mhurhangee/ep-ind-claims huggingface dataset:
Cylinder for actuation mechanisms comprising a main body having a cavity, a rotating body rotatably housed in said cavity and having an axis of rotation along a longitudinal development direction of said cylinder, wherein said rotating body has, on a respective outer surface having a longitudinal development, a groove or shoulder having a substantially annular development centred in said axis of rotation and lying on a plane perpendicular to said axis of rotation, wherein said cylinder comprises a blocking element fixed to said main body and having an engagement portion which slidably engages said groove or shoulder of said rotating body, characterized in that said main body comprises a plurality of sub-elements arranged side by side along said longitudinal direction, wherein said plurality of sub-elements comprises a first terminal element placed at a first longitudinal end of said cylinder and a second terminal element placed at a second longitudinal end of said cylinder opposite to the first end, wherein each sub-element of said plurality of sub-elements comprises a respective longitudinal opening, said respective longitudinal openings being longitudinally aligned, wherein said main body comprises a longitudinal rod inserted into said respective longitudinal openings of the sub-elements, wherein said longitudinal rod comprises a first and a second portion longitudinally opposite to each other, said first and second portion respectively engaging said respective longitudinal opening of the first and second terminal element, wherein said longitudinal rod comprises a first through opening at a first longitudinal end thereof and wherein said blocking element passes through said first through opening of the longitudinal rod to fix said longitudinal rod to the first terminal element.
An amorphous alloy corresponding to the formula: Go a Ni b Mo c (G 1-x B x) d X e wherein X is one or several elements selected from the group consisting of Cu, Si, Fe, P, Y, Er, Cr, Ga, Ta, Nb, V and W; wherein the indices a to e and x satisfy the following conditions: - 55 ≤ a ≤ 75 at.% - 0 ≤ b ≤ 15 at.% - 7 ≤ c ≤ 17 at.% - 15 ≤ d ≤ 23 at.% - 0.1 ≤ x ≤ 0.9 at.% - 0 ≤ e ≤ 10 at.%, each element selected from the group having a content ≤ 3 at.% and preferably ≤ 2 at.%, - the balance being impurities. wherein X is one or several elements selected from the group consisting of Cu, Si, Fe, P, Y, Er, Cr, Ga, Ta, Nb, V and W; wherein the indices a to e and x satisfy the following conditions: - 55 ≤ a ≤ 75 at.% - 0 ≤ b ≤ 15 at.% - 7 ≤ c ≤ 17 at.% - 15 ≤ d ≤ 23 at.% - 0.1 ≤ x ≤ 0.9 at.% - 0 ≤ e ≤ 10 at.%, each element selected from the group having a content ≤ 3 at.% and preferably ≤ 2 at.%, - the balance being impurities. - 55 ≤ a ≤ 75 at.% - 0 ≤ b ≤ 15 at.% - 7 ≤ c ≤ 17 at.% - 15 ≤ d ≤ 23 at.% - 0.1 ≤ x ≤ 0.9 at.% - 0 ≤ e ≤ 10 at.%, each element selected from the group having a content ≤ 3 at.% and preferably ≤ 2 at.%, - the balance being impurities.
An apparatus for dispensing a wash solution, consisting of a mixture of water and a detergent chemical and to be conveyed into a washing device, at a desired concentration of the detergent chemical, said apparatus comprising a first tank for the wash solution at a desired concentration, said tank including elements (3, 5, 4, 6, 18, 19) for supplying the first tank with an aqueous solution of supply water and a detergent chemical, elements for measuring the total amount of supply water, and elements (11, 12) for conveying the wash solution at a desired concentration from the first tank into a washing device, characterized in that the supply water passed through measuring elements is divided into partial flows along at least two lines (3, 18; 4, 19), which are provided with valve elements (5, 6) for adjusting the partial flows of supply water at a desired ratio between the lines; that at least one line (4, 19) for the partial flows of supply water is connected to a detergent chemical supply for conveying the detergent chemical along with water into the tank and at least one second line (3, 18) is intended for the supply of plain water; that the apparatus includes at least one second tank which is in a flow communication with the first tank by way of a siphon element, whereby at least the detergent chemical-containing partial flow is adapted to be conveyed into said second tank and to be conducted further into the first tank as soon as the detergent chemical-containing solution present in the second tank has attained a volume required for the siphon to activate; that the second tank is provided with a first surface level sensing element, which indicates the attainment of a certain design volume in the second tank, whereby the water quantity measuring elements register an indication moment which has been given by the sensing element about the attainment of a design volume, and the amount of water which has flown through the measuring elements at the indication moment and which provides a basis for determining the concentration of a detergent chemical in the second tank.
A device for depositing layers, in particular semiconductor layers, comprising a process chamber arranged substantially rotationally symmetrically about a center, the process chamber having a bottom formed by a susceptor disposed in a horizontal plane, a process chamber ceiling disposed vertically above the susceptor, a gas inlet element which extends in the center between susceptor and process chamber ceiling and has gas inlet chambers (8, 9, 10) which are disposed vertically one above the other, and a heater disposed vertically below the susceptor, for heating the susceptor, wherein, on the susceptor, a multiplicity of substrate holders arranged spaced apart from the gas inlet element are provided for accommodating substrates to be coated, wherein a topmost of the gas inlet chambers is directly adjacent to the process chamber ceiling and is connected to a feed line for introducing a hydride together with a carrier gas into the process chamber, wherein a lowermost of the gas inlet chambers is directly adjacent to the susceptor and is connected to a feed line for introducing a hydride together with a carrier gas into the process chamber, wherein at least one middle gas inlet chamber disposed between the lowermost and the topmost gas inlet chamber is connected to a feed line for introducing an organometallic compound into the process chamber, characterized in that the gas inlet chambers (8,9,10) are closed off toward the process chamber by annular walls (22, 23, 24), the annular walls (22, 23, 24) having a multiplicity of closely adjacent gas outlet openings, having a uniform outer diameter, and an outer wall which is substantially without projections and faces toward the process chamber.
An electrical feedthrough module, comprising at least two axially spaced apart electrical feedthroughs (3, 5) fixed relative to one another, each one comprising a plurality of conductors extending through an insulating body and protruding from the insulating body on either side thereof, wherein - the insulating body is a shared insulating body for all conductors of a respective feedthrough (3, 5); wherein - the conductors of the axially spaced apart feedthroughs (3, 5) are also axially spaced apart; - each conductor of one of the feedthroughs is electrically connected to a respective conductor of one of the further axially spaced apart feedthroughs by a respective connecting member; - the axially spaced apart conductors of the electrical feedthroughs (3, 5) are electrically connected to one another by the connecting member which is arranged displaceably relative to at least one of the feedthroughs (3, 5); and wherein - the connecting member comprises an electrically conductive rod that is axially displaceable relative to the conductors and has a socket connector formed as an integral part of the rod at each of its ends (21, 22); wherein the conductors of the electrical feedthroughs (3, 5) form pairs having their longitudinal axes aligned axially, and wherein each pair of said axially aligned conductors is electrically connected by said axially displaceable rod, and wherein the socket connector is formed as an integral part of the rod by the fact that the rod is formed in one piece with openings at the ends thereof to the axially extending holes, in which the one or more terminal member(s) of the socket connector is/are arranged. - the insulating body is a shared insulating body for all conductors of a respective feedthrough (3, 5); wherein - the conductors of the axially spaced apart feedthroughs (3, 5) are also axially spaced apart; - each conductor of one of the feedthroughs is electrically connected to a respective conductor of one of the further axially spaced apart feedthroughs by a respective connecting member; - the axially spaced apart conductors of the electrical feedthroughs (3, 5) are electrically connected to one another by the connecting member which is arranged displaceably relative to at least one of the feedthroughs (3, 5); and wherein - the connecting member comprises an electrically conductive rod that is axially displaceable relative to the conductors and has a socket connector formed as an integral part of the rod at each of its ends (21, 22);
An reductant dosing system for an SCR catalyst comprising an injector, a storage tank and a reductant pump arranged in a first fluid line between the storage tank and the injector for pumping reductant from the storage tank to the injector, wherein the reductant dosing system comprises pressurizing means (4, 5) for pressurizing the storage tank, characterized in that the system further comprises a quality sensor for sensing a urea concentration of the reductant stored in the storage tank, a pressure sensor for sensing the pressure in the storage tank and a control system for varying a pressure threshold used for controlling the pressurizing means (4, 5) in dependence on the urea concentration measured by the quality sensor, wherein the pressure threshold is increased with an increase in urea concentration.
A mobile device comprising: a communications resource for transmitting and receiving data, wherein the communications resource is configured to transmit location data identifying at least one location and to receive a plurality of model parameter values in response to transmitted location data; and a processing resource for processing the received data, wherein the processing resource is configured to process the model parameter values to generate at least one data set representing a value of a location-dependent variable for a plurality of locations across an area, characterized in that the processing of the parameter values by the processing resource comprises performing an inverse transform which uses the parameter values and comprises a Fourier transform or a wavelet transform. a communications resource for transmitting and receiving data, wherein the communications resource is configured to transmit location data identifying at least one location and to receive a plurality of model parameter values in response to transmitted location data; and a processing resource for processing the received data, wherein the processing resource is configured to process the model parameter values to generate at least one data set representing a value of a location-dependent variable for a plurality of locations across an area, characterized in that the processing of the parameter values by the processing resource comprises performing an inverse transform which uses the parameter values and comprises a Fourier transform or a wavelet transform.
A process for purifying methionine, wherein methionine is separated from a salt by-product by using a macroporous adsorption resin, in which the methionine is adsorbed onto the macroporous adsorption resin, and then the methionine is recovered by desorbing from the resin using a desorbent; and the salt by-product is not absorbed onto the macroporous adsorption resin during the adsorption process, but enters an effluent resulting from the adsorption, the process mainly comprising the following steps: 1) flowing a methionine solution, from the top to the bottom, through a macroporous adsorption resin layer, and stopping resin adsorption when the content of methionine in an effluent from the resin column is greater than or equal to 10% (w/w) of the content at an inlet, in which the effluent resulting from the resin adsorption is a salt by-product; 2) resin desorption: desorbing, from the top to the bottom, the resin that has completed the adsorption in step 1) using a desorbent; and 3) collecting the desorption solution and detecting the methionine amount. 1) flowing a methionine solution, from the top to the bottom, through a macroporous adsorption resin layer, and stopping resin adsorption when the content of methionine in an effluent from the resin column is greater than or equal to 10% (w/w) of the content at an inlet, in which the effluent resulting from the resin adsorption is a salt by-product; 2) resin desorption: desorbing, from the top to the bottom, the resin that has completed the adsorption in step 1) using a desorbent; and 3) collecting the desorption solution and detecting the methionine amount.
A pasta comprising an amount of total protein of at least 13% by weight of dry matter content and wherein said pasta comprises microparticulated and denaturated whey protein in an amount of at least 5% by weight of the dry matter content of the pasta.
Seal for providing a pressure-tight transition between two prestressed concrete prefabricated elements (4, 6) which are arranged one above the other, the seal having a height which corresponds at least to the provided spacing of the prestressed concrete prefabricated elements (4, 6) which are arranged one on the other, characterised in that the wall thickness of the sealing material does not exceed a predetermined dimension, and in that the transition between an outer wall and an inner wall of the upper portion of the seal extends at an acute angle relative to the outer wall and an obtuse angle relative to the inner wall of the seal.
A device for continuously separating ammonia or reducing ammonium, respectively, from biogas plant fermentation liquids or biogas plant fermentation residues, comprising a flash evaporator F which is connected with a fermenter or a fermentation residue storage A for supplying a substrate via lines comprising lines for raw substrate flow (1, 2) with an interposed raw substrate pump B, a subsequent impurity separation C and an adjoining line for substrate freed of solid impurities, a heat exchanger D, and a line for pre-heated substrate attached to the heat exchanger D, wherein the pre-heated substrate is introduced into a circuit comprising a circuit-line for substrate, a heat exchanger E for heating the substrate to an entry temperature of the flash evaporator F, and a circuit-line for heated substrate, the flash evaporator F, a line originating from the flash evaporator F and a pump G joined thereto, wherein exhaust vapour can be withdrawn from the flash evaporator F by way of a line for an exhaust vapour phase and wherein the hot liquid phase can either be returned through a feed-back line into the fermenter or the fermentation residue storage A via lines comprising line leading from the flash evaporator to the pump G in the circuit flow, a line for withdrawal, a withdrawal pump H and a line for substrate flow, or can be supplied via a feed line into a second fermenter or fermentation residue storage I, characterized in that the heat exchanger D is heated via line for substrate flow with a hot liquid phase from the flash evaporator F, and the flash evaporator F is connected with an inert gas feed device O via the line for an exhaust vapour phase, a droplet separation device J as well as condensators K and M.
: A communications node operable to communicate with another communications node in a communication system that uses sub-bands wherein each sub-band has the same size in number of contiguous resource blocks, the communications node comprising: means for receiving resource allocation information which indicates a set of contiguous resource blocks within a sub-band; means for determining at least one resource block to be used for transmission in a slot; and means for communicating with the another communications node using the determined at least one resource block wherein the at least one resource block to be used for transmission is determined based on a first value and a second value; wherein the first value is obtained from the resource allocation information; and wherein the second value is determined based on a hopping function multiplied by the size of each sub-band. means for receiving resource allocation information which indicates a set of contiguous resource blocks within a sub-band; means for determining at least one resource block to be used for transmission in a slot; and means for communicating with the another communications node using the determined at least one resource block wherein the at least one resource block to be used for transmission is determined based on a first value and a second value; wherein the first value is obtained from the resource allocation information; and wherein the second value is determined based on a hopping function multiplied by the size of each sub-band.
A turbocharging system for use with an internal combustion engine, the turbocharging system comprising: a turbocharger comprising a turbine unit and a compressor unit, the turbine unit comprising a turbine impeller, the compressor unit comprising a compressor impeller connected to the turbine impeller; an exhaust gas feeding passage configured to feed exhaust gas of an internal combustion engine to the turbine unit; an exhaust gas passage configured to release the exhaust gas discharged from the turbine unit to the outside of the turbocharging system; an intake air passage configured to feed intake air into the compressor unit; a compressed air passage configured to feed compressed air discharged from the compressor unit to the internal combustion engine; an intercooler configured to cool the compressed air flowing through the compressed air passage; and an LPL-EGR passage configured to recirculate at least a part of the exhaust gas flowing through the exhaust gas passage, into the intake air passage, wherein the compressed air passage is provided with a cyclone-type collecting device arranged upstream of the intercooler, the cyclone-type collecting device being configured to collect foreign substances contained in the compressed air. a turbocharger comprising a turbine unit and a compressor unit, the turbine unit comprising a turbine impeller, the compressor unit comprising a compressor impeller connected to the turbine impeller; an exhaust gas feeding passage configured to feed exhaust gas of an internal combustion engine to the turbine unit; an exhaust gas passage configured to release the exhaust gas discharged from the turbine unit to the outside of the turbocharging system; an intake air passage configured to feed intake air into the compressor unit; a compressed air passage configured to feed compressed air discharged from the compressor unit to the internal combustion engine; an intercooler configured to cool the compressed air flowing through the compressed air passage; and an LPL-EGR passage configured to recirculate at least a part of the exhaust gas flowing through the exhaust gas passage, into the intake air passage, wherein the compressed air passage is provided with a cyclone-type collecting device arranged upstream of the intercooler, the cyclone-type collecting device being configured to collect foreign substances contained in the compressed air.
A method for determining an effective amount of an active pharmaceutical ingredient for administering to a patient, the active pharmaceutical ingredient being at least one of: iloperidone, 1-[4-[3-[4-(6-fluoro-1,2-benzisoxazol-3-yl)-1-piperidinyl]propoxy]-3-methoxyphenyl]ethanol, or a pharmaceutically acceptable salt of iloperidone or P88, the method comprising the steps of: determining the patient's CYP2D6 genotype, wherein in a case in which the patient's CYP2D6 genotype includes two functional alleles, and each of the two functional alleles is one of * 1 or *2 the effective amount of the active pharmaceutical ingredient is a normal dosage of 24 mg per day; or wherein in a case in which the patient's CYP2D6 genotype includes a *41 allele, the effective amount of the active pharmaceutical ingredient is reduced to 75% or less, or 50% or less, or 25% or less of the normal dosage of 24 mg per day. determining the patient's CYP2D6 genotype, wherein in a case in which the patient's CYP2D6 genotype includes two functional alleles, and each of the two functional alleles is one of * 1 or *2 the effective amount of the active pharmaceutical ingredient is a normal dosage of 24 mg per day; or wherein in a case in which the patient's CYP2D6 genotype includes a *41 allele, the effective amount of the active pharmaceutical ingredient is reduced to 75% or less, or 50% or less, or 25% or less of the normal dosage of 24 mg per day.
An epoxy resin composition comprising at least components to shown below:: an epoxy resin having a xylene group;: a glycidyl amine epoxy resin having three or more glycidyl groups in a molecule;: a thermoplastic resin; and: an aromatic polyamine, the epoxy resin composition comprising 10 to 80 parts by mass of the component and 90 to 20 parts by mass of the component based on 100 parts by mass in total of epoxy resins, and also 1 to 25 parts by mass of the component based on 100 parts by mass in total of epoxy resins, a mixing ratio / between the component and the component being 0.25 to 2.3, the component having an epoxy equivalent of 200 to 350 g/eq.: an epoxy resin having a xylene group;: a glycidyl amine epoxy resin having three or more glycidyl groups in a molecule;: a thermoplastic resin; and: an aromatic polyamine, the epoxy resin composition comprising 10 to 80 parts by mass of the component and 90 to 20 parts by mass of the component based on 100 parts by mass in total of epoxy resins, and also 1 to 25 parts by mass of the component based on 100 parts by mass in total of epoxy resins, a mixing ratio / between the component and the component being 0.25 to 2.3, the component having an epoxy equivalent of 200 to 350 g/eq. the epoxy resin composition comprising 10 to 80 parts by mass of the component and 90 to 20 parts by mass of the component based on 100 parts by mass in total of epoxy resins, and also 1 to 25 parts by mass of the component based on 100 parts by mass in total of epoxy resins, a mixing ratio / between the component and the component being 0.25 to 2.3, the component having an epoxy equivalent of 200 to 350 g/eq.
Gear-splitting differential transmission device positioned between a multi-ratio gearbox and two drive wheels of a vehicle, including an outer case that receives the gearbox torque and by means of an inner mechanism divides it between two wheel drive shafts, the outer case also housing an inner case, which together with the outer case, a set of intermediate planetary gears and a control element, forms a two-position planetary gear set, which makes it possible to obtain two ranges of ratios of separate gearboxes for driving the drive wheels, characterized in that the inner case has a central cylindrical protuberance for guiding the side gear of the planetary gear set.