mhurhangee/patent-ind-claim-en huggingface dataset:
A strain-measuring structure for measuring strain on an object , comprising - a structured carrier , - at least one measuring assembly for uniaxial strain measurement, the carrier has at least two regions which are separated from one another by a predetermined breaking point , wherein the measuring assembly is present between two regions , each region can be joined to the object in a joining zone and wherein the predetermined breaking point is configured to activate the strain-measuring structure by separating the carrier into the regions , characterized in that wherein the measuring assembly comprises a spring structure , wherein the spring structure is a line-shaped formation with two or more bending points and wherein piezoresistive, piezoelectric and/or capacitive regions are present in the bending points , which are configured for a strain measurement. - a structured carrier , - at least one measuring assembly for uniaxial strain measurement, the carrier has at least two regions which are separated from one another by a predetermined breaking point , wherein the measuring assembly is present between two regions , each region can be joined to the object in a joining zone and wherein the predetermined breaking point is configured to activate the strain-measuring structure by separating the carrier into the regions , characterized in that wherein the measuring assembly comprises a spring structure , wherein the spring structure is a line-shaped formation with two or more bending points and wherein piezoresistive, piezoelectric and/or capacitive regions are present in the bending points , which are configured for a strain measurement.
Transport system having at least one vehicle which comprises a transport means , in particular a cab, a bogie and rails , wherein the bogie rolls via bogie rollers on a track formed by the rails and with which the vehicle can be moved along the track , wherein the track has at least two sections (3a to 3d) with different gradients, wherein the transport means is mounted on the bogie so as to be movable in the vertical direction and pivotable , wherein a guide track extends along the track which is at a different distance from the track in sections (3a to 3e), wherein a guide device is guided along the guide track, and wherein the transport means is connected to the guide device for level control, so that the level respectively the horizontal alignment of the transport means is kept constant, characterized in that the guide track has at least one guide rail arranged essentially underneath one of the rails or extends on the lower edge respectively the underside of one of the rails .
WC cistern having a wall which forms a water tank , and having an inflow which is routed through the wall and by way of which the water tank is able to be filled, wherein a shut-off valve is arranged in the inflow , said shut-off valve interacting with a shut-off device upon attainment of a shut-off fill level in the water tank , characterized in that an injector is arranged in the water tank in a structural space above the shut-off fill level , in that an outflow-side outlet of the injector is routed out of the water tank , in that the injector is able to be fed from the inflow provided for filling the water tank , and in that the injector is able to be shut off on the inflow side by a valve of the WC cistern .
A windscreen wiper device for windscreens with variable curvature, comprising: [a] a secondary shaft rotating about its own secondary axis between a starting secondary position and a final secondary position, and [b] a primary shaft rotating in an alternating manner about its own primary axis by driving means of said windscreen wiper device between a starting primary position and a final primary position, and said primary shaft being mounted in said secondary shaft , such that said primary axis is inclined with respect to said secondary axis forming a first acute angle (β) with respect to one another, [c] a wiper blade arm being fixedly mounted on said primary shaft , such that said wiper blade arm is also moved in an alternating manner with respect to said windscreen through said primary shaft , characterized in that it further comprises a delay device kinematically connecting said driving means with said secondary shaft to cause rotation in said secondary shaft such that when said primary shaft has performed 50% of the rotation between said starting primary position and said final primary position, said secondary shaft has performed between 0% and 30% of the rotation between said starting secondary position and said final secondary position. [a] a secondary shaft rotating about its own secondary axis between a starting secondary position and a final secondary position, and [b] a primary shaft rotating in an alternating manner about its own primary axis by driving means of said windscreen wiper device between a starting primary position and a final primary position, and said primary shaft being mounted in said secondary shaft , such that said primary axis is inclined with respect to said secondary axis forming a first acute angle (β) with respect to one another, [c] a wiper blade arm being fixedly mounted on said primary shaft , such that said wiper blade arm is also moved in an alternating manner with respect to said windscreen through said primary shaft ,
An irrigation system for irrigating a field divided into zones , the zones being arranged in columns extending alongside each other and defining field strips , and the system comprising irrigation strips and a plurality of control heads communicating with an upstream end of each irrigation strip , each irrigation strip providing irrigation substances to a respective field strip and each control head controlling downstream flow towards its irrigation strip characterised in that each control head being configured to control provision of irrigation substances to distinct zones in the strip, wherein at least some of the zones define a matrix comprising rows and columns of zones, and all control heads are located alongside a row at a boundary of the matrix.
Method for the production of a moulded article , having the steps: a) providing a film layer with a decorative layer and/or a functional layer; b) applying a plastic mass in a predetermined, three-dimensional shape to the film layer by means of a three-dimensional printing method, such that the film layer forms a surface coating of the moulded article, characterised in that a transfer film is used as the film layer , said transfer film having a transfer layer and a carrier layer that can be released therefrom, wherein the plastic mass is applied to the transfer layer in step b). a) providing a film layer with a decorative layer and/or a functional layer; b) applying a plastic mass in a predetermined, three-dimensional shape to the film layer by means of a three-dimensional printing method, such that the film layer forms a surface coating of the moulded article, characterised in that a transfer film is used as the film layer , said transfer film having a transfer layer and a carrier layer that can be released therefrom, wherein the plastic mass is applied to the transfer layer in step b).
A method for forming units (B) of packages (A) to be packed, each unit (B) comprising a multiple of a number n of packages (A), with the packages (A) in arrival from two or more lines (C) which operate contemporaneously, the method comprising steps of: - providing seats , each for accommodating stacks of packages (A); - providing a store for accommodating packages (A); - providing compartments for receiving packages (A); - forming in succession groups of two or more stacks of packages (A), each with the packages (A) in arrival from a respective line of two or more lines (C) which operate contemporaneously; - supplying in succession groups of two or more seats , each seat with a stack of packages (A); - learning the number of packages (A) supplied in each seat ; - correcting the number of packages (A) supplied in each seat which accommodates a number of packages (A) different from the number n; - transferring the packages (A) from the seats , with a number of packages (A) equal to the number n, to the compartments which are made available in sequence; the method being characterised in that: - during the step of correcting the number of packages (A), packages (A) are moved from the seats to the store and vice versa, so that the number of packages (A) in each seat is equal to the number n or to zero; - during the step of transferring the packages (A), the compartments are made available on the basis of the seats with a number of packages (A) equal to the number n, i.e. regardless of the seats with a number of packages (A) equal to zero, so that each compartment receives a unit (B) comprising a multiple of a number n of packages (A). - providing seats , each for accommodating stacks of packages (A); - providing a store for accommodating packages (A); - providing compartments for receiving packages (A); - forming in succession groups of two or more stacks of packages (A), each with the packages (A) in arrival from a respective line of two or more lines (C) which operate contemporaneously; - supplying in succession groups of two or more seats , each seat with a stack of packages (A); - learning the number of packages (A) supplied in each seat ; - correcting the number of packages (A) supplied in each seat which accommodates a number of packages (A) different from the number n; - transferring the packages (A) from the seats , with a number of packages (A) equal to the number n, to the compartments which are made available in sequence; - during the step of correcting the number of packages (A), packages (A) are moved from the seats to the store and vice versa, so that the number of packages (A) in each seat is equal to the number n or to zero; - during the step of transferring the packages (A), the compartments are made available on the basis of the seats with a number of packages (A) equal to the number n, i.e. regardless of the seats with a number of packages (A) equal to zero, so that each compartment receives a unit (B) comprising a multiple of a number n of packages (A).
A method for identifying a rail vehicle wheel wherein - a specific detection pattern of the rail vehicle wheel is ascertained using a rollover signal of the vehicle wheel ascertained with the aid of a load measuring device arranged on a rail , the rollover signal describing a time characteristic of a rail load induced by the rail vehicle wheel on the rail equipped with the load-measuring device during the rollover , and the specific detection pattern comprising one or multiple time-independent identification parameter(s) / characteristic value(s) ascertained using the rollover signal ; - the ascertained specific detection pattern of the rail vehicle wheel is compared with one or multiple reference-specific detection patterns of rail vehicle wheels ; and - the rail vehicle wheel is identified by the comparison . - a specific detection pattern of the rail vehicle wheel is ascertained using a rollover signal of the vehicle wheel ascertained with the aid of a load measuring device arranged on a rail , the rollover signal describing a time characteristic of a rail load induced by the rail vehicle wheel on the rail equipped with the load-measuring device during the rollover , and the specific detection pattern comprising one or multiple time-independent identification parameter(s) / characteristic value(s) ascertained using the rollover signal ; the rollover signal describing a time characteristic of a rail load induced by the rail vehicle wheel on the rail equipped with the load-measuring device during the rollover , and the specific detection pattern comprising one or multiple time-independent identification parameter(s) / characteristic value(s) ascertained using the rollover signal ; - the ascertained specific detection pattern of the rail vehicle wheel is compared with one or multiple reference-specific detection patterns of rail vehicle wheels ; and - the rail vehicle wheel is identified by the comparison .
Arrangement of at least two motor-adjacent waste gas system components for a combustion engine of a motor vehicle , which components are arranged one behind the other downstream of the combustion engine of the motor vehicle and are connected to one another by means of a first connecting body so that a waste gas of the combustion engine can be guided through the at least two waste gas system components one behind the other in the direction of an exhaust outlet system, wherein the two waste gas system components are arranged downstream of a manifold device of the combustion engine by means of a second connecting body , and a length from an outlet of the manifold device to an inlet of the waste gas system component arranged at the most upstream position is at most 0.07 m, wherein the first waste gas system component is a three-way catalytic converter and the second waste gas system component is a particulate filter, wherein the three-way catalytic converter is arranged at the most upstream position in the waste gas flow direction and the particulate filter is arranged via the first connecting body downstream of the three-way catalytic converter , characterized in that the three-way catalytic converter is longer than it is wide and the particulate filter is wider than it is long, the dimensions of the three-way catalytic converter are as follows: width: 0.110 to 0.125 m and length: 0.144 to 0.157 m, and the dimensions of the particulate filter are as follows: width: 0.124 to 0.137 m and length: 0.121 to 0.132 m. wherein the first waste gas system component is a three-way catalytic converter and the second waste gas system component is a particulate filter, wherein the three-way catalytic converter is arranged at the most upstream position in the waste gas flow direction and the particulate filter is arranged via the first connecting body downstream of the three-way catalytic converter , characterized in that the three-way catalytic converter is longer than it is wide and the particulate filter is wider than it is long, the dimensions of the three-way catalytic converter are as follows: width: 0.110 to 0.125 m and length: 0.144 to 0.157 m, and the dimensions of the particulate filter are as follows: width: 0.124 to 0.137 m and length: 0.121 to 0.132 m.
A multifunctional device for measuring the flow rate of a liquid, in particular beverage, comprising an ultrasonic flow meter comprising a body with a measuring tube for passing the measured liquid, which is provided with an ultrasonic transmitter and receiver at each of the two opposite front ends of the measuring tube, characterized in that it further comprises at least a white light emitting diode , a sensor of red, green, blue, and white light components, a microprocessor, and a memory unit comprising a definition table of the red, green, blue, and white light components of reference liquids, wherein each reference liquid is defined by these colour components, said white light emitting diode is arranged on one side of the measuring tube of the flow meter, while the sensor of red, green, blue, and white light components is arranged on the opposite side of the measuring tube, wherein the body with the measuring tube is translucent at least in its portion to allow light to pass from the white light emitting diode to the sensor of red, green, blue, and white light components, wherein the microprocessor is connected to the white light emitting diode and the sensor of red, green, blue, and white light components, and is programmed to calibrate data output from the sensor of red, green, blue, and white light components depending on parameters of known reference liquids, and furthermore, this microprocessor is programmed to transmit the calibrated data from the sensor of red, green, blue, and white light components to a superordinate evaluation unit. it further comprises at least a white light emitting diode , a sensor of red, green, blue, and white light components, a microprocessor, and a memory unit comprising a definition table of the red, green, blue, and white light components of reference liquids, wherein each reference liquid is defined by these colour components, said white light emitting diode is arranged on one side of the measuring tube of the flow meter, while the sensor of red, green, blue, and white light components is arranged on the opposite side of the measuring tube, wherein the body with the measuring tube is translucent at least in its portion to allow light to pass from the white light emitting diode to the sensor of red, green, blue, and white light components, wherein the microprocessor is connected to the white light emitting diode and the sensor of red, green, blue, and white light components, and is programmed to calibrate data output from the sensor of red, green, blue, and white light components depending on parameters of known reference liquids, and furthermore, this microprocessor is programmed to transmit the calibrated data from the sensor of red, green, blue, and white light components to a superordinate evaluation unit.
A battery separator, comprising: a coarse fiber region; a first fine fiber region; and a second fine fiber region; wherein the coarse fiber region comprises fibers having an average diameter from about 2 to about 50 μm; wherein each of the first and second fine fiber regions independently comprises glass fibers having an average diameter from about 0.1 to about 2 μm; provided that the average diameter of the fibers of the coarse fiber region is larger than the average diameter of the fibers of each of the first and second fine fiber regions; wherein the coarse fiber region is disposed between the first fine fiber region and the second fine fiber region; and wherein the thickness of the coarse fiber region constitutes 1-30% of the total fiber region thickness. a coarse fiber region; a first fine fiber region; and a second fine fiber region; wherein the coarse fiber region comprises fibers having an average diameter from about 2 to about 50 μm; wherein each of the first and second fine fiber regions independently comprises glass fibers having an average diameter from about 0.1 to about 2 μm; provided that the average diameter of the fibers of the coarse fiber region is larger than the average diameter of the fibers of each of the first and second fine fiber regions; wherein the coarse fiber region is disposed between the first fine fiber region and the second fine fiber region; and wherein the thickness of the coarse fiber region constitutes 1-30% of the total fiber region thickness.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a first suitable cell, a control message including configuration information for a radio resource control, RRC, inactive state; entering the RRC inactive state based on the configuration information; performing cell selection; and in case that the terminal in the RRC inactive state does not find at least one suitable cell and camps on an acceptable cell based on the cell selection, entering an RRC idle state. receiving, from a first suitable cell, a control message including configuration information for a radio resource control, RRC, inactive state; entering the RRC inactive state based on the configuration information; performing cell selection; and in case that the terminal in the RRC inactive state does not find at least one suitable cell and camps on an acceptable cell based on the cell selection, entering an RRC idle state.
A compound of formula (I) wherein M is Pd(ll) or Ni(II); X is a halide; R 1 and R 2 are independently organic groups having 1-20 carbon atoms, or R 1 and R 2 are linked to form a ring structure with the phosphorus atom; R 3 is an organic group having 1-20 carbon atoms; provided that R 1 , R 2 , R 3 are not each phenyl. wherein M is Pd(ll) or Ni(II); X is a halide; R 1 and R 2 are independently organic groups having 1-20 carbon atoms, or R 1 and R 2 are linked to form a ring structure with the phosphorus atom; R 3 is an organic group having 1-20 carbon atoms; provided that R 1 , R 2 , R 3 are not each phenyl.
A compound of formula (I): where: X is a -(CHR 1 ) p group, where R 1 is hydrogen, or a C 1 -C 6 alkyl group, or a C 6 -C 10 aryl group, and p is 0 or 1; Y is selected from: a single bond; -(CH 2 ) n , with n being 1, 2, 3, 4, or 5; arylidene or heteroarylidene, connected with the rest of the molecule by means of or bonds; -C(O)-N(H)-CH 2 (Ar)-, and -Ar-C(O)-N(H)-CH 2 -(Ar)-; where -Ar- means arylidene; q is 0 or 1; Z is selected from OH, SH, and optionally substituted C 6 -C 10 aryl, or a pharmaceutically acceptable salt, or solvate thereof, for use in the treatment of polycystic diseases. X is a -(CHR 1 ) p group, where R 1 is hydrogen, or a C 1 -C 6 alkyl group, or a C 6 -C 10 aryl group, and p is 0 or 1; Y is selected from: a single bond; -(CH 2 ) n , with n being 1, 2, 3, 4, or 5; arylidene or heteroarylidene, connected with the rest of the molecule by means of or bonds; -C(O)-N(H)-CH 2 (Ar)-, and -Ar-C(O)-N(H)-CH 2 -(Ar)-; where -Ar- means arylidene; a single bond; -(CH 2 ) n , with n being 1, 2, 3, 4, or 5; arylidene or heteroarylidene, connected with the rest of the molecule by means of or bonds; -C(O)-N(H)-CH 2 (Ar)-, and -Ar-C(O)-N(H)-CH 2 -(Ar)-; where -Ar- means arylidene; q is 0 or 1; Z is selected from OH, SH, and optionally substituted C 6 -C 10 aryl,
A system for detecting atrial tachyarrhythmias, comprising: an atrial tachyarrhythmia detector circuit configured to: generate (Step 620) a first ventricular heart rate statistic using a plurality of representative ventricular heart rates determined within a first plurality of heart rate analysis windows; generate (Step 630) one or more second ventricular heart rate statistics during a specific duration, the one or more second ventricular heart rate statistics each generated from a plurality of representative ventricular heart rates determined within a second plurality of heart rate analysis windows; and detect (Step 640) an atrial tachyarrhythmia, AT, event including a sustained atrial flutter, AFL, event that sustains for the specific duration in response to the first ventricular heart rate statistic satisfying a first condition and the one or more second ventricular heart rate statistics satisfying a second condition throughout the specific duration. generate (Step 620) a first ventricular heart rate statistic using a plurality of representative ventricular heart rates determined within a first plurality of heart rate analysis windows; generate (Step 630) one or more second ventricular heart rate statistics during a specific duration, the one or more second ventricular heart rate statistics each generated from a plurality of representative ventricular heart rates determined within a second plurality of heart rate analysis windows; and detect (Step 640) an atrial tachyarrhythmia, AT, event including a sustained atrial flutter, AFL, event that sustains for the specific duration in response to the first ventricular heart rate statistic satisfying a first condition and the one or more second ventricular heart rate statistics satisfying a second condition throughout the specific duration.