mhurhangee/patent-ind-claim-en huggingface dataset:
A weld tip remover comprising: a cylindrical tubular case with an inclined guide groove formed therein along a circumference of a tube wall; a rotating plate axially rotatably mounted inside the cylindrical tubular case by a guide bar provided on an outer circumferential surface thereof and inserted into the inclined guide groove, and defining a tip receiving hole formed through an inner circumferential surface thereof; and a hinge bar having one end hinged to a translational actuator, a body portion hinged to one side of the rotating plate, and another end at which a driving jaw exposed to one side of an inner circumferential surface of the rotating plate is provided. a cylindrical tubular case with an inclined guide groove formed therein along a circumference of a tube wall; a rotating plate axially rotatably mounted inside the cylindrical tubular case by a guide bar provided on an outer circumferential surface thereof and inserted into the inclined guide groove, and defining a tip receiving hole formed through an inner circumferential surface thereof; and a hinge bar having one end hinged to a translational actuator, a body portion hinged to one side of the rotating plate, and another end at which a driving jaw exposed to one side of an inner circumferential surface of the rotating plate is provided.
Vacuum cleaner for cleaning and maintaining floor surfaces , comprising a fan for generating a vacuum for receiving dirt by means of an air flow (Q) and a separation system for cleaning dirt from the received air, the separation system comprising a cyclone separator , characterised in that the cyclone separator has at least one control element which can be moved between at least two positions (A, B), the control element , by means of the movement between the two positions (A, B), being designed to keep a separation particle size of the cyclone separator constant during the separation of dirt, independently of an existing volume flow value of the air flow and/or a volume flow value of the air flow that is established in the cyclone separator.
A monomer for the synthesis of a nucleic acid molecule, which has a structure of the following chemical formula(II-1), (II-4) or (II-6): in the aforementioned chemical formula (II-1), (II-4), or (II-6), R 11 is H or a protecting group and R 21 is a phosphate-protecting group; wherein, in said chemical formula (II-1), n=11 and m=12, wherein, in said chemical formula (II-4), n=5 and m=4, wherein, in said chemical formula (II-6), n=4 and m=4. in the aforementioned chemical formula (II-1), (II-4), or (II-6), R 11 is H or a protecting group and R 21 is a phosphate-protecting group; wherein, in said chemical formula (II-1), n=11 and m=12, wherein, in said chemical formula (II-4), n=5 and m=4, wherein, in said chemical formula (II-6), n=4 and m=4.
A method for preparing a dough, which method comprises: a) preparing the dough including the step of adding a Penicillium glucose oxidase and a Talaromyces xylanase to at least one dough ingredient; and b) cooling the dough to a temperature in the range of -40 to -5 degrees Celsius, wherein the Penicillium glucose oxidase comprises an amino acid sequence having at least 90% identity to amino acids 19 to 604 of SEQ ID NO: 1, and wherein the Talaromyces xylanase comprises an amino acid sequence having at least 90% identity to amino acids 23 to 408 of SEQ ID NO: 3. a) preparing the dough including the step of adding a Penicillium glucose oxidase and a Talaromyces xylanase to at least one dough ingredient; and b) cooling the dough to a temperature in the range of -40 to -5 degrees Celsius,
An antenna assembly comprising: a primary reflector having a concave reflecting surface configured to direct electromagnetic energy; a secondary reflector within a concavity formed in the primary reflector having a convex reflecting surface configured to direct electromagnetic energy toward the primary reflector; a primary feed having a patterned emitting surface; three or more antenna input feeds each connected to the patterned antenna emitting surface of the primary feed; and three or more connectors exposed on an external surface of the antenna assembly wherein each connector is configured to couple to one of the three or more antenna input feeds and configured to transmit radio frequency, RF, signals for a different polarization to each of the antenna input feeds, wherein the patterned emitting surface comprises a flat surface having one or more openings therethrough and a plurality of folded-over regions continuous with the flat upper surface; and the patterned emitting surface is configured to emit the RF signals having different polarizations from different locations for the different polarizations towards the secondary reflector, wherein the patterned emitting surface, the primary and the secondary reflectors are configured such that beams corresponding to the different polarizations are reflected from different regions of the primary and secondary reflectors. a primary reflector having a concave reflecting surface configured to direct electromagnetic energy; a secondary reflector within a concavity formed in the primary reflector having a convex reflecting surface configured to direct electromagnetic energy toward the primary reflector; a primary feed having a patterned emitting surface; three or more antenna input feeds each connected to the patterned antenna emitting surface of the primary feed; and three or more connectors exposed on an external surface of the antenna assembly wherein each connector is configured to couple to one of the three or more antenna input feeds and configured to transmit radio frequency, RF, signals for a different polarization to each of the antenna input feeds, wherein the patterned emitting surface comprises a flat surface having one or more openings therethrough and a plurality of folded-over regions continuous with the flat upper surface; and the patterned emitting surface is configured to emit the RF signals having different polarizations from different locations for the different polarizations towards the secondary reflector, wherein the patterned emitting surface, the primary and the secondary reflectors are configured such that beams corresponding to the different polarizations are reflected from different regions of the primary and secondary reflectors.
A method for User Equipment, UE , the UE being configured with a first Master Cell Group, MCG, duplicated Signaling Radio Bearer, SRB, and a second MCG duplicated SRB, the first MCG duplicated SRB being associated with an MCG and a Secondary Cell Group, SCG, and configured to be used for uplink transmission via the SCG, and the method comprising: detecting (S310) an SCG failure; reconfiguring (S320) a Packet Data Convergence Protocol, PDCP, entity of the first MCG duplicated SRB to be used for uplink transmission via the MCG upon detecting the SCG failure; and reconfiguring the second MCG duplicated SRB to be used for uplink transmission via the MCG upon detecting the SCG failure, wherein the first MCG duplicated SRB is an MCG split SRB configured with packet duplication. detecting (S310) an SCG failure; reconfiguring (S320) a Packet Data Convergence Protocol, PDCP, entity of the first MCG duplicated SRB to be used for uplink transmission via the MCG upon detecting the SCG failure; and reconfiguring the second MCG duplicated SRB to be used for uplink transmission via the MCG upon detecting the SCG failure, wherein the first MCG duplicated SRB is an MCG split SRB configured with packet duplication.
Machine for dismantling and distributing bales of animal litter (Bt) or bales of fodder (Bt) comprising: - a means (Mt) for transporting a cylindrical or parallelepipedal bale (Bt), a means (Mp) for decompacting said bale, said transport means being arranged to displace said bale towards said decompacting means, - or a means (Md) for unwinding a cylindrical bale, the machine comprising a capstan (Cb) provided with a traction member comprising a revolving piece (Pr, T1) linked to a rotation driving means (Mr), the revolving piece (Pr, T1) being intended to receive at least one winding of links (L), of a thread, binding said bale or of a protection film enveloping said bale, to pull it or them by adhesion of at least one loop wound around said revolving piece, during the operation of the rotation driving means (Mr), in order to extract them from said bale, characterized in that the machine is provided with a device (Dg) for guiding the links, the thread or the protection film, towards the revolving piece (Pr, T1), the guiding device comprising a rounded wall (Pi) disposed in such a way that the links, the thread or the protection film made taut by the capstan (Cb) can be wound on the revolving piece (Pr, T1). - a means (Mt) for transporting a cylindrical or parallelepipedal bale (Bt), a means (Mp) for decompacting said bale, said transport means being arranged to displace said bale towards said decompacting means, - or a means (Md) for unwinding a cylindrical bale, the machine comprising a capstan (Cb) provided with a traction member comprising a revolving piece (Pr, T1) linked to a rotation driving means (Mr), the revolving piece (Pr, T1) being intended to receive at least one winding of links (L), of a thread, binding said bale or of a protection film enveloping said bale, to pull it or them by adhesion of at least one loop wound around said revolving piece, during the operation of the rotation driving means (Mr), in order to extract them from said bale, characterized in that the machine is provided with a device (Dg) for guiding the links, the thread or the protection film, towards the revolving piece (Pr, T1), the guiding device comprising a rounded wall (Pi) disposed in such a way that the links, the thread or the protection film made taut by the capstan (Cb) can be wound on the revolving piece (Pr, T1).
A pleated filtration media pack comprising: (a) filtration media having a first set of pleat folds forming a first face of the media pack and a second set of pleat folds forming a second face of the media pack, such that the filtration media extends between the first set of pleat folds and the second set of pleat folds in a back and forth arrangement; and (b) a plurality of flutes formed in the filtration media , said flutes extending between the first and second faces of the media pack; wherein at least a portion of the plurality of flutes demonstrate a taper from the first face of the media pack to the second face of the media pack, characterized in that the portion of the plurality of flutes demonstrating a taper have a taper in cross sectional area and a substantially uniform height from the first face of the media pack to the second face of the media pack and a substantially uniform width from the first face of the media pack to the second face of the media pack, wherein the portion of the plurality of flutes demonstrating a taper have a substantially uniform taper from the first face to the second face of the media pack. (a) filtration media having a first set of pleat folds forming a first face of the media pack and a second set of pleat folds forming a second face of the media pack, such that the filtration media extends between the first set of pleat folds and the second set of pleat folds in a back and forth arrangement; and (b) a plurality of flutes formed in the filtration media , said flutes extending between the first and second faces of the media pack; wherein at least a portion of the plurality of flutes demonstrate a taper from the first face of the media pack to the second face of the media pack, characterized in that the portion of the plurality of flutes demonstrating a taper have a taper in cross sectional area and a substantially uniform height from the first face of the media pack to the second face of the media pack and a substantially uniform width from the first face of the media pack to the second face of the media pack, wherein the portion of the plurality of flutes demonstrating a taper have a substantially uniform taper from the first face to the second face of the media pack.
A method of providing barometric calibration data to a given user equipment (200, 200-1 - 200-10) in a mobile communications network, the method comprising: - a network node receiving a respective calibration request from each one of a plurality of user equipments (200, 200-1 - 200-10), the plurality of user equipments (200, 200-1 - 200-10) including the given user equipment (200, 200-1 - 200-10), - establishing at least one subset (600-1, 600-2) of the plurality of user equipments (200, 200-1 - 200-10) which includes the given user equipment (200, 200-1 - 200-10), - determining the barometric calibration data for the established at least one subset (600-1, 600-2), and - sending the barometric calibration data at least to the given user equipment (200, 200-1 - 200-10), characterised in that at least one of the calibration requests comprises a sensor type information of a barometric pressure sensor of the respective user equipment (200, 200-1 - 200-10), wherein said establishing of the at least one subset (600-1, 600-2) is dependent on the sensor type information , wherein the at least one subset (600-1, 600-2) is established by including the user equipments (200, 200-1 - 200-10) which have corresponding sensor type information and wherein the barometric calibration data includes barometric pressure sensor error compensation data . - a network node receiving a respective calibration request from each one of a plurality of user equipments (200, 200-1 - 200-10), the plurality of user equipments (200, 200-1 - 200-10) including the given user equipment (200, 200-1 - 200-10), - establishing at least one subset (600-1, 600-2) of the plurality of user equipments (200, 200-1 - 200-10) which includes the given user equipment (200, 200-1 - 200-10), - determining the barometric calibration data for the established at least one subset (600-1, 600-2), and - sending the barometric calibration data at least to the given user equipment (200, 200-1 - 200-10),
A plastic glazing of a window of a vehicle having a light feature to externally emit light from the vehicle, the plastic glazing comprising: a first vehicle window glazing component forming a clear transparent portion of the plastic glazing; a second vehicle window glazing component molded onto the first vehicle window glazing component, forming a colored portion of the plastic glazing, either translucent or opaque; a light unit configured to produce light for the light feature and emit light through a first portion of one or more of the first vehicle window glazing component and the second vehicle window glazing component, the light unit being integrated with the second vehicle window glazing component; and the plastic glazing further comprising a light guide configured to receive light from the light unit , wherein the light guide is configured to deliver the light to an end thereof to provide a light feature internally within the vehicle; and the light unit further configured to direct the light for the light feature to externally emit light from the vehicle through or from at least one of the following: the first vehicle window glazing component and the second vehicle window glazing component, and wherein the plastic glazing is of one-piece molded plastic construction; and wherein the plastic glazing comprises a housing unit attached thereto that is configured to support the light unit, wherein the housing unit comprises a fiber-reinforced polymer. a first vehicle window glazing component forming a clear transparent portion of the plastic glazing; a second vehicle window glazing component molded onto the first vehicle window glazing component, forming a colored portion of the plastic glazing, either translucent or opaque; a light unit configured to produce light for the light feature and emit light through a first portion of one or more of the first vehicle window glazing component and the second vehicle window glazing component, the light unit being integrated with the second vehicle window glazing component; and the plastic glazing further comprising a light guide configured to receive light from the light unit , wherein the light guide is configured to deliver the light to an end thereof to provide a light feature internally within the vehicle; and the light unit further configured to direct the light for the light feature to externally emit light from the vehicle through or from at least one of the following: the first vehicle window glazing component and the second vehicle window glazing component, and wherein the plastic glazing is of one-piece molded plastic construction; and wherein the plastic glazing comprises a housing unit attached thereto that is configured to support the light unit, wherein the housing unit comprises a fiber-reinforced polymer.
Method for determining the static belt run force of a drive belt under tensile stress, in which method the drive belt is made to oscillate and the oscillations or the oscillation cycles of the drive belt are sensed by means of sensors and fed as input variables to a computing unit which consists of processors, memories and processing devices and is designed in the form of an electronic circuit, wherein the static belt run force of the drive belt under tensile stress is calculated in the computing unit from the sensed oscillations with the aid of an algorithm, taking into consideration material parameters and geometrical characteristics of the drive belt, and is provided as a visualized signal to a display device, wherein acceleration sensors connected to the drive belt and detecting the oscillations or the oscillation cycles are used as sensors, characterized in that the calculation of the stress state is then initiated if three successive oscillations/oscillation cycles have a deviation in their periods/wavelengths from one another of less than 3%, wherein a maximum of ten complete oscillations/oscillation cycles are sensed by the acceleration sensors and then used as a basis for the calculation of the stress state.
Wound rotor comprising a structure defining a circumferential alternation of teeth and notches, each tooth receiving a longitudinal winding intended to generate a rotor pole; each winding defining, at each longitudinal end of the rotor, a projecting winding head , said rotor also comprising a shaft passing through said structure along a longitudinal direction (X), said rotor being able to be cooled by a cooling liquid sprayed onto said winding heads , said rotor further comprising at least one ring for mechanically holding said rotor windings, which ring is installed at a longitudinal end of the rotor so as to define a central opening that opens onto the winding heads , said ring having at least one drainage duct that is suitable for draining said cooling liquid sprayed into the central opening onto said winding heads , characterized in that said drainage duct consists of an orifice passing radially through said ring , and the longitudinal end of said ring has, in a direction oriented away from the orifice , a constant reduction in its external diameter.
Heat source unit for an air conditioner comprising a refrigerant circuit, the heat source unit comprising: an external housing accommodating: a compressor to be connected to the refrigerant circuit; a heat source heat exchanger to be connected to the refrigerant circuit and configured to exchange heat between a refrigerant circulating in the refrigerant circuit and a heat source ; an electric box having a top and side walls (32 to 34), the electric box accommodating electrical components configured to control the air conditioner and having an air passage comprising an air inlet and an air outlet , an air flow being induced through the air passage from the air inlet to the air outlet for cooling at least some of the electrical components, characterized by a cooling heat exchanger accommodated in the external housing and to be connected to the refrigerant circuit, wherein the cooling heat exchanger is arranged at one of the side walls (32 to 34) of the electric box so as to be flown through by the air flow and exchange heat between the refrigerant and the air flow . an external housing accommodating: a compressor to be connected to the refrigerant circuit; a heat source heat exchanger to be connected to the refrigerant circuit and configured to exchange heat between a refrigerant circulating in the refrigerant circuit and a heat source ; an electric box having a top and side walls (32 to 34), the electric box accommodating electrical components configured to control the air conditioner and having an air passage comprising an air inlet and an air outlet , an air flow being induced through the air passage from the air inlet to the air outlet for cooling at least some of the electrical components, a compressor to be connected to the refrigerant circuit; a heat source heat exchanger to be connected to the refrigerant circuit and configured to exchange heat between a refrigerant circulating in the refrigerant circuit and a heat source ; an electric box having a top and side walls (32 to 34), the electric box accommodating electrical components configured to control the air conditioner and having an air passage comprising an air inlet and an air outlet , an air flow being induced through the air passage from the air inlet to the air outlet for cooling at least some of the electrical components, characterized by a cooling heat exchanger accommodated in the external housing and to be connected to the refrigerant circuit, wherein the cooling heat exchanger is arranged at one of the side walls (32 to 34) of the electric box so as to be flown through by the air flow and exchange heat between the refrigerant and the air flow .