mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing a plasticized biodegradable polyester film, made from the following parts by weight: biodegradable polyester: 100 parts, plasticizer: 5-25 parts, inorganic filler: 0-150 parts, antioxidant: 0.1-1 parts, wherein the biodegradable polyester is polylactic acid and poly(butylene terephthalate-co-butylene adipate) ester, and the plasticizer is diacetyl epoxy vegetable glyceryl oleate, the method comprising the following preparation steps: 1) drying the biodegradable polyester and the inorganic filler, wherein the drying process of the biodegradable polyester is drying the biodegradable polyester material in vacuum at 70-90°C for 8-24 hours, and the drying process of the inorganic filler is drying the inorganic filler in vacuum at 105-125°C for 3-12 hours; 2) rapidly mixing the biodegradable polyester, the plasticizer, the inorganic filler and the antioxidant of the parts by weight at room temperature at 200-250 rpm for 5-15 minutes; 3) adding the raw material mixed evenly in step 2) into a twin-screw extruder for melt-blending, then obtaining the plasticized biodegradable polyester material after strip-drawing and grain-slicing; 4) drying the plasticized biodegradable polyester material obtained in step 3) in vacuum at 70-90°C for 8-24 hours; 5) blowing the plasticized biodegradable polyester material after drying in step 4) as a master batch into film through a single-screw extruder, then obtaining the plasticized biodegradable polyester film. 1) drying the biodegradable polyester and the inorganic filler, wherein the drying process of the biodegradable polyester is drying the biodegradable polyester material in vacuum at 70-90°C for 8-24 hours, and the drying process of the inorganic filler is drying the inorganic filler in vacuum at 105-125°C for 3-12 hours; 2) rapidly mixing the biodegradable polyester, the plasticizer, the inorganic filler and the antioxidant of the parts by weight at room temperature at 200-250 rpm for 5-15 minutes; 3) adding the raw material mixed evenly in step 2) into a twin-screw extruder for melt-blending, then obtaining the plasticized biodegradable polyester material after strip-drawing and grain-slicing; 4) drying the plasticized biodegradable polyester material obtained in step 3) in vacuum at 70-90°C for 8-24 hours; 5) blowing the plasticized biodegradable polyester material after drying in step 4) as a master batch into film through a single-screw extruder, then obtaining the plasticized biodegradable polyester film.
A radio resource allocation method, comprising: dividing (41, 91) radio resource of a plurality of cells into more than one radio resource groups; detecting (42, 92) in a cell a requirement of radio resource allocation for a user equipment; determining (43, 93) effective interference to be generated by the required radio resource to a defined group of neighboring cells based on one or more measurement indications received from the user equipment; and allocating (44, 94) to the user equipment a radio resource from one of the radio resource groups on the basis of the determined effective interference to be generated to the defined group of neighboring cells. dividing (41, 91) radio resource of a plurality of cells into more than one radio resource groups; detecting (42, 92) in a cell a requirement of radio resource allocation for a user equipment; determining (43, 93) effective interference to be generated by the required radio resource to a defined group of neighboring cells based on one or more measurement indications received from the user equipment; and allocating (44, 94) to the user equipment a radio resource from one of the radio resource groups on the basis of the determined effective interference to be generated to the defined group of neighboring cells.
A method of generating a monoclonal function blocking antibody specific to a sodium ion channel Na v 1.7 said method comprising the step of at least two immunizations of a non-human host with a cyclic peptide of SEQ ID NO: 90 from an E1 extracellular sequence of said ion channel, wherein cyclic peptide is conjugated to a carrier and the carrier protein is different in the second immunization to that employed in the first immunization.
Therapy device comprising a radiation source, in particular a light source, for irradiating a patient, wherein the therapy device has at least two bodies (3, 4), which differ from each other in terms of the respective material by which they are formed and which bear with their base surfaces (11, 12) directly on each other or via an intermediate layer and are arranged one behind the other in the beam path of the therapy device, characterized in that one of the bodies is formed from opal and the one or more other bodies from crystal or from a material skeleton of a coral, and in that the at least two bodies (3, 4) are pyramid-shaped.
A gas-insulated switchgear, comprising a fixed-side electrode and a movable-side electrode facing each other in a container filled with an insulating gas, the fixed-side electrode including a tubular fixed-side conducting contact and a fixed-side shield that houses the fixed-side conducting contact, the movable-side electrode including a movable conductor driven by a driving unit to be connected to and separated from the fixed-side conducting contact, the gas-insulted switchgear comprising a fixed-side arc shield having an opening with a diameter larger than an outer diameter of the movable conductor, the opening being formed on a side of the fixed-side shield facing the movable-side electrode, the fixed-side arc shield causing an arc current to flow outward in a radial direction during contact parting of the fixed-side conducting contact and the movable conductor to generate magnetic flux on a surface thereof in a circumferential direction that produces a force acted on an arc in a direction of a central axis, the fixed-side arc shield containing an arc-resistant member for restricting the arc in the vicinity of the opening wherein the fixed-side arc shield is thinner than the fixed-side shield, and the fixed-side arc shield is a circular plate having the opening and the fixed-side shield is cylindrically formed.
Pipetting device with housing, in particular pipetting robot, comprising: a lower housing part with a housing bottom, a lower rear side, a lower front side and lower side walls (34a, 34b) connecting the lower front side and the lower rear side, wherein the lower housing part is designed such that it can be positioned directly on a position surface, in particular a work surface of a table or the like; an upper housing part with a housing roof, an upper rear side, an upper front side and upper side walls (24a, 24b) connecting the upper front side and the upper rear side; wherein the housing bottom comprises at least one support surface on which a pipetting device accommodated in the housing is supported; wherein the upper housing part and the lower housing part are designed such that the upper housing part can be arranged on the lower housing part independently of the pipetting device received in the lower housing part or can be removed therefrom. a lower housing part with a housing bottom, a lower rear side, a lower front side and lower side walls (34a, 34b) connecting the lower front side and the lower rear side, wherein the lower housing part is designed such that it can be positioned directly on a position surface, in particular a work surface of a table or the like; an upper housing part with a housing roof, an upper rear side, an upper front side and upper side walls (24a, 24b) connecting the upper front side and the upper rear side; wherein the housing bottom comprises at least one support surface on which a pipetting device accommodated in the housing is supported; wherein the upper housing part and the lower housing part are designed such that the upper housing part can be arranged on the lower housing part independently of the pipetting device received in the lower housing part or can be removed therefrom.
Bait formulation in solid form comprising: a) at least one iron salt; b) component b) selected from methylglycine-N,N-diacetic acid, the alkali metal salts, alkaline earth metal salts and ammonium salts thereof, and mixtures thereof; c) optionally component c) selected from glutamine-N,N-diacetic acid, the alkali metal salts, alkaline earth metal salts and ammonium salts thereof, and mixtures thereof; d) at least one starch-containing component; and e1) ethylene-1,2-diamino-N,N,N',N'-tetraacetic acid and/or a salt thereof. a) at least one iron salt; b) component b) selected from methylglycine-N,N-diacetic acid, the alkali metal salts, alkaline earth metal salts and ammonium salts thereof, and mixtures thereof; c) optionally component c) selected from glutamine-N,N-diacetic acid, the alkali metal salts, alkaline earth metal salts and ammonium salts thereof, and mixtures thereof; d) at least one starch-containing component; and e1) ethylene-1,2-diamino-N,N,N',N'-tetraacetic acid and/or a salt thereof.
Method for erecting an elevator system in an elevator shaft of a building, in which method at least one lift process is carried out in order to adapt a usable lift height of the elevator system to an increasing height of the building, the lift process comprising lifting at least one drive platform that supports an elevator drive machine and via flexible support means (19, 19')an elevator car and a counterweight along at least one elevator car guide rail, wherein before the lift process the at least one elevator car guide rail is elongated in the upwards direction above the drive platform and fixed to a shaft wall of the elevator shaft in the region of this elongation by means of at least one auxiliary support, characterized in that after the lift process the at least one auxiliary support, which then lies below the drive platform, is replaced by a final guide rail mounting that is designed differently than the auxiliary support.
An antistatic laminate film structure comprising: a substrate made of mineral glass or organic glass, a transparent support structure and an antistatic layer comprising at least one antistatic component selected from the group consisting of graphene, single or multi-wall native carbon nanotubes, surface modified carbon nanotubes, or carbon nanotubes linked to conductive or conjugated polymers, organic conductive materials or polymers or co-polymers thereof, acrylate materials, and mixtures thereof, wherein the antistatic layer comprises a thickness ranging from 100 nm to 1 μm, and characterized in that said antistatic laminate film structure comprises an antistatic enhancing layer that is applied on top of, or subjacent to said antistatic layer, said antistatic enhancing layer comprising siloxanes, non-conductive metal oxides, or poly(ethylene glycol) copolymers. a substrate made of mineral glass or organic glass, a transparent support structure and an antistatic layer comprising at least one antistatic component selected from the group consisting of graphene, single or multi-wall native carbon nanotubes, surface modified carbon nanotubes, or carbon nanotubes linked to conductive or conjugated polymers, organic conductive materials or polymers or co-polymers thereof, acrylate materials, and mixtures thereof, wherein the antistatic layer comprises a thickness ranging from 100 nm to 1 μm, and characterized in that
A method for wireless communication, comprising: identifying data to be transmitted using a set of uplink resources; determining whether an elapsed time since a prior scheduling request, SR, was transmitted exceeds a threshold; determining that the data is to be transmitted using a contention-based subset of the uplink resources if the elapsed time exceeds the threshold; and transmitting the data using the contention-based subset of the uplink resources. identifying data to be transmitted using a set of uplink resources; determining whether an elapsed time since a prior scheduling request, SR, was transmitted exceeds a threshold; determining that the data is to be transmitted using a contention-based subset of the uplink resources if the elapsed time exceeds the threshold; and transmitting the data using the contention-based subset of the uplink resources.
A method of fault detection for an audio alert generation system (100, 202, 502), the method comprising: in the audio alert generation system, selecting a stored digital alert audio file to be processed to generate an analog audio signal to drive a speaker; and in an alert fault detection system (208, 504), obtaining an analog electrical signal from the audio alert generation system at a point between a digital-to-analog converter and the speaker, converting the obtained signal to a digitally-formatted obtained audio signal, detecting a fault in the audio alert generation system by comparing the digitally-formatted obtained audio signal with the stored digital alert audio file, and triggering a fault indicator. in the audio alert generation system, selecting a stored digital alert audio file to be processed to generate an analog audio signal to drive a speaker; and in an alert fault detection system (208, 504), obtaining an analog electrical signal from the audio alert generation system at a point between a digital-to-analog converter and the speaker, converting the obtained signal to a digitally-formatted obtained audio signal, detecting a fault in the audio alert generation system by comparing the digitally-formatted obtained audio signal with the stored digital alert audio file, and triggering a fault indicator. obtaining an analog electrical signal from the audio alert generation system at a point between a digital-to-analog converter and the speaker, converting the obtained signal to a digitally-formatted obtained audio signal, detecting a fault in the audio alert generation system by comparing the digitally-formatted obtained audio signal with the stored digital alert audio file, and triggering a fault indicator.
A process for the production of weldable and stainless tubular structures with high mechanical strength, comprising the following steps in succession: - annealing heat treatment of a tube preform in martensitic or austenitic-martensitic steel, comprising a first step of heating from ambient temperature to the annealing temperature, a step of annealing treatment at a temperature of about 680°C extended for a time of at least 1 hour and preferably less than 3 hours, and a step of cooling; - chemical preparation of the surfaces for lubricating the contact surfaces of the tube with the drawing equipment; - at least one drawing passage for deforming the material in a permanent manner; and - a final heat treatment for reforming the structure of the steel which was deformed and for determining the desired final characteristics, which is conducted at a temperature in the range of 950°C-1150°C and for a time greater than 10 minutes and less than 1 hour; wherein said final heat treatment is followed by a step of rapid cooling and then by a step of slow cooling, wherein said step of rapid cooling is conducted by means of the contact of said tubular structure with a refrigerated, controlled gaseous atmosphere and provides for the temperature lowering of said tubular structure from about 920°C (temperature at the furnace outlet) to about 450°C, in a time in the range of 30 seconds - 2 minutes, preferably about 1 minute; and wherein said steel is martensitic or austenitic-martensitic steel and is X4Cr-Ni-Mo 16-5-1. - annealing heat treatment of a tube preform in martensitic or austenitic-martensitic steel, comprising a first step of heating from ambient temperature to the annealing temperature, a step of annealing treatment at a temperature of about 680°C extended for a time of at least 1 hour and preferably less than 3 hours, and a step of cooling; - chemical preparation of the surfaces for lubricating the contact surfaces of the tube with the drawing equipment; - at least one drawing passage for deforming the material in a permanent manner; and - a final heat treatment for reforming the structure of the steel which was deformed and for determining the desired final characteristics, which is conducted at a temperature in the range of 950°C-1150°C and for a time greater than 10 minutes and less than 1 hour;
Printed circuit board arrangement (1, 2, 3) comprising at least two printed circuit boards (5, 7) which are arranged parallel to one another and are connected to one another, wherein at least one surface region (8, 9, 10) of one printed circuit board is connected to an electronic component and is connected to another printed circuit board of the printed circuit board arrangement (1, 2, 3) by means of an elastic and/or damping element (11, 12, 15) in such a way that an oscillating system, in particular a spring-mass system, an oscillating bending strip or a flexurally oscillating plate, is formed by means of the surface region (8, 9, 10) of the printed circuit board and the element (11, 12, 15), wherein the elastic and/or damping element (11, 12, 15) is arranged between the two printed circuit boards (5, 7), wherein the other printed circuit board which is arranged adjacent and parallel to the printed circuit board forms an oscillating mating bearing and a fastening point for the element (11, 12, 15) and the surface region (8, 9, 10) which is connected to the element (11, 12, 15), wherein the surface region (8, 9, 10) is connected to the surface of the printed circuit board by means of a covering film or foil, so that an intermediate space, specifically a gap (24, 25, 26, 27, 28, 29) which is designed for decoupling, between the printed circuit board and the oscillating surface region (8, 9, 10) of the printed circuit board is sealed, and wherein the covering film or foil has a smaller thickness dimension than the printed circuit board.
A method comprising: providing a subterranean treatment fluid comprising: a base fluid and a weighting agent having a first average settling velocity; and a neutral-density particle selected from the group consisting of: polyamides, polystyrenes, polyacrylonitriles, polyvinyl acetates, styrene-butadienes, polymethylpentenes,, butyl rubbers, polycarbonates, buckyballs, nanoclays, exfoliated graphites, and any combination thereof; and mixing the subterranean treatment fluid with the neutral-density particle thereby reducing the first average settling velocity of the weighting agent to a second average settling velocity, wherein the neutral-density particle is honeycombed, or fibrous. providing a subterranean treatment fluid comprising: a base fluid and a weighting agent having a first average settling velocity; and a neutral-density particle selected from the group consisting of: polyamides, polystyrenes, polyacrylonitriles, polyvinyl acetates, styrene-butadienes, polymethylpentenes,, butyl rubbers, polycarbonates, buckyballs, nanoclays, exfoliated graphites, and any combination thereof; and mixing the subterranean treatment fluid with the neutral-density particle thereby reducing the first average settling velocity of the weighting agent to a second average settling velocity, wherein the neutral-density particle is honeycombed, or fibrous.
A damage recovery system of a structural region of an aircraft, comprising: - a first tank containing a polyurethane foam; - a main duct fluidically coupled to the tank to receive said polyurethane foam during a first operating condition; - a plurality of secondary ducts, fluidically coupled to the main duct to receive said polyurethane foam during the first operating condition; - release means for releasing said polyurethane foam, operatively coupled to said secondary ducts, and adapted to allow an outflow of the polyurethane foam from the secondary ducts during the first operating condition; and - capsules, arranged in the proximity of said release means and containing graphene powders, configured to release said graphene powder during the outflow of the polyurethane foam from the release means so that said graphene powder can mix with said polyurethane foam. - a first tank containing a polyurethane foam; - a main duct fluidically coupled to the tank to receive said polyurethane foam during a first operating condition; - a plurality of secondary ducts, fluidically coupled to the main duct to receive said polyurethane foam during the first operating condition; - release means for releasing said polyurethane foam, operatively coupled to said secondary ducts, and adapted to allow an outflow of the polyurethane foam from the secondary ducts during the first operating condition; and - capsules, arranged in the proximity of said release means and containing graphene powders, configured to release said graphene powder during the outflow of the polyurethane foam from the release means so that said graphene powder can mix with said polyurethane foam.
A system for the supply of an active substance for an agricultural sprayer, the system comprising - a main liquid circuit which comprises a reservoir for a main liquid and allows circulation of the main liquid, the main liquid circuit comprising one or more distribution sections (20a-20c), each configured to distribute, to a plurality of dispensing elements (22a-22c), a spray liquid to be dispensed, and - a feed system which is connected to the main liquid circuit and in which the main liquid is mixed with at least one separately fed active substance to form a liquid active substance mixture, the active substance supply system being configured to introduce the active substance mixture into the one or more distribution sections (20a-20c) at a plurality of points (68a-68c), characterized in that the main liquid circuit has, in the flow direction downstream of the one or more distribution sections (20a-20c), one or more return lines (24, 24a-24c) which are connected to the reservoir, a shutoff device (26, 26a-26c) being arranged on the one or more return lines (24, 24a-24c), which shutoff device is configured to block the flow. - a main liquid circuit which comprises a reservoir for a main liquid and allows circulation of the main liquid, the main liquid circuit comprising one or more distribution sections (20a-20c), each configured to distribute, to a plurality of dispensing elements (22a-22c), a spray liquid to be dispensed, and - a feed system which is connected to the main liquid circuit and in which the main liquid is mixed with at least one separately fed active substance to form a liquid active substance mixture, the active substance supply system being configured to introduce the active substance mixture into the one or more distribution sections (20a-20c) at a plurality of points (68a-68c), characterized in that the main liquid circuit has, in the flow direction downstream of the one or more distribution sections (20a-20c), one or more return lines (24, 24a-24c) which are connected to the reservoir, a shutoff device (26, 26a-26c) being arranged on the one or more return lines (24, 24a-24c), which shutoff device is configured to block the flow. the active substance supply system being configured to introduce the active substance mixture into the one or more distribution sections (20a-20c) at a plurality of points (68a-68c), characterized in that the main liquid circuit has, in the flow direction downstream of the one or more distribution sections (20a-20c), one or more return lines (24, 24a-24c) which are connected to the reservoir, a shutoff device (26, 26a-26c) being arranged on the one or more return lines (24, 24a-24c), which shutoff device is configured to block the flow.