mhurhangee/ep-ind-claims huggingface dataset:
System for a process plant, comprising an actuator guiding a process fluid flow, wherein the actuator comprises an identifier representing an actuator individual identifier, and a portable device for diagnosing faulty conditions, namely leakage, cavitation and/or wear, of the actuator, wherein the device comprises: an identification means for detecting the actuator individual identifier; at least one sound sensor device (11, 13) for optical and/or acoustic contact-free detection of structure-borne and/or airborne sound of the actuator, wherein the sound sensor device (11, 13) comprises an acoustic sensor for detecting airborne sound and an optical sensor for detecting structure-borne sound; a communication device for providing a communication link (41, 51) with the actuator emitting structure-borne and/or airborne sound; wherein the communication device comprises a short-range communication device for providing a communication link with actuator electronics of the actuator emitting structure-borne and/or airborne sound; further comprising data processing electronics signal-transmissional connected with the at least one sound sensor device (11, 13) for processing structure-borne and/or airborne sound measurement values, and a data storage for storing at least the identifier of the actuator; wherein the data processing electronics is configured to receive actuator specific measurement values from the actuator electronics by means of the short-range communication device; wherein the actuator comprises a marking by means of which the portable device is alignable with the actuator for optical detection of structure-borne sound. an identification means for detecting the actuator individual identifier; at least one sound sensor device (11, 13) for optical and/or acoustic contact-free detection of structure-borne and/or airborne sound of the actuator, wherein the sound sensor device (11, 13) comprises an acoustic sensor for detecting airborne sound and an optical sensor for detecting structure-borne sound; a communication device for providing a communication link (41, 51) with the actuator emitting structure-borne and/or airborne sound; wherein the communication device comprises a short-range communication device for providing a communication link with actuator electronics of the actuator emitting structure-borne and/or airborne sound; further comprising data processing electronics signal-transmissional connected with the at least one sound sensor device (11, 13) for processing structure-borne and/or airborne sound measurement values, and a data storage for storing at least the identifier of the actuator; wherein the data processing electronics is configured to receive actuator specific measurement values from the actuator electronics by means of the short-range communication device; wherein the actuator comprises a marking by means of which the portable device is alignable with the actuator for optical detection of structure-borne sound.
A method for producing a polyolefin microporous membrane, the method comprising the steps of: melt-kneading a polyolefin resin and a plasticizer with an extruder to prepare a polyolefin solution, then discharging the polyolefin solution into a sheet from a die, and then stretching the sheet and removing the plasticizer, wherein in the steps of supplying the polyolefin resin and the plasticizer to the extruder, and heating and kneading the polyolefin resin and the plasticizer in the extruder, at a stage after the polyolefin resin is charged into the extruder and before the plasticizer is charged, an inert gas is supplied to the extruder from a position that is located downstream from a raw material inlet of the extruder by 5 to 20% of a screw length of the extruder, and a resin composition is melt-kneaded in an inert gas atmosphere. melt-kneading a polyolefin resin and a plasticizer with an extruder to prepare a polyolefin solution, then discharging the polyolefin solution into a sheet from a die, and then stretching the sheet and removing the plasticizer, wherein in the steps of supplying the polyolefin resin and the plasticizer to the extruder, and heating and kneading the polyolefin resin and the plasticizer in the extruder, at a stage after the polyolefin resin is charged into the extruder and before the plasticizer is charged, an inert gas is supplied to the extruder from a position that is located downstream from a raw material inlet of the extruder by 5 to 20% of a screw length of the extruder, and a resin composition is melt-kneaded in an inert gas atmosphere.
A wall element for a sound-proof wall, having a sound-relevant component and having side parts, which are arranged on the sides of the sound-relevant component and are connected to a top flange and a bottom flange, which extend horizontally in the wall element (6, 7) at the top and bottom, the top flange and the bottom flange each having at their ends at least one receiving chamber (12, 13), characterised in that the top flange and the bottom flange each have at their ends at least two receiving chambers (12, 13), which are closed off from each other, the top flange and the bottom flange each have a base profile having two hollow profiles (10, 11), which are arranged on the base profile and form the receiving chambers (12, 13) that are closed off from each other, wherein the respective receiving chambers (12, 13) have a continuous ring in cross section, and at least one insertion body (14, 15) is arranged in each receiving chamber (12, 13).
Method for locating leak points on containers and/or housings, according to which such a test object has been or is pressurised with a gaseous test fluid in relation to the surroundings, wherein at least one measuring probe is moved over the surface of the test object and/or the surface of the test object is moved over at least one measuring probe and, by means of a flushing gas, the concentration of the flushing gas in the detection area between the detector surface of a gas sensor and the surface of the test object is increased in relation to the surroundings, characterised in that, if there is a leak, due to the test fluid emerging from the leak into the detection area, the concentration of the flushing gas and/or the concentration of at least one gas contained in the flushing gas decreases and this decrease in the concentration is determined by means of the gas sensor, wherein the flushing gas concentration in the detection area is determined by means of a gas sensor and is evaluated for the purpose of detecting leak points on the test object, preferably by means of an evaluation unit, and/or on this basis the leak rates and/or the spatial position of the leak points are determined and/or displayed to the user and ambient air or compressed air is used as the test fluid.
A method of manufacturing a biological therapy, the method comprising: detecting a level of a molecular attribute of the biological therapy in a formulation at one or more timepoints under storage conditions; determining a rate of change of the molecular attribute under the storage conditions, wherein a molecular attribute is a chemically or physically changed structure of the molecule that defines its physicochemical properties; obtaining data on in vivo safety and/or efficacy of the biological therapy for subjects that have received an administration of the biological therapy; estimating a level of molecular attribute exposure received by the subjects at the time of said administration, based on (i) the rate of change of the molecular attribute during storage of the biological therapy in the formulation and (ii) a duration that the biological therapy in the formulation was under the storage conditions prior to said administration; determining a presence or absence of a correlation between the estimated level of molecular attribute exposure and the safety and/or efficacy data for the biological therapy; and if the correlation is absent, manufacturing production lots of the biological therapy comprising the molecular attribute at or below a specified permissible level of the molecular attribute based on the estimated level of molecule attribute exposure. detecting a level of a molecular attribute of the biological therapy in a formulation at one or more timepoints under storage conditions; determining a rate of change of the molecular attribute under the storage conditions, wherein a molecular attribute is a chemically or physically changed structure of the molecule that defines its physicochemical properties; obtaining data on in vivo safety and/or efficacy of the biological therapy for subjects that have received an administration of the biological therapy; estimating a level of molecular attribute exposure received by the subjects at the time of said administration, based on (i) the rate of change of the molecular attribute during storage of the biological therapy in the formulation and (ii) a duration that the biological therapy in the formulation was under the storage conditions prior to said administration; determining a presence or absence of a correlation between the estimated level of molecular attribute exposure and the safety and/or efficacy data for the biological therapy; and if the correlation is absent, manufacturing production lots of the biological therapy comprising the molecular attribute at or below a specified permissible level of the molecular attribute based on the estimated level of molecule attribute exposure.
A middle ear prosthesis made of a stiff deformable material and comprising: a planar head end with a central portion having a central diameter, wherein the head end is adapted for engagement with a tympanic membrane from the middle ear of an implanted patient; and an opposing pair of U-shaped stapes engagement legs bending down from the central portion so that an end distance between ends of the engagement legs is less than the central diameter; wherein the engagement legs are adapted for adjustable length engagement with the stapes in the middle ear of the implanted patient; wherein the head end and the engagement legs are adapted to transmit vibrations from the tympanic membrane to the stapes for perception as sound by the implanted patient. a planar head end with a central portion having a central diameter, wherein the head end is adapted for engagement with a tympanic membrane from the middle ear of an implanted patient; and an opposing pair of U-shaped stapes engagement legs bending down from the central portion so that an end distance between ends of the engagement legs is less than the central diameter; wherein the engagement legs are adapted for adjustable length engagement with the stapes in the middle ear of the implanted patient; wherein the head end and the engagement legs are adapted to transmit vibrations from the tympanic membrane to the stapes for perception as sound by the implanted patient.
A single chain T cell receptor consisting of TCR α chain variable domain and TCR β chain variable domain linked by a flexible peptide linker, wherein: (i) the hydrophobic core domain of the TCR is mutated; and (ii) the TCR has higher protein renaturation yield and/or thermal stability than that of a corresponding TCR with wild-type unmutated hydrophobic core and can bind to the same pMHC to which the corresponding TCR with wild-type unmutated hydrophobic core can bind; wherein said mutated hydrophobic core domain of the TCR comprises the hydrophobic core of TCR α variable domain which is amino acid positions 11, 13, 19, 21, 53, 76, 89, 91, 94 of variable domain, and amino acid positions of the 3rd, 5th or 7th from the last of α chain J gene (TRAJ) short peptide; and the hydrophobic core of TCR β variable domain which is amino acid positions 11, 13, 19, 21, 53, 76, 89, 91, 94 of variable domain, and amino acid position of the 2nd, 4th or 6th from the last of β chain J gene (TRBJ) short peptide; and wherein the α chain variable domain of the TCR comprises one or more amino acid residues selected from the group consisting of: 211; 911; and 941; and the β chain variable domain of the TCR comprises one or more amino acid residues selected from the group consisting of: 911; 94V and 94L; wherein the numbering of amino acid position is the numbering shown in IMGT (International Immunogenetics Database); wherein the "wild-type hydrophobic core" refers to a hydrophobic core which is identical in amino acid sequence to the hydrophobic core of a naturally-occurring TCR and is not mutated. (i) the hydrophobic core domain of the TCR is mutated; and (ii) the TCR has higher protein renaturation yield and/or thermal stability than that of a corresponding TCR with wild-type unmutated hydrophobic core and can bind to the same pMHC to which the corresponding TCR with wild-type unmutated hydrophobic core can bind;
A retractor comprising: a first blade, a first rotation mechanism that is configured to rotate the first blade about a first axis, a second blade, a second rotation mechanism that is configured to rotate the second blade about a second axis, a first pivot mechanism that is configured to pivot the first blade about a fourth axis, wherein the fourth axis is skewed to the first axis, a second pivot mechanism that is configured to pivot the second blade about a fifth axis, wherein the fifth axis is skewed to the second axis, wherein the first and second blades (18,38) are configured to couple to a body, and a third blade, characterised in that the first blade, the second blade, and the third blade have a stacked configuration in a closed position of the retractor. a first blade, a first rotation mechanism that is configured to rotate the first blade about a first axis, a second blade, a second rotation mechanism that is configured to rotate the second blade about a second axis, a first pivot mechanism that is configured to pivot the first blade about a fourth axis, wherein the fourth axis is skewed to the first axis, a second pivot mechanism that is configured to pivot the second blade about a fifth axis, wherein the fifth axis is skewed to the second axis, wherein the first and second blades (18,38) are configured to couple to a body, and a third blade, characterised in that the first blade, the second blade, and the third blade have a stacked configuration in a closed position of the retractor.
Use of an active ingredient complex composed of panthenol, glycerol, citrate and bisabolol for producing a cosmetic or dermatological preparation for control or prophylaxis of pollen allergies, characterized in that the preparation has a pH of 4.6 to 5.4 and/or the mass ratio panthenol to citrate is from 25:1 to 5:1, based on the citrate anion and/or the mass ratio of panthenol to bisabolol is from 5:1 to 1:1.
Control arrangement for a hydropneumatic suspension system, the control arrangement comprising a pressure supply connection for connecting to a pressure supply, a return connection, a piston chamber connection that can be connected to the piston chamber of a suspension cylinder of the hydropneumatic suspension system and that can be acted upon by a piston chamber pressure, an annular chamber connection that can be connected to the annular chamber of the suspension cylinder of the hydropneumatic suspension system and that can be acted upon by an annular chamber pressure, and at least one controllable valve device that comprises a plurality of switching positions via which the pressure supply connection and the return connection can be connected to the piston chamber connection and the annular chamber connection, the annular chamber connection being in flow connection with the return connection via a first pressure-limiting line, and a hydraulically controllable pressure-limiting element being provided in the first pressure-limiting line and having a control input that can be acted upon via a control line by a control pressure that corresponds to the piston chamber pressure, characterized in that the control pressure can be limited to a predefinable pressure limit.
A volume flow rate detection device of a fan comprising a motor having a speed controller and at least one microcontroller, wherein the speed n of the motor is input at an input of the microcontroller as an input variable in the form of a digital signal, in order to determine the pressure difference Δp generated by the impeller wheel at this speed and the volume flow rate ΔV/Δt at a location x in a flow channel of the fan in a specific installation situation of a system, by means of a simulation model stored in a memory of the microcontroller, and in order to adjust the speed n of the motor accordingly by means of the speed controller in the event of a deviation from a setpoint volume flow rate ΔV Setpoint /Δt, characterized in that in addition to the pressure difference Δp determined from the simulation model, a correction factor ζ a for flow losses ΔV/Δt is moreover used in the volume flow rate determination of the volume flow rate ΔV/Δt, by means of which a deviation of the actual flow conditions with respect to the ideal fan characteristic curve is corrected without taking into account flow losses of the fan.
A method for receiving a synchronization signal block, SSB, by a user equipment, UE, in a wireless communication system, the method comprising: receiving the SSB including a synchronization signal, SS, and a physical broadcasting channel, PBCH; and receiving a demodulation reference signal, DMRS, for the PBCH, wherein a sequence of the DMRS and a scrambling sequence of the PBCH are generated based on a cell identifier, cell ID, and the same bits for an index of the SSB. receiving the SSB including a synchronization signal, SS, and a physical broadcasting channel, PBCH; and receiving a demodulation reference signal, DMRS, for the PBCH, wherein a sequence of the DMRS and a scrambling sequence of the PBCH are generated based on a cell identifier, cell ID, and the same bits for an index of the SSB.
A coated article comprising a substrate and a thin film coating formed thereon, the coating comprising at least one high entropy thin film layer, the high entropy thin film layer including silicon aluminum nitride and two or more of: hafnium, niobium, tantalum, titanium, yttrium, and zirconium.
A feed wheel for a wood handling unit, comprising a hollow cylindrical wheel part and a hub part, characterized in that the hub part comprises at least two fixing flanges (16, 18) fixed inside the wheel part, at least partly spaced from each other.
A structural ultra-thick steel having excellent resistance to brittle crack propagation, the structural ultra-thick steel consisting of: 0.02-0.1 wt % of C, 0.8-2.5 wt % of Mn, 0.05-1.5 wt % of Ni, 0.005-0.1 wt % of Nb, 0.005-0.1 wt % of Ti, and the remainder of Fe and other inevitable impurities, the structural ultra-thick steel having microstructures consisting of one structure selected from the group consisting of a single-phase structure of ferrite, a single-phase structure of bainite, a complex-phase structure of ferrite and bainite, a complex-phase structure of ferrite and pearlite, and a complex-phase structure of ferrite, bainite, and pearlite, and wherein the ferrite is acicular ferrite or polygonal ferrite, and the bainite is granular bainite, wherein when the microstructures have the complex-phase structure of ferrite, bainite, and pearlite a percentage of pearlite to the complex-phase structure is 30 vol% or less, wherein the steel has a grain size of 15 μm or less, the grain size having a high-angle grain boundary of 15° or higher measured in an EBSD manner in a central portion in a plate thickness direction, wherein the steel has a yield strength of 350 MPa or more, an impact transition temperature of -60°C or lower in of a central portion thereof, a thickness of 10-100 mm and 6,000 or more of Kca value obtained by performing an ESSO test. 0.02-0.1 wt % of C, 0.8-2.5 wt % of Mn, 0.05-1.5 wt % of Ni, 0.005-0.1 wt % of Nb, 0.005-0.1 wt % of Ti, and the remainder of Fe and other inevitable impurities, the structural ultra-thick steel having microstructures consisting of one structure selected from the group consisting of a single-phase structure of ferrite, a single-phase structure of bainite, a complex-phase structure of ferrite and bainite, a complex-phase structure of ferrite and pearlite, and a complex-phase structure of ferrite, bainite, and pearlite, and wherein the ferrite is acicular ferrite or polygonal ferrite, and the bainite is granular bainite, wherein when the microstructures have the complex-phase structure of ferrite, bainite, and pearlite a percentage of pearlite to the complex-phase structure is 30 vol% or less, wherein the steel has a grain size of 15 μm or less, the grain size having a high-angle grain boundary of 15° or higher measured in an EBSD manner in a central portion in a plate thickness direction, wherein the steel has a yield strength of 350 MPa or more, an impact transition temperature of -60°C or lower in of a central portion thereof, a thickness of 10-100 mm and 6,000 or more of Kca value obtained by performing an ESSO test.
A surface cleaning device comprising: a nozzle; a cleaner housing connected to the nozzle, the cleaner housing defining a central longitudinal axis; and a handle coupled to the cleaner housing at a pivot joint; characterized in that the pivot joint is either: a) configured to rotate the handle downwardly about a pivot axis that is non-perpendicular to the longitudinal axis; or b) configured to rotate the handle about a pivot axis and to translate the handle in a direction along the pivot axis. a nozzle; a cleaner housing connected to the nozzle, the cleaner housing defining a central longitudinal axis; and a handle coupled to the cleaner housing at a pivot joint; characterized in that the pivot joint is either: a) configured to rotate the handle downwardly about a pivot axis that is non-perpendicular to the longitudinal axis; or b) configured to rotate the handle about a pivot axis and to translate the handle in a direction along the pivot axis. a) configured to rotate the handle downwardly about a pivot axis that is non-perpendicular to the longitudinal axis; or b) configured to rotate the handle about a pivot axis and to translate the handle in a direction along the pivot axis.