mhurhangee/patent-ind-claim-en huggingface dataset:
A method for monitoring safety integrity of a safety function provided by a safety system , the safety system comprising at least a first and a second subsystem module, comprising the steps of: - processing data into functionally safe data in the first subsystem module; - determining at least one first safety parameter by the first subsystem module with respect to the data processing performed by the first subsystem module and/or with respect to a data transfer performed by the first subsystem module ; - transferring the functionally safe data and the first safety parameter from the first subsystem module to the second subsystem module ; - determining at least one second safety parameter by the second subsystem module with respect to a data processing and/or data transfer performed by the second subsystem module ; and - transferring at least one third safety parameter to the second subsystem module ; - verifying the safety integrity of the safety function in the second subsystem module independence of the first, second and third safety parameters; and - triggering a predetermined safety response on the basis of the verification result; wherein the first subsystem module is in the form of an input module of an automation system to which a sensor is connected, wherein a sensor signal is captured by the sensor in the first subsystem module and the captured sensor signal is processed into the functionally safe data, and wherein the third safety parameter specifies a safety-relevant attribute of the sensor , and wherein the third safety parameter is stored in the first subsystem module and is transferred from the first subsystem module to the second subsystem module ; or the third safety parameter is determined by at least one third subsystem module and is transferred from the third subsystem module to the second subsystem module, wherein the third subsystem module is arranged between the first and second subsystem modules, and wherein the third subsystem module of the safety system receives the first safety parameter and transfers it to the second subsystem module . - processing data into functionally safe data in the first subsystem module; - determining at least one first safety parameter by the first subsystem module with respect to the data processing performed by the first subsystem module and/or with respect to a data transfer performed by the first subsystem module ; - transferring the functionally safe data and the first safety parameter from the first subsystem module to the second subsystem module ; - determining at least one second safety parameter by the second subsystem module with respect to a data processing and/or data transfer performed by the second subsystem module ; and - transferring at least one third safety parameter to the second subsystem module ; - verifying the safety integrity of the safety function in the second subsystem module independence of the first, second and third safety parameters; and - triggering a predetermined safety response on the basis of the verification result; wherein
A beverage composition comprising: a sweetening agent selected from at least one non-caloric sweetener, at least one caloric sweetener, and combinations thereof; and a taste modulator composition comprising a first taste modulator component consisting of a first salt having a first cation Mg 2+ and a first anion; a second modulator component consisting of a second salt having a second cation Ca 2+ and a second anion; and a third modulator component consisting of a third salt having a third cation K + and a third anion; wherein the first taste modulator component is at a concentration of from 0.1 mM to 10 mM; wherein the second taste modulator component is at a concentration of from 0.1 mM to 10 mM; wherein the third taste modulator component is present at a concentration of from 0.1 mM to 25 mM; wherein the at least one non-caloric sweetener is present in an amount of from 0.1 mg/L to 1000 mg/L; and wherein the at least one caloric sweetener is present in an amount of from 1 wt% to 15 wt%. a sweetening agent selected from at least one non-caloric sweetener, at least one caloric sweetener, and combinations thereof; and a taste modulator composition comprising a first taste modulator component consisting of a first salt having a first cation Mg 2+ and a first anion; a second modulator component consisting of a second salt having a second cation Ca 2+ and a second anion; and a third modulator component consisting of a third salt having a third cation K + and a third anion; a first taste modulator component consisting of a first salt having a first cation Mg 2+ and a first anion; a second modulator component consisting of a second salt having a second cation Ca 2+ and a second anion; and a third modulator component consisting of a third salt having a third cation K + and a third anion; wherein the first taste modulator component is at a concentration of from 0.1 mM to 10 mM; wherein the second taste modulator component is at a concentration of from 0.1 mM to 10 mM; wherein the third taste modulator component is present at a concentration of from 0.1 mM to 25 mM; wherein the at least one non-caloric sweetener is present in an amount of from 0.1 mg/L to 1000 mg/L; and wherein the at least one caloric sweetener is present in an amount of from 1 wt% to 15 wt%.
A method for analysing a chemical composition of a target , the method comprising: - placing an electrically tunable Fabry-Perot interferometer comprising two mirrors spaced apart by a gap in a path of radiation emitted by a radiation source , wherein the radiation source is configured to provide optical inputs with a bandwith of more than one free spectral range of the Fabry-Perot interferometer, - detecting the radiation , which has passed the Fabry-Perot interferometer and which has passed or was reflected by the target , by means of a detector , and wherein detection is made such that multiple pass bands are allowed to be detected simultaneously, wherein the detector comprises only one pixel for detecting radiation, characterized by - scanning with varying gaps of the mirrors of the Fabry-Perot interferometer to produce a continuous spectrum for the target , and - comparing the scanned target data with stored reference data of at least one known reference substance. - placing an electrically tunable Fabry-Perot interferometer comprising two mirrors spaced apart by a gap in a path of radiation emitted by a radiation source , wherein the radiation source is configured to provide optical inputs with a bandwith of more than one free spectral range of the Fabry-Perot interferometer, - detecting the radiation , which has passed the Fabry-Perot interferometer and which has passed or was reflected by the target , by means of a detector , and wherein detection is made such that multiple pass bands are allowed to be detected simultaneously, wherein the detector comprises only one pixel for detecting radiation, characterized by - scanning with varying gaps of the mirrors of the Fabry-Perot interferometer to produce a continuous spectrum for the target , and - comparing the scanned target data with stored reference data of at least one known reference substance.
A resistive switching memory cell , the memory cell comprising a stack of a first electrode , a first inner region , a second inner region and a second electrode , wherein, - the first inner region comprises one or more metal oxide layers - the second inner region comprises one or more insulating, semi-insulating or semiconductive layers, wherein the second inner region is in direct contact with the first inner region and can scavenge oxygen from the first inner region , and the second inner region has a nonlinear charge carrier conduction dominant mechanism under an applied voltage or electric field wherein the second inner region is a nonlinear electron transport barrier wherein at least one layer of the second inner region is formed of Si, SiGex, SiNx, Al 2 O 3 , MgO, AIN, Si 3 N 4 , SiO 2 , HfO 2 , HfSiOx, ZrO 2 , ZrSiOx, GdAlO x , DyScO x , Ta 2 O 5 , each in stoichiometric or off-stoichiometric composition, or a combination thereof, wherein the at least one layer or another layer of the second inner region is a Si layer or a Si-containing layer, wherein the Si layer or the Si-containing layer is in direct contact with the first inner region and wherein the first inner region is formed in stoichiometric or off-stoichiometric MgO, Al 2 O 3 , TiO 2 , HfO 2 , ZrO 2 , Ta 2 O 5 , TaO 2 , Nb 2 O 5 , NbO 2 , V 2 O 5 , VO 2 , or a combination thereof, and wherein the first inner region may be doped with N, Mg, Al, Si, Ge, or a combination thereof. - the first inner region comprises one or more metal oxide layers - the second inner region comprises one or more insulating, semi-insulating or semiconductive layers, wherein the second inner region is in direct contact with the first inner region and can scavenge oxygen from the first inner region , and the second inner region has a nonlinear charge carrier conduction dominant mechanism under an applied voltage or electric field wherein the second inner region is a nonlinear electron transport barrier wherein at least one layer of the second inner region is formed of Si, SiGex, SiNx, Al 2 O 3 , MgO, AIN, Si 3 N 4 , SiO 2 , HfO 2 , HfSiOx, ZrO 2 , ZrSiOx, GdAlO x , DyScO x , Ta 2 O 5 , each in stoichiometric or off-stoichiometric composition, or a combination thereof, wherein the at least one layer or another layer of the second inner region is a Si layer or a Si-containing layer, wherein the Si layer or the Si-containing layer is in direct contact with the first inner region and wherein the first inner region is formed in stoichiometric or off-stoichiometric MgO, Al 2 O 3 , TiO 2 , HfO 2 , ZrO 2 , Ta 2 O 5 , TaO 2 , Nb 2 O 5 , NbO 2 , V 2 O 5 , VO 2 , or a combination thereof, and wherein the first inner region may be doped with N, Mg, Al, Si, Ge, or a combination thereof.
A process for producing a hardened target plate coated with a molybdenum-100 metal, comprising: suspending and intermixing a refined molybdenum-100 metal powder having grain sizes of less than 10 microns, and a binder, in a polar organic solvent; inserting into the mixture, a cathode plate comprising a transition metal and an anode plate comprising conductive metal; applying a potential from 300 V to 1,300 V to the anode plate and cathode plate; recovering the cathode plate from the mixture; and sintering the cathode plate at a temperature from a range of 1,200° C to 1,900° C for a period of time from 3h to 8 h. suspending and intermixing a refined molybdenum-100 metal powder having grain sizes of less than 10 microns, and a binder, in a polar organic solvent; inserting into the mixture, a cathode plate comprising a transition metal and an anode plate comprising conductive metal; applying a potential from 300 V to 1,300 V to the anode plate and cathode plate; recovering the cathode plate from the mixture; and sintering the cathode plate at a temperature from a range of 1,200° C to 1,900° C for a period of time from 3h to 8 h.
Household refrigeration appliance having a receiver space for food, which is defined by walls of an internal container , having an extension device which is arranged on the internal container and which is able to be pushed into and pulled out of the receiver space relative to the internal container , and having a container for receiving food which is able to be removably positioned on the extension device , wherein the extension device has a support cage for the container which, viewed in the width direction (x) of the household refrigeration appliance , has a base plate and retaining elements which are arranged thereon on opposing sides and separate from the base plate as lateral cage walls, wherein the retaining elements are configured as suspension elements for the releasable suspension in a non-destructive manner of the support cage on extension rails of the extension device which are separate from the support cage , characterised in that in each case the retaining elements have a supporting web , the base plate being positioned thereon, and that the retaining elements on upper edges of one respective plate-shaped base part in each case have an outwardly oriented suspension web for suspending the retaining elements on the extension rails .
A method for the mechanical processing of aluminum scrap , in which in a first step a two-stage crushing of the aluminum scrap will be carried out, in which in a second step the crushed aluminum scrap will be supplied to a screening plant and divided into a fraction of undersize grain materials , on the one hand, and a fraction of oversize grain materials , on the other hand, in which in a third step the fraction of oversize grain materials is homogenized, in which in a fourth step the homogenized fraction of oversize grain materials is subjected as material to be sorted to a density determination in an x-ray device by means of x-ray transmission, in which in a fifth step material particles of the material to be sorted which have a density above a pre-determinable limiting value are pneumatically sorted out, wherein the intensity of the outgoing radiation will be detected by means of a sensor, a comparison of the intensity between the entering and the outgoing X-rays will be carried out and the difference of the radiation intensity will be determined.
A method comprising: receiving three-dimensional, 3D, map-data , in which a plurality of locations within the 3D-map-data are associated with respective 3D-data-capture-locations of a 3D-camera , and in which 3D-camera-timing-information is associated with each of the plurality of locations, wherein the 3D-camera-timing-information is a timestamp, a sequence order or sequence number; receiving one or more two-dimensional, 2D, images from a 2D-camera , in which 2D-camera-timing-information is associated with each 2D-image, and in which each 2D-image is captured when a velocity or acceleration of the 3D-camera is less than a threshold level, in which the 2D-camera is co-located with the 3D-camera during capture of the 3D-map-data and of the one or more 2D-images , wherein the 2D-camera-timing-information is a timestamp, a sequence order or sequence number; identifying 3D-camera-timing-information associated with locations within the 3D-map-data that correspond to 3D-data-capture-locations with the velocity or acceleration of the 3D-camera less than the threshold level; associating, in a combined dataset, each 2D-image with a corresponding location within the 3D-map-data by a data processing unit corelating the 2D-camera-timing-information with the identified 3D-camera-timing-information. receiving three-dimensional, 3D, map-data , in which a plurality of locations within the 3D-map-data are associated with respective 3D-data-capture-locations of a 3D-camera , and in which 3D-camera-timing-information is associated with each of the plurality of locations, wherein the 3D-camera-timing-information is a timestamp, a sequence order or sequence number; receiving one or more two-dimensional, 2D, images from a 2D-camera , in which 2D-camera-timing-information is associated with each 2D-image, and in which each 2D-image is captured when a velocity or acceleration of the 3D-camera is less than a threshold level, in which the 2D-camera is co-located with the 3D-camera during capture of the 3D-map-data and of the one or more 2D-images , wherein the 2D-camera-timing-information is a timestamp, a sequence order or sequence number; identifying 3D-camera-timing-information associated with locations within the 3D-map-data that correspond to 3D-data-capture-locations with the velocity or acceleration of the 3D-camera less than the threshold level; associating, in a combined dataset, each 2D-image with a corresponding location within the 3D-map-data by a data processing unit corelating the 2D-camera-timing-information with the identified 3D-camera-timing-information.
A method for managing a network slice by a first network function in a wireless communication system, the method comprising: receiving (step 310), from at least one second network function associated with the network, NW, slice, a network slice selection assistance information, NSSAI, availability update message, wherein the NSSAI availability update message includes a capacity parameter of the NW slice; storing (step 320) information included in the NSSAI availability update message; transmitting (step 320), to the second network function , a response message to the NSSAI availability update message; transmitting (step 330), to the second network function , a message requesting changed information in case that a status or a configuration of the second network function is changed; receiving, from the second network function , a network slice selection request message; performing a selection of a network slice based on the capacity parameter of the NW slice; and transmitting, to the second network function , a network slice selection response message including network slice information. receiving (step 310), from at least one second network function associated with the network, NW, slice, a network slice selection assistance information, NSSAI, availability update message, wherein the NSSAI availability update message includes a capacity parameter of the NW slice; storing (step 320) information included in the NSSAI availability update message; transmitting (step 320), to the second network function , a response message to the NSSAI availability update message; transmitting (step 330), to the second network function , a message requesting changed information in case that a status or a configuration of the second network function is changed; receiving, from the second network function , a network slice selection request message; performing a selection of a network slice based on the capacity parameter of the NW slice; and transmitting, to the second network function , a network slice selection response message including network slice information.
A fill level measuring system configured for capturing a topology of a filling material surface, comprising: a first fill level measuring device which is designed as a master device; a second fill level measuring device which is designed as a slave device and is to be connected to the master device at a spatial distance from the master device, wherein the slave device is designed for capturing an echo curve, from which the distance between the slave device and the filling material surface is determinable; and wherein the slave device is designed for transmitting the echo curve or data derived therefrom by the slave device to the master device ; wherein the master device is designed for transmitting control signals to the slave device for controlling the slave device; wherein the master device is designed for capturing an echo curve from which the distance between the master device and the filling material surface can be determined; wherein the master device is designed for calculating the topology of the filling material surface from the echo curves transmitted from all slave devices to the master device, or the data derived therefrom by all slave devices and subsequently transmitted to the master device, as well as from its own captured echo curve. a first fill level measuring device which is designed as a master device; a second fill level measuring device which is designed as a slave device and is to be connected to the master device at a spatial distance from the master device, wherein the slave device is designed for capturing an echo curve, from which the distance between the slave device and the filling material surface is determinable; and wherein the slave device is designed for transmitting the echo curve or data derived therefrom by the slave device to the master device ; wherein the master device is designed for transmitting control signals to the slave device for controlling the slave device; wherein the master device is designed for capturing an echo curve from which the distance between the master device and the filling material surface can be determined; wherein the master device is designed for calculating the topology of the filling material surface from the echo curves transmitted from all slave devices to the master device, or the data derived therefrom by all slave devices and subsequently transmitted to the master device, as well as from its own captured echo curve.
An angle detection device, comprising: a sensor magnet , adapted for being fixed around a rotary shaft , and configured to rotate in synchronization with the rotation of the rotary shaft, and configured to generate a magnetic field for detecting a rotation angle; a plurality of sensors, which are arranged so as to be opposed to the sensor magnet , and are each configured to detect a radial magnetic component (Br) as a cosine signal (Vcos1, Vcos2, Vcos3) and to detect a peripheral magnetic component (BΘ) as a sine signal (Vsin1, Vsin2, Vsin3), a first sensor and a second sensor of the plurality of sensors being arranged on two radial lines different from each other, respectively, out of three radial lines dividing a circumference about the rotary shaft of the sensor magnet into six equal parts; and an angle calculation unit configured to carry out calculation so that 3n-th order harmonic components, where n is a natural number, out of odd-order harmonic components of each of the sine signal and the cosine signal output by the first sensor and the second sensor cancel one another, to thereby calculate the rotation angle. a sensor magnet , adapted for being fixed around a rotary shaft , and configured to rotate in synchronization with the rotation of the rotary shaft, and configured to generate a magnetic field for detecting a rotation angle; a plurality of sensors, which are arranged so as to be opposed to the sensor magnet , and are each configured to detect a radial magnetic component (Br) as a cosine signal (Vcos1, Vcos2, Vcos3) and to detect a peripheral magnetic component (BΘ) as a sine signal (Vsin1, Vsin2, Vsin3), a first sensor and a second sensor of the plurality of sensors being arranged on two radial lines different from each other, respectively, out of three radial lines dividing a circumference about the rotary shaft of the sensor magnet into six equal parts; and an angle calculation unit configured to carry out calculation so that 3n-th order harmonic components, where n is a natural number, out of odd-order harmonic components of each of the sine signal and the cosine signal output by the first sensor and the second sensor cancel one another, to thereby calculate the rotation angle.