mhurhangee/patent-ind-claim-en huggingface dataset:
A capsule comprising one or more solid oral care ingredients within a hollow container, said capsule being adapted for use in an apparatus that combines a solvent and said oral care ingredients to provide a liquid oral care composition; wherein the one or more solid oral care ingredients comprise i) a peroxide and a base; or ii) a peroxide and an activator; or iii) a peroxide, a base and an activator; or iv) a peroxide and an active; wherein the oral care ingredients are incompatible when stored together in solution. i) a peroxide and a base; or ii) a peroxide and an activator; or iii) a peroxide, a base and an activator; or iv) a peroxide and an active;
A reception apparatus comprising: vibration units configured to perform vibration; a reception unit configured to receive a time-division multiplexed signal obtained by performing time-division multiplexing on a signal, wherein the signal comprises a header and a common tactile signal for the vibration units including a waveform of vibration for vibrating the vibration units , the header including description of information associated with each of the vibration units that uses the tactile signal; a separation unit configured to separate the tactile signal and the header from the time-division multiplexed signal received by the reception unit ; and signal adjustment units configured to individually adjust, for each of the vibration units , the tactile signal separated by the separation unit in accordance with the header separated by the separation unit , wherein each of the vibration units is configured to perform vibration based on the tactile signal adjusted by the signal adjustment units . vibration units configured to perform vibration; a reception unit configured to receive a time-division multiplexed signal obtained by performing time-division multiplexing on a signal, wherein the signal comprises a header and a common tactile signal for the vibration units including a waveform of vibration for vibrating the vibration units , the header including description of information associated with each of the vibration units that uses the tactile signal; a separation unit configured to separate the tactile signal and the header from the time-division multiplexed signal received by the reception unit ; and signal adjustment units configured to individually adjust, for each of the vibration units , the tactile signal separated by the separation unit in accordance with the header separated by the separation unit , wherein each of the vibration units is configured to perform vibration based on the tactile signal adjusted by the signal adjustment units .
Apparatus for checking the plausibility of a sinusoidal or cosinusoidal excitation signal for a rotary encoder, comprising: an input signal device which is designed to supply an input signal based on the excitation signal of which the plausibility is to be checked; an amplitude estimation device which is designed to determine an estimated amplitude value for an amplitude of the excitation signal based on the supplied input signal ; a phase angle estimation device which is designed to determine an estimated phase angle value for a phase angle of the excitation signal based on the supplied input signal and based on an expected period of the excitation signal ; a diagnosis device which has a computer unit which is designed to generate an auxiliary signal, which is phase-shifted through ninety degrees in relation to the input signal and is otherwise identical to the input signal , using the determined estimated amplitude value and the determined estimated phase angle value , wherein the diagnosis device is designed to generate a diagnosis signal based on a square of the input signal and also based on a square of the generated auxiliary signal; and a plausibility checking device which is designed to classify the excitation signal as plausible or implausible based on the diagnosis signal depending on a predetermined value range for the diagnosis signal . an input signal device which is designed to supply an input signal based on the excitation signal of which the plausibility is to be checked; an amplitude estimation device which is designed to determine an estimated amplitude value for an amplitude of the excitation signal based on the supplied input signal ; a phase angle estimation device which is designed to determine an estimated phase angle value for a phase angle of the excitation signal based on the supplied input signal and based on an expected period of the excitation signal ; a diagnosis device which has a computer unit which is designed to generate an auxiliary signal, which is phase-shifted through ninety degrees in relation to the input signal and is otherwise identical to the input signal , using the determined estimated amplitude value and the determined estimated phase angle value , wherein the diagnosis device is designed to generate a diagnosis signal based on a square of the input signal and also based on a square of the generated auxiliary signal; and a plausibility checking device which is designed to classify the excitation signal as plausible or implausible based on the diagnosis signal depending on a predetermined value range for the diagnosis signal .
Method to create an automation-unit for the automation of X-ray image acquisition and visualization at a minimum dose comprising the steps: - providing a computerized training-unit , wherein the training-unit is designed to train an automation-unit with a method of machine learning, - providing an automation-unit at the training-unit , - providing X-ray sample datasets (D) comprising information about a) the Deviation Index (DI) or data from which the Deviation Index (DI) can be derived, b) values of acquisition parameters (P A ) and/or of processing parameters (P P ) and c) medical task parameters, of an X-ray image file, - extracting data from the X-ray datasets (D), wherein the extracted data comprises the Deviation Index (DI) and predefined values of acquisition parameters (P A ) and/or of processing parameters (P P ) from the X-ray sample datasets, - forming a number of data-groups (G) from the extracted data, wherein for the training of the automation-unit datasets (D) referring to essentially identical medical task parameters are grouped in a data-group (G); - training of the automation-unit with the training-unit based on the principles of machine learning by using the number of data-groups (G); wherein the Deviation Index (DI) measures the variation of the actual Exposure Index (EI) compared with an ideal Target Exposure Index (TEI) for a patient. - providing a computerized training-unit , wherein the training-unit is designed to train an automation-unit with a method of machine learning, - providing an automation-unit at the training-unit , - providing X-ray sample datasets (D) comprising information about a) the Deviation Index (DI) or data from which the Deviation Index (DI) can be derived, b) values of acquisition parameters (P A ) and/or of processing parameters (P P ) and c) medical task parameters, of an X-ray image file, a) the Deviation Index (DI) or data from which the Deviation Index (DI) can be derived, b) values of acquisition parameters (P A ) and/or of processing parameters (P P ) and c) medical task parameters, of an X-ray image file, - extracting data from the X-ray datasets (D), wherein the extracted data comprises the Deviation Index (DI) and predefined values of acquisition parameters (P A ) and/or of processing parameters (P P ) from the X-ray sample datasets, - forming a number of data-groups (G) from the extracted data, wherein for the training of the automation-unit datasets (D) referring to essentially identical medical task parameters are grouped in a data-group (G); - training of the automation-unit with the training-unit based on the principles of machine learning by using the number of data-groups (G);
An ankle prosthesis (100A; 100B; 100C; 100D; 100E; 100F; 100G; 100H; 100I; 100J), comprising: a tibia stem component (110A; 110B; 110C; 110D; 110E; 110F; 110G; 110H; 110I; 110J) comprising a leading end (111A; 111B; 111C; 111D; 111E; 111F; 111G; 111H; 111I; 111J), a trailing end (112A; 112B; 112C; 112D; 112E; 112F; 112G; 112H; 112I; 112J), and a longitudinal axis (L) defined therethrough; and a tibia tray component (120A; 120B; 120C; 120D; 120E; 120F; 120G; 120H; 120I; 120J) configured to be attached to a prosthetic joint articulating surface, wherein the tibia tray component extends from the trailing end of the tibia stem component, wherein the tibia stem component is sized and configured to be disposed in an intramedullary canal formed in a tibia, wherein the tibia stem component comprises: one or more retractable members (130A; 130B; 130C; 130D; 130E; 130F; 130G; 130H; 130I; 130J), wherein when the tibia stem component is disposed in the intramedullary canal and the one or more retractable members are extended outward, the one or more retractable members engage the intramedullary canal's surrounding bone and enhance anchoring the tibia stem within the intramedullary canal, characterised in that the one or more retractable members (130A; 130B; 130C; 130D; 130E; 130F; 130G; 130H; 130I; 130J) are configured to be controllably movable from a retracted position and be extended outward and away from the longitudinal axis, wherein in the retracted position, the one or more retractable members are contained substantially within the tibia stem component and do not extend outward. a tibia stem component (110A; 110B; 110C; 110D; 110E; 110F; 110G; 110H; 110I; 110J) comprising a leading end (111A; 111B; 111C; 111D; 111E; 111F; 111G; 111H; 111I; 111J), a trailing end (112A; 112B; 112C; 112D; 112E; 112F; 112G; 112H; 112I; 112J), and a longitudinal axis (L) defined therethrough; and a tibia tray component (120A; 120B; 120C; 120D; 120E; 120F; 120G; 120H; 120I; 120J) configured to be attached to a prosthetic joint articulating surface, wherein the tibia tray component extends from the trailing end of the tibia stem component, wherein the tibia stem component is sized and configured to be disposed in an intramedullary canal formed in a tibia, wherein the tibia stem component comprises: one or more retractable members (130A; 130B; 130C; 130D; 130E; 130F; 130G; 130H; 130I; 130J), wherein when the tibia stem component is disposed in the intramedullary canal and the one or more retractable members are extended outward, the one or more retractable members engage the intramedullary canal's surrounding bone and enhance anchoring the tibia stem within the intramedullary canal, characterised in that the one or more retractable members (130A; 130B; 130C; 130D; 130E; 130F; 130G; 130H; 130I; 130J) are configured to be controllably movable from a retracted position and be extended outward and away from the longitudinal axis, wherein in the retracted position, the one or more retractable members are contained substantially within the tibia stem component and do not extend outward.
A method , performed by a processor , for identifying associations between binary samples, comprising: receiving a plurality of binary samples; extracting metadata from the plurality of binary samples, the metadata for a binary sample from the plurality of binary samples including a set of attributes of the binary sample; identifying a set of associations between the plurality of binary samples based on the extracted metadata, each association characterized by at least one attribute in the set of attributes that the associated binary samples have in common, each association having a confidence level indicative of a strength of the association; and identifying associations in the set of associations with a confidence level that exceeds a predefined threshold characterised by prior to extracting the metadata, determining one or more file types associated with the plurality of binary samples; and where extracting the metadata comprises extracting type specific metadata from the plurality of binary samples, the type specific metadata for a binary sample from the plurality of binary samples including a set of attributes of the binary sample that is unique for a file type associated with the binary sample. receiving a plurality of binary samples; extracting metadata from the plurality of binary samples, the metadata for a binary sample from the plurality of binary samples including a set of attributes of the binary sample; identifying a set of associations between the plurality of binary samples based on the extracted metadata, each association characterized by at least one attribute in the set of attributes that the associated binary samples have in common, each association having a confidence level indicative of a strength of the association; and identifying associations in the set of associations with a confidence level that exceeds a predefined threshold characterised by prior to extracting the metadata, determining one or more file types associated with the plurality of binary samples; and where extracting the metadata comprises extracting type specific metadata from the plurality of binary samples, the type specific metadata for a binary sample from the plurality of binary samples including a set of attributes of the binary sample that is unique for a file type associated with the binary sample.
A method of operating a radio access node, comprising: selecting an initialization value for a scrambling sequence to be applied to a message based on whether the message is intended for a non-standard device, wherein the initialization value is selected from among at least a first value corresponding to a standard device type and a second value corresponding to a non-standard device type (S405), wherein the standard device operates according to a standard and non-standard device does not operate according to the standard; generating the scrambling sequence using the initialization value (S410); scrambling the message using the scrambling sequence (S415); and transmitting the message (S420), wherein the first value is defined according to a radio network temporary identifier, RNTI, used to scramble a cyclic redundancy check, CRC, of a physical downlink control channel, PDCCH, message transmitted previously by the radio access node, and the second value is not defined according to the RNTI. selecting an initialization value for a scrambling sequence to be applied to a message based on whether the message is intended for a non-standard device, wherein the initialization value is selected from among at least a first value corresponding to a standard device type and a second value corresponding to a non-standard device type (S405), wherein the standard device operates according to a standard and non-standard device does not operate according to the standard; generating the scrambling sequence using the initialization value (S410); scrambling the message using the scrambling sequence (S415); and transmitting the message (S420), wherein the first value is defined according to a radio network temporary identifier, RNTI, used to scramble a cyclic redundancy check, CRC, of a physical downlink control channel, PDCCH, message transmitted previously by the radio access node, and the second value is not defined according to the RNTI.
A device , comprising: a multi-loop antenna , including: at least two magnetic loop antennas electrically connected in parallel, wherein the at least two magnetic loop antennas each are configured to transmit and receive signals over predetermined frequency bands, wherein a first capacitor is in series with a first leg of the first magnetic loop antenna and a second capacitor is in series with a second leg of the second magnetic loop antenna , and wherein the at least two magnetic loop antennas share a common leg ; a single feed line configured to drive both of the at least two magnetic loop antennas; and a wireless communication component configured to drive the single feed line. a multi-loop antenna , including: at least two magnetic loop antennas electrically connected in parallel, wherein the at least two magnetic loop antennas each are configured to transmit and receive signals over predetermined frequency bands, wherein a first capacitor is in series with a first leg of the first magnetic loop antenna and a second capacitor is in series with a second leg of the second magnetic loop antenna , and wherein the at least two magnetic loop antennas share a common leg ; a single feed line configured to drive both of the at least two magnetic loop antennas; and a wireless communication component configured to drive the single feed line.
A composition comprising a) a stable aqueous dispersion of inorganic pigment particles hydrophobically modified with covalently bonded polysiloxane or silyl groups; and b) a polymeric anionic dispersant; wherein the hydrophobically modified inorganic pigment particles have an average particle size in the range of from 200 nm to 10 μm, the solids content of the hydrophobically modified inorganic pigment particles is from 20 to 80 weight percent, based on the weight of inorganic pigment particles and water, and the concentration of the dispersant is in the range of 0.1 to 2 weight percent based on the weight of the pigment particles; wherein the silyl groups are represented by -Si(R 1 ) 3 ; wherein each R 1 is independently C 1 -C 18 alkyl, C 1 -C 18 alkoxy, OH, phenyl, phenoxy, or a bond connecting the Si atom to which it is attached to the surface of an inorganic pigment particle, with the proviso that at least one R 1 is a C 1 -C 18 alkyl, C 1 -C 18 alkyoxy, phenyl, or phenoxy group; and wherein the inorganic pigment particles comprise oxides of titanium, aluminum, silicon, iron, calcium, magnesium, zirconium, or zinc.
Control method for operating a heat recovery steam generator having a flue gas channel in which an evaporator, having at least two evaporator heating surfaces arranged successively in the flue gas channel and at least one intermediate heating surface (Z) arranged between the evaporator heating surfaces , is provided, a characteristic value characteristic of the heat absorption in the evaporator and in the intermediate heating surface (Z) being determined for the evaporator heating surfaces , characterized in that , additionally for the at least one intermediate heating surface (Z), an additional characteristic value for the heat absorption of the intermediate heating surface (Z) is determined, and this additional characteristic value is subtracted from the characteristic value characteristic of the heat absorption in the evaporator and in the intermediate heating surface (Z).
A biological tissue-staining reagent comprising: a nonionic surfactant at a concentration higher than 1%; and a salt at not less than 200 mM. a nonionic surfactant at a concentration higher than 1%; and a salt at not less than 200 mM.
A method for determining a risk of instability of a calculation of an angle φ of a steering shaft of a motor vehicle, wherein a first gear wheel is fixed to the steering shaft , which cooperates with at least two further smaller gear wheels , wherein the number of teeth of the first gear wheel is n, that of a first smaller gear wheel is m, and that of a second smaller gear wheel is m+1, wherein the angles θ and ψ of the two smaller gear wheels are determined and the angular position φ of the steering shaft is calculated by evaluating the equation φ = m * ψ + m + 1 * θ − 2 m + 1 * k * Ω 2 n , with Ω being the angle of the sensor range and the whole number k given by k = round m + 1 * θ − m * ψ Ω , characterized in that the risk of instability is determined by calculation of a stability margin t according to t = k − m + 1 * θ − m * ψ Ω .
A control method of a refrigerator, the method comprising: inputting a user's manipulation input; opening a lower drawer by operating an opening/closing motor of the lower drawer according to the user's manipulation input, wherein a controller causes the lower drawer to be operated when the user's manipulation input is input; the control method characterized by comprising the following steps: opening an upper drawer in a state where the lower drawer is opened; when the upper drawer is opened in the state where the lower drawer is opened, the opening of the upper drawer is detected by an open/close detecting part ; when the upper drawer is opened, restraining the opening of the upper drawer by an upper drawer restraint part at a predetermined distance; when the restraining of the upper drawer is detected, driving by the controller the opening/closing motor of the lower drawer to close the lower drawer . inputting a user's manipulation input; opening a lower drawer by operating an opening/closing motor of the lower drawer according to the user's manipulation input, wherein a controller causes the lower drawer to be operated when the user's manipulation input is input; the control method characterized by comprising the following steps: opening an upper drawer in a state where the lower drawer is opened; when the upper drawer is opened in the state where the lower drawer is opened, the opening of the upper drawer is detected by an open/close detecting part ; when the upper drawer is opened, restraining the opening of the upper drawer by an upper drawer restraint part at a predetermined distance; when the restraining of the upper drawer is detected, driving by the controller the opening/closing motor of the lower drawer to close the lower drawer . opening an upper drawer in a state where the lower drawer is opened; when the upper drawer is opened in the state where the lower drawer is opened, the opening of the upper drawer is detected by an open/close detecting part ; when the upper drawer is opened, restraining the opening of the upper drawer by an upper drawer restraint part at a predetermined distance; when the restraining of the upper drawer is detected, driving by the controller the opening/closing motor of the lower drawer to close the lower drawer .
A large manipulator , in particular truck-mounted concrete pump, having: a boom pedestal which is rotatable about a vertical axis by means of a rotary drive and is arranged on a chassis ; an articulated boom which comprises two or more boom arms , wherein the boom arms are connected in a pivotably movable manner by means of one pivot drive each via articulation joints to the boom pedestal or boom arm which is adjacent in each case; a control device for the boom movement which actuates the drives; and a boom sensor system for detecting the position of at least one point of the articulated boom or a pivot angle ( φ 1 , φ 2 , φ 3 , φ 4 ) of at least one articulation joint, wherein the control device is configured to limit the speed of the boom movement on the basis of the output signal of the boom sensor system, wherein the control device is configured to actuate the individual drives proportionally in accordance with a movement command, wherein the movement command specifies the setpoint speeds of the drives, wherein the control device is further configured to determine the speed of the tip (EP) of the articulated boom resulting from the movement command, the lengths of the boom arms and the output signal of the boom sensor system, to reduce the speed presets of the individual drives in relation to the movement command as soon as the movement command would lead to exceeding the speed of the tip (EP) of the articulated boom above a specified limit value and/or exceeds the limit value, wherein the control device is configured to reduce the speeds of all the drives in relation to the movement command by the same factor, so that the speed of the tip (EP) of the articulated boom is less than or equal to a specified limit value, namely independently of the current boom position resulting from the pivot angles (φ1, φ2, φ3, φ4) of the articulation joints which are detected by sensors.
Seal bellows comprising a jacket which is composed of a rubber-elastic material and which has an edge region at each of both face sides, wherein a clamping ring for fastening the seal bellows to a machine element is arranged in at least one of the edge regions , characterized in that the clamping ring is formed by an annular disc with an elastically variable diameter that is of self-centring and, as viewed in a circumferential direction , meandering form.