into at least part of the material and/or energy streams of the industrial plant, and at least part of at least one carbonaceous material or material stream occurring as a by-product or waste product during a production process in the industrial plant is fed to the combustion chamber of the steam generator of the power station as carbonaceous fuel , wherein a coproduct gas is supplied to the combustion chamber of the steam generator of the power station as carbonaceous material stream and fuel , which contains one or more gaseous by-products or waste products of the industrial plant, and wherein hydrogen obtained from the coproduct gas and/or produced by means of electrolysis is supplied to the methanation plant , and wherein the power station , a CO 2 exhaust gas treatment and the methanation plant are integrated into the material and/or energy streams of the industrial plant, and wherein the heat energy arising as waste heat in the conversion of CO 2 to methane in the methanation plant is coupled out at least in part into at least one material and/or heat energy stream and this material and/or heat energy stream is supplied at least in part to at least one medium flowing into the combustion chamber of a steam generator of the power station on the burner side and/or to the water/steam circuit of the power station and/or to the CO 2 exhaust gas treatment which is connected upstream, in terms of process engineering, of the methanation plant , and/or to one or more operating stages of the attached industrial plant. wherein a coproduct gas is supplied to the combustion chamber of the steam generator of the power station as carbonaceous material stream and fuel , which contains one or more gaseous by-products or waste products of the industrial plant, and wherein hydrogen obtained from the coproduct gas and/or produced by means of electrolysis is supplied to the methanation plant , and wherein the power station , a CO 2 exhaust gas treatment and the methanation plant are integrated into the material and/or energy streams of the industrial plant, and wherein the heat energy arising as waste heat in the conversion of CO 2 to methane in the methanation plant is coupled out at least in part into at least one material and/or heat energy stream and this material and/or heat energy stream is supplied at least in part to at least one medium flowing into the combustion chamber of a steam generator of the power station on the burner side and/or to the water/steam circuit of the power station and/or to the CO 2 exhaust gas treatment which is connected upstream, in terms of process engineering, of the methanation plant , and/or to one or more operating stages of the attached industrial plant.
An image capturing apparatus capable of communicating using a plurality of network interfaces and which is connected with another apparatus via a network, the said other apparatus being configured to execute control processes of the image capturing apparatus , the image capturing apparatus comprising: reception means configured to receive setting of a network address for each of the plurality of network interfaces sent from the other apparatus , identifying means configured to identify a subnet for each of the plurality of network interfaces based on the received network addresses, determining means configured to determine whether each of the plurality of network interfaces belongs to the same subnet, output means configured to output, to the other apparatus , information including an error message indicating that each of the plurality of network interfaces belongs to the same subnet if it is determined that each of the plurality of network interfaces belongs to the same subnet. reception means configured to receive setting of a network address for each of the plurality of network interfaces sent from the other apparatus , identifying means configured to identify a subnet for each of the plurality of network interfaces based on the received network addresses, determining means configured to determine whether each of the plurality of network interfaces belongs to the same subnet, output means configured to output, to the other apparatus , information including an error message indicating that each of the plurality of network interfaces belongs to the same subnet if it is determined that each of the plurality of network interfaces belongs to the same subnet.
An anti-vibration device for sound equipment, wherein the anti-vibration device comprises an elastic stress frame , the elastic stress frame having a stress deformation portion and a plurality of support portions , the support portions protruding toward one side with respect to the stress deformation portion , and wherein the material of the elastic stress frame is one selected from polymethylmethacrylate, polyacrylic acid, polyacrylate, polycarbonate, polystyrene, PE, PP, PET, PBT and ABS.
A dispensing system control module comprising a pump and a line , at which a flow measuring device is arranged, wherein the flow measuring device as measuring equipment and the pump as control equipment is connected to a control unit , characterized in that the dispensing system control module has a tapping and operating panel, at which the power of the pump can be set manually and which is connected to the control unit for the pump.
Ring spinning machine for a spinning line, suitable for processing spools of roving (S) for the production of bobbins of yarn, having extension mainly along a longitudinal axis (X), between a head and a tail , comprising: - a first plurality of spindles (12A ij ) aligned along a first bank of the spinning machine and a second plurality of spindles (12B ij ) aligned along a second bank of the spinning machine, opposite the first, wherein said spindles (12A ij ,12B ij ) are assembled into groups of spindles ( j ) containing spindles (12A ij ) of the first bank and spindles (12B ij ) of the second bank ; - a plurality of belts (30 j ), wherein each belt (30 j ) engages all the spindles of a predefined group of spindles ( j ), said belts (30 j ) being mechanically independent of each other; - a plurality of driving devices, each driving device being responsible for driving the belt (30 j ) of a predefined group of spindles ( j ); - characterized in that each driving device comprises a plurality of electric motors (40 qj ), operatively connected to the respective belt (30 j ) to drive it; - and in that for each group of spindles ( j ), said plurality of motors (40 qj ) comprises only one master motor with feedback and slave motors operatively connected in parallel to the master motor. - a first plurality of spindles (12A ij ) aligned along a first bank of the spinning machine and a second plurality of spindles (12B ij ) aligned along a second bank of the spinning machine, opposite the first, wherein said spindles (12A ij ,12B ij ) are assembled into groups of spindles ( j ) containing spindles (12A ij ) of the first bank and spindles (12B ij ) of the second bank ; - a plurality of belts (30 j ), wherein each belt (30 j ) engages all the spindles of a predefined group of spindles ( j ), said belts (30 j ) being mechanically independent of each other; - a plurality of driving devices, each driving device being responsible for driving the belt (30 j ) of a predefined group of spindles ( j ); - characterized in that each driving device comprises a plurality of electric motors (40 qj ), operatively connected to the respective belt (30 j ) to drive it; - and in that for each group of spindles ( j ), said plurality of motors (40 qj ) comprises only one master motor with feedback and slave motors operatively connected in parallel to the master motor.
An in vivo stealth nanoparticle for use in therapy by intravascular delivery of a drug, which is a molecularly imprinted polymer having a plasma protein recognition sites molecularly imprinted by a plasma protein thereon and containing a constituent derived from a biocompatible monomer; wherein the plasma protein is albumin.
An injector module for a combustion section of a gas turbine engine comprising: an injector stem having a bulbous portion, a forward side and an aft side , the injector stem extending along an injector longitudinal axis between an inlet end and an outlet end of the injector module; a first fuel line of a first fuel circuit at least partly extending through the injector stem, the first fuel line having a first outlet disposed at the outlet end of the injector stem ; a second fuel line of a second fuel circuit at least partly extending through the injector stem , the second fuel line having a second outlet disposed at the outlet end of the injector stem ; the first outlet and the second outlet being spaced apart and having different orientations relative to the injector longitudinal axis ; and the first fuel line being thermally coupled to the second fuel line wherein the first fuel line includes a first longitudinal segment , an outlet segment and a wrap segment that extends about the second fuel line to thermally couple the first fuel line to the second fuel line ; wherein the second fuel line includes an inlet and the second fuel line includes a turn between the inlet and the outlet ; wherein the wrap segment wraps about the turn of the second fuel line ; wherein the wrap segment is axially curved and wraps about the bulbous portion of the stem , proximate the outlet end ; and wherein the wrap segment curves from the forward side to the aft side and back toward the outlet segment . an injector stem having a bulbous portion, a forward side and an aft side , the injector stem extending along an injector longitudinal axis between an inlet end and an outlet end of the injector module; a first fuel line of a first fuel circuit at least partly extending through the injector stem, the first fuel line having a first outlet disposed at the outlet end of the injector stem ; a second fuel line of a second fuel circuit at least partly extending through the injector stem , the second fuel line having a second outlet disposed at the outlet end of the injector stem ; the first outlet and the second outlet being spaced apart and having different orientations relative to the injector longitudinal axis ; and the first fuel line being thermally coupled to the second fuel line wherein the first fuel line includes a first longitudinal segment , an outlet segment and a wrap segment that extends about the second fuel line to thermally couple the first fuel line to the second fuel line ; wherein the second fuel line includes an inlet and the second fuel line includes a turn between the inlet and the outlet ; wherein the wrap segment wraps about the turn of the second fuel line ; wherein the wrap segment is axially curved and wraps about the bulbous portion of the stem , proximate the outlet end ; and wherein the wrap segment curves from the forward side to the aft side and back toward the outlet segment .
A process to make continuous strand polymer comprising the following steps: providing a monomer mixture comprising water, a polymerizable unsaturated acid group containing monomer, a crosslinker and an initiator; transporting the monomer mixture into a confining means wherein the monomer mixture is cross-sectionally confined in said confining means; wherein "cross-sectionally confined in a confining means" refers to a continuous tube or trough that is capable of confining a monomer in at least one axis direction perpendicular to the monomer flow as the monomer moves through the confining means, causing the monomer to polymerize into a continuous strand having a cross-sectional diameter of 0.1 mm to 10 mm, initiating polymerization of the monomer mixture in the confining means to make a continuous strand polymer; and emitting the continuous strand polymer from the confining means wherein the continuous strand polymer has a defined cross-sectional profile comprising an initial cross sectional size of at least 0.1 mm immediately prior to exiting the confining means. providing a monomer mixture comprising water, a polymerizable unsaturated acid group containing monomer, a crosslinker and an initiator; transporting the monomer mixture into a confining means wherein the monomer mixture is cross-sectionally confined in said confining means; wherein "cross-sectionally confined in a confining means" refers to a continuous tube or trough that is capable of confining a monomer in at least one axis direction perpendicular to the monomer flow as the monomer moves through the confining means, causing the monomer to polymerize into a continuous strand having a cross-sectional diameter of 0.1 mm to 10 mm, initiating polymerization of the monomer mixture in the confining means to make a continuous strand polymer; and emitting the continuous strand polymer from the confining means wherein the continuous strand polymer has a defined cross-sectional profile comprising an initial cross sectional size of at least 0.1 mm immediately prior to exiting the confining means.
Method for jacketing an elongated item such as more particularly leads or cable sets, where an adhesive tape is guided in a helical line around the elongated item or the elongated item is wrapped in an axial direction by the adhesive tape, the elongated item together with the adhesive tape wrapping is brought into the desired disposition, more particularly into the cable set plan, the elongated item is held in this disposition, the curable adhesive is brought to cure by the supply of UV radiation energy, characterized in that the adhesive tape comprises a tapelike carrier provided on at least one side with an adhesive layer which consists of a self-adhesive, pressure-sensitive adhesive, the self-adhesive pressure-sensitive adhesive being a UV-curable composition comprising, based on the total weight of the composition: 15 to 50 parts by weight of matrix polymer; 50 to 85 parts by weight of epoxy resin; 0.1 to 3 parts by weight of photoinitiator, with the matrix polymer forming a self-supporting film in which epoxy resin and photoinitiator are embedded. 15 to 50 parts by weight of matrix polymer; 50 to 85 parts by weight of epoxy resin; 0.1 to 3 parts by weight of photoinitiator, with the matrix polymer forming a self-supporting film in which epoxy resin and photoinitiator are embedded.
System for providing conditioned air to a storage hall for rearing insect larvae, the system comprising: - crates for storing the insect larvae, wherein the crates are stacked to form a vertical column of stacked crates and wherein the crates comprise lateral cutouts disposed on opposite sides, - an air inlet duct for providing conditioned air to the crates , wherein the air inlet duct comprises at least one nozzle for each crate in a column, wherein the position of the at least one nozzle corresponds to the position of the lateral cutout of the respective crates in the column of stacked crates , and wherein a plurality of columns of crates are positioned to form rows and at least one row of crates in a horizontal direction is provided with conditioned air by the respective at least one nozzle, - air outlet ducts , wherein the air outlet duct is formed by a space between two adjacent columns of crates and is disposed on a side of the column of stacked crates opposite to the air inlet duct , and wherein a suction force is provided to suction the exhaust air through the air outlet ducts , and wherein a space is formed above the air outlet ducts and below the ceiling of the storage hall to provide uniform suction force to all air outlet ducts . - crates for storing the insect larvae, wherein the crates are stacked to form a vertical column of stacked crates and wherein the crates comprise lateral cutouts disposed on opposite sides, - an air inlet duct for providing conditioned air to the crates , wherein the air inlet duct comprises at least one nozzle for each crate in a column, wherein the position of the at least one nozzle corresponds to the position of the lateral cutout of the respective crates in the column of stacked crates , and wherein a plurality of columns of crates are positioned to form rows and at least one row of crates in a horizontal direction is provided with conditioned air by the respective at least one nozzle, - air outlet ducts , wherein the air outlet duct is formed by a space between two adjacent columns of crates and is disposed on a side of the column of stacked crates opposite to the air inlet duct , and wherein a suction force is provided to suction the exhaust air through the air outlet ducts , and wherein a space is formed above the air outlet ducts and below the ceiling of the storage hall to provide uniform suction force to all air outlet ducts . wherein a suction force is provided to suction the exhaust air through the air outlet ducts , and wherein a space is formed above the air outlet ducts and below the ceiling of the storage hall to provide uniform suction force to all air outlet ducts .
A curable composition comprising: a non-aromatic epoxy-functional epoxy resin adduct, the epoxy resin adduct comprising the reaction product of a reaction mixture comprising: a polyfunctional thiol; and a polyfunctional epoxy resin; a non-aromatic epoxy resin; and a non-aromatic anhydride-based curing agent; wherein the cured composition has a Izod Impact Test (Notched Izod) test method (ASTM D256) value of at least 40 J/m. a non-aromatic epoxy-functional epoxy resin adduct, the epoxy resin adduct comprising the reaction product of a reaction mixture comprising: a polyfunctional thiol; and a polyfunctional epoxy resin; a polyfunctional thiol; and a polyfunctional epoxy resin; a non-aromatic epoxy resin; and a non-aromatic anhydride-based curing agent;
Device for nailing cast in place anchors , comprising - a housing , which has an anchor receptacle for receiving a cast in place anchor , - a nail gun abutment for abutting against a nail gun , and - a ram , which extends into the housing towards the anchor receptacle , and which is axially displaceable with respect to the housing , wherein the ram has a striking surface facing the anchor receptacle for striking the cast in place anchor disposed in the anchor receptacle , and wherein the ram further has a striker abutment for abutting against a striker of the nail gun that is positioned at the nail gun abutment . - a housing , which has an anchor receptacle for receiving a cast in place anchor , - a nail gun abutment for abutting against a nail gun , and - a ram , which extends into the housing towards the anchor receptacle , and which is axially displaceable with respect to the housing , wherein the ram has a striking surface facing the anchor receptacle for striking the cast in place anchor disposed in the anchor receptacle , and wherein the ram further has a striker abutment for abutting against a striker of the nail gun that is positioned at the nail gun abutment .
Method for determining a temperature of a revolving drum of a laundry drier , the drum having: - an outer wall , - on the outer wall at least one delimited detection region composed of thermochromic material or comprising thermochromic material , wherein the thermochromic material has a transition temperature in the range of a temperature of the revolving drum that is to be expected and to be determined, - optical detection means arranged adjacent to the revolving drum and configured to detect the color transition of the thermochromic material in the event of the transition temperature being exceeded or undershot, comprising the steps of - rotating the drum in such a way that it revolves, - detecting the thermochromic material by means of the detection means , - detecting a color transition of the thermochromic material by means of the detection means , - determining a temperature of the revolving drum as corresponding to the transition temperature in such a way that the temperature of the drum is determined as corresponding to one of the two temperature ranges below the transition temperature or above the transition temperature. - an outer wall , - on the outer wall at least one delimited detection region composed of thermochromic material or comprising thermochromic material , wherein the thermochromic material has a transition temperature in the range of a temperature of the revolving drum that is to be expected and to be determined, - optical detection means arranged adjacent to the revolving drum and configured to detect the color transition of the thermochromic material in the event of the transition temperature being exceeded or undershot, comprising the steps of - rotating the drum in such a way that it revolves, - detecting the thermochromic material by means of the detection means , - detecting a color transition of the thermochromic material by means of the detection means , - determining a temperature of the revolving drum as corresponding to the transition temperature in such a way that the temperature of the drum is determined as corresponding to one of the two temperature ranges below the transition temperature or above the transition temperature.