mhurhangee/ep-ind-claims huggingface dataset:
Piston for a fluid-operated adjusting device, in particular for a fluid-actuated linear drive, comprising a one-piece piston body having in the region of its outer circumference a reception groove coaxial with the longitudinal axis of the piston with two facing lateral groove sides (33a, 33b), in which groove a permanent magnet assembly usable for position detection is accommodated, the permanent magnet assembly consisting of an elastic permanent-magnetic magnet strip, characterised in that the magnet strip has two strip end sections (35a, 35b) facing each other in the circumferential direction of the reception groove, and in that its width is less than the distance between the two groove sides (33a, 33b) of the reception groove, wherein each of the two strip end sections (35a, 35b) is held by clamping in one of two clamping zones (45a, 45b) of the reception groove, which are adjacent to each other in the circumferential direction of the reception groove, where the piston body respectively has at least one clamping projection (46a, 47a; 46b, 47b), which projects relative to one of the groove sides (33a, 33b) while locally narrowing the reception groove and presses against the side face (39a, 39b) of the magnet strip.
A high corrosion-resistant aluminum alloy brazing sheet comprising: a core material composed of an aluminum alloy; a sacrificial anode material cladded on at least one surface of said core material; and a brazing material composed of an Al/Si-based alloy cladded on another surface of said core material, if the sacrificial anode material is cladded on only one surface of said core material, wherein said sacrificial anode material is composed of an aluminum alloy which contains Si falling within a range of 2.5-7.0 mass %, Zn falling a range of 1.0-5.5 mass %, Fe falling within a range of 0.05-1.0 mass %, and which optionally contains Ti falling within a range of 0.05-0.3 mass %, Zr falling within a range of 0.05-0.3 mass %, Cr falling within a range of 0.05-0.3 mass %, and V falling within a range of 0.05-0.3 mass %, and which is composed of the balance Al and the inevitable impurities, and wherein a clad thickness of said sacrificial anode material falls within a range of 25-80 μm, characterized in that an existence density of Si particles having a projected area diameter of at least 1.0 μm is at most 5000/mm 2 in the matrix of said sacrificial anode material. a core material composed of an aluminum alloy; a sacrificial anode material cladded on at least one surface of said core material; and a brazing material composed of an Al/Si-based alloy cladded on another surface of said core material, if the sacrificial anode material is cladded on only one surface of said core material, wherein said sacrificial anode material is composed of an aluminum alloy which contains Si falling within a range of 2.5-7.0 mass %, Zn falling a range of 1.0-5.5 mass %, Fe falling within a range of 0.05-1.0 mass %, and which optionally contains Ti falling within a range of 0.05-0.3 mass %, Zr falling within a range of 0.05-0.3 mass %, Cr falling within a range of 0.05-0.3 mass %, and V falling within a range of 0.05-0.3 mass %, and which is composed of the balance Al and the inevitable impurities, and wherein a clad thickness of said sacrificial anode material falls within a range of 25-80 μm, characterized in that an existence density of Si particles having a projected area diameter of at least 1.0 μm is at most 5000/mm 2 in the matrix of said sacrificial anode material.
Magnetic-inductive flowmeter, having a measuring tube for guiding an electrically conductive medium, having a coil for generating a magnetic field which passes at least partially through the measuring tube, and having a magnetic circuit device for guiding the magnetic field outside the measuring tube wherein the magnetic circuit device comprises at least one coil core, a first yoke element, a second yoke element, a first pole shoe and a second pole shoe, wherein the coil core is arranged inside the coil and wherein the measuring tube is arranged between the first pole shoe and the second pole shoe, wherein the magnetic circuit device is formed of an at least partially bent sheet metal element, wherein the sheet metal element comprises a first pole shoe portion, a first coil core portion, a first yoke element portion, a second pole shoe portion, a second yoke element portion, a second coil core portion and a third pole shoe portion, and wherein the sheet metal element is bent in such a manner that the first pole shoe portion and the third pole shoe portion together form the first pole shoe, the second pole shoe portion forms the second pole shoe, the first yoke member portion forms the first yoke member, the second yoke member portion forms the second yoke member, and the first coil core portion and the second coil core portion together form the coil core characterized in that the first pole shoe portion and the third pole shoe portion are designed in L-shape and that the first coil core portion and the second coil core portion are designed in strip shape and are arranged to be attached to the upper side of the L-bottom and to extend parallel to the L-shaft. wherein the magnetic circuit device is formed of an at least partially bent sheet metal element, wherein the sheet metal element comprises a first pole shoe portion, a first coil core portion, a first yoke element portion, a second pole shoe portion, a second yoke element portion, a second coil core portion and a third pole shoe portion, and wherein the sheet metal element is bent in such a manner that the first pole shoe portion and the third pole shoe portion together form the first pole shoe, the second pole shoe portion forms the second pole shoe, the first yoke member portion forms the first yoke member, the second yoke member portion forms the second yoke member, and the first coil core portion and the second coil core portion together form the coil core characterized in that the first pole shoe portion and the third pole shoe portion are designed in L-shape and that the first coil core portion and the second coil core portion are designed in strip shape and are arranged to be attached to the upper side of the L-bottom and to extend parallel to the L-shaft.
Hot water storage tank, comprising a deflection device and a container, through which a feed pipe for heat transfer medium to be stored passes at a location in the bottom region (1.1) of the container, said feed pipe opening into the deflection device, which is situated in the interior of the container and is provided to distribute the heat transfer medium, characterised in that the deflection device is formed either from two identical individual parts or from a single individual part having a film hinge (3.1) in the centre.
A fluidic micro electromechanical system comprising: a substrate; a first layer (30, 230, 700) supported by the substrate, the first layer forming: sides of a first chamber; a passage through one of the sides and the first chamber; and a check valve leaf, the check valve leaf being pivotable about an axis nonparallel to the substrate to open and close the passage, a second layer over the first chamber; and an opening into the first chamber chamber the fluidic micro electromechanical system being characterised in that it further comprises a resistor supported within the first chamber, and in that the check valve leaf has a free end, an upper edge, a lower edge and opposite faces (72, 74), wherein the fixed end is integral with and is formed as part of a single unitary body with the portions of the first layer forming the sides of the first chamber, and wherein the fixed end and those portions of leaf proximate or adjacent to the fixed end has a first thickness while those portions of leaf proximate or adjacent to free end have a second thickness less than the first thickness. a substrate; a first layer (30, 230, 700) supported by the substrate, the first layer forming: sides of a first chamber; a passage through one of the sides and the first chamber; and a check valve leaf, the check valve leaf being pivotable about an axis nonparallel to the substrate to open and close the passage, sides of a first chamber; a passage through one of the sides and the first chamber; and a check valve leaf, the check valve leaf being pivotable about an axis nonparallel to the substrate to open and close the passage,
A method for detecting an oligonucleotide and its oligonucleotide metabolites, wherein the oligonucleotide is an RNA oligonucleotide selected from the group consisting of short interfering RNAs (siRNAs) and microRNAs (miRNAs), comprising the steps of (a) selecting a biological sample containing or suspected of containing said RNA oligonucleotide, wherein the sample is tissue lysate or plasma, (b) combining said biological sample with a fluorescently labeled peptide nucleic acid probe which is fully complementary to at least 10 nucleotides of said RNA oligonucleotide thereby forming hybridized moieties between said RNA oligonucleotide sequence and said PNA probe, (c) separating said hybridized moieties from unhybridized moieties by anion exchange high performance liquid chromatography (HPLC) under conditions where unhybridized PNA probe elutes in the void volume, and (d) quantitatively detecting said hybridized moieties by fluorescence spectroscopy. (a) selecting a biological sample containing or suspected of containing said RNA oligonucleotide, wherein the sample is tissue lysate or plasma, (b) combining said biological sample with a fluorescently labeled peptide nucleic acid probe which is fully complementary to at least 10 nucleotides of said RNA oligonucleotide thereby forming hybridized moieties between said RNA oligonucleotide sequence and said PNA probe, (c) separating said hybridized moieties from unhybridized moieties by anion exchange high performance liquid chromatography (HPLC) under conditions where unhybridized PNA probe elutes in the void volume, and (d) quantitatively detecting said hybridized moieties by fluorescence spectroscopy.
A user terminal, comprising a browser client application capable of processing geographical location data and of transmitting service request data to remote servers, the terminal including: user interface means for selecting or inputting a network resource identifier corresponding to a network resource available at a remote server; geographical location data inclusion means for recognising, within the network resource identifier, a code indicating that the network resource is capable of processing geographical location data, and in response to said recognition initiating a function for including an item of geographical location data stored in the user terminal in service request data; data generation means arranged to generate said service request data that is to be transmitted to the remote server at which the network resource is available, wherein said service request data includes said item of geographical location data; means for transmitting the service request data that includes said item of geographical location data to the remote server. user interface means for selecting or inputting a network resource identifier corresponding to a network resource available at a remote server; geographical location data inclusion means for recognising, within the network resource identifier, a code indicating that the network resource is capable of processing geographical location data, and in response to said recognition initiating a function for including an item of geographical location data stored in the user terminal in service request data; data generation means arranged to generate said service request data that is to be transmitted to the remote server at which the network resource is available, wherein said service request data includes said item of geographical location data; means for transmitting the service request data that includes said item of geographical location data to the remote server.
An image forming apparatus comprising: an identification information acquiring unit that acquires identification information to identify a user; a usage history information acquiring unit that acquires usage history information for the user specified by the identification information; an output setting forecasting unit that forecasts output setting used by the user based on the usage history information, characterized by a fixing temperature setting unit that sets a fixing temperature based on the forecasted output setting. an identification information acquiring unit that acquires identification information to identify a user; a usage history information acquiring unit that acquires usage history information for the user specified by the identification information; an output setting forecasting unit that forecasts output setting used by the user based on the usage history information, characterized by a fixing temperature setting unit that sets a fixing temperature based on the forecasted output setting.
A method for distributing processing of a dataset among two or more workers, said dataset comprising a number of data records, each data record having a unique key, the keys being represented as integer numbers, the data records being arranged in the order of increasing or decreasing key values, the method comprising the steps of: - splitting the dataset into one or more continuous chunks, each chunk comprising a plurality of data records, and assigning each chunk of the dataset to a worker, and allowing each of the worker(s) to process the data records of the chunk assigned to it, the worker(s) thereby performing parallel processing of the dataset, characterized in that the method further comprises the steps of: - a further worker requesting access to the dataset, - identifying the largest chunk among the chunk(s) assigned to the worker(s) already processing data records of the dataset, and requesting the worker having the identified chunk assigned to it to split the chunk, - said worker selecting a split point, using an iterative process, - said worker splitting the identified chunk into two new chunks, at the selected split point, and assigning one of the new chunks to itself, and assigning the other of the new chunks to the further worker, and - allowing the workers to process data records of the chunks assigned to them, the workers thereby performing parallel processing of the dataset. - splitting the dataset into one or more continuous chunks, each chunk comprising a plurality of data records, and assigning each chunk of the dataset to a worker, and allowing each of the worker(s) to process the data records of the chunk assigned to it, the worker(s) thereby performing parallel processing of the dataset, - a further worker requesting access to the dataset, - identifying the largest chunk among the chunk(s) assigned to the worker(s) already processing data records of the dataset, and requesting the worker having the identified chunk assigned to it to split the chunk, - said worker selecting a split point, using an iterative process, - said worker splitting the identified chunk into two new chunks, at the selected split point, and assigning one of the new chunks to itself, and assigning the other of the new chunks to the further worker, and - allowing the workers to process data records of the chunks assigned to them, the workers thereby performing parallel processing of the dataset.
Apparatus for producing an adhesive tape, in particular a wrapping tape for wrapping elongated material, preferably a wrapping tape for wrapping cable harnesses in automobiles, with a supply unit for feeding a ribbon-like textile carrier of the adhesive tape consisting mostly of plastic fibres, and with a coating unit for applying an at least strip-like adhesive coating to at least one side of the carrier, characterized in that - an ultrasonic unit (9, 10) is also provided which is designed to be displaceable relative to the carrier as it advances through in order to create perforations in the pattern of transverse perforations in the carrier, wherein - the ultrasonic unit (9, 10) can be displaced in the throughfeed direction and/or transversely to the throughfeed direction, and wherein - the displacement is also carried out perpendicularly to the throughfeed direction of the carrier, which in turn provides the capability to optionally position the ultrasonic unit (9, 10) against the carrier and to distance it from the carrier again. - an ultrasonic unit (9, 10) is also provided which is designed to be displaceable relative to the carrier as it advances through in order to create perforations in the pattern of transverse perforations in the carrier, wherein - the ultrasonic unit (9, 10) can be displaced in the throughfeed direction and/or transversely to the throughfeed direction, and wherein - the displacement is also carried out perpendicularly to the throughfeed direction of the carrier, which in turn provides the capability to optionally position the ultrasonic unit (9, 10) against the carrier and to distance it from the carrier again.
A method in a first radio network controller (105, 405) for handling a reuse of a scrambling code in a cellular network, the method comprising: - defining (201, 301, 501, 601, 701) a set of scrambling codes, wherein each scrambling code in the defined set is locally reused in at least two cells in the cellular network, - receiving (203, 303, 503, 603, 703) a measurement report from a user equipment, which measurement report is related to a scrambling code that is comprised in the defined set of scrambling codes, - determining (204, 304, 504, 604, 704) that the reported scrambling code is comprised in the defined set of scrambling codes, and - initiating (205, 305, 505, 605, 705), based on the determination (204, 304, 504, 604, 704), a process for identifying, among the at least two cells in which the reported scrambling code is locally reused, an originating cell from which the reported scrambling code originates, characterized in that the initiating (205, 305, 505, 605, 705) is performed by sending a respective cell identification request to each respective base station (125, 135, 140) that serves a respective cell of the at least two cells in which the reported scrambling code is locally reused, which cell identification request comprises an identifier of the user equipment, and which cell identification request commands the respective base station (125, 135, 140) to detect the identifier of the user equipment within the respective cell. - defining (201, 301, 501, 601, 701) a set of scrambling codes, wherein each scrambling code in the defined set is locally reused in at least two cells in the cellular network, - receiving (203, 303, 503, 603, 703) a measurement report from a user equipment, which measurement report is related to a scrambling code that is comprised in the defined set of scrambling codes, - determining (204, 304, 504, 604, 704) that the reported scrambling code is comprised in the defined set of scrambling codes, and - initiating (205, 305, 505, 605, 705), based on the determination (204, 304, 504, 604, 704), a process for identifying, among the at least two cells in which the reported scrambling code is locally reused, an originating cell from which the reported scrambling code originates,
A stacking-type header comprising: a first plate-shaped unit having a plurality of first outlet flow passages and a plurality of first inlet flow passages; and a second plate-shaped unit stacked on the first plate-shaped unit and having a second inlet flow passage, a second outlet flow passage and at least a part of a distribution flow passage configured to distribute refrigerant, which passes through the second inlet flow passage to flow into the second plate-shaped unit, to the plurality of first outlet flow passages, the second plate-shaped unit having at least a part of a joining flow passage, the joining flow passage causing refrigerant entering from each of the first inlet flow passages to join and enter the second outlet flow passage, wherein any one of the plurality of first inlet flow passages communicates with any one of the first outlet flow passages via a heat transfer tube, characterized in that a passage area of the any one of the plurality of first inlet flow passages communicating with the heat transfer tube is larger than a passage area of the any one of the plurality of first outlet flow passages communicating with the heat transfer tube. a first plate-shaped unit having a plurality of first outlet flow passages and a plurality of first inlet flow passages; and a second plate-shaped unit stacked on the first plate-shaped unit and having a second inlet flow passage, a second outlet flow passage and at least a part of a distribution flow passage configured to distribute refrigerant, which passes through the second inlet flow passage to flow into the second plate-shaped unit, to the plurality of first outlet flow passages, the second plate-shaped unit having at least a part of a joining flow passage, the joining flow passage causing refrigerant entering from each of the first inlet flow passages to join and enter the second outlet flow passage, wherein any one of the plurality of first inlet flow passages communicates with any one of the first outlet flow passages via a heat transfer tube, characterized in that a passage area of the any one of the plurality of first inlet flow passages communicating with the heat transfer tube is larger than a passage area of the any one of the plurality of first outlet flow passages communicating with the heat transfer tube.
A fixing buckle assembly for a motor vehicle seat belt restraint system of a type having webbing for positioning on an occupant and a lap pretensioner for pretensioning the seat belt restraint system upon an anticipated or an actual occurrence of an impact of the motor vehicle, the buckle assembly comprising: a tongue affixed to one of the webbing or a connecting strap of the lap pretentioner, a buckle plate affixed to the other of the webbing or the connecting strap, the buckle plate forming a slot for receiving a loop of the webbing or the connecting strap, the tongue and the buckle plate being attachable together, a cover assembly for encasing the buckle plate, the cover assembly having a first cover half and a second cover half attachable together, the cover halves (32, 34) cooperating to form a tongue passageway for receiving the tongue, the cover halves (32, 34) each further forming sections (56, 58) which circumscribe the tongue passageway, and the cover halves (32, 34) further having portions proximate the buckle plate slot which are wrapped around by the loop of the webbing strap or the connecting strap, the cover half sections (56, 58) and portions retaining the cover halves (32, 34) in an assembled condition upon activation of the lap pretentioner, characterized in that upon assembly of the cover halves (32, 34) and insertion of the tongue, the cover halves (32, 34) are interlocked together by the tongue. a tongue affixed to one of the webbing or a connecting strap of the lap pretentioner, a buckle plate affixed to the other of the webbing or the connecting strap, the buckle plate forming a slot for receiving a loop of the webbing or the connecting strap, the tongue and the buckle plate being attachable together, a cover assembly for encasing the buckle plate, the cover assembly having a first cover half and a second cover half attachable together, the cover halves (32, 34) cooperating to form a tongue passageway for receiving the tongue, the cover halves (32, 34) each further forming sections (56, 58) which circumscribe the tongue passageway, and the cover halves (32, 34) further having portions proximate the buckle plate slot which are wrapped around by the loop of the webbing strap or the connecting strap, the cover half sections (56, 58) and portions retaining the cover halves (32, 34) in an assembled condition upon activation of the lap pretentioner, characterized in that upon assembly of the cover halves (32, 34) and insertion of the tongue, the cover halves (32, 34) are interlocked together by the tongue.