mhurhangee/ep-ind-claims huggingface dataset:
A windscreen wiper device of the flat blade type, particularly for automobiles, comprising an elastic, elongated carrier element, as well as an elongated wiper blade of a flexible material, which can be placed in abutment with a windscreen to be wiped, which wiper blade includes at least one longitudinal groove, in which groove at least one longitudinal strip of the carrier element is disposed, which windscreen wiper device comprises a connecting device for an oscillating arm, wherein said oscillating arm can be pivotally connected to said connecting device about a pivot axis near one end thereof, wherein said connecting device is connected to the flexible material of said wiper blade by at least one pin, wherein said pin cooperates with a recess provided along an exterior edge of said longitudinal strip in order to limit any movement of said wiper blade in longitudinal direction thereof relative to said longitudinal strip at the location of the interconnection of said connecting device and said wiper blade, wherein said connecting device has a substantially U-shaped cross-section, wherein free ends of legs of said U-shaped cross-section extend inwardly so as to form grooves for receiving longitudinal sides of said wiper blade, and wherein at least one of said legs is provided with a hole for receiving said pin, characterized in that said pin is glued to an inner wall of said hole or said pin is form-locked inside said hole.
Connecting device having a locking element, having a first guide element, which is arranged on a first furniture panel and is intended for guiding the locking element, wherein the locking element is designed in the form of a curved locking element (8, 9), wherein the first guide element has at least one curved, first guide region for guiding the locking element, and having a second guide element, which is arranged on a second furniture panel and has a curved, second guide region for guiding the locking element, characterized in that the locking element is arranged, at least in part, between the first furniture panel and the first guide element, in that a second locking element is arranged, at least in part, between the second furniture panel and the second guide element, wherein the two locking elements (8, 9) are of essentially identical design, and in that the two guide elements (4, 5) are of essentially identical design, a connecting device comprising essentially two furniture panels and two structural units therefore being realized, wherein the two structural units are generally identical.
Method for avoiding pump surges in a compressor, in which a plurality of parameters of the compressor are monitored during the operation and a desired value range for the plurality of parameters is predetermined, wherein a reaction (24, 26, 28) that counteracts the imminent pump surge is triggered if a number of parameters from the desired value range are exceeded or fallen below, and wherein the plurality of parameters comprises a parameter assigned to the rotational noise of the compressor, and the parameter assigned to the rotational noise of the compressor is a vibration amplitude and/or frequency of a component of the fluid-flow machine, and the component is the shaft and/or the housing of the compressor, characterized in that sensors are fitted at multiple points on the circumference of the compressor and detect mechanical vibrations.
A method of wireless communication, comprising: determining, by a base station, a downlink enablement status for a downlink re-synchronization procedure over an unlicensed spectrum; transmitting, by the base station, a downlink status indication identifying the downlink enablement status; providing, by the base station, at least two re-synchronization boundaries within a single frame usable by a user equipment, UE, for clear channel assessment, CCA, or extended CCA, ECCA, before uplink transmission, wherein the at least two re-synchronization boundaries are associated with a particular uplink/downlink subframe configuration; and transmitting, by the base station, an indication for one or more user equipments, UE, to refrain from transmission for a predetermined duration right before one or more re-synchronization boundaries defined within the single frame. determining, by a base station, a downlink enablement status for a downlink re-synchronization procedure over an unlicensed spectrum; transmitting, by the base station, a downlink status indication identifying the downlink enablement status; providing, by the base station, at least two re-synchronization boundaries within a single frame usable by a user equipment, UE, for clear channel assessment, CCA, or extended CCA, ECCA, before uplink transmission, wherein the at least two re-synchronization boundaries are associated with a particular uplink/downlink subframe configuration; and transmitting, by the base station, an indication for one or more user equipments, UE, to refrain from transmission for a predetermined duration right before one or more re-synchronization boundaries defined within the single frame.
An intervention drive pig comprising an umbilical, manufactured in material of low density and low coefficient of friction with respect to steel, wherein the material of the umbilical comprises: - an external coating of material having hollow microspheres; - a density proximate to the medium such as water, oil or gas, wherein it is applied; - at least one buoyant centralizer. - an external coating of material having hollow microspheres; - a density proximate to the medium such as water, oil or gas, wherein it is applied; - at least one buoyant centralizer.
Composition for producing a thermoplastic moulding material, wherein the composition contains or consists of the following constituents: A) at least one polymer selected from the group consisting of aromatic polycarbonate, and aromatic polyestercarbonate, B) at least one anhydride-functionalized ethylene-α-olefin copolymer or ethylene-α-olefin terpolymer having a weight-average molecular weight Mw of 50000 to 500000 g/mol determined by high-temperature gel permeation chromatography using ortho-dichlorobenzene as solvent against polystyrene standards, C) glass fibres. A) at least one polymer selected from the group consisting of aromatic polycarbonate, and aromatic polyestercarbonate, B) at least one anhydride-functionalized ethylene-α-olefin copolymer or ethylene-α-olefin terpolymer having a weight-average molecular weight Mw of 50000 to 500000 g/mol determined by high-temperature gel permeation chromatography using ortho-dichlorobenzene as solvent against polystyrene standards, C) glass fibres.
A method of welding a ferritic stainless steel part to a carbon steel part comprising: arc welding the ferritic stainless steel part to the carbon steel part using a filler metal characterised in that the filler metal is a duplex stainless steel.
A program for instructing a computer so as to perform planning an infusion of a medical liquid by an infusion apparatus comprising an infusion device, wherein the program causes the computer to perform the steps of: acquiring, in terms of retrieving or receiving, planning scan data which represent a medical image of at least a body region of a patient and are obtained by a planning scan before the infusion device is positioned; determining a planned device position from the planning scan data; acquiring, in terms of retrieving or receiving, verification scan data which represent a medical image of the region of the patient after the infusion device has been positioned and before the infusion is performed; performing image fusion of the planning scan data onto the verification scan data in order to obtain a transformation rule for data determined on the basis of the planning scan; determining a source volume of the liquid, which is the volume from which the medical liquid propagates into the tissue of the patient, from the verification scan data; and determining infusion parameters from the verification scan data and the source volume.
A monitoring method for monitoring the energy requirement for a plastic extrusion system, having the following steps: - Set a balancing limit, in the balance space of which the plastic extrusion system is located, - Monitor at least one energy flow into the balance space, - Monitor a feed stream of granulate material into the plastic extrusion system, - Determine the relation between the at least one energy flow and the feed stream, characterized in that at least two energy flows into the balance space are monitored, wherein the sum of the monitored energy flows is used for determining the relation to the feed stream, and at least two energy flows are monitored, wherein for each energy flow the relation to the feed stream is determined individually. - Set a balancing limit, in the balance space of which the plastic extrusion system is located, - Monitor at least one energy flow into the balance space, - Monitor a feed stream of granulate material into the plastic extrusion system, - Determine the relation between the at least one energy flow and the feed stream,
A method of manufacturing semiconductor devices, the method comprising: - providing a leadframe having a die pad area, - attaching onto said die pad area at least one semiconductor die via soft-solder die attach material, - forming a device package by molding package material onto the at least one semiconductor die attached onto said die pad area of the leadframe, wherein the method comprises: - providing onto said leadframe an enhancing layer countering device package delamination, - removing said enhancing layer from at least a portion of the die pad area, and - attaching said at least one semiconductor die onto said die pad area via soft-solder die attach material provided where said enhancing layer has been removed, characterized in that the method comprises removing said enhancing layer from said die pad area via laser beam ablation. - providing a leadframe having a die pad area, - attaching onto said die pad area at least one semiconductor die via soft-solder die attach material, - forming a device package by molding package material onto the at least one semiconductor die attached onto said die pad area of the leadframe, - providing onto said leadframe an enhancing layer countering device package delamination, - removing said enhancing layer from at least a portion of the die pad area, and - attaching said at least one semiconductor die onto said die pad area via soft-solder die attach material provided where said enhancing layer has been removed,
An optical test bench for an optical instrument, said instrument comprising an optical lens and a photodetection unit disposed at the focal spot of said lens, the optical pupil of said optical lens having a diameter D T, said instrument to be tested being arranged on said test bench, said test bench comprising at least: • a collimator equipped with an emission source adapted to said instrument and emitting a flat wavefront, said collimator and said instrument being arranged so that an image from said source forms on the photodetection surface of said unit; • means for analysing said image, characterised in that: • the diameter D c of the optical pupil of said collimator is less than the diameter D T of the pupil of said lens; • said test bench further comprises means for translationally moving said collimator, which means are arranged so that said collimator can occupy various positions; • for each position, said collimator illuminates part of the pupil of said optical lens, called sub-pupil SP k, with an image called sub-image SI k forming on the photodetection surface of said unit; • the set of various sub-pupils SP k is arranged so as to cover at least the pupil of said optical lens; • said analysis means comprise restoration means at least allowing, on the basis of the various sub-images SI k, the map of the phase error of the optical wavefront, also called "WFE", of said instrument to be reconstructed. • a collimator equipped with an emission source adapted to said instrument and emitting a flat wavefront, said collimator and said instrument being arranged so that an image from said source forms on the photodetection surface of said unit; • means for analysing said image, • the diameter D c of the optical pupil of said collimator is less than the diameter D T of the pupil of said lens; • said test bench further comprises means for translationally moving said collimator, which means are arranged so that said collimator can occupy various positions; • for each position, said collimator illuminates part of the pupil of said optical lens, called sub-pupil SP k, with an image called sub-image SI k forming on the photodetection surface of said unit; • the set of various sub-pupils SP k is arranged so as to cover at least the pupil of said optical lens; • said analysis means comprise restoration means at least allowing, on the basis of the various sub-images SI k, the map of the phase error of the optical wavefront, also called "WFE", of said instrument to be reconstructed.
A heat exchanger which is fixed to a housing conveying the intake air, preferably to the intake module of an internal combustion engine, comprising a first and a second coolant box (3, 4) between which a rib tube block extends, wherein the tubes (12, 13, 14, 15) of the rib tube block mouth into a respective bottom (5, 6) and respectively one bottom (5, 6) is tightly connected to the respective coolant box (3, 4), characterised in that the first and/or the second coolant box (3, 4), preferably carrying the heat exchanger, is fixed to a housing conveying the intake air, preferably to the intake module of the internal combustion engine, wherein the first and/or the second coolant box (3, 4) is drawn over the bottom (5, 6) of the rib tube block and abuts the intake module of the internal combustion engine.
A method of forming a polymer endoprosthesis, the method comprising: injecting a polymer material into a cavity of a first mold in order to form a stock tube, the polymer material having a glass temperature Tg and a melt temperature Tm, ejecting the stock tube out of the first mold while the stock tube is at a temperature T which is below the glass temperature Tg of the polymer material; characterized by placing the stock tube in a cavity of a second mold while the temperature T of the stock tube is below Tg and substantially above room ambient temperature due to heat from injection molding; heating the stock tube to a temperature Tg ≤ T ≤ Tm by applying heat to the stock tube while the stock tube is in the second mold; and expanding the stock tube to form a precursor tube within the second mold. injecting a polymer material into a cavity of a first mold in order to form a stock tube, the polymer material having a glass temperature Tg and a melt temperature Tm, ejecting the stock tube out of the first mold while the stock tube is at a temperature T which is below the glass temperature Tg of the polymer material; characterized by placing the stock tube in a cavity of a second mold while the temperature T of the stock tube is below Tg and substantially above room ambient temperature due to heat from injection molding; heating the stock tube to a temperature Tg ≤ T ≤ Tm by applying heat to the stock tube while the stock tube is in the second mold; and expanding the stock tube to form a precursor tube within the second mold.
An antenna element comprising: a feeding part (21 a); a conductive mesh part (21 c) including at least a part of an area formed in a mesh state; and a conductive part (21b, 21 d) formed of a finer mesh than the mesh part; wherein the feeding part is followed by the part formed of a finer mesh than the mesh part, and the part formed of a finer mesh than the mesh part is immediately followed by the mesh part; and wherein said portion formed of finer mesh than the mesh part is configured to be bent. a feeding part (21 a); a conductive mesh part (21 c) including at least a part of an area formed in a mesh state; and a conductive part (21b, 21 d) formed of a finer mesh than the mesh part; wherein the feeding part is followed by the part formed of a finer mesh than the mesh part, and the part formed of a finer mesh than the mesh part is immediately followed by the mesh part; and wherein said portion formed of finer mesh than the mesh part is configured to be bent.
A cable protection device comprising: a fixing ring, which has a through hole extending along a first direction, wherein the fixing ring includes an inner side surface and an outer side surface that are opposite along a radial direction of the fixing ring, the outer side surface comprises two or more attaching surfaces, and a vertical axis (x) is defined in the attaching surface; and a clamping member, which is disposed on the attaching surface, wherein the clamping member is deflectable at least about the vertical axis (x), the clamping member has at least one penetration hole penetrating along the first direction, and a cable is clamped within the penetration hole and is deflected about the vertical axis (x) relative to the fixing ring within a preset range, characterized in that the clamping member has a contact plane, through which the clamping member is disposed facing the attaching surface and the clamping member is deflected about the vertical axis (x) on the attaching surface. a fixing ring, which has a through hole extending along a first direction, wherein the fixing ring includes an inner side surface and an outer side surface that are opposite along a radial direction of the fixing ring, the outer side surface comprises two or more attaching surfaces, and a vertical axis (x) is defined in the attaching surface; and a clamping member, which is disposed on the attaching surface, wherein the clamping member is deflectable at least about the vertical axis (x), the clamping member has at least one penetration hole penetrating along the first direction, and a cable is clamped within the penetration hole and is deflected about the vertical axis (x) relative to the fixing ring within a preset range, characterized in that the clamping member has a contact plane, through which the clamping member is disposed facing the attaching surface and the clamping member is deflected about the vertical axis (x) on the attaching surface.
A mechanically-electrically integrated electrical rotating apparatus, comprising: - an electrical rotating motor; - an electric power conversion device connected with the electrical rotating motor; - a housing that houses the electrical rotating motor and the electric power conversion device; - an attachment member that is provided in the housing between the electrical power conversion device and the electrical rotating motor and to which the electric power conversion device is attached on the opposite side with respect to the electrical rotating motor; - an electrically conductive connecting member that is attached to the attachment member in an electrically insulated state from the attachment member on the opposite side of the attachment member with respect to the electrical rotating motor and is connected with an electronic component that is part of the electric power conversion device and with the electrical rotating motor; and - a cooling portion (36, 51), wherein: - the cooling portion (36, 51) is attached and fixed to the attachment member on the side of the electrical rotating motor, - the cooling portion (36, 51) - before being attached and fixed to the attachment member - is separate from the attachment member, and - the cooling portion (36, 51) is configured to cool the electronic component and the electrically conductive connecting member. - an electrical rotating motor; - an electric power conversion device connected with the electrical rotating motor; - a housing that houses the electrical rotating motor and the electric power conversion device; - an attachment member that is provided in the housing between the electrical power conversion device and the electrical rotating motor and to which the electric power conversion device is attached on the opposite side with respect to the electrical rotating motor; - an electrically conductive connecting member that is attached to the attachment member in an electrically insulated state from the attachment member on the opposite side of the attachment member with respect to the electrical rotating motor and is connected with an electronic component that is part of the electric power conversion device and with the electrical rotating motor; and - a cooling portion (36, 51), - the cooling portion (36, 51) is attached and fixed to the attachment member on the side of the electrical rotating motor, - the cooling portion (36, 51) - before being attached and fixed to the attachment member - is separate from the attachment member, and - the cooling portion (36, 51) is configured to cool the electronic component and the electrically conductive connecting member.
A recombinant lentiviral vector preparation, characterized in that said preparation comprising: a) an effective dose of the recombination lentiviral vector; b) a histidine hydrochloride buffer for keeping a pH value of said preparation in the range of 6.0-8.0; and c) a carbohydrate. a) an effective dose of the recombination lentiviral vector; b) a histidine hydrochloride buffer for keeping a pH value of said preparation in the range of 6.0-8.0; and c) a carbohydrate.
A method in a base station of a cell having at least a first and a second antenna sector, the base station being distributed in terms of location, the method comprising: - estimating (42, 504), in the at least the first and the second antenna sectors, a thermal noise floor; and - determining (44, 516) an uplink power control target for a user equipment, UE, connected to the first antenna sector, based on a maximum thermal noise floor of the estimated (42, 504) thermal noise floors in all of the at least the first and the second antenna sectors, wherein determining (44, 516) the uplink power control target, is further based on: a first pre-determined power component; a second pre-determined power component; and a third pre-determined power component, wherein the third pre-determined power component provides a minimal detectable signal power in an antenna sector, having the maximum thermal noise floor of the estimated thermal noise floors, of the at least the first and second antenna sectors, and wherein determining (44, 516) the uplink power control target is further determined as the maximum of: - a sum of the thermal noise floor of the first antenna sector and the second pre-determined power component, and - a sum of the maximum thermal noise floor of the thermal noise floors, the first pre-determined power component, and the third pre-determined power component. - estimating (42, 504), in the at least the first and the second antenna sectors, a thermal noise floor; and - determining (44, 516) an uplink power control target for a user equipment, UE, connected to the first antenna sector, based on a maximum thermal noise floor of the estimated (42, 504) thermal noise floors in all of the at least the first and the second antenna sectors, wherein determining (44, 516) the uplink power control target, is further based on: a first pre-determined power component; a second pre-determined power component; and a third pre-determined power component, wherein the third pre-determined power component provides a minimal detectable signal power in an antenna sector, having the maximum thermal noise floor of the estimated thermal noise floors, of the at least the first and second antenna sectors, and wherein determining (44, 516) the uplink power control target is further determined as the maximum of: - a sum of the thermal noise floor of the first antenna sector and the second pre-determined power component, and - a sum of the maximum thermal noise floor of the thermal noise floors, the first pre-determined power component, and the third pre-determined power component.