mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-bed cylindrical catalytic converter comprising at least: a first catalytic bed , a second catalytic bed and a heat exchanger arranged between said first bed and said second bed ; said heat exchanger being arranged to transfer heat from a first medium to a second medium, wherein the first medium is the hot effluent (HG) of the first bed before admission into the second bed , and the second medium is a cooling medium; the converter comprising an input and an output for the first medium (HG) and an input and an output for the second medium (CM); the converter being characterized in that: said heat exchanger comprises a plurality of stacked round plates , said plates being full circular plates or annular plates, and adjacent plates define gaps therebetween, and the effluent (HG) of the first catalytic bed and the cooling medium (CM) pass respectively through alternate gaps between the plates of the heat exchanger , wherein said first catalytic bed is a hollow cylinder comprising a cavity (10 A ) and said heat exchanger is arranged coaxially to the first catalytic bed inside said cavity (10 A ). a first catalytic bed , a second catalytic bed and a heat exchanger arranged between said first bed and said second bed ; said heat exchanger being arranged to transfer heat from a first medium to a second medium, wherein the first medium is the hot effluent (HG) of the first bed before admission into the second bed , and the second medium is a cooling medium; the converter comprising an input and an output for the first medium (HG) and an input and an output for the second medium (CM); the converter being characterized in that: said heat exchanger comprises a plurality of stacked round plates , said plates being full circular plates or annular plates, and adjacent plates define gaps therebetween, and the effluent (HG) of the first catalytic bed and the cooling medium (CM) pass respectively through alternate gaps between the plates of the heat exchanger , wherein said first catalytic bed is a hollow cylinder comprising a cavity (10 A ) and said heat exchanger is arranged coaxially to the first catalytic bed inside said cavity (10 A ). said heat exchanger comprises a plurality of stacked round plates , said plates being full circular plates or annular plates, and adjacent plates define gaps therebetween, and the effluent (HG) of the first catalytic bed and the cooling medium (CM) pass respectively through alternate gaps between the plates of the heat exchanger , wherein said first catalytic bed is a hollow cylinder comprising a cavity (10 A ) and said heat exchanger is arranged coaxially to the first catalytic bed inside said cavity (10 A ).
An external preparation comprising 0.0314 wt% thymosin beta 4 (Tβ4); 0.147 wt% sodium phosphate dibasic as a buffer; 1.05 wt% propylene glycol as an additive; 2.63 wt% sodium carboxymethyl cellulose as a viscosifier; 0.735 wt% sodium chloride; 95.4 wt% distilled water, and HCl solution to adjust the pH of the preparation to 5.7 ± 0.1. 0.0314 wt% thymosin beta 4 (Tβ4); 0.147 wt% sodium phosphate dibasic as a buffer; 1.05 wt% propylene glycol as an additive; 2.63 wt% sodium carboxymethyl cellulose as a viscosifier; 0.735 wt% sodium chloride; 95.4 wt% distilled water, and HCl solution to adjust the pH of the preparation to 5.7 ± 0.1.
A brush for delivering a glutinous substance to a workpiece from an end-effector , the brush comprising: a body , having a rotational axis and comprising: a first end ; a second end , opposite the first end ; and a channel , comprising an axial inlet and an outlet , wherein the axial inlet is at the first end of the body and is coaxial with the rotational axis ; and bristles , extending from the body so that the bristles are not parallel to the rotational axis of the body , wherein the bristles , extending from the body so that the bristles are not parallel to the rotational axis , are arranged into first tufts , and wherein each of the first tufts comprises a first tip , parallel to the rotational axis of the body . a body , having a rotational axis and comprising: a first end ; a second end , opposite the first end ; and a channel , comprising an axial inlet and an outlet , wherein the axial inlet is at the first end of the body and is coaxial with the rotational axis ; and bristles , extending from the body so that the bristles are not parallel to the rotational axis of the body , wherein the bristles , extending from the body so that the bristles are not parallel to the rotational axis , are arranged into first tufts , and
A method for preparing therapeutic nanoparticles using a nanoemulsion process in which: a therapeutic agent, a first polymer and, optionally, a second polymer are combined with an organic solution to form a first organic phase, wherein the first polymer is a diblock PLGA-PEG or diblock PLA-PEG copolymer and wherein the first polymer or the second polymer is optionally bound to a ligand having a molecular weight of less than about 1000 g/mol; the first organic phase is combined with a first aqueous phase to form a second phase; the second phase is emulsified to form a primary (coarse) emulsion; the primary emulsion is emulsified to form a fine emulsion; the fine emulsion is diluted with an aqueous quench, at least partially at a temperature of 5°C or less; and the nanoparticles are recovered by filtration. a therapeutic agent, a first polymer and, optionally, a second polymer are combined with an organic solution to form a first organic phase, wherein the first polymer is a diblock PLGA-PEG or diblock PLA-PEG copolymer and wherein the first polymer or the second polymer is optionally bound to a ligand having a molecular weight of less than about 1000 g/mol; the first organic phase is combined with a first aqueous phase to form a second phase; the second phase is emulsified to form a primary (coarse) emulsion; the primary emulsion is emulsified to form a fine emulsion; the fine emulsion is diluted with an aqueous quench, at least partially at a temperature of 5°C or less; and the nanoparticles are recovered by filtration.
An apparatus for use in a user equipment, UE , the apparatus comprising: a communication module configured to: receive a wireless local area network, WLAN, selection preference rule from a home public land mobile network, HPLMN ; and store the WLAN selection preference rule in a non-transitory storage medium ; and a WLAN selection module configured to select a WLAN based at least in part on the WLAN selection preference rule, during power-up, while the UE has not registered to any public land mobile network, PLMN. a communication module configured to: receive a wireless local area network, WLAN, selection preference rule from a home public land mobile network, HPLMN ; and store the WLAN selection preference rule in a non-transitory storage medium ; and receive a wireless local area network, WLAN, selection preference rule from a home public land mobile network, HPLMN ; and store the WLAN selection preference rule in a non-transitory storage medium ; and a WLAN selection module configured to select a WLAN based at least in part on the WLAN selection preference rule, during power-up, while the UE has not registered to any public land mobile network, PLMN.
An electronic shelf label system , - wherein the system comprises a server adapted to individually address a plurality of shelf labels (2A-2K) to communicate data with them in an addressed manner, and - wherein the system comprises at least one access point which is connected to the server and is designed for radio-technical communication of the data with the shelf labels (2A-2K), characterized in that the system comprises a near-field communication, abbreviated NFC, sub-system on a shelf rail of a shelf , the NFC sub-system being characterized in such a way that - the shelf rail comprises an NFC reader (4A-4C) which is designed for radio-based communication with the access point , and in that - at least one conductor loop (L) connected to the NFC reader , which is formed along the shelf rail and is used for NFC communication with an NFC-capable shelf label (2A-2K), is provided, wherein - at least one NFC-capable shelf label (2A-2K) is attached to the shelf rail corresponding to the conductor loop (L), and wherein - the NFC reader is designed for NFC communication of the data with the shelf label (2A-2K) addressed by the server . - wherein the system comprises a server adapted to individually address a plurality of shelf labels (2A-2K) to communicate data with them in an addressed manner, and - wherein the system comprises at least one access point which is connected to the server and is designed for radio-technical communication of the data with the shelf labels (2A-2K), characterized in that the system comprises a near-field communication, abbreviated NFC, sub-system on a shelf rail of a shelf , the NFC sub-system being characterized in such a way that - the shelf rail comprises an NFC reader (4A-4C) which is designed for radio-based communication with the access point , and in that - at least one conductor loop (L) connected to the NFC reader , which is formed along the shelf rail and is used for NFC communication with an NFC-capable shelf label (2A-2K), is provided, wherein - at least one NFC-capable shelf label (2A-2K) is attached to the shelf rail corresponding to the conductor loop (L), and wherein - the NFC reader is designed for NFC communication of the data with the shelf label (2A-2K) addressed by the server .
A method for vegetative propagation of woody plants from prepared leaf cuttings, wherein the woody plants correspond to individuals from Eucalyptus sp., wherein the method comprises the following steps: a) providing cuts of leaf cuttings from an Eucalyptus donor tree, where the leaf cutting cuts correspond to season shoots, where the shoots are semi-mature with expanded and developed leaves with a bud, and maintaining a stem section of up to 3 cm above and below the bud, where the leaves are of a length 6 to 6.5 cm and where the opposite leaves are separated at the attachment site with a longitudinal cut between the two leaves, dividing the stem into two cuttings, b) immersing the prepared leaf cutting into a composition comprising-growth regulators of the cytokine type and of the auxin type wherein said growth regulators are selected from, IBA+ZEA; IBA+BAP; or IBA+TDZ for 30 minutes at a concentration equal to or less than 10 mgL -1 of each, and high auxin levels in a concentration range of 4 to 10 mgL -1 c) planting the prepared leaf cutting into a previously sterilized sand substrate or in a substrate mixture composed of previously sterilized peat and sand, in a tube production system or on a naked root, in a warm bed, d) inducing sprouting and rooting of the prepared leaf cutting, by means of controlled ambient temperature, humidity and illumination, where the temperature varies in minimum and maximum ranges from 21 to 29°C, ambient humidity of 65-85%, and the minimum brightness during the day is 15000 lux and the maximum is 930 μmolm 2 s -1 , wherein steps a) through d) always occur outside an in vitro environment. a) providing cuts of leaf cuttings from an Eucalyptus donor tree, where the leaf cutting cuts correspond to season shoots, where the shoots are semi-mature with expanded and developed leaves with a bud, and maintaining a stem section of up to 3 cm above and below the bud, where the leaves are of a length 6 to 6.5 cm and where the opposite leaves are separated at the attachment site with a longitudinal cut between the two leaves, dividing the stem into two cuttings, b) immersing the prepared leaf cutting into a composition comprising-growth regulators of the cytokine type and of the auxin type wherein said growth regulators are selected from, IBA+ZEA; IBA+BAP; or IBA+TDZ for 30 minutes at a concentration equal to or less than 10 mgL -1 of each, and high auxin levels in a concentration range of 4 to 10 mgL -1 c) planting the prepared leaf cutting into a previously sterilized sand substrate or in a substrate mixture composed of previously sterilized peat and sand, in a tube production system or on a naked root, in a warm bed, d) inducing sprouting and rooting of the prepared leaf cutting, by means of controlled ambient temperature, humidity and illumination, where the temperature varies in minimum and maximum ranges from 21 to 29°C, ambient humidity of 65-85%, and the minimum brightness during the day is 15000 lux and the maximum is 930 μmolm 2 s -1 ,
A solid fabric softening composition comprising: (a) from 35 to 60% by weight of a disintegrant system; and (b) from 5 to 65% by weight of a quaternary ammonium compound having a structure represented by formula (I) (R 1 )(R 2 )-N + -[(CH 2 ) n -Z-R 3 ][(CH 2 ) m -Y-R4]A - (I) wherein each of R 1 and R 2 is independently a C 1 -C 4 alkyl group or a C 2 to C 4 alkenyl group; each R 3 and R 4 is independently a C 7 to C 27 alkyl group or alkenyl group; each of Z and Y is independently -O-(O)C- or -C(O)-O-; m and n are each independently a number from 1 to 4; A - is an anionic counterion selected from methyl sulfate, ethyl sulfate, methanesulfonate, ethanesulfonate, sulfate, phosphate, nitrate, formate, carbonate, benzoate, tosylate, acetate, lactate, citrate, chloride, bromide, fluoride, iodide, and mixtures thereof; wherein the disintegrant system comprises a combination of salt and acid; wherein the salt comprises carbonate salts; wherein the weight ratio of the carbonate salt to the acid is from 1:10 to 10:1; and wherein the composition is in the form of a tablet. (a) from 35 to 60% by weight of a disintegrant system; and (b) from 5 to 65% by weight of a quaternary ammonium compound having a structure represented by formula (I) (R 1 )(R 2 )-N + -[(CH 2 ) n -Z-R 3 ][(CH 2 ) m -Y-R4]A - (I) wherein each of R 1 and R 2 is independently a C 1 -C 4 alkyl group or a C 2 to C 4 alkenyl group; each R 3 and R 4 is independently a C 7 to C 27 alkyl group or alkenyl group; each of Z and Y is independently -O-(O)C- or -C(O)-O-; m and n are each independently a number from 1 to 4; A - is an anionic counterion selected from methyl sulfate, ethyl sulfate, methanesulfonate, ethanesulfonate, sulfate, phosphate, nitrate, formate, carbonate, benzoate, tosylate, acetate, lactate, citrate, chloride, bromide, fluoride, iodide, and mixtures thereof; wherein the disintegrant system comprises a combination of salt and acid; wherein the salt comprises carbonate salts; wherein the weight ratio of the carbonate salt to the acid is from 1:10 to 10:1; and wherein the composition is in the form of a tablet.
A monoclonal antibody that selectively binds to a hemoglobin beta chain, wherein the antibody binds to a hemoglobin beta chain minimal epitope 11 VTALW 15 (SEQ ID NO:17) and binds to glycated and non-glycated HbA, HbS, HbC, HbD and HbE.
Multilayer structure for the production of a floor covering comprising an upper wear layer bonded to a reinforced layer with a first reinforcement mesh , characterized in that the lower face of the reinforced layer is bonded to a non-woven backing reinforced with a second reinforcement mesh , and wherein the first reinforcement mesh and/or the second reinforcement mesh are made of fiberglass veils.
Knitted precious metal mesh, characterized in that the precious metal mesh comprises n wires per row and at least two, at most (n-1) float stitches per wale, wherein: n ≥ 3.
A headlamp for a vehicle, comprising: a light source ; a primary projection lens for shaping light from the light source, the primary projection lens comprising a modified toric-type projection lens having a toric-shaped exit surface adapted to shape light along a horizontal direction with respect to the vehicle, wherein the horizontal direction is perpendicular to a forward direction of the vehicle and perpendicular to a vertical direction with respect to the vehicle; an oscillating mirror obliquely angled relative to the direction of light received from the primary projection lens between the primary projection lens and a secondary projection lens and adapted to receive light from the primary projection lens and redirect the light to the secondary projection lens; the secondary projection lens being adapted to shape light received from the oscillating mirror along a vertical direction with respect to the vehicle substantially perpendicular to the horizontal direction such that a desired light pattern is projected from the vehicle; and a controller for controlling the light source and the oscillating mirror to actively dim or turn off portions of the desired light pattern to provide an adaptive-driving beam headlamp for reducing glare perceived outside the vehicle. a light source ; a primary projection lens for shaping light from the light source, the primary projection lens comprising a modified toric-type projection lens having a toric-shaped exit surface adapted to shape light along a horizontal direction with respect to the vehicle, wherein the horizontal direction is perpendicular to a forward direction of the vehicle and perpendicular to a vertical direction with respect to the vehicle; an oscillating mirror obliquely angled relative to the direction of light received from the primary projection lens between the primary projection lens and a secondary projection lens and adapted to receive light from the primary projection lens and redirect the light to the secondary projection lens; the secondary projection lens being adapted to shape light received from the oscillating mirror along a vertical direction with respect to the vehicle substantially perpendicular to the horizontal direction such that a desired light pattern is projected from the vehicle; and a controller for controlling the light source and the oscillating mirror to actively dim or turn off portions of the desired light pattern to provide an adaptive-driving beam headlamp for reducing glare perceived outside the vehicle.
A system for making a tire tread comprising: a tire vulcanization mold having lug forming portions; an extruder ; a lower roller die ; an upper roller die spaced from the lower roller die , thereby forming an opening; a conveyor having a first end proximate to the extruder and a second end proximate to the upper and lower roller dies , such that the conveyor receives a strip of green rubber (S) extruded by the extruder and feeds the strip of green rubber (S) to the opening between the upper and lower roller dies ; and a drum (130; 700) proximate to the upper and lower roller dies , wherein the upper and lower roller dies are configured to apply the strip of green rubber (S) to the drum (130; 700), characterized by an adjustment apparatus configured to move the upper roller die relative to the lower roller die , thereby adjusting the size of the opening; and a controller configured to control the adjustment apparatus to move the upper roller die relative to the lower roller die while the conveyor feeds the strip of green rubber (S) to the upper and lower roller dies , thereby changing a thickness of the strip of green rubber (S) as it is applied to the drum (130; 700), such that the thickness of the strip of green rubber (S) corresponds to the lug forming portions of the tire vulcanization mold. a tire vulcanization mold having lug forming portions; an extruder ; a lower roller die ; an upper roller die spaced from the lower roller die , thereby forming an opening; a conveyor having a first end proximate to the extruder and a second end proximate to the upper and lower roller dies , such that the conveyor receives a strip of green rubber (S) extruded by the extruder and feeds the strip of green rubber (S) to the opening between the upper and lower roller dies ; and a drum (130; 700) proximate to the upper and lower roller dies , wherein the upper and lower roller dies are configured to apply the strip of green rubber (S) to the drum (130; 700), characterized by an adjustment apparatus configured to move the upper roller die relative to the lower roller die , thereby adjusting the size of the opening; and a controller configured to control the adjustment apparatus to move the upper roller die relative to the lower roller die while the conveyor feeds the strip of green rubber (S) to the upper and lower roller dies , thereby changing a thickness of the strip of green rubber (S) as it is applied to the drum (130; 700), such that the thickness of the strip of green rubber (S) corresponds to the lug forming portions of the tire vulcanization mold.
Working station , in particular assembly work station, at which manual and/or partially automated working processes, in particular assembly processes, can be carried out by a user, components (W) to be produced in particular being items of furniture or portions of items of furniture and the working station comprising: a control device ; a display device connected to the control device ; and one or more tools and/or a plurality of magazines for individual parts for working the component (W), the display device being configured to impart working information to the user, which working information relates to the manual and/or semi-automatic working processes; the control device being designed to generate the working information from CAD data of the component (W) and to input said information into the display device , and characterised in that the working information comprises information relating to the tools and/or magazines to be used, and the display device is suitable for identifying and optically marking the tools and/or magazines and/or parts or components (W) based on the working information. a control device ; a display device connected to the control device ; and one or more tools and/or a plurality of magazines for individual parts for working the component (W), the display device being configured to impart working information to the user, which working information relates to the manual and/or semi-automatic working processes; the control device being designed to generate the working information from CAD data of the component (W) and to input said information into the display device , and characterised in that the working information comprises information relating to the tools and/or magazines to be used, and the display device is suitable for identifying and optically marking the tools and/or magazines and/or parts or components (W) based on the working information.