mhurhangee/patent-ind-claim-en huggingface dataset:
A method of calibrating an antenna system comprising a number of antenna elements, the method being performed in a control device and comprising: - transmitting a signal from a first reference antenna element selected among the antenna elements, - measuring the signal in two or more calibration antenna elements selected among the remaining antenna elements, and obtaining a first set of corresponding number of measurement values, - repeating the transmitting and measuring at least for a second reference antenna element different than the first reference antenna element, thereby obtaining a second set of corresponding number of measurement values, - calculating for each calibration antenna element j a correction value ΔT ij k , based on the at least first and second sets of measurement values, thereby obtaining a correction matrix comprising for row i correction values for calibration antenna elements j relative antenna element k with antenna element i as the reference antenna element, - performing an optimization procedure using as input the correction matrix, wherein each column, except one, is multiplied with a respective constant c i , thereby obtaining, for each row of the correction matrix, a respective optimized constant c i opt , and - calculating a correction value Δ t i for each antenna element based on the respective optimized constant c i opt . - transmitting a signal from a first reference antenna element selected among the antenna elements, - measuring the signal in two or more calibration antenna elements selected among the remaining antenna elements, and obtaining a first set of corresponding number of measurement values, - repeating the transmitting and measuring at least for a second reference antenna element different than the first reference antenna element, thereby obtaining a second set of corresponding number of measurement values, - calculating for each calibration antenna element j a correction value ΔT ij k , based on the at least first and second sets of measurement values, thereby obtaining a correction matrix comprising for row i correction values for calibration antenna elements j relative antenna element k with antenna element i as the reference antenna element, - performing an optimization procedure using as input the correction matrix, wherein each column, except one, is multiplied with a respective constant c i , thereby obtaining, for each row of the correction matrix, a respective optimized constant c i opt , and - calculating a correction value Δ t i for each antenna element based on the respective optimized constant c i opt .
A display device comprising: a substrate (SUB); a first transistor (T1) disposed on the substrate (SUB) an interlayer insulating layer (IL1, IL2) disposed on the first transistor (T1); a via layer (VIA) disposed on the interlayer insulating layer (IL1, IL2); a first electrode (RME1) and a second electrode (RME2) disposed on the via layer (VIA) and spaced apart from each other; a conductive layer, comprising a third electrode (RME3, RME3_2, RME3_5) that overlaps a region between the first electrode (RME1) and the second electrode (RME2) in a thickness direction and a first conductive pattern (CDP) spaced apart from the third electrode (RME3, RME3_2, RME3_5) and electrically connected to the first transistor (T1), and disposed on the interlayer insulating layer (IL1, IL2); and a plurality of light-emitting elements (ED) disposed on the first electrode (RME1) and the second electrode (RME2), wherein the third electrode (RME3) overlaps portions of the first electrode (RME1) and the second electrode (RME2) in the thickness direction, wherein the via layer (VIA) is directly disposed on the conductive layer; wherein the first conductive pattern (CDP) is directly connected to the first electrode (RME1) through a first electrode contact hole (CTD) that penetrates the via layer (VIA), and the second electrode (RME2) is directly connected to the third electrode (RME3) through a second electrode contact hole (CTS) that penetrates the via layer (VIA). a substrate (SUB); a first transistor (T1) disposed on the substrate (SUB) an interlayer insulating layer (IL1, IL2) disposed on the first transistor (T1); a via layer (VIA) disposed on the interlayer insulating layer (IL1, IL2); a first electrode (RME1) and a second electrode (RME2) disposed on the via layer (VIA) and spaced apart from each other; a conductive layer, comprising a third electrode (RME3, RME3_2, RME3_5) that overlaps a region between the first electrode (RME1) and the second electrode (RME2) in a thickness direction and a first conductive pattern (CDP) spaced apart from the third electrode (RME3, RME3_2, RME3_5) and electrically connected to the first transistor (T1), and disposed on the interlayer insulating layer (IL1, IL2); and a plurality of light-emitting elements (ED) disposed on the first electrode (RME1) and the second electrode (RME2), wherein the third electrode (RME3) overlaps portions of the first electrode (RME1) and the second electrode (RME2) in the thickness direction, wherein the via layer (VIA) is directly disposed on the conductive layer; wherein the first conductive pattern (CDP) is directly connected to the first electrode (RME1) through a first electrode contact hole (CTD) that penetrates the via layer (VIA), and the second electrode (RME2) is directly connected to the third electrode (RME3) through a second electrode contact hole (CTS) that penetrates the via layer (VIA).
A wireless speaker parameter configuration method, carried out by a mobile terminal, the method comprising: transmitting a parameter configuration request containing a scene type combination of wireless speakers of a wireless speaker system to a server; wherein, the scene type combination of wireless speakers of the wireless speaker system is a combination of scene types of the wireless speakers of the wireless speaker system, wherein the scene types comprise room types and location types; receiving a parameter configuration response sent from the server in response to the parameter configuration request, wherein the parameter configuration response contains a speaker parameter configuration record of the wireless speaker system, wherein, the speaker parameter configuration record is matched with the scene type combination and comprises parameters configured to set the attribute of playing of each wireless speaker, wherein the parameter comprises a volume parameter and a sound effect parameter; and performing parameter configuration on the wireless speakers of the wireless speaker system through the use of the speaker parameter configuration record received. transmitting a parameter configuration request containing a scene type combination of wireless speakers of a wireless speaker system to a server; wherein, the scene type combination of wireless speakers of the wireless speaker system is a combination of scene types of the wireless speakers of the wireless speaker system, wherein the scene types comprise room types and location types; receiving a parameter configuration response sent from the server in response to the parameter configuration request, wherein the parameter configuration response contains a speaker parameter configuration record of the wireless speaker system, wherein, the speaker parameter configuration record is matched with the scene type combination and comprises parameters configured to set the attribute of playing of each wireless speaker, wherein the parameter comprises a volume parameter and a sound effect parameter; and performing parameter configuration on the wireless speakers of the wireless speaker system through the use of the speaker parameter configuration record received.
Exhaust system for the aftertreatment of exhaust gases of an internal combustion engine, having an annular catalytic converter through which exhaust gas can flow, wherein the annular catalytic converter has an inflow point and an outflow point and the annular catalytic converter has a tubular first flow path and an annular second flow path which are oriented concentrically with respect to one another and through which there can be successive flows, wherein the first flow path is surrounded towards the outside in a radial direction by the second flow path , characterized in that a pipe is led in the radial direction from the outside through the second flow path , wherein the pipe opens into the annular catalytic converter and the pipe has a radial extent at least as far as into the inner first flow path .
A computer-implemented method of training and using machine learning models to estimate motion data based on test image data sets, the method comprising: receiving , by a computer system, a test image data set comprising, for each pixel of a first plurality of pixels in the test image data set, an intensity of the pixel in a captured deep-tissue image, the captured deep-tissue image including objects imaged at a depth of at least 1 mm below a surface of a biological tissue; using a trained machine learning model and the test image data set to generate output data for the test image data set, the output data characterizing motion represented in the test image data set, the machine learning model having been trained using: a training data set comprising a plurality of training data elements, each training data element of the plurality of training data elements including: an image data set comprising, for each pixel of a second plurality of pixels in the image data set, an image-characteristic value, the image-characteristic value being based at least on an intensity of the pixel, wherein the second plurality of pixels is same or different from the first plurality of pixels, a motion data set that indicates a portion of the second plurality of pixels representing a movement, wherein one or more parameters of a function in the machine learning model are based on correspondences between the image data sets and the motion data sets. receiving , by a computer system, a test image data set comprising, for each pixel of a first plurality of pixels in the test image data set, an intensity of the pixel in a captured deep-tissue image, the captured deep-tissue image including objects imaged at a depth of at least 1 mm below a surface of a biological tissue; using a trained machine learning model and the test image data set to generate output data for the test image data set, the output data characterizing motion represented in the test image data set, the machine learning model having been trained using: a training data set comprising a plurality of training data elements, each training data element of the plurality of training data elements including: an image data set comprising, for each pixel of a second plurality of pixels in the image data set, an image-characteristic value, the image-characteristic value being based at least on an intensity of the pixel, wherein the second plurality of pixels is same or different from the first plurality of pixels, a motion data set that indicates a portion of the second plurality of pixels representing a movement, an image data set comprising, for each pixel of a second plurality of pixels in the image data set, an image-characteristic value, the image-characteristic value being based at least on an intensity of the pixel, wherein the second plurality of pixels is same or different from the first plurality of pixels, a motion data set that indicates a portion of the second plurality of pixels representing a movement, wherein one or more parameters of a function in the machine learning model are based on correspondences between the image data sets and the motion data sets.
Method for determining the soiling of a suction roll of a machine for producing a fibrous web, in particular a paper, board, tissue or pulp web, comprising the steps of a. Flowing a fluid through a measuring surface A of the roll shell, whereby either the pressure or the flow rate of the fluid is kept constant. b. Determining a characteristic variable K, whereby the characteristic variable K consists of the resulting flow velocity for flow at constant pressure and the resulting pressure drop for flow at constant flow velocity. c. Provide one or more reference variables d. Determination of a degree of contamination of the suction roll by comparison of the characteristic variable K with the reference variable or variables. a. Flowing a fluid through a measuring surface A of the roll shell, whereby either the pressure or the flow rate of the fluid is kept constant. b. Determining a characteristic variable K, whereby the characteristic variable K consists of the resulting flow velocity for flow at constant pressure and the resulting pressure drop for flow at constant flow velocity. c. Provide one or more reference variables d. Determination of a degree of contamination of the suction roll by comparison of the characteristic variable K with the reference variable or variables.
A method for the production of a cylinder head for an internal combustion engine; the production method comprises the steps of: dividing the cylinder head into a main part , where there is the flame deck making up the crown of each cylinder, and an operating part , where there are the housings of the control means of the valves; manufacturing, at first, the sole main part of the cylinder head by means of a casting process in a mould ; and manufacturing, subsequently, the operating part of the cylinder head by means of additive manufacturing, which adds layer upon layer starting from the previously manufactured main part of the cylinder head . dividing the cylinder head into a main part , where there is the flame deck making up the crown of each cylinder, and an operating part , where there are the housings of the control means of the valves; manufacturing, at first, the sole main part of the cylinder head by means of a casting process in a mould ; and manufacturing, subsequently, the operating part of the cylinder head by means of additive manufacturing, which adds layer upon layer starting from the previously manufactured main part of the cylinder head .
A train control device comprising: a slip/skid detection unit that computes train jerk based on axle rotational speed from a rotary velocity sensor and decides that a train is placed in a wheel slip or skid state if an absolute value of the train jerk is equal to or more than a slip/skid decision threshold; and a train control unit that is connected with the slip/skid detection unit and calculates train control velocity for use in processing to control the train, characterized by , unless the train is placed in a wheel slip or skid state, the slip/skid detection unit is configured to decide that a wheel slip or skid state of the train has begun to occur upon elapse of a certain period of time after an absolute value of the train jerk has become equal to or more than the slip/skid decision threshold, and the absolute value of the train jerk stayed equal to or more than the slip/skid decision threshold for this certain period of time, and wherein switching of whether or not to apply the elapse of the certain period of time to deciding whether the wheel slip or skid state of the train has begun to occur or has terminated is performed depending on magnitude of axle rotational speed from the rotary velocity sensor. a slip/skid detection unit that computes train jerk based on axle rotational speed from a rotary velocity sensor and decides that a train is placed in a wheel slip or skid state if an absolute value of the train jerk is equal to or more than a slip/skid decision threshold; and a train control unit that is connected with the slip/skid detection unit and calculates train control velocity for use in processing to control the train, characterized by , unless the train is placed in a wheel slip or skid state, the slip/skid detection unit is configured to decide that a wheel slip or skid state of the train has begun to occur upon elapse of a certain period of time after an absolute value of the train jerk has become equal to or more than the slip/skid decision threshold, and the absolute value of the train jerk stayed equal to or more than the slip/skid decision threshold for this certain period of time, and wherein switching of whether or not to apply the elapse of the certain period of time to deciding whether the wheel slip or skid state of the train has begun to occur or has terminated is performed depending on magnitude of axle rotational speed from the rotary velocity sensor.
A control device for a power generation system that includes a steam turbine that is driven by steam generated by exhaust gas, a governor valve that controls the flow rate of steam that is introduced to the steam turbine , and a generator that is connected to the steam turbine , and performs a pressure-changing operation for changing the pressure of the steam that is introduced to the steam turbine , the control device for a power generation system comprising: calculation means for calculating an actual available power value obtained from the steam turbine on the basis of a difference between a target opening degree of the governor valve and an actual opening degree of the governor valve ; and control means for controlling an opening degree of the governor valve on the basis of the available power value calculated by the calculation means , wherein the calculation means calculates a smaller value among a first available power value based on the difference between the target opening degree of the governor valve and the actual opening degree of the governor valve and a second available power value based on a difference between a set value of the pressure of the steam that is introduced to the steam turbine and an actual steam pressure, as an actual available power value obtained from the steam turbine . calculation means for calculating an actual available power value obtained from the steam turbine on the basis of a difference between a target opening degree of the governor valve and an actual opening degree of the governor valve ; and control means for controlling an opening degree of the governor valve on the basis of the available power value calculated by the calculation means , wherein the calculation means calculates a smaller value among a first available power value based on the difference between the target opening degree of the governor valve and the actual opening degree of the governor valve and a second available power value based on a difference between a set value of the pressure of the steam that is introduced to the steam turbine and an actual steam pressure, as an actual available power value obtained from the steam turbine .
A gyroscope system comprising: a sensor system comprising a vibrating-mass and a plurality of electrodes each arranged to provide a driving force to the vibrating-mass along a first axis of three orthogonal axes and a force-rebalance to the vibrating-mass in a second and third axes of the three orthogonal axes; and a gyroscope controller configured to generate a drive signal that is provided to a first electrode of the plurality of electrodes to provide the driving force to facilitate in-plane periodic oscillatory motion of the vibrating-mass along the first axis of the three orthogonal axes via spring flexures , with the spring flexures providing a reactionary motion along the first axis at an opposite phase of the drive signal, and to generate a force-rebalance signal that is provided to each of the second electrode and a third electrode of the plurality of electrodes associated with the respective second axis and the respective third axis of the three orthogonal axes to calculate a rotation of the gyroscope system about the respective second axis and the respective third axis of the three orthogonal axes, the gyroscope controller being further configured to change the drive axis during operation of the gyroscope system . a sensor system comprising a vibrating-mass and a plurality of electrodes each arranged to provide a driving force to the vibrating-mass along a first axis of three orthogonal axes and a force-rebalance to the vibrating-mass in a second and third axes of the three orthogonal axes; and a gyroscope controller configured to generate a drive signal that is provided to a first electrode of the plurality of electrodes to provide the driving force to facilitate in-plane periodic oscillatory motion of the vibrating-mass along the first axis of the three orthogonal axes via spring flexures , with the spring flexures providing a reactionary motion along the first axis at an opposite phase of the drive signal, and to generate a force-rebalance signal that is provided to each of the second electrode and a third electrode of the plurality of electrodes associated with the respective second axis and the respective third axis of the three orthogonal axes to calculate a rotation of the gyroscope system about the respective second axis and the respective third axis of the three orthogonal axes, the gyroscope controller being further configured to change the drive axis during operation of the gyroscope system .
A system for routing electronic content to a recipient device comprising: a plurality of network nodes , each network node adapted to receive and forward electronic content to the recipient device or to another network node for relaying the electronic content towards the recipient device ; and an activity profile server adapted to be in data communication with each network node , the activity profile server adapted to monitor an activity level of each network node and inform each network node on a congestion level of an adjacent network node based on a historical utilization rate of each network node from a network management system (NMS) or the non-peak usage times based on tracked revenue activities; the activity profile server is further adapted to monitor an activity profile of the recipient device so as to determine a suitable delivery time of the electronic content from the network node to the recipient device , characterised in that each network node is adapted, on receiving the information on the congestion level of the adjacent network node or the activity profile of the recipient device , to forward the electronic content if the adjacent network node is not congested or if it is a suitable delivery time for the recipient device , and store the electronic content for a deferred delivery if otherwise. a plurality of network nodes , each network node adapted to receive and forward electronic content to the recipient device or to another network node for relaying the electronic content towards the recipient device ; and an activity profile server adapted to be in data communication with each network node , the activity profile server adapted to monitor an activity level of each network node and inform each network node on a congestion level of an adjacent network node based on a historical utilization rate of each network node from a network management system (NMS) or the non-peak usage times based on tracked revenue activities; the activity profile server is further adapted to monitor an activity profile of the recipient device so as to determine a suitable delivery time of the electronic content from the network node to the recipient device , characterised in that each network node is adapted, on receiving the information on the congestion level of the adjacent network node or the activity profile of the recipient device , to forward the electronic content if the adjacent network node is not congested or if it is a suitable delivery time for the recipient device , and store the electronic content for a deferred delivery if otherwise.