mhurhangee/patent-ind-claim-en huggingface dataset:
Method for estimating a remaining service life of at least one electromechanical component , - wherein at least one system variable is ascertained from sensor data of at least one sensor apparatus to which at least one electromechanical component is assigned, wherein the system variable is ascertained from a vibration signal, wherein the system variable is assigned at least one error pattern of an error situation of the electromechanical component on the basis of an ascertained spectrum of the sensor data, - wherein the system variable is assigned the error pattern of the electromechanical component with the aid of the ascertained data on the system variable and by means of an artificial neural network, - wherein the system variable is assigned an error severity of the error situation on the basis of a harmonic and/or an amplitude of the sensor data, - wherein a stress load of the electromechanical component is simulated on the basis of the error pattern and the error severity by means of a numerical method on a physical model, by simulating which forces act on at least one part of the electromechanical component on the basis of the error pattern, and - wherein a remaining service life is ascertained from the simulated stress load. - wherein at least one system variable is ascertained from sensor data of at least one sensor apparatus to which at least one electromechanical component is assigned, wherein the system variable is ascertained from a vibration signal, wherein the system variable is assigned at least one error pattern of an error situation of the electromechanical component on the basis of an ascertained spectrum of the sensor data, - wherein the system variable is assigned the error pattern of the electromechanical component with the aid of the ascertained data on the system variable and by means of an artificial neural network, - wherein the system variable is assigned an error severity of the error situation on the basis of a harmonic and/or an amplitude of the sensor data, - wherein a stress load of the electromechanical component is simulated on the basis of the error pattern and the error severity by means of a numerical method on a physical model, by simulating which forces act on at least one part of the electromechanical component on the basis of the error pattern, and - wherein a remaining service life is ascertained from the simulated stress load.
A system , comprising: a threshold engine to set a threshold flow rate of ink to a printhead mounted in a carriage based on an ambient temperature associated with the printhead; a measure engine to measure a flow rate of ink to the printhead; and a velocity engine to cause a decrease in a velocity of the carriage in response to the flow rate of ink satisfying the threshold flow rate. a threshold engine to set a threshold flow rate of ink to a printhead mounted in a carriage based on an ambient temperature associated with the printhead; a measure engine to measure a flow rate of ink to the printhead; and a velocity engine to cause a decrease in a velocity of the carriage in response to the flow rate of ink satisfying the threshold flow rate.
Brewing apparatus for extracting a portion capsule , having a first brewing chamber element and a second brewing chamber element , wherein the first and/or the second brewing chamber element are/is movable in an axial direction between a loading position , in which the first and the second brewing chamber element are spaced apart from each other, and an extraction position , in which the first and the second brewing chamber element form a substantially closed brewing chamber , wherein the brewing apparatus is designed such that, when the first and/or the second brewing chamber element is/are moved from the loading position into the extraction position , the portion capsule is first of all perforated by the at least one first perforation means of the first brewing chamber element and only then is perforated by at least one second perforation means of the second brewing chamber element , wherein the at least one first perforation means is in the form of a perforation point which protrudes from the first brewing chamber element substantially in the direction of the second brewing chamber element , wherein the first brewing chamber element has, on an end side facing the second brewing chamber element , a perforation element which comprises a central surface region that is connected integrally, around its circumference, to the at least one perforation means , characterized in that the at least one perforation point has a substantially linear cross section, formed in a rectilinear manner, in the axial direction , wherein the perforation element is produced by bending the at least one first perforation means with respect to the surface region by buckling, wherein the at least one first perforation means protrudes from the surface region at right angles.
Working implement for working a substrate, having a stator and a working piston which is provided to move along a working axis relative to the stator , furthermore having a drive which is provided to drive the working piston along the working axis so as to proceed from a starting position towards the substrate, wherein the stator has a first electrical stator contact , characterized in that the working piston has a first electrical piston contact which slides on the first electrical stator contact and is disposed on a radially outer circumference of the working piston in terms of the working axis, and wherein the drive has a piston coil which is disposed on the working piston and, by means of the first electrical stator contact and the first electrical piston contact , is provided to be passed through by a current and to generate a magnetic field.
A method, comprising: conforming a sheet substrate which is a planar sheet and which is pliable to an external surface of a vacuum apparatus whose temperature is to be determined, characterised in that said vaccum apparatus has heater elements , said sheet substrate has a width which is greater than a distance between said heater element: and a length which provides for a plurality of turns around said vacuum apparatus ; and thermally coupling a temperature sensor with said sheet substrate to provide a thermal path from said vacuum apparatus to said temperature sensor by interposing said sheet substrate between said temperature sensor and said vacuum apparatus . conforming a sheet substrate which is a planar sheet and which is pliable to an external surface of a vacuum apparatus whose temperature is to be determined, characterised in that said vaccum apparatus has heater elements , said sheet substrate has a width which is greater than a distance between said heater element: and a length which provides for a plurality of turns around said vacuum apparatus ; and thermally coupling a temperature sensor with said sheet substrate to provide a thermal path from said vacuum apparatus to said temperature sensor by interposing said sheet substrate between said temperature sensor and said vacuum apparatus .
A discharge guard assembly for a mower , the assembly comprising: a cutter housing having an opening for discharging cuttings; a guard attached to the housing for moving between a closed position, in which the guard covers the opening , and an open position; a pin connecting the guard to the cutter housing ; and a latch having a catch for holding the guard in the closed position; wherein a stop is formed on the guard , and wherein the latch is movable from a latched position in which the catch contacts the stop to hold the guard in the closed position, to an unlatched position in which the guard is free to rotate about the pin , characterized in that the guard includes a sleeve receiving the pin and the stop is formed on the sleeve . a cutter housing having an opening for discharging cuttings; a guard attached to the housing for moving between a closed position, in which the guard covers the opening , and an open position; a pin connecting the guard to the cutter housing ; and a latch having a catch for holding the guard in the closed position; wherein a stop is formed on the guard , and wherein the latch is movable from a latched position in which the catch contacts the stop to hold the guard in the closed position, to an unlatched position in which the guard is free to rotate about the pin , characterized in that the guard includes a sleeve receiving the pin and the stop is formed on the sleeve .
An enclosure assembly comprising a housing body and at least one removable cable inlet , said removable cable inlet comprising a chimney for leading wire beams with an interface region for mounting the cable inlet onto or into a mating interface region of the housing body using a form fitted connection , wherein the interface region of the chimney comprises a rotation prevention means for preventing a rotation of the chimney with respect to the housing body in the mounted state, and wherein the rotation prevention means of the interface region has a non-circular shape in the plane (yOz) perpendicular to the rotation axis (Ox) corresponding to the rotational symmetry axis of the chimney , characterized in that the chimney is conductive, the housing body has an interior surface covered by a conductive plating, the non-circular rotation prevention means comprises protruding portions outwardly directed in the plane (yOz) perpendicular to the rotation axis (Ox), and in that each said protruding portion has rounded or bevel shaped edges in the plane (yOz) perpendicular to the rotation axis (Ox) and in the plane (xOz) comprising the rotation axis (Ox) such that the protruding portions come to rest on a flat part of a bottom surface of the housing body , and wherein said non-circular rotation prevention means comprises circular elements arranged in a ring shaped manner with at least two said protruding portions arranged equidistantly from each other, and in that the mating interface region of the housing body has a circular segment on the bottom surface that extends essentially over the same angular region as a circular element of the non-circular rotation prevention means . wherein the rotation prevention means of the interface region has a non-circular shape in the plane (yOz) perpendicular to the rotation axis (Ox) corresponding to the rotational symmetry axis of the chimney , characterized in that the chimney is conductive, the housing body has an interior surface covered by a conductive plating, the non-circular rotation prevention means comprises protruding portions outwardly directed in the plane (yOz) perpendicular to the rotation axis (Ox), and in that each said protruding portion has rounded or bevel shaped edges in the plane (yOz) perpendicular to the rotation axis (Ox) and in the plane (xOz) comprising the rotation axis (Ox) such that the protruding portions come to rest on a flat part of a bottom surface of the housing body , and wherein said non-circular rotation prevention means comprises circular elements arranged in a ring shaped manner with at least two said protruding portions arranged equidistantly from each other, and in that the mating interface region of the housing body has a circular segment on the bottom surface that extends essentially over the same angular region as a circular element of the non-circular rotation prevention means .
Seating furniture chassis, comprising a main body, fastening means and at least one side part , wherein the fastening means are arranged on the main body, wherein the side part is releasably fastenable to the fastening means , wherein the fastening means comprise a spring element and a fastening element , wherein the spring element exerts a spring force on the fastening element , wherein, when the side part is fastened to the fastening means , the fastening element is moved counter to the spring force, wherein the side part comprises a receiving region , wherein the fastening element is arranged in the receiving region in the state of the side part fastened to the fastening means and is held in the receiving region by the spring force, wherein the receiving region is designed to exert a clamping force on the fastening element in the state of the side part fastened to the fastening means , wherein the fastening means comprise a support element , wherein the side part comprises a support region , wherein the support region is designed to rest on the support element when the side part is fastened to the fastening means , characterized in that the fastening means comprise a first form-fitting element , wherein the side part comprises a second form-fitting element , wherein the first form-fitting element and the second form-fitting element are designed for a form-fitting connection to one another, wherein the form-fitting connection limits or prevents a vertical movement of the side part relative to the fastening means .
A laminate comprising a resin film and a separator, wherein the resin film has a tensile strength of 30 N/10 mm or less, the resin film and the separator are joined to each other by an adhesive layer, and a peel surface formed when the separator is peeled from the resin film is positioned between the resin film and the adhesive layer, wherein the tensile strength is measured in compliance with a method prescribed in JIS K 6251: 2010. the resin film has a tensile strength of 30 N/10 mm or less, the resin film and the separator are joined to each other by an adhesive layer, and a peel surface formed when the separator is peeled from the resin film is positioned between the resin film and the adhesive layer, wherein the tensile strength is measured in compliance with a method prescribed in JIS K 6251: 2010.
Method for adjusting an amplitude of a voltage injection of a rotating, multi-phase electric machine that is fed by means of a PWM-controlled inverter, having the method steps of: a. determining at a first time a predetermined current vector that would be present at the machine at a second time, by way of a voltage equation of the electric machine, in dependence on a voltage predetermined in a controller for actuating the electric machine, a current vector determined from phase currents measured at the first time, and a speed of the machine, wherein the first time is located before the second time, b. determining a real current vector present at the machine at the second time in dependence on phase currents of the machine measured at the second time, c. forming a current vector difference between the predetermined current vector and the real current vector at the second time, d. adjusting the amplitude of the voltage injection in dependence on the current vector difference formed. a. determining at a first time a predetermined current vector that would be present at the machine at a second time, by way of a voltage equation of the electric machine, in dependence on a voltage predetermined in a controller for actuating the electric machine, a current vector determined from phase currents measured at the first time, and a speed of the machine, wherein the first time is located before the second time, b. determining a real current vector present at the machine at the second time in dependence on phase currents of the machine measured at the second time, c. forming a current vector difference between the predetermined current vector and the real current vector at the second time, d. adjusting the amplitude of the voltage injection in dependence on the current vector difference formed.
A polycarbonate resin which comprises a structural unit represented by general formula and a structural unit represented by general formula : wherein in general formula : R 1 , R 2 , R 3 and R 4 are each independently selected from the group consisting of a hydrogen atom, an alkyl group having 1 to 10 carbon atoms, an aryl group having 6 to 20 carbon atoms and an alkoxy group having 1 to 10 carbon atoms, and the alkyl group, the aryl group and the alkoxy group of R 1 , R 2 , R 3 and R 4 may be further substituted with a substituent; and m and n each independently represent an integer of 0 to 5, wherein in general formula : R a and R b each independently represent an alkylene group having 1 to 8 carbon atoms; R each independently represents an alkyl group having 1 to 8 carbon atoms or an aryl group having 6 to 12 carbon atoms; x1 and x2 each independently represent an integer of 0 to 10; n1 and n2 each independently represent an integer of 0 to 4; and L A represents a single bond or a linking group represented by any one of formulae (a) to (g): wherein: * represents a bonding position; R c and R d each independently represent a hydrogen atom, an alkyl group having 1 to 8 carbon atoms or an aryl group having 6 to 12 carbon atoms; R e and R f each independently represent a single bond or an alkylene group having 1 to 4 carbon atoms; and m represents an integer of 1 to 10. R 1 , R 2 , R 3 and R 4 are each independently selected from the group consisting of a hydrogen atom, an alkyl group having 1 to 10 carbon atoms, an aryl group having 6 to 20 carbon atoms and an alkoxy group having 1 to 10 carbon atoms, and the alkyl group, the aryl group and the alkoxy group of R 1 , R 2 , R 3 and R 4 may be further substituted with a substituent; and m and n each independently represent an integer of 0 to 5, R a and R b each independently represent an alkylene group having 1 to 8 carbon atoms; R each independently represents an alkyl group having 1 to 8 carbon atoms or an aryl group having 6 to 12 carbon atoms; x1 and x2 each independently represent an integer of 0 to 10; n1 and n2 each independently represent an integer of 0 to 4; and L A represents a single bond or a linking group represented by any one of formulae (a) to (g): * represents a bonding position; R c and R d each independently represent a hydrogen atom, an alkyl group having 1 to 8 carbon atoms or an aryl group having 6 to 12 carbon atoms; R e and R f each independently represent a single bond or an alkylene group having 1 to 4 carbon atoms; and m represents an integer of 1 to 10.
A method for producing an engineered wood board with the steps: (a) production of a substrate wherein producing of the substrate comprises (i) scattering of wood fibres coated in an adhesive so that a fibre mat is obtained, (ii) pressing of the fibre mat to form an engineered wood board, and (b) application of a fluid onto an application area of the substrate by means of an applicator , characterised by the step: (c) monitoring of the application by means of an infra-red camera such that an inhomogeneity of the application can be recorded, by means of monitoring a change of the temperature change caused by the application of the fluid in the application area (d) wherein the application of the fluid is an application of fluid synthetic resin onto a moulding skin of the wood board. (a) production of a substrate wherein producing of the substrate comprises (i) scattering of wood fibres coated in an adhesive so that a fibre mat is obtained, (ii) pressing of the fibre mat to form an engineered wood board, and (i) scattering of wood fibres coated in an adhesive so that a fibre mat is obtained, (ii) pressing of the fibre mat to form an engineered wood board, and (b) application of a fluid onto an application area of the substrate by means of an applicator , (c) monitoring of the application by means of an infra-red camera such that an inhomogeneity of the application can be recorded, by means of monitoring a change of the temperature change caused by the application of the fluid in the application area (d) wherein the application of the fluid is an application of fluid synthetic resin onto a moulding skin of the wood board.
A cleaning article having an absorbent base material formed by a flat material having a first side face and a second side face, wherein a coating which has been provided on at least the first side face imparts elevated abrasiveness to the first side face of the cleaning article compared to an uncoated first side face , wherein the coating comprises a multitude of coating lines and wherein the coating line height is at most 0.8 mm, characterized in that the coating lines have a ratio of coating line width to coating line height of at least 2 and the coating line width is 0.2-1.5 mm.
A generator rotor assembly for a wind turbine, wherein the generator rotor assembly comprises a cylindrical ring structure defining a central hollow portion and arranged to rotate around a rotational axis, the cylindrical ring structure comprising: a plurality of permanent magnet packages arranged coaxially around the rotational axis, the permanent magnet packages comprising: a plurality of coaxially stacked ring-shaped segmented layers comprising a plurality of contiguous segment sheets arranged around the rotational axis to form the ring-shaped layer, the stacked layers being staggered such that segment breaks between two contiguous segment sheets in one of the layers are angularly offset with respect to segment breaks between two contiguous segment sheets in an adjacent layer, a plurality of tie rod holes which extend axially through the layers of the permanent magnet packages , wherein the plurality of tie rod holes of adjacent permanent magnet packages are complementary in size and position, such that a plurality of tie rod bores is defined, and a plurality of tie rods extending through respective ones of the plurality of tie rod bores. a plurality of coaxially stacked ring-shaped segmented layers comprising a plurality of contiguous segment sheets arranged around the rotational axis to form the ring-shaped layer, the stacked layers being staggered such that segment breaks between two contiguous segment sheets in one of the layers are angularly offset with respect to segment breaks between two contiguous segment sheets in an adjacent layer, a plurality of tie rod holes which extend axially through the layers of the permanent magnet packages , wherein the plurality of tie rod holes of adjacent permanent magnet packages are complementary in size and position, such that a plurality of tie rod bores is defined, and a plurality of tie rods extending through respective ones of the plurality of tie rod bores.