mhurhangee/patent-ind-claim-en huggingface dataset:
Hob with at least one household appliance apparatus (10a-c) with at least one radio receiving unit (12a-c), which has at least one receiving circuit board (14a-c), which is provided for receiving at least one radio signal, and at least one processing circuit board (16a-c), which is provided for processing the received radio signal, and with at least one mounting unit (18a-c), which mounts the receiving circuit board (14a-c) at a distance from the processing circuit board (16a-c), wherein the mounting unit (18a-c) mounts the receiving circuit board (14a-c) and the processing circuit board (16a-c) without overlap when viewed in a direction (20a-c) oriented perpendicularly to a main extension plane of the processing circuit board (16a-c), wherein the household appliance apparatus (10a-c) has at least one household appliance board (22a-c), on the side of which facing the operator the radio receiving unit (12a-c) is arranged in at least one operating state, characterised in that the mounting unit (18a-c) mounts the receiving circuit board (14a-c) and the processing circuit board (16a-c) at different distances (26a-c, 28a-c) from the household appliance board (22a-c) in the operating state, and the mounting unit (18a-c) is arranged within at least one housing unit (24a-c) of the household appliance apparatus (10a-c) in at least one operating state, wherein the at least one mounting unit has a first mounting element , which defines an accommodating region for mounting the receiving circuit board , wherein the mounting unit has a second mounting element , which defines an accommodating region for mounting the processing circuit board , wherein the at least one mounting unit , in an operating state, mounts the receiving circuit board by means of the first mounting element and mounts the processing circuit board by means of the second mounting element .
A method for transmitting feedback information by a User Equipment, UE, in a mobile communication system, the method comprising: receiving information about at least one Channel State Information Reference Signal, CSI-RS, information about at least one Interference Measurement Resource, IMR, first information about a combination of a transmission period and an offset, and at least one CSI feedback index, wherein the at least one CSI feedback index is mapped to the information about at least one IMR and the information about at least one CSI-RS; deriving at least one CSI feedback from channel measurement and interference measurement respectively based on the information about at least one CSI-RS and the information about at least one IMR; and transmitting the at least one CSI feedback using both the first information and the at least one CSI feedback index, and wherein a priority of the at least one CSI feedback is determined based on the at least one CSI feedback index. receiving information about at least one Channel State Information Reference Signal, CSI-RS, information about at least one Interference Measurement Resource, IMR, first information about a combination of a transmission period and an offset, and at least one CSI feedback index, wherein the at least one CSI feedback index is mapped to the information about at least one IMR and the information about at least one CSI-RS; deriving at least one CSI feedback from channel measurement and interference measurement respectively based on the information about at least one CSI-RS and the information about at least one IMR; and transmitting the at least one CSI feedback using both the first information and the at least one CSI feedback index, and wherein a priority of the at least one CSI feedback is determined based on the at least one CSI feedback index.
Method of producing a steel strip having a corrosion-protective coating, at least comprising the following steps: (A) conducting the steel strip having a temperature T 1 through a melt bath having a temperature T 2 , containing the elements of the corrosion-protective coating in molten form, in order to obtain a coated steel strip, where the melt bath, as well as Zn and unavoidable impurities, contains 0.1% to 2.0% by weight of Al and optionally 0.1% to 3% by weight of Mg, (B) stripping the coated steel strip by means of at least one nozzle that emits a stripping gas having a temperature T 3 at an angle α in the direction of the coated steel strip, characterized in that the value Q is ≤ 6.956 with Q = 3.76 + ( α ∗ 10 + 6.3 ∗ h 10 − 0.86 ∗ T 3 2 + 4.82 ∗ Δ T in which α is the angle between a theoretical straight line perpendicular to the coated steel strip and pointing through the middle of the at least one nozzle, and the nozzle direction set, in °, h is the distance between the surface of the melt bath and the lower edge of the nozzle in mm, T 3 is the temperature of the stripping gas in °C, and ΔT is the difference between the temperature T 2 of the melt bath and the temperature T 1 of the steel strip in °C, where ΔT is -60 to +120°C, where T 3 is 15 to 50°C, where the angle α is - 5.0° to +5.0°, where h is between 50 and 800 mm. (A) conducting the steel strip having a temperature T 1 through a melt bath having a temperature T 2 , containing the elements of the corrosion-protective coating in molten form, in order to obtain a coated steel strip, where the melt bath, as well as Zn and unavoidable impurities, contains 0.1% to 2.0% by weight of Al and optionally 0.1% to 3% by weight of Mg, (B) stripping the coated steel strip by means of at least one nozzle that emits a stripping gas having a temperature T 3 at an angle α in the direction of the coated steel strip, characterized in that the value Q is ≤ 6.956 with Q = 3.76 + ( α ∗ 10 + 6.3 ∗ h 10 − 0.86 ∗ T 3 2 + 4.82 ∗ Δ T in which α is the angle between a theoretical straight line perpendicular to the coated steel strip and pointing through the middle of the at least one nozzle, and the nozzle direction set, in °, h is the distance between the surface of the melt bath and the lower edge of the nozzle in mm, T 3 is the temperature of the stripping gas in °C, and ΔT is the difference between the temperature T 2 of the melt bath and the temperature T 1 of the steel strip in °C, α is the angle between a theoretical straight line perpendicular to the coated steel strip and pointing through the middle of the at least one nozzle, and the nozzle direction set, in °, h is the distance between the surface of the melt bath and the lower edge of the nozzle in mm, T 3 is the temperature of the stripping gas in °C, and ΔT is the difference between the temperature T 2 of the melt bath and the temperature T 1 of the steel strip in °C, where ΔT is -60 to +120°C, where T 3 is 15 to 50°C, where the angle α is - 5.0° to +5.0°, where h is between 50 and 800 mm.
Propeller arrangement for an aircraft, having: a first propeller blade and a second propeller blade ; a propeller mount on which both the first propeller blade and the second propeller blade are mounted; a drive shaft with a holding unit ; and a first connecting unit ; wherein the first propeller blade is rotatable about a first axis of rotation and the second propeller blade is rotatable about a second axis of rotation ; wherein the propeller mount is pivotable about a pivot axis with respect to the holding unit ; wherein the drive shaft is arranged so as to set the propeller mount in rotation; wherein the holding unit couples the propeller mount to the drive shaft ; wherein the first connecting unit is coupled to the first propeller blade and to the holding unit , such that, in the event of a pivoting of the propeller mount about the pivot axis , the first propeller blade is set in rotational motion about the first axis of rotation such that an angle of attack of the first propeller blade is varied; characterised in that the first connecting unit has a connecting member and a coupling ring coupled to the connecting member ; the connecting member is coupled to the holding unit ; the coupling ring is coupled to the first propeller blade ; wherein the coupling ring is placed at a root of the first propeller blade , such that a force can be transmitted by the connecting member and the coupling ring to the first propeller blade ; the root of the first propeller blade is arranged on or in the propeller mount . a first propeller blade and a second propeller blade ; a propeller mount on which both the first propeller blade and the second propeller blade are mounted; a drive shaft with a holding unit ; and a first connecting unit ; wherein the first propeller blade is rotatable about a first axis of rotation and the second propeller blade is rotatable about a second axis of rotation ; wherein the propeller mount is pivotable about a pivot axis with respect to the holding unit ; wherein the drive shaft is arranged so as to set the propeller mount in rotation; wherein the holding unit couples the propeller mount to the drive shaft ; wherein the first connecting unit is coupled to the first propeller blade and to the holding unit , such that, in the event of a pivoting of the propeller mount about the pivot axis , the first propeller blade is set in rotational motion about the first axis of rotation such that an angle of attack of the first propeller blade is varied; characterised in that the first connecting unit has a connecting member and a coupling ring coupled to the connecting member ; the connecting member is coupled to the holding unit ; the coupling ring is coupled to the first propeller blade ; wherein the coupling ring is placed at a root of the first propeller blade , such that a force can be transmitted by the connecting member and the coupling ring to the first propeller blade ; the root of the first propeller blade is arranged on or in the propeller mount .
A preform comprising: (A) a self-reinforced sheet comprising (a-1) a thermoplastic resin and (a-2) a fiber or tape made of a thermoplastic resin which is the same type as the thermoplastic resin (a-1), the self-reinforced sheet (A) being reinforced with the fiber or tape (a-2); and (B) a reinforced sheet comprising (b-1) a randomly-oriented mat of discontinuous carbon fibers and (b-2) a thermoplastic resin, wherein the self-reinforced sheet (A) and the reinforced sheet (B) are laminated one on another, each thermoplastic resin serving as a matrix resin of the preform, and wherein in the randomly-oriented mat (b-1), the discontinuous carbon fibers are dispersed at a dispersion ratio of at least 90%, and maximum value of a relative frequency of orientation angle distribution of the discontinuous carbon fibers is less than 0.25 and minimum value of the relative frequency of the orientation angle distribution of the discontinuous carbon fibers is at least 0.090. (A) a self-reinforced sheet comprising (a-1) a thermoplastic resin and (a-2) a fiber or tape made of a thermoplastic resin which is the same type as the thermoplastic resin (a-1), the self-reinforced sheet (A) being reinforced with the fiber or tape (a-2); and (B) a reinforced sheet comprising (b-1) a randomly-oriented mat of discontinuous carbon fibers and (b-2) a thermoplastic resin,
A medical system including a first main stent prosthesis having at least one lateral branch , a second side stent-graft prosthesis having a body of a generally tubular wall structure , and a guiding element ; wherein: said lateral branch having a distal orifice at a distal end being configured for receiving said second side stent-graft prosthesis connectable thereto, said tubular wall structure of said second side-stent graft prosthesis including an orifice element configured for receiving said guiding element through its orifice, and said guiding element having a distal end positioned proximally at an interior and at a distance from said distal orifice of said lateral branch at a connection point of said side branch; such that said stent-graft prosthesis is arrangeable slideably along said guiding element over said orifice element to said orifice of said lateral branch for delivery and deployment of said side stent-graft prosthesis through a delivery lumen of a catheter with its lumen threadable over said guiding element, wherein said second side stent-graft prosthesis extends distally beyond said connection point when moved with its orifice element over said guiding element for engagement at said connection point; and said orifice element preferably being a guiding mate . said lateral branch having a distal orifice at a distal end being configured for receiving said second side stent-graft prosthesis connectable thereto, said tubular wall structure of said second side-stent graft prosthesis including an orifice element configured for receiving said guiding element through its orifice, and said guiding element having a distal end positioned proximally at an interior and at a distance from said distal orifice of said lateral branch at a connection point of said side branch; such that said stent-graft prosthesis is arrangeable slideably along said guiding element over said orifice element to said orifice of said lateral branch for delivery and deployment of said side stent-graft prosthesis through a delivery lumen of a catheter with its lumen threadable over said guiding element, wherein said second side stent-graft prosthesis extends distally beyond said connection point when moved with its orifice element over said guiding element for engagement at said connection point; and said orifice element preferably being a guiding mate .
A fastening profile for fastening panels of facade claddings, noise barriers or the like, to a substructure, comprising a first and a second receiving groove each extending in the longitudinal direction for receiving the panels, wherein the first and second receiving grooves are open in opposite directions, wherein the first and second receiving grooves are limited by an upper wall disposed on the visible side and by a lower wall facing the substructure , wherein a first and a second fasting portion protruding from the plane of the wall are provided on the lower wall for supporting and fixing the profile on the substructure , characterized in that the fastening profile , on the side of the first receiving groove , comprises an end face that encloses an acute angle of 45° with the upper wall so as to enable two of said fastening profiles to be disposed along an edge of the substructure with their inclined end faces abutting each other such that the upper walls of the two fastening profiles enclose an angle of 90° with each other.
A method of clock transmission between networks, comprising: converting a first information corresponding to a clock class of a first clock into a second information corresponding to the clock class of the first clock, wherein the first information is based on a first protocol, and the first clock is transferred by a first network equipment; performing , according to the second information corresponding to the clock class of the first clock and a second information corresponding to a clock class of a second clock, a source selection on the first clock and the second clock, wherein the second information is based on a second protocol, and the second clock is transferred by a second network equipment; and transmitting a second information indicating a clock class of a selected clock source; wherein the first information is a precision time protocol, PTP, clock class information, and the second information is a synchronous status message, SSM information. converting a first information corresponding to a clock class of a first clock into a second information corresponding to the clock class of the first clock, wherein the first information is based on a first protocol, and the first clock is transferred by a first network equipment; performing , according to the second information corresponding to the clock class of the first clock and a second information corresponding to a clock class of a second clock, a source selection on the first clock and the second clock, wherein the second information is based on a second protocol, and the second clock is transferred by a second network equipment; and transmitting a second information indicating a clock class of a selected clock source; wherein the first information is a precision time protocol, PTP, clock class information, and the second information is a synchronous status message, SSM information.
An electrical pipette, comprising an adjustment wheel , characterized in that the adjustment wheel comprises: a primary spring defining a first adjustment area and a secondary spring defining a second adjustment area after the first adjustment area in a turning direction of the adjustment wheel; the force required for turning the adjustment wheel within the first adjustment area is smaller than within the second adjustment area; and said springs are arranged to return the adjustment wheel to its original position when the adjustment wheel is released. a primary spring defining a first adjustment area and a secondary spring defining a second adjustment area after the first adjustment area in a turning direction of the adjustment wheel; the force required for turning the adjustment wheel within the first adjustment area is smaller than within the second adjustment area; and said springs are arranged to return the adjustment wheel to its original position when the adjustment wheel is released.
A method of controlling a vehicle having an autonomous driving mode, the method comprising: receiving, by one or more processors of the vehicle, sensor data identifying an object in an environment of the vehicle; projecting, by the one or more processors, a grid including a plurality of cells around the object; for each given one of the plurality of cells, predicting, by the one or more processors, a likelihood that the object will enter the given one within a period of time into the future; discarding, using a threshold value and the predicted likelihoods, cells of the plurality of cells with predicted likelihoods below the threshold value; generating, by the one or more processors, a contour based on the predicted likelihoods using remaining cells of the plurality of cells; and controlling, by the one or more processors, the vehicle in the autonomous driving mode in order to avoid an area within the contour. receiving, by one or more processors of the vehicle, sensor data identifying an object in an environment of the vehicle; projecting, by the one or more processors, a grid including a plurality of cells around the object; for each given one of the plurality of cells, predicting, by the one or more processors, a likelihood that the object will enter the given one within a period of time into the future; discarding, using a threshold value and the predicted likelihoods, cells of the plurality of cells with predicted likelihoods below the threshold value; generating, by the one or more processors, a contour based on the predicted likelihoods using remaining cells of the plurality of cells; and controlling, by the one or more processors, the vehicle in the autonomous driving mode in order to avoid an area within the contour.
Frontal airbag unit adapted for being mounted above the person to be protected, with an inflator and an airbag, said airbag comprising: - a first outer skin extending in a first direction (X) from an inflatornear first end to a second end when in its deployed state, and defining a filling and support chamber being in fluid communication with the inflator , said filling and support chamber having a first maximum thickness (t maxf ); and - a protection chamber being in fluid communication with the filling and support chamber via at least one overflow opening , wherein the first outer skin is comprised of a first layer and a second layer , said first layer and said second layer being connected to one another by means of a first peripheral connection, the length (l) of the first outer skin between the first end and the second end exceeds the maximum thickness (t maxf ) of the filling and support chamber by at least the factor 2, and wherein the filling and support chamber is divided into at least two sub-chambers extending into the first direction by means of a dividing connection connecting the first layer and the second layer , characterized in that a second outer skin comprising an impact surface defines the protection chamber , and two dividing connections are present, such that the filling and support chamber is divided into two lateral sub-chambers and one central sub-chamber extending into the first direction. - a first outer skin extending in a first direction (X) from an inflatornear first end to a second end when in its deployed state, and defining a filling and support chamber being in fluid communication with the inflator , said filling and support chamber having a first maximum thickness (t maxf ); and - a protection chamber being in fluid communication with the filling and support chamber via at least one overflow opening ,
An automotive interior parts, comprising a thermoplastic resin composition comprising an acetone insoluble fraction (A) as determined in the experimental section of the specification and an acetone soluble fraction (B) as determined in the experimental section of the specification, wherein a content of the acetone insoluble fraction (A) is 5 to 18% by mass based on 100% by mass of a sum of the acetone insoluble fraction (A) and the acetone soluble fraction (B), the acetone insoluble fraction (A) comprises one, two or more resins having different constitutional units, the constitutional units of all the resins comprised in the acetone insoluble fraction (A) comprise at least a rubber component unit having a mass average particle size of 0.1 to 0.35 μm, an aromatic vinyl monomer unit and an unsaturated nitrile monomer unit, the acetone insoluble fraction (A) comprises a graft copolymer in which at least the unsaturated nitrile monomer unit is grafted onto the rubber component unit, a content of the unsaturated nitrile monomer unit comprised in the graft copolymer is 15 to 28% by mass based on 100% by mass of all grafted constitutional units, the acetone soluble fraction (B) comprises one, two or more resins having different constitutional units, and the constitutional units of all the resins comprised in the acetone soluble fraction (B) comprise at least an aromatic vinyl monomer unit, an unsaturated nitrile monomer unit, a methacrylate monomer unit and a maleimide-based monomer unit, and a content of the methacrylate monomer unit is 45 to 60% by mass based on 100% by mass of the constitutional units of all the resins comprised in the acetone soluble fraction (B).