mhurhangee/ep-ind-claims huggingface dataset:
An image processing apparatus comprising: input means for inputting images; first detection means for performing first area detection for detecting a first area corresponding to a human body in an image input by the input means; second detection means for performing second area detection, which is different from the first area detection, for detecting a second area corresponding to a moving object in the image input by the input means; processing means for performing image processing for reducing a visibility of a specific region identified through a comparison between the image input by the input means and a background image; and updating means for performing first updating process of updating the background image by using a result of the first area detection by the first detection means and a result of the second area detection by the second detection means when the proportion of the area of the specific region to the area of the image is smaller than a threshold value and performing second updating process of updating the background image by using the result of the first area detection by the first detection means and not using the result of the second area detection by the second detection means when the proportion of the area of the specific region to the area of the image is equal to or larger than a threshold value. input means for inputting images; first detection means for performing first area detection for detecting a first area corresponding to a human body in an image input by the input means; second detection means for performing second area detection, which is different from the first area detection, for detecting a second area corresponding to a moving object in the image input by the input means; processing means for performing image processing for reducing a visibility of a specific region identified through a comparison between the image input by the input means and a background image; and updating means for performing first updating process of updating the background image by using a result of the first area detection by the first detection means and a result of the second area detection by the second detection means when the proportion of the area of the specific region to the area of the image is smaller than a threshold value and performing second updating process of updating the background image by using the result of the first area detection by the first detection means and not using the result of the second area detection by the second detection means when the proportion of the area of the specific region to the area of the image is equal to or larger than a threshold value.
A method, comprising: determining that a full packet data convergence protocol, PDCP, status report does not fit into a single PDCP Control protocol data unit, PDU; generating (610, 620) a partial PDCP status report that fits into the single PDCP Control PDU; and sending (616, 626) the single PDCP Control PDU containing the partial PDCP status report, wherein the partial PDCP status report is a segment of the full packet data convergence protocol status report comprising information indicating whether a start point and an end point of the full packet data convergence protocol status report are included in the status report, wherein the partial PDCP status report is based on a selected bitmap containing most of the correctly received packet data units/service date units so that a number of retransmissions of correctly received packet data units/service data units is minimized, relative to other bitmaps that could have been selected. determining that a full packet data convergence protocol, PDCP, status report does not fit into a single PDCP Control protocol data unit, PDU; generating (610, 620) a partial PDCP status report that fits into the single PDCP Control PDU; and sending (616, 626) the single PDCP Control PDU containing the partial PDCP status report, wherein the partial PDCP status report is a segment of the full packet data convergence protocol status report comprising information indicating whether a start point and an end point of the full packet data convergence protocol status report are included in the status report, wherein the partial PDCP status report is based on a selected bitmap containing most of the correctly received packet data units/service date units so that a number of retransmissions of correctly received packet data units/service data units is minimized, relative to other bitmaps that could have been selected.
A laundry treating machine (1,1'), of the type comprising at least one frame for supporting a rotary drum suitable to contain the laundry to be subjected to treatment, said drum being housed inside a tub, wherein at least the tub and the drum are part of an oscillating assembly that oscillates relative to the frame, wherein the oscillating assembly is associated with a tuned mass damper that is connected solely to the oscillating assembly, and comprises at least one mass (12,12A,12') and one elastic member (11,11A,11',11",11"',11*), said at least one mass (12,12A,12') and said one elastic member (11,11A,11',11",11"',11*) having the same rigidity in at least more than one direction, characterised in that said elastic member (11,11A,11',11",11'",11*) comprises at least two deformable components (110,111,110',111',110",111",110"',111"',114'"), and said at least two deformable components (110,111,110',111',110",111",110"',111"',114"') are placed in contact with each other and are adapted to move relative to each other during at least one operating step of the machine (1,1').
A method for associating haptic sensations with sound data to assist in navigating through and editing said sound data, the method comprising: loading at least a portion of said sound data into a memory of a computer; playing said sound data such that an audio signal is generated and used for outputting sound from an audio device, wherein said playing of said sound is controlled by user input received by said computer from a user for navigation through said sound data; and generating haptic commands based on said sound data, said haptic commands used to output haptic sensations to said user by a haptic feedback device manipulated by said user and in communication with said computer, said haptic sensations corresponding to one or more characteristics of said sound data to assist said user in discerning features of said sound data during said navigation through and editing of said sound data. loading at least a portion of said sound data into a memory of a computer; playing said sound data such that an audio signal is generated and used for outputting sound from an audio device, wherein said playing of said sound is controlled by user input received by said computer from a user for navigation through said sound data; and generating haptic commands based on said sound data, said haptic commands used to output haptic sensations to said user by a haptic feedback device manipulated by said user and in communication with said computer, said haptic sensations corresponding to one or more characteristics of said sound data to assist said user in discerning features of said sound data during said navigation through and editing of said sound data.
A subtilase variant comprising the substitutions X9E+X206L+X262E, e.g., S9E+Q206L+L262E, wherein (a) the positions correspond to the positions of the polypeptide of SEQ ID NO: 2; (b) the variant has protease activity; (c) the variant has at least 90% or at least 95% but less than 100% sequence identity to the polypeptide of SEQ ID NO: 1; and (d) the variant has at least 5% higher residual activity than a subtilase with SEQ ID NO: 1 when measured after 47 hours at 60°C in liquid detergent with pH 8 as described in Example 4 or 5 herein. (a) the positions correspond to the positions of the polypeptide of SEQ ID NO: 2; (b) the variant has protease activity; (c) the variant has at least 90% or at least 95% but less than 100% sequence identity to the polypeptide of SEQ ID NO: 1; and (d) the variant has at least 5% higher residual activity than a subtilase with SEQ ID NO: 1 when measured after 47 hours at 60°C in liquid detergent with pH 8 as described in Example 4 or 5 herein.
A catalyst comprising: a mesoporous material; and catalytic metal particles supported at least within the mesoporous material and containing platinum and a metal different from the platinum, wherein the mesoporous material has mesopores with a mode radius of greater than or equal to 1 nm and less than or equal to 25 nm and a pore volume of greater than or equal to 1.0 cm 3 /g and less than or equal to 3.0 cm 3 /g before supporting of the catalytic metal particles, and has an average particle size of greater than or equal to 200 nm, the average particle size being determined by a laser diffraction particle size distribution analyzer in a state where the mesoporous material is dispersed in a solvent, and wherein a molar ratio of the metal different from platinum and contained in the catalytic metal particles relative to all metals contained in the catalytic metal particles is greater than or equal to 0.25, and among the catalytic metal particles, a volume ratio of catalytic metal particles having a particle size of greater than or equal to 20 nm is less than or equal to 10%, the molar ratio and the volume ratio being determined according to methods identified in the description. a mesoporous material; and catalytic metal particles supported at least within the mesoporous material and containing platinum and a metal different from the platinum, wherein the mesoporous material has mesopores with a mode radius of greater than or equal to 1 nm and less than or equal to 25 nm and a pore volume of greater than or equal to 1.0 cm 3 /g and less than or equal to 3.0 cm 3 /g before supporting of the catalytic metal particles, and has an average particle size of greater than or equal to 200 nm, the average particle size being determined by a laser diffraction particle size distribution analyzer in a state where the mesoporous material is dispersed in a solvent, and wherein a molar ratio of the metal different from platinum and contained in the catalytic metal particles relative to all metals contained in the catalytic metal particles is greater than or equal to 0.25, and among the catalytic metal particles, a volume ratio of catalytic metal particles having a particle size of greater than or equal to 20 nm is less than or equal to 10%, the molar ratio and the volume ratio being determined according to methods identified in the description.
A process for separating one or more alkylethyleneamines from ethylenediamine comprising the steps of: (a) providing a composition comprising i) ethylenediamine and one or more alkylethyleneamines and ii) a first adjuvant component comprising water, wherein the first adjuvant component has a boiling point and wherein at least a portion of the one or more alkylethyleneamines form an azeotrope in the first adjuvant component; and (b) separating at least a portion of the alkylethyleneamines azeotrope from the composition in the presence of a second adjuvant component, wherein the second adjuvant component comprises ammonia and has a boiling point less than the boiling point of the first adjuvant component. (a) providing a composition comprising i) ethylenediamine and one or more alkylethyleneamines and ii) a first adjuvant component comprising water, wherein the first adjuvant component has a boiling point and wherein at least a portion of the one or more alkylethyleneamines form an azeotrope in the first adjuvant component; and (b) separating at least a portion of the alkylethyleneamines azeotrope from the composition in the presence of a second adjuvant component, wherein the second adjuvant component comprises ammonia and has a boiling point less than the boiling point of the first adjuvant component.
Wind turbine having a rotor shaft, wherein the rotor shaft is mounted by way of a bearing assembly having a first bearing ring and a second bearing ring that is mounted so as to be rotatable in relation to the first bearing ring, wherein at least one hydrostatically supported first friction bearing segment (21, 22, 23) which interacts with a first friction face (12.3, 12.4, 12.5) that is disposed on the second bearing ring is disposed on the first bearing ring, characterized in that the first friction bearing segment (21, 22, 23) is received in a receptacle pocket (11.6) of the first bearing ring in such a manner that a first pressure chamber is formed between the first bearing ring and the first friction bearing segment (21, 22, 23), and the first friction bearing segment (21, 22, 23) is configured in such a manner that a plurality of, in particular three or four, second pressure chambers are formed between the first friction bearing segment (21, 22, 23) and the second bearing ring, wherein the first pressure chamber and the plurality of second presssure chambers are connected by way of a plurality of ducts (28, 28', 28", 28"') that run through the first friction bearing segment (21, 22, 23), and the first friction bearing segment (21, 22, 23) has a first pressure face which faces the first pressure chamber and a plurality of second pressure faces (27, 27', 27", 27"') which face the second pressure chambers, wherein the first pressure face is smaller than the sum of the plurality of second pressure faces (27, 27', 27", 27"').
Method for the condition monitoring of a programcontrolled machine, in particular of a production machine or machine tool, having the follow steps: - providing a dynamic model of the machine or a dynamic model of part of the machine, which comprises a number of components of the machine, wherein the dynamic model in the form of a spring-damper-mass model comprises mass inertias, spring rigidities and damping values as model parameters, - performing a frequency analysis for the machine or part of the machine, - determining at least one new value for at least one model parameter on the basis of the frequency analysis, - comparing the new value of the model parameter with an original value of the model parameter, - identifying a state of the machine or part of the machine on the basis of the comparison result. - providing a dynamic model of the machine or a dynamic model of part of the machine, which comprises a number of components of the machine, wherein the dynamic model in the form of a spring-damper-mass model comprises mass inertias, spring rigidities and damping values as model parameters, - performing a frequency analysis for the machine or part of the machine, - determining at least one new value for at least one model parameter on the basis of the frequency analysis, - comparing the new value of the model parameter with an original value of the model parameter, - identifying a state of the machine or part of the machine on the basis of the comparison result.
Protection apparatus for an IT grid comprising a first and a second live line (L+, L-), comprising a signal generator, which is designed to feed a first signal into the first and/or the second live line (L+, L-); comprising a detection device, which is designed to detect the characteristic of the fed-in first signal in at least one live line (L+, L-); and comprising a control device, which is designed to analyze the detected characteristic and to output a disconnection signal when the analysis of the detected characteristic indicates that the first live line (L+, L-) and the second live line (L+, L-) are being touched by a living organism, characterized in that the control device has a memory, which is designed to store a multiplicity of digital values which are characteristic of the characteristic of the fed-in first signal in the at least one live line (L+, L-); the control device comprises a transformation device, which is designed to implement a transform into the frequency range, in particular a fast Fourier transform, for the stored characteristic over time of the fed-in first signal and to output data which characterize the characteristic of the fed-in first signal in the frequency range; and the control device comprises an evaluation device, which is designed to identify, in the output data, those frequencies at which the impedance of the live lines has local maxima or minima and to output the disconnection signal when at least one of the identified frequencies is in at least one predetermined frequency range for identification of a living organism.
A dive computer system, comprising: a dive computer having a display on which information is displayed and a processor; and a sensor that takes skin temperature measurements directly from the diver's skin, the sensor is operably coupled to the dive computer such that the skin temperature measurements can be supplied to the processor of the dive computer from the sensor, the processor is configured to utilize a decompression algorithm to calculate dive parameters and the skin temperature measurements to compensate the decompression algorithm for diver skin temperature by calculating an updated skin perfusion factor using the skin temperature measurements, wherein the sensor also takes heart rate measurements in addition to the skin temperature measurements; and wherein the sensor is attached to a measurement device that includes a measurement device processor and a wireless transmitter, the measurement device processor applies a transmission coding to the heart rate measurements and the skin temperature measurements such that the heart rate measurements and the skin temperature measurements are transformed into a coded data, the transmission coding is based on a diver heart rate and a diver skin temperature, the transmitter modulates the coded data to a higher frequency and wirelessly transmits the coded data to a receiver of the dive computer; the receiver demodulates the coded data to a baseband frequency and provides the coded data to the processor of the dive computer. a dive computer having a display on which information is displayed and a processor; and a sensor that takes skin temperature measurements directly from the diver's skin, the sensor is operably coupled to the dive computer such that the skin temperature measurements can be supplied to the processor of the dive computer from the sensor, the processor is configured to utilize a decompression algorithm to calculate dive parameters and the skin temperature measurements to compensate the decompression algorithm for diver skin temperature by calculating an updated skin perfusion factor using the skin temperature measurements, wherein the sensor also takes heart rate measurements in addition to the skin temperature measurements; and wherein the sensor is attached to a measurement device that includes a measurement device processor and a wireless transmitter, the measurement device processor applies a transmission coding to the heart rate measurements and the skin temperature measurements such that the heart rate measurements and the skin temperature measurements are transformed into a coded data, the transmission coding is based on a diver heart rate and a diver skin temperature, the transmitter modulates the coded data to a higher frequency and wirelessly transmits the coded data to a receiver of the dive computer; the receiver demodulates the coded data to a baseband frequency and provides the coded data to the processor of the dive computer.
Transport device for transporting containers, having a transport star wheel which is driven by a drive so as to rotate about a device axis, which is mounted in a column of the machine frame, configured at least partially as a hollow column, and has at its circumference a plurality of container receptacles distributed around the device axis, which container receptacles have in each case, in relation to the rotational direction of the transport star, at least one leading first flank (6.1), and, in relation to the rotational direction of the transport star, at least one trailing second flank (6.2), of which at least the second flank (6.2) forms at least with a part region a support surface for the containers during the transport, wherein the transport star including at least two transport star elements (9, 10), of which at least one first transport element forms the first flanks (6.1) and at least one second transport element forms the second flanks (6.2) of the container receptacles, and which, by way of rotational adjustment about the device axis, makes it possible to adapt the container receptacles to different container diameters with a change in an angular offset between the transport star wheel elements (9, 10), and wherein, during the transport of the containers, the at least two transport star elements (9, 10) can be driven by the drive such as to rotate, synchronously and equidirectionally and maintaining the angular offset which has been set, in the rotational direction of the transport star element, wherein the transport device comprises the functional elements necessary for the adjustment of the angular offset and/or to maintain the angular offset which has been set, and wherein the necessary functional elements are bearings, couplings, and drives, characterised in that the functional elements necessary for the adjustment of the angular offset and/or to maintain the angular offset which has been set are accommodated, entirely protected against the surrounding environment, in the column of the machine frame.
Method for determining a weight of clothing items which are introduced into a drum of a washing machine, as a function of a quantity of filling water, wherein the method contains the steps listed below: - filling water until a fixed water level is reached which is necessary so that the clothing items are entirely soaked in water, and - determining the quantity of water which is filled by the time the fixed water level is reached, by means of a water quantity sensor or by means of a pressure sensor apparatus, characterised by the steps: - selecting a water absorption rate from water absorption rates stored in a control apparatus as a function of a clothing material selected by a user using a selector switch arranged on an operating panel, - determining the weight of the clothing items from the filled water quantity and the selected water absorption rate. - filling water until a fixed water level is reached which is necessary so that the clothing items are entirely soaked in water, and - determining the quantity of water which is filled by the time the fixed water level is reached, by means of a water quantity sensor or by means of a pressure sensor apparatus, - selecting a water absorption rate from water absorption rates stored in a control apparatus as a function of a clothing material selected by a user using a selector switch arranged on an operating panel, - determining the weight of the clothing items from the filled water quantity and the selected water absorption rate.