mhurhangee/ep-ind-claims huggingface dataset:
Method for producing bristle bundles for brushes or brooms, wherein at least one inner sub-bundle composed of bristle filaments of a first filament type and at least one outer sub-bundle composed of bristle filaments of a second filament type are combined to form a bristle bundle in such a way that the bristle filaments of the at least one outer sub-bundle outer circumferentially surround the bristle filaments of the at least one inner sub-bundle in a closed manner, characterized in that the at least one inner sub-bundle and the at least one outer sub-bundle are conveyed by means of compressed air and/or negative pressure via in each case a hollow line into in each case a collecting duct of a collecting plate, whereafter the sub-bundles (5, 7) are pushed through discharge openings (4, 6) and then combined to form a bristle bundle.
A system comprising: a processor a link interface unit; and a communication link (115, 205); wherein the link interface unit is configured to: monitor a received data stream; partition the data stream into blocks of a first size; examine the data stream in real-time to dynamically determine a first data pattern as occurring more than a threshold number of times in a first period of time (905, 1010); send, over the communication link, first blocks of the data stream without sending second blocks of the data stream, responsive to determining the second blocks of the data stream match the first data pattern; send an indication as to which blocks were not sent; and send an encoding of the first data pattern. a processor a link interface unit; and a communication link (115, 205); wherein the link interface unit is configured to: monitor a received data stream; partition the data stream into blocks of a first size; examine the data stream in real-time to dynamically determine a first data pattern as occurring monitor a received data stream; partition the data stream into blocks of a first size; examine the data stream in real-time to dynamically determine a first data pattern as occurring more than a threshold number of times in a first period of time (905, 1010); send, over the communication link, first blocks of the data stream without sending second blocks of the data stream, responsive to determining the second blocks of the data stream match the first data pattern; send an indication as to which blocks were not sent; and send an encoding of the first data pattern. send, over the communication link, first blocks of the data stream without sending second blocks of the data stream, responsive to determining the second blocks of the data stream match the first data pattern; send an indication as to which blocks were not sent; and send an encoding of the first data pattern.
A method of pyrolysis of a carbonaceous feedstock, comprising: introducing a carbonaceous feedstock into a cylindrical furnace pyrolysis processor, comprising a vertical tray processor; heating the feedstock to a temperature above 421 °C (790 °F); removing a carbon material from a bottom portion of the pyrolysis processor; and removing a pyrolysis gas from a top portion of the pyrolysis processor, and characterized by: a drive shaft on the central axis of the cylindrical furnace, the trays of the tray processor being supported by the drive shaft and rotated within the processor by the drive shaft; and by an electric heater positioned between the trays and cylindrical furnace interior wall to provide radiative heat to a furnace interior. introducing a carbonaceous feedstock into a cylindrical furnace pyrolysis processor, comprising a vertical tray processor; heating the feedstock to a temperature above 421 °C (790 °F); removing a carbon material from a bottom portion of the pyrolysis processor; and removing a pyrolysis gas from a top portion of the pyrolysis processor, and characterized by: a drive shaft on the central axis of the cylindrical furnace, the trays of the tray processor being supported by the drive shaft and rotated within the processor by the drive shaft; and by an electric heater positioned between the trays and cylindrical furnace interior wall to provide radiative heat to a furnace interior. a drive shaft on the central axis of the cylindrical furnace, the trays of the tray processor being supported by the drive shaft and rotated within the processor by the drive shaft; and by an electric heater positioned between the trays and cylindrical furnace interior wall to provide radiative heat to a furnace interior.
A method performed by a configuration controller of a wireless network in a plurality of radio operating environments, the method comprising: selecting a first parameter value set from a library of two or more parameter value sets, wherein each of the parameter value sets includes a value for each of one or more communication-related parameters, wherein the first parameter value set is appropriate for a first target radio operating environment, wherein said selecting the first parameter value set is performed for a first set of one or more infrastructure radios that are to be operated in the first target radio operating environment, wherein the one or more infrastructure radios are configured at least to wirelessly transmit to user devices using OFDM; applying the first parameter value set to the first set of one or more infrastructure radios so that the first set of one or more infrastructure radios will start using the first parameter value set to wirelessly communicate with the user devices, characterised in that said applying the first parameter value set is performed by sending first information to each infrastructure radio of the first set of one or more infrastructure radios, wherein the first information identifies the first parameter value set; wherein the first information comprises a set pointer that points to the first parameter value set among the two or more parameter value sets in a local copy of the library stored in each infrastructure radio of the first set of one or more infrastructure radios. selecting a first parameter value set from a library of two or more parameter value sets, wherein each of the parameter value sets includes a value for each of one or more communication-related parameters, wherein the first parameter value set is appropriate for a first target radio operating environment, wherein said selecting the first parameter value set is performed for a first set of one or more infrastructure radios that are to be operated in the first target radio operating environment, wherein the one or more infrastructure radios are configured at least to wirelessly transmit to user devices using OFDM; applying the first parameter value set to the first set of one or more infrastructure radios so that the first set of one or more infrastructure radios will start using the first parameter value set to wirelessly communicate with the user devices, characterised in that said applying the first parameter value set is performed by sending first information to each infrastructure radio of the first set of one or more infrastructure radios, wherein the first information identifies the first parameter value set; wherein the first information comprises a set pointer that points to the first parameter value set among the two or more parameter value sets in a local copy of the library stored in each infrastructure radio of the first set of one or more infrastructure radios.
Electrolyte for a lithium-sulfur battery comprising a non-aqueous organic solvent and a lithium salt, wherein the lithium salt comprises lithium bis(trifluoromethanesulfonyl)imide, wherein the lithium salt comprises one or more lithium salts other than lithium bis(trifluoromethanesulfonyl)imide and the other lithium salt comprises lithium bis(fluorosulfonyl)imide, wherein the lithium bis(trifluormethanesulfonyl)imide and the one or more lithium salts other than lithium bis(trifluormethanesulfonyl)imide are present in the electrolyte in a molar ratio of 70:30 to 90:10, and wherein the non-aqueous organic solvent comprises 70 vol% to 95 vol% of a linear ether-based compound and 5 vol% to 30 vol% of a heterocyclic compound including one or more double bonds. wherein the lithium salt comprises one or more lithium salts other than lithium bis(trifluoromethanesulfonyl)imide and the other lithium salt comprises lithium bis(fluorosulfonyl)imide, wherein the lithium bis(trifluormethanesulfonyl)imide and the one or more lithium salts other than lithium bis(trifluormethanesulfonyl)imide are present in the electrolyte in a molar ratio of 70:30 to 90:10, and wherein the non-aqueous organic solvent comprises 70 vol% to 95 vol% of a linear ether-based compound and 5 vol% to 30 vol% of a heterocyclic compound including one or more double bonds.
Non-radioactive method for direct in vitro determination (control and quantification) of the cytolytic action of an agent active against target cells and/or a medium surrounding target cells, comprising the following successive steps: i) Genetically transforming target cells to express an enzyme exogeneous to said target cells; ii) Exposing said genetically transformed target cells to the active agent and/or to said surrounding medium to be assayed, which can result in the lysis of at least part of the target cells while releasing said exogeneous enzyme in the extracellular medium; iii) Measuring the activity of the exogenous enzyme released on lysis of said target cells; characterized in that said exogenous enzyme is an enzyme of molar mass equal to or lower than 45 kDa with a peptide sequence having at least 60 % homology with the wild-type peptide sequence of the 19 kDa sub-unit of luciferase produced by the shrimp Oplophorus gracilirostris, the activity of which can be detected by luminescence or fluorescence, and in that said exogenous enzyme is expressed alone and in free form in the cytoplasm of said target cells. i) Genetically transforming target cells to express an enzyme exogeneous to said target cells; ii) Exposing said genetically transformed target cells to the active agent and/or to said surrounding medium to be assayed, which can result in the lysis of at least part of the target cells while releasing said exogeneous enzyme in the extracellular medium; iii) Measuring the activity of the exogenous enzyme released on lysis of said target cells;
A glycerol ester composition comprising at least 75% by weight of glyceryl tributyrate, below 25% by weight of glyceryl dibutyrate and below 8% by weight of glyceryl monobutyrate, for use in prevention and/or alleviation of necrotic enteritis in galloanserae, whereby the composition is incorporated directly into the feed or fed supplementary to the feed.
A plastic container produced by blow moulding a coextruded parison comprising two or more layers wherein the external layer consists essentially of a metallocene-produced medium density polyethylene (mMDPE) resin having a density of from 0.925 to 0.940 g/cm 3 and a melt index MI2 of from 0.5 to 2.5 g/10min, wherein the other one or more layers are prepared from high density polyethylene (HDPE) resin and wherein said metallocene-produced medium density polyethylene resin represents from 10 to 30 wt% of the total weight of the container, said plastic container having respectively an external gloss of at least 40 and an environmental stress crack resistance, as measured by the time to rupture, of at least 30 days.
A pharmaceutical composition comprising an isolated cell population from connective tissue and a pharmaceutically acceptable carrier, characterised in that the cells of said cell population express indolamine 2,3-dioxygenase upon stimulation with interferon-gamma (IFN-γ), for use in the treatment of an inflammatory disease in a subject, wherein the inflammatory disease is inflammatory bowel disease, wherein the cells of the cell population are prepared by a method that comprises culturing cells without differentiation on a solid surface in the presence of a suitable culture medium or a suitable serum, and incubating the cells under conditions which allow the cells to adhere to the solid surface and proliferate, and wherein the method comprises selecting cells that remain adhered to the solid surface after at least two passages.
A therapeutic agent that treats or inhibits varicose veins for use in the treatment of a patient that is suffering from varicose veins or has an increased risk of developing varicose veins, wherein the patient has a Piezo Type Mechanosensitive Ion Channel Component 1 (PIEZO1) predicted loss-of-function variant nucleic acid molecule affecting at least one coding transcript and resulting in an initiation codon loss, a premature stop codon, an alternate splicing, or a frameshift and encoding a human PIEZO1 polypeptide.
Cord (50, 50') comprising a single layer made up of N helically wound metal filamentary elements having an outer diameter D, each metal filamentary element of the layer describing, when the cord (50, 50') extends in a substantially rectilinear direction, a helical path about a main axis substantially parallel to the substantially rectilinear direction, such that, in a section plane substantially perpendicular to the main axis, the distance between the centre of each metal filamentary element of the layer and the main axis is equal to half the helix diameter Dh and is substantially constant and identical for all the metal filamentary elements of the layer, the metal filamentary elements defining an internal enclosure of the cord of diameter Dv, each metal filamentary element having a diameter Df and a helix radius of curvature Rf defined by Rf=P/(π x Sin), where P is the pitch of each metal filamentary element expressed in millimetres and α is the helix angle of each metal filamentary element, characterized in that, with Dh, D, Dv, Df and Rf being expressed in millimetres: 0.10 ≤ Jr ≤ 0.25 9 ≤ Rf / Df ≤ 30, and 1.60 ≤ Dv / Df ≤ 3,20. where Jr=N/(π*(D-Df)) x (Dh x Sin(π/N) - (Df / Cos(α x π/180))), a is the helix angle, expressed in degrees, of each metal filamentary element and Dv=Dh-Df.
A method for fabricating a formed dual-core structure comprising: sizing a foam core (102, 402, 502) to form a first core portion (102A, 402A, 502A); providing an epoxy mixture including a plurality of expanded microspheres to form a second core portion (102B, 402B, 502B); placing the first core portion and the second core portion into a preform tool; heating the preform tool so as to cause the epoxy mixture to flow into the shape of the preform and around the first core portion, wherein the epoxy mixture further comprises a plurality of partially expanded microspheres and wherein when the mold is heated the partially expanded microspheres fully expand; and/or wherein the epoxy mixture further comprises a plurality of unexpanded microspheres and wherein when the mold is heated the unexpanded microspheres fully expand; wrapping the first core portion and the second core portion with fiber tape to create a wrapped preform; stitching the first core portion with a thread, the thread extending between a first wrapped face and a second wrapped face of the wrapped preform; placing the wrapped preform in a mold; heating the mold to bond the first core portion and the second core portion; cooling the mold; and removing the formed structure from the mold. sizing a foam core (102, 402, 502) to form a first core portion (102A, 402A, 502A); providing an epoxy mixture including a plurality of expanded microspheres to form a second core portion (102B, 402B, 502B); placing the first core portion and the second core portion into a preform tool; heating the preform tool so as to cause the epoxy mixture to flow into the shape of the preform and around the first core portion, wherein the epoxy mixture further comprises a plurality of partially expanded microspheres and wherein when the mold is heated the partially expanded microspheres fully expand; and/or wherein the epoxy mixture further comprises a plurality of unexpanded microspheres and wherein when the mold is heated the unexpanded microspheres fully expand; wrapping the first core portion and the second core portion with fiber tape to create a wrapped preform; stitching the first core portion with a thread, the thread extending between a first wrapped face and a second wrapped face of the wrapped preform; placing the wrapped preform in a mold; heating the mold to bond the first core portion and the second core portion; cooling the mold; and removing the formed structure from the mold.
A measuring pipe for a measurement device, in particular for a flow measurement device, wherein the measuring pipe in particular exhibits a hollow cylindrical form at least in sections, comprising: - a tubular body, in particular exhibiting a hollow cylindrical form at least in sections, with a wall and a lumen that is enclosed by said wall, in particular exhibiting a cylindrical shape, and configured to carry a fluid process medium; - as well as a sensor bracket that is arranged on and firmly bonded to an outer surface of the wall of the body such that it faces outward, namely away from the lumen, in particular exhibiting a convex shape at least in sections, and in particular produced as a connecting piece, which is configured to be mechanically connected to at least one sensor component, namely a component of a sensor used to record at least one measured variable of a process medium located in the lumen, in such a way that it can be removed again; - wherein both the wall of the body and also the sensor bracket are produced from metal; - and wherein the sensor bracket is produced directly on the outer surface of the wall of the body, which itself was in particular produced in a prior primary shaping process, at least partially in an additive production process, in particular a fused deposition process and/or a powder bed process. - a tubular body, in particular exhibiting a hollow cylindrical form at least in sections, with a wall and a lumen that is enclosed by said wall, in particular exhibiting a cylindrical shape, and configured to carry a fluid process medium; - as well as a sensor bracket that is arranged on and firmly bonded to an outer surface of the wall of the body such that it faces outward, namely away from the lumen, in particular exhibiting a convex shape at least in sections, and in particular produced as a connecting piece, which is configured to be mechanically connected to at least one sensor component, namely a component of a sensor used to record at least one measured variable of a process medium located in the lumen, in such a way that it can be removed again; - wherein both the wall of the body and also the sensor bracket are produced from metal; - and wherein the sensor bracket is produced directly on the outer surface of the wall of the body, which itself was in particular produced in a prior primary shaping process, at least partially in an additive production process, in particular a fused deposition process and/or a powder bed process.
A flow cytometer comprising: a flow cell configured to induce a flow of a sample containing object particles through a flow path; a light source; an irradiating optical system configured to irradiate light from the light source on the flow of particles in the flow cell; a detecting part configured to detect light given off from the flow of particles which are irradiated by light; wherein the irradiating optical system comprises a collective lens having an aspherical surface on one surface, and a cylindrical surface on the other surface; wherein the aspherical surface is configured with a shape to condense entering light at a focal point, characterized in that the aspherical surface is an optical axis symmetric aspherical surface; the collective lens is arranged so that a generating line of the cylindrical surface is parallel or perpendicular to the flow path of the flow cell; and the cylindrical surface is configured to shape the light irradiating the flow cell so that a width in a direction parallel to the flow path of the flow cell is less than a width in a direction perpendicular to the flow path of the flow cell. a flow cell configured to induce a flow of a sample containing object particles through a flow path; a light source; an irradiating optical system configured to irradiate light from the light source on the flow of particles in the flow cell; a detecting part configured to detect light given off from the flow of particles which are irradiated by light; wherein the irradiating optical system comprises a collective lens having an aspherical surface on one surface, and a cylindrical surface on the other surface; wherein the aspherical surface is configured with a shape to condense entering light at a focal point, characterized in that the aspherical surface is an optical axis symmetric aspherical surface; the collective lens is arranged so that a generating line of the cylindrical surface is parallel or perpendicular to the flow path of the flow cell; and the cylindrical surface is configured to shape the light irradiating the flow cell so that a width in a direction parallel to the flow path of the flow cell is less than a width in a direction perpendicular to the flow path of the flow cell.
A sealed closure and container comprising a covering capsule in the form of an overturned cup, provided with an inner threading and security ring connected to the covering capsule by means of a series of frangible bridges, and a mouth of a container provided with an outer threading, wherein said covering capsule, close to its flat top, is provided with an annular rib protruding inwardly, having a diameter smaller than the outer diameter of an upper end of the mouth on which it is engaged, and said security ring comprises a series of flaps protruding inwardly which, upon rotation, are engaged in flaps protruding outwardly positioned at the base of the mouth of the container, being provided on said covering capsule and on said security ring respectively on one end teeth inserted on the other end in relative seats which allow the correct assembly and centering of the capsule with the guarantee ring on the mouth of the container without any breakage of the bridges, wherein said flaps protruding towards the outside of the mouth of the container are situated in an annular hollow portion provided at the base of the mouth, characterized in that it also comprises an "under-cap" positioned between the flat top of the covering capsule and the annular rib protruding inwardly, said "under-cap", being partially inserted inside said mouth with its annular cylindrical portion extending downwards and having a folded peripheral end.