mhurhangee/ep-ind-claims huggingface dataset:
A method of determining ligands of macromolecules in a sample, wherein said sample is a cell-free cell extract, said method comprising or consisting of (a) subjecting said sample comprising (i) complexes formed by said macromolecules and said ligands and (ii) unbound ligands to a method which separates said complexes from said unbound ligands, wherein said method yields fractions and wherein said method is size exclusion chromatography; (b) releasing ligands from complexes obtained in step (a); and (c) subjecting the released ligands obtained in step (b) to a chemical analysis method, thereby determining said ligands of said macromolecules; (d) determining one or more macromolecules which were bound to ligands by a chemical analysis; wherein said method further comprises the step of (e) determining which ligand binds which macromolecule by determining the amount of a given ligand in each of said fractions, thereby obtaining an elution profile of said given ligand, determining the amount of a given macromolecule in each of said fractions, thereby obtaining an elution profile of said macromolecule and comparing obtained elution profiles of ligands with such obtained elution profiles of macromolecules. (a) subjecting said sample comprising (i) complexes formed by said macromolecules and said ligands and (ii) unbound ligands to a method which separates said complexes from said unbound ligands, wherein said method yields fractions and wherein said method is size exclusion chromatography; (b) releasing ligands from complexes obtained in step (a); and (c) subjecting the released ligands obtained in step (b) to a chemical analysis method, thereby determining said ligands of said macromolecules; (d) determining one or more macromolecules which were bound to ligands by a chemical analysis; wherein said method further comprises the step of (e) determining which ligand binds which macromolecule by determining the amount of a given ligand in each of said fractions, thereby obtaining an elution profile of said given ligand, determining the amount of a given macromolecule in each of said fractions, thereby obtaining an elution profile of said macromolecule and comparing obtained elution profiles of ligands with such obtained elution profiles of macromolecules.
A vehicle speed control apparatus of an industrial vehicle, comprising: an engine supplying power for traveling and load handling; a torque converter through which power of the engine is transmitted via a transmission to drive wheels; a controller that receives detection signals from an engine speed sensor and a vehicle speed sensor and that determines a target engine speed (No) by PI control based on a deviation (Vd) between a target vehicle speed (Vo) and an actual vehicle speed; and an engine ECU which controls the engine so that the actual engine speed becomes the target engine speed (No), characterized in that the controller controls an upper limit of the target engine speed (No) according to an actual engine speed so that the target engine speed (No) becomes a sum of the actual engine speed and a value α, wherein the value α is 5 to 10% of the actual engine speed. an engine supplying power for traveling and load handling; a torque converter through which power of the engine is transmitted via a transmission to drive wheels; a controller that receives detection signals from an engine speed sensor and a vehicle speed sensor and that determines a target engine speed (No) by PI control based on a deviation (Vd) between a target vehicle speed (Vo) and an actual vehicle speed; and an engine ECU which controls the engine so that the actual engine speed becomes the target engine speed (No), characterized in that the controller controls an upper limit of the target engine speed (No) according to an actual engine speed so that the target engine speed (No) becomes a sum of the actual engine speed and a value α, wherein the value α is 5 to 10% of the actual engine speed.
A radio communications device comprising: location finding means for determining the device's location based on satellite signals and comprising frequency converting means for applying a downshift in frequency to a received signal that should contain a satellite signal; a crystal oscillator for producing an output signal whose frequency acts as a controlling reference for the frequency converting means; processing means for intermittently correcting the crystal oscillator such that the frequency of its output signal experiences jumps; and detecting means for detecting a jump in the frequency of the output signal of the crystal oscillator; wherein the location finding means is arranged to take account of a detected jump in the frequency of the output signal of the crystal oscillator when determining the device's location; and wherein the device further comprises an additional oscillator and control means for locking the additional oscillator to the crystal oscillator, wherein the control means develops a control signal for the purpose of controlling the additional oscillator and the detecting means is arranged to monitor the control signal for a signature of a jump in the frequency of the output signal of the crystal oscillator.
Rotary table machine for container treatment, comprising a carousel with container receptacles for conveying containers, wherein the container receptacles are arranged at a regular spacing along a circular path about an axis of rotation of the carousel by means of a machine pitch, wherein the carousel and a rotary transducer are connected via a transmission such that, when the carousel rotates about a machine pitch, the rotary transducer emits and/or processes a whole-number multiple of a periodic value increment as a position signal, characterized in that a signal transmitter is designed to detect a reference mark on the carousel and to emit a reference mark signal on the basis thereof, and a signal processing device is designed to process the position signal and the reference mark signal in order to regulate the position of the carousel and control the container receptacles.
A method of recovering an absorption solvent in a butadiene production process through oxidative dehydrogenation in a reactor, the method comprising: a) transferring a light gas discharged from an upper portion of an absorption tower to a wash column; b) recovering the absorption solvent included in the light gas by a solvent circulating in the wash column; and c) transferring a part of the light gas obtained from step b) to be circulated and re-introduced into the reactor, and the rest is included in a purge stream and discharged to an outside. a) transferring a light gas discharged from an upper portion of an absorption tower to a wash column; b) recovering the absorption solvent included in the light gas by a solvent circulating in the wash column; and c) transferring a part of the light gas obtained from step b) to be circulated and re-introduced into the reactor, and the rest is included in a purge stream and discharged to an outside.
Polypropylene composition comprising a. 37.0 to 95.0 wt%, based on the total weight of the composition, of a polypropylene base material wherein the polypropylene base material is i. a propylene homopolymer (hPP) and/or ii. a propylene copolymer (cPP); and b. 4.5 to 50.0 wt%, based on the total weight of the composition, of a carbon fibre; and c. 0.5 to 13.0 wt%, based on the total weight of the composition, of an adhesion promoter, wherein the carbon fibre comprised in the composition is in the form of a roving and has an average fibre length in the range of 4.0 to 17.0 mm, the composition being present in the form of particles with the components a) and c) forming the polymer matrix having a melt flow rate MFR 2 (230°C, 2.16 kg) measured according to ISO 1133 in the range of 12.0 to 250 g/10 min and wherein the average particle length of the composition corresponds to the average fibre length of the carbon fibre, and wherein the propylene homopolymer (hPP) has a1. a melting temperature measured according to ISO 11357-3 of at least 150 °C and/or b1. a xylene cold soluble content of ≤ 4.0 wt%, based on the total weight of the propylene homopolymer (hPP), the propylene copolymer (cPP) is a heterophasic propylene copolymer (HECO) having a2. a xylene cold soluble content of > 5.0 wt%, based on the total weight of the heterophasic propylene copolymer (HECO), and/or b2. a comonomer content of ≤ 30.0 mol%, based on the total weight of the heterophasic propylene copolymer (HECO), and wherein the polypropylene base material and the adhesion promoter are the only polymeric compounds in the composition. a. 37.0 to 95.0 wt%, based on the total weight of the composition, of a polypropylene base material wherein the polypropylene base material is i. a propylene homopolymer (hPP) and/or ii. a propylene copolymer (cPP); and i. a propylene homopolymer (hPP) and/or ii. a propylene copolymer (cPP); and b. 4.5 to 50.0 wt%, based on the total weight of the composition, of a carbon fibre; and c. 0.5 to 13.0 wt%, based on the total weight of the composition, of an adhesion promoter, a1. a melting temperature measured according to ISO 11357-3 of at least 150 °C and/or b1. a xylene cold soluble content of ≤ 4.0 wt%, based on the total weight of the propylene homopolymer (hPP),. a xylene cold soluble content of > 5.0 wt%, based on the total weight of the heterophasic propylene copolymer (HECO), and/or b2. a comonomer content of ≤ 30.0 mol%, based on the total weight of the heterophasic propylene copolymer (HECO), and
A vehicle shock absorber which substantially comprises a hydraulic medium-filled damping cylinder, divided into two damping chambers (C1, C2), for example a compression chamber and a return chamber, by a main piston, axially moveable relative to the damping cylinder and attached to a piston rod, wherein at a first end of the piston rod, centered around a damping piston holder part of the piston rod, at least a second piston/dampingpiston is also arranged a first side of which faces towards the main piston and contains one or more first through-ducts and second through-ducts, wherein at least the first of these ducts are defined in a direction of flow on the first side of the damping piston by a first flow limiter, and wherein the damping piston has an outside piston diameter (d 5y) smaller than an outside diameter of the main piston and is intended to slide in a restricting space located in and hydraulically coupled to the damping cylinder, but with an inside diameter (d 6i) smaller than an inside diameter (d 2i) of the damping cylinder, characterized in that the first of the damping piston through-ducts opens into a space between the first side of the damping piston and the first flow limiter between an inner radial extent (d 17i) and an outer radial extent (d 17v) arranged where the space has a compression area which is greater than the area of the first through-ducts, and in that the damping piston is capable of moving axially in relation to the damping piston holder part in that an axial play is created and limited by two position-limiting parts (14, 15) arranged in or on the damping piston holder part, one on either side of the damping piston.
An article comprising a substrate comprising two main faces defining two main surfaces separated by edges, said substrate bearing: - a functional coating deposited on at least part of a main surface and - a temporary protective layer deposited on at least part of the functional coating, wherein: - the temporary protective layer has a thickness of greater than 1 micrometer and preferentially less than 100 micrometers, - the temporary protective layer comprises or consists essentially of a poly(furfuryl alcohol) resin, - said substrate is made of flat glass or glass ceramic. - a functional coating deposited on at least part of a main surface and - a temporary protective layer deposited on at least part of the functional coating, wherein: - the temporary protective layer has a thickness of greater than 1 micrometer and preferentially less than 100 micrometers, - the temporary protective layer comprises or consists essentially of a poly(furfuryl alcohol) resin, - said substrate is made of flat glass or glass ceramic.
A corrosion inhibition package for use with an aqueous acid composition, said package comprising: - 2% to 25% by volume of the total volume of the corrosion inhibition package of a terpene selected from the group consisting of citral, ionone, ocimene, and cymene; - 20% to 55% by volume of the total volume of the corrosion inhibition package of a propargyl alcohol or derivative thereof; - at least one amphoteric surfactant selected from the group consisting of a sultaine surfactant, a betaine surfactant, and combinations thereof; - an anionic surfactant selected from the group consisting of a carboxylic surfactant and a sulfonic surfactant; and - 10% to 45% by volume of the total volume of the corrosion inhibition package of a solvent selected from the group consisting of: isopropanol; methanol; ethanol; 2-butoxyethanol; diethylene glycol; Di-n-hexyl-ether; and combinations thereof. - 2% to 25% by volume of the total volume of the corrosion inhibition package of a terpene selected from the group consisting of citral, ionone, ocimene, and cymene; - 20% to 55% by volume of the total volume of the corrosion inhibition package of a propargyl alcohol or derivative thereof; - at least one amphoteric surfactant selected from the group consisting of a sultaine surfactant, a betaine surfactant, and combinations thereof; - an anionic surfactant selected from the group consisting of a carboxylic surfactant and a sulfonic surfactant; and - 10% to 45% by volume of the total volume of the corrosion inhibition package of a solvent selected from the group consisting of: isopropanol; methanol; ethanol; 2-butoxyethanol; diethylene glycol; Di-n-hexyl-ether; and combinations thereof.
A fluid delivery system adapted to isolate an ampoule and/or process line during purge, the system comprising: a refillable ampoule; an inlet control valve (132, 134) arranged to connect a source of pressurized gas to a refillable ampoule; an outlet control valve arranged for delivering fluid from the refillable ampoule via a fluid outlet line, wherein the outlet control valve is adapted to connect the refillable ampoule to a semiconductor manufacturing tool; wherein the fluid delivery system is characterized in that it comprises a process control valve coupled to a process line (111, 115) and arranged to connect the process line (111, 115) to the refillable ampoule; a process isolation valve coupled to the process line (111, 115); a purge supply valve coupled to the process line (111, 115) between the process isolation valve and the process control valve, wherein the purge supply valve, process isolation valve and process control valve are in line with one another in the process line (111, 115); and wherein the purge supply valve is a three-way valve. a refillable ampoule; an inlet control valve (132, 134) arranged to connect a source of pressurized gas to a refillable ampoule; an outlet control valve arranged for delivering fluid from the refillable ampoule via a fluid outlet line, wherein the outlet control valve is adapted to connect the refillable ampoule to a semiconductor manufacturing tool; wherein the fluid delivery system is characterized in that it comprises a process control valve coupled to a process line (111, 115) and arranged to connect the process line (111, 115) to the refillable ampoule; a process isolation valve coupled to the process line (111, 115); a purge supply valve coupled to the process line (111, 115) between the process isolation valve and the process control valve, wherein the purge supply valve, process isolation valve and process control valve are in line with one another in the process line (111, 115); and wherein the purge supply valve is a three-way valve.
Drilling machine, specifically ground-hole and rock drilling machine in the form of a hammer drilling machine, comprising - a machine vehicle which is movable on wheels or chains and which has a compressor for generating compressed air used during drilling and which has an oil separator, specifically a pressure container for separating out oil contained in the generated compressed air; - a drill mast with a drill head, which drill head transfers rotational movements and the compressed air to a drill bit, which is arranged on a free end of a drill pipe, via the drill pipe, which is routed at the drill mast; - a boom for connecting the drill mast to the machine vehicle and for positioning the drill mast with the drill head; - at least one compressed-air line (8, 10), formed by tubes and/or hoses, between the oil separator and the drill head, into which at least one compressed-air line there is inserted on the machine vehicle in the region of the oil separator, specifically at the outlet thereof, a main valve which is controlled by a control device and which, in a closed state, blocks a compressed-air flow directed from the oil separator to the drill head, characterized in that an additional valve is inserted into the compressed-air line between the main valve and the drill head, which additional valve is arranged away from the machine vehicle, specifically on the drill-mast-side end of the boom or on the drill mast itself, and is closed or closes when the main valve is closed, so that a compressed-air volume formed by a portion, situated between the main valve and the additional valve, of the compressed-air line and pneumatically closed off with respect to the drill head, after a build-up of pressure for drilling realized beforehand by means of the compressor, remains at an elevated pneumatic pressure, during an interruption of a drilling operation, even after the main valve has been closed. - a machine vehicle which is movable on wheels or chains and which has a compressor for generating compressed air used during drilling and which has an oil separator, specifically a pressure container for separating out oil contained in the generated compressed air; - a drill mast with a drill head, which drill head transfers rotational movements and the compressed air to a drill bit, which is arranged on a free end of a drill pipe, via the drill pipe, which is routed at the drill mast; - a boom for connecting the drill mast to the machine vehicle and for positioning the drill mast with the drill head; - at least one compressed-air line (8, 10), formed by tubes and/or hoses, between the oil separator and the drill head, into which at least one compressed-air line there is inserted on the machine vehicle in the region of the oil separator, specifically at the outlet thereof, a main valve which is controlled by a control device and which, in a closed state, blocks a compressed-air flow directed from the oil separator to the drill head,
A saw horse combination comprising: first and second saw horses (10, 10'), each saw horse comprising a beam having first and second ends, first and second brackets disposed respectively at the first and second ends of the beam, legs pivotably attached to the first and second brackets for supporting the beam; and a locking mechanism for connecting the first and second saw horses, the locking mechanism comprising a first latch movably connected to the first bracket of the first saw horse, and a second latch movably connected to the first bracket of the second saw horse; characterized in that the first and second latches are movable between a first position where the first and second latches do not engage and a second position where the first and second latches engage, and in that the each of said first and second latches has an inclined rib (51 R) and a cam surface (51 C) wherein the inclined rib and cam surface of the first latch are adapted to engage the cam surface and inclined rib respectively of the second latch. first and second saw horses (10, 10'), each saw horse comprising a beam having first and second ends, first and second brackets disposed respectively at the first and second ends of the beam, legs pivotably attached to the first and second brackets for supporting the beam; and a locking mechanism for connecting the first and second saw horses, the locking mechanism comprising a first latch movably connected to the first bracket of the first saw horse, and a second latch movably connected to the first bracket of the second saw horse; characterized in that the first and second latches are movable between a first position where the first and second latches do not engage and a second position where the first and second latches engage, and in that the each of said first and second latches has an inclined rib (51 R) and a cam surface (51 C) wherein the inclined rib and cam surface of the first latch are adapted to engage the cam surface and inclined rib respectively of the second latch.
Method for producing a tandem guide vane segment which comprises an outer platform, a front guide vane and a rear guide vane, the front guide vane and the rear guide vane being arranged fixedly relative to one another and configuring a gap between them, the method comprising: - producing of an integral intermediate structure which has material regions and comprises the final outer platform, the final front guide vane and the final rear guide vane, the gap between the final front guide vane and the final rear guide vane in the intermediate structure being filled with material of the intermediate structure, - further processing of the intermediate structure to form the final tandem guide vane segment, the further processing comprising the producing of a gap in the intermediate structure in order to separate the front and the rear guide vane (21, 22). - producing of an integral intermediate structure which has material regions and comprises the final outer platform, the final front guide vane and the final rear guide vane, the gap between the final front guide vane and the final rear guide vane in the intermediate structure being filled with material of the intermediate structure, - further processing of the intermediate structure to form the final tandem guide vane segment, the further processing comprising the producing of a gap in the intermediate structure in order to separate the front and the rear guide vane (21, 22).
A fuel assembly of a light water reactor, having nuclear fuel material including a plurality of isotopes of transuranic nuclides, characterized in that a ratio of Pu-239 in all of said transuranic nuclides included in said nuclear fuel material is 3wt% or more but less than 40wt% when a burnup is 0 GWd t.
Tyre comprising a block copolymer comprising at least one thermoplastic block comprising units derived from one or more styrene monomers and at least one elastomeric block in the form of a statistical copolymer comprising at least units derived from isobutylene and units derived from one or more haloalkylstyrene monomers.
A modular control system comprising a fluidic control device and at least one display and/or operating unit, which comprises an inductive interface and is capable of being removably connected to the fluidic control device in such a relative position that the inductive interface is coupled to a respective interface of the control device, wherein encoded signals are transmittable by means of the inductive interfaces, which contain both information and energy from the control device to the display and/or operating unit in order to operate the same, characterized in that permanent magnets are arranged in the display and/or operating unit and in the fluidic control device in relation to the inductive interfaces in a way that the inductive interfaces are automatically aligned with each other.