mhurhangee/ep-ind-claims huggingface dataset:
A scent patch having a total surface area of 2-36 cm 2 and comprising from the bottom to the top in this order a backing layer, an adhesive layer, an adsorbing pad and one or more protective liners, wherein: ▪ the backing layer is a fabric layer with a tensile strength > 25 N/cm; ▪ the adhesive layer is a polymer layer resistant to ethanol / ethanolic compositions; ▪ the adsorbing pad comprises a non-woven pad which comprises a fragrance composition; ▪ the adsorbing pad comprises an anti-adhering layer opposite to the adhesive layer; ▪ the protective liner is a film with a thickness below 100 micron; - the adhesive layer overlays the adsorbing pad and fully surrounds the adsorbing pad when viewed from the top; the non-woven pad: • is a structured elastic material that is adaptively formed, and • forms a plurality of fluid reservoir volumes, and • has an absorbance capacity for said fragrance composition of more than 20g/100cm2. ▪ the backing layer is a fabric layer with a tensile strength > 25 N/cm; ▪ the adhesive layer is a polymer layer resistant to ethanol / ethanolic compositions; ▪ the adsorbing pad comprises a non-woven pad which comprises a fragrance composition; ▪ the adsorbing pad comprises an anti-adhering layer opposite to the adhesive layer; ▪ the protective liner is a film with a thickness below 100 micron; - the adhesive layer overlays the adsorbing pad and fully surrounds the adsorbing pad when viewed from the top; the non-woven pad: • is a structured elastic material that is adaptively formed, and • forms a plurality of fluid reservoir volumes, and • has an absorbance capacity for said fragrance composition of more than 20g/100cm2. • is a structured elastic material that is adaptively formed, and • forms a plurality of fluid reservoir volumes, and • has an absorbance capacity for said fragrance composition of more than 20g/100cm2.
A method for providing presence information associated with a first user of a telecommunications network, comprising: - collecting ( 465,470) from at least one network apparatus user-related data adapted to build the presence information; and - publishing the collected user-related data, wherein said publishing comprises arranging the collected user-related data in the presence information, characterized by further comprising: - conditioning said collecting to the receipt from at least one second user of a request for providing the presence information for said first user. - collecting ( 465,470) from at least one network apparatus user-related data adapted to build the presence information; and - publishing the collected user-related data, wherein said publishing comprises arranging the collected user-related data in the presence information, characterized by further comprising: - conditioning said collecting to the receipt from at least one second user of a request for providing the presence information for said first user.
A method for the identification of electrical equivalent circuit parameters (03, 05, 15) of a three-phase asynchronous motor without a shaft encoder, wherein the method comprises at least the step: - assumption of a standstill position of the rotor, characterized in that comprising at least the steps: - identical test signal infeed ( U 1α, U 1β) in α and β stator axis direction as coordinate direction of a complex, two-coordinate system of the three-phase system of the asynchronous motor; - measuring of the measuring signal current ( I 1α, I 1β) of the α and β axial direction of the asynchronous motor; - identification of equivalent circuit parameters (03, 05, 15) of the asynchronous motor on the basis of the test signal voltages ( U 1α, U 1β) and the digital sample of the detected timing measuring signal currents ( I 1α, I 1β) through analysis of the frequency response of the measured transfer function with knowledge of the transfer function in the frequency range of an equivalent circuit of an asynchronous motor by means of parameter extraction; wherein the test signal feed into the asynchronous motor takes place such that the rotor remains torque-free. - assumption of a standstill position of the rotor, characterized in that comprising at least the steps: - identical test signal infeed ( U 1α, U 1β) in α and β stator axis direction as coordinate direction of a complex, two-coordinate system of the three-phase system of the asynchronous motor; - measuring of the measuring signal current ( I 1α, I 1β) of the α and β axial direction of the asynchronous motor; - identification of equivalent circuit parameters (03, 05, 15) of the asynchronous motor on the basis of the test signal voltages ( U 1α, U 1β) and the digital sample of the detected timing measuring signal currents ( I 1α, I 1β) through analysis of the frequency response of the measured transfer function with knowledge of the transfer function in the frequency range of an equivalent circuit of an asynchronous motor by means of parameter extraction; wherein the test signal feed into the asynchronous motor takes place such that the rotor remains torque-free.
A polypeptide comprising at least one immunoglobulin single variable domain (ISVD), wherein said ISVD specifically binds CD13 and comprises 3 complementarity determining regions (CDR1 to CDR3 respectively), in which (i) CDR1 is chosen from the group consisting of SEQ ID NO: 1, and amino acid sequences that have an amino acid difference at position 4, 6 and/or 7 of SEQ ID NO: 1; (ii) CDR2 is SEQ ID NOs: 3; and (iii) CDR3 is chosen from the group consisting of SEQ ID NO: 4, and amino acid sequences that have an amino acid difference at position 6, 10 and/or 12 of SEQ ID NO: 4. (i) CDR1 is chosen from the group consisting of SEQ ID NO: 1, and amino acid sequences that have an amino acid difference at position 4, 6 and/or 7 of SEQ ID NO: 1; (ii) CDR2 is SEQ ID NOs: 3; and (iii) CDR3 is chosen from the group consisting of SEQ ID NO: 4, and amino acid sequences that have an amino acid difference at position 6, 10 and/or 12 of SEQ ID NO: 4.
Device for regenerating activated carbon, comprising at least one electrochemical cell comprising: ■ at least one cathode and at least one anode immersed in an electrolyte solution: - with porous fibres of activated carbon used as an electroactive surface at the cathode and allowing their surface to generate H 2 O 2 during the electro-Fenton reaction, porous fibres on which organic pollutants are adsorbed and which served as a filter for organic pollutants; - the anode comprising a non-active anode material to perform anodic oxidation of organic pollutants, the non-active anode material being defined as a material having an oxygen evolution overvoltage greater than 0.4 V, the non-active anode material being boron-doped diamond or sub-stoichiometric titanium oxide; ■ an electrolyte solution with: - an oxygen supply designed to be continuous during the regeneration of the activated carbon in the form of porous fibres; - an initial supply of Fe 2+ ions designed to be continuously regenerated during the electro-Fenton reaction; the device making it possible, during the electro-Fenton reaction, to create oxidizing species at the cathode and anode, the oxidizing species created at the anode by anodic oxidation being at least: •OH, O 3, preferably: •OH, O 3, SO 4 •- and S 2 O 8 2-, these oxidizing species mineralizing the organic pollutants at the anode and the cathode and in the electrolyte solution. ■ at least one cathode and at least one anode immersed in an electrolyte solution: - with porous fibres of activated carbon used as an electroactive surface at the cathode and allowing their surface to generate H 2 O 2 during the electro-Fenton reaction, porous fibres on which organic pollutants are adsorbed and which served as a filter for organic pollutants; - the anode comprising a non-active anode material to perform anodic oxidation of organic pollutants, the non-active anode material being defined as a material having an oxygen evolution overvoltage greater than 0.4 V, the non-active anode material being boron-doped diamond or sub-stoichiometric titanium oxide; - with porous fibres of activated carbon used as an electroactive surface at the cathode and allowing their surface to generate H 2 O 2 during the electro-Fenton reaction, porous fibres on which organic pollutants are adsorbed and which served as a filter for organic pollutants; - the anode comprising a non-active anode material to perform anodic oxidation of organic pollutants, the non-active anode material being defined as a material having an oxygen evolution overvoltage greater than 0.4 V, the non-active anode material being boron-doped diamond or sub-stoichiometric titanium oxide; ■ an electrolyte solution with: - an oxygen supply designed to be continuous during the regeneration of the activated carbon in the form of porous fibres; - an initial supply of Fe 2+ ions designed to be continuously regenerated during the electro-Fenton reaction; - an oxygen supply designed to be continuous during the regeneration of the activated carbon in the form of porous fibres; - an initial supply of Fe 2+ ions designed to be continuously regenerated during the electro-Fenton reaction;
Method for compensating for an axial spacing change on the timing drive of a valve-controlled internal combustion engine, the at least one camshaft of which is mounted in the cylinder head of the internal combustion engine and is driven via spur gearwheels, a driving spur gearwheel being provided on the crankshaft which is mounted in the cylinder crankcase of the internal combustion engine, a driven spur gearwheel being provided on the camshaft, and at least one intermediate gearwheel which is mounted on a bearing journal being provided, and, furthermore, the timing drive having at least one means for compensating for axial spacing changes between the crankshaft and the camshaft which result from repair work, characterized in that, in the case of a specifically predefined axial spacing change (a), a multiple-track replacement intermediate gearwheel is used in the case of a repair instead of an original intermediate gearwheel, which replacement intermediate gearwheel is modified with respect to the original toothing in such a way that the axial spacing change is compensated for to a defined extent in this way, in that the original intermediate gearwheel is a single-piece intermediate gearwheel with integrated toothing, and in that the replacement intermediate gearwheel has two gearwheels (7a, 7b) which are of different configuration with regard to the toothing and preferably have a common axle, the one gearwheel being driven directly or indirectly via the spur gearwheel on the crankshaft and forming a constituent part of a first gearwheel track, whereas the second gearwheel is in engagement directly or indirectly with the spur gearwheel on the camshaft, which spur gearwheel preferably has an offset track with regard to the spur gearwheel of the crankshaft, and forms a constituent part of a second gearwheel track.
A windshield apparatus for attachment to a frontal portion of a saddle-type vehicle comprising: a windscreen and stays provided in pairs in a width direction for supporting said windscreen, wherein each of said stays comprises: a supporting portion provided on a first side thereof, and a fixing portion provided on a second side thereof that extends downwards from said first side, said fixing portion is adapted to be fixed to a bar handle of said saddle-type vehicle, said supporting portion extending upwardly from the lower end of said windscreen supporting said windscreen from a front side of said windscreen facing toward the front of the vehicle when the windscreen is attached to the frontal portion of the vehicle, said supporting portion being arranged between a center of said windscreen and an outer edge thereof with respect to the width direction, characterized in that said fixing portion is adapted to be fixed below said bar handle. a windscreen and stays provided in pairs in a width direction for supporting said windscreen, a supporting portion provided on a first side thereof, and a fixing portion provided on a second side thereof that extends downwards from said first side, said fixing portion is adapted to be fixed to a bar handle of said saddle-type vehicle, said supporting portion extending upwardly from the lower end of said windscreen supporting said windscreen from a front side of said windscreen facing toward the front of the vehicle when the windscreen is attached to the frontal portion of the vehicle, said supporting portion being arranged between a center of said windscreen and an outer edge thereof with respect to the width direction,
A method for data transmission, comprising: transmitting, by User Equipment, UE, data to a network device by using a first uplink transmission waveform on a first beam; receiving, by the UE, a first indication message transmitted by the network device, wherein the first indication message is used for indicating an uplink transmission waveform corresponding to at least one beam; and transmitting, by the UE, data to the network device by using a second uplink transmission waveform on a second beam of the at least one beam, wherein the second uplink transmission waveform is the uplink transmission waveform corresponding to the second beam indicated in the first indication message. transmitting, by User Equipment, UE, data to a network device by using a first uplink transmission waveform on a first beam; receiving, by the UE, a first indication message transmitted by the network device, wherein the first indication message is used for indicating an uplink transmission waveform corresponding to at least one beam; and transmitting, by the UE, data to the network device by using a second uplink transmission waveform on a second beam of the at least one beam, wherein the second uplink transmission waveform is the uplink transmission waveform corresponding to the second beam indicated in the first indication message.
An adeno-associated viral vector comprising a nucleic acid, wherein the nucleic acid comprises human RDH12 DNA and wherein the human RDH12 DNA encodes a protein that is at least 70%, 80%, 90%, 95%, or 99% identical to the full length of SEQ ID NO:2 for use in a method of treating a human subject who has an ophthalmological condition due to one or more loss-of-function mutations in the gene encoding the Retinol Dehydrogenase 12 protein, the method comprising administering the adeno-associated viral vector to at least one eye of the subject, wherein the adeno-associated viral vector is AAV-2, serotype-5 (AAV2/5), wherein the RDH12 DNA is under the expression control of a human rhodopsin kinase 1 (hGRK1) promoter, and wherein the ophthalmological condition is Leber Congenital Amaurosis.
A tubular photobioreactor, comprising at least one tube, a circulation tank and a gas supply (5,6), wherein the at least one tube is connected as a loop to the circulation tank, wherein the gas supply is connected to the at least one tube, characterized in that the loop of the at least one tube has a length of at least 100 meter and that the at least one tube builds at least one reaction section which is substantially horizontal or has an inclination of at least 0.1 degree to at most 3.0 degree, characterized in that the photobioreactor is a closed system, wherein the gas supply is connected to the top of the circulation tank and to a CO 2 supply, wherein the tubular photobioreactor has an air-pump, an air-blower or a fan to introduce a gas phase through the gas supply into the at least one tube.
A process for the preparation of γ-valerolactone (Gvl) by catalytic hydrogenation of levulinic acid and its esters using Ru-based heterogeneous catalysts without prior reduction and generated via in situ reduction to Ru under reaction conditions chosen from the group consisting of Ru/NaY, Ru/MgAl-LDH, and hydrous ruthenium oxide and its supported forms in water at a temperature range in the range of 25 to 200 °C at pressure in the range of 3 to 50 bar comprising the following steps: (i) mixing levulinic acid or its esters with water in a Hastealloy® reactor vessel at a temperature in the range of 24 to 28 °C to form a solution; (ii) adding catalyst to the solution obtained in step (i) to obtain a mixture and purging H 2 into the mixture at 1-2 bar for three times after closing tightly the reactor vessel with the head assembly of the reactor; (iii) pressurizing the reactor vessel at the pressure in the range of 3 to 50 bar; (iv) heating the reactor vessel after attaining the specified pressure at a temperature ranging between 25 to 200 °C and stirring the reaction mixture after attaining the specified temperature for a period of time ranging between 2 min to 12 h; (v) cooling down the reactor vessel and release the unreacted H 2 and separating the catalyst to get the product mixture; (vi) separating Gvl from the product mixture obtained in step (v) by extracting with dichloromethane and removing DCM by rotary evaporation that can be reused. (i) mixing levulinic acid or its esters with water in a Hastealloy® reactor vessel at a temperature in the range of 24 to 28 °C to form a solution; (ii) adding catalyst to the solution obtained in step (i) to obtain a mixture and purging H 2 into the mixture at 1-2 bar for three times after closing tightly the reactor vessel with the head assembly of the reactor; (iii) pressurizing the reactor vessel at the pressure in the range of 3 to 50 bar; (iv) heating the reactor vessel after attaining the specified pressure at a temperature ranging between 25 to 200 °C and stirring the reaction mixture after attaining the specified temperature for a period of time ranging between 2 min to 12 h; (v) cooling down the reactor vessel and release the unreacted H 2 and separating the catalyst to get the product mixture; (vi) separating Gvl from the product mixture obtained in step (v) by extracting with dichloromethane and removing DCM by rotary evaporation that can be reused.
Process for the manufacturing of methane sulfonic acid by reaction of a radical initiator composition with methane and sulfur trioxide comprising the steps: a) Preparation of the initiator composition by reacting aqueous hydrogen peroxide with the components methane sulfonic acid and methane sulfonic acid anhydride, b) Reaction of initiator composition from step a) with sulfur trioxide and methane to form methane sulfonic acid. a) Preparation of the initiator composition by reacting aqueous hydrogen peroxide with the components methane sulfonic acid and methane sulfonic acid anhydride, b) Reaction of initiator composition from step a) with sulfur trioxide and methane to form methane sulfonic acid.
Wedge for a stator of a generator with preformed coil windings, comprising a retaining portion for retaining coil windings, wherein the retaining portion covers at least part of two neighbouring stator slots, and a mounting projection at a bottom surface of the retaining portion for mounting the wedge to a top surface of a stator tooth located between the two neighbouring stator slots, characterised in that the retaining portion covers half of each of the two neighbouring stator slots, and the wedge comprises several sections in a longitudinal direction, wherein the sections are spaced apart from each other by a spacer to isolate them from each other by a provided air gap distance.
A method for fault detection of a transmission line of a transmission system, the method being performed by a fault detection arrangement (10a, 10b, 10c), the method comprising: obtaining instantaneous measurements of local voltages and local currents of the transmission line; obtaining filtered measurements of the local voltages and local currents by subjecting the measurements of the local voltages and local currents to low pass filtering; and obtaining compensated voltage measurements by subjecting the filtered measurements to a differential equation based algorithm; wherein the method is further characterised in comprising: performing fault detection by forming a ratio between the compensated voltage measurements and the filtered voltage measurements, whereby an internal fault is determined if the ratio is more negative than a threshold; and else an external fault is determined. obtaining instantaneous measurements of local voltages and local currents of the transmission line; obtaining filtered measurements of the local voltages and local currents by subjecting the measurements of the local voltages and local currents to low pass filtering; and obtaining compensated voltage measurements by subjecting the filtered measurements to a differential equation based algorithm; wherein the method is further characterised in comprising: performing fault detection by forming a ratio between the compensated voltage measurements and the filtered voltage measurements, whereby an internal fault is determined if the ratio is more negative than a threshold; and else an external fault is determined. an internal fault is determined if the ratio is more negative than a threshold; and else an external fault is determined.
A curable composition, comprising: a polyorganosiloxane having an aliphatic unsaturated bond, and a molar ratio (Ar/Si) of an aryl (Ar) group to a silicon (Si) atom of 0.2 or less; and a polyorganosiloxane including a hydrogen atom and an aryl group, which bind to a silicon atom, having a molar ratio of an aryl (Ar) group to a silicon (Si) atom of 0.25 or more, and having 3 to 10 silicon atoms, wherein the polyorganosiloxane has an average empirical formula of Formula 1: [Formula 1] (R 1 3 SiO 1/2) a (R 2 2 SiO 2/2) b (R 3 SiO 3/2) c (SiO 4/2) d e where R and R 1 to R 3 are each independently a monovalent hydrocarbon group, at least one of R 1 to R 3 is an alkenyl group, each of a, b, c, and d is 0 or a positive number, d/(c+d) is 0.3 or more, and e/(c+d) is 0.2 or less.
A battery module comprising an electronic unit, a cell connection unit, wherein the cell connection unit comprises: - at least one substrate portion (13a, 13b, 13c) adapted to accommodate cell terminals (31, 32) of the battery module; - a connector portion (11, 12, 14a, 14b, 14c, 15a, 15b, 15c) adapted to be connected to the electronic unit; - an electronic circuit portion (10a, 10b) adapted to provide an electrical connection between at least one of the cell terminals (31, 32) of the battery module and the electronic unit via the connector portion (11, 12); wherein the connector portion (11, 12, 14a, 14b, 14c, 15a, 15b, 15c) comprises at least one fixed electrical connector (11, 12) and a plurality of mechanical fixation connectors (14a, 14b, 14c, 15a, 15b, 15c); wherein the at least one substrate portion (13a, 13b, 13c) comprises an opening portion adapted to accommodate the electronic unit and a venting portion, wherein the venting portion has a longitudinal shape with one end facing the opening portion; wherein the electronic unit is connected to the cell connection unit via the connector portion (11, 12, 14a, 14b, 14c, 15a, 15b, 15c); and a venting slot adapted to convey gas generated in the battery module to the outside of the battery module via at least one venting outlet (50a,50b), wherein the venting slot extends along a longitudinal axis of the battery module; and wherein the venting slot is formed by the opening portion and the venting portion of the cell connection unit, characterized in that the venting slot includes at least two venting outlets (50a, 50b) disposed at opposite ends of the venting slot. - at least one substrate portion (13a, 13b, 13c) adapted to accommodate cell terminals (31, 32) of the battery module; - a connector portion (11, 12, 14a, 14b, 14c, 15a, 15b, 15c) adapted to be connected to the electronic unit; - an electronic circuit portion (10a, 10b) adapted to provide an electrical connection between at least one of the cell terminals (31, 32) of the battery module and the electronic unit via the connector portion (11, 12);