mhurhangee/patent-ind-claim-en huggingface dataset:
A screen flickering processing method comprising: detecting whether screen flickering occurs or not; acquiring , in response to detecting that screen flickering occurs, a VCOM voltage of a display screen; wherein the display screen is a liquid crystal display screen, and the VCOM voltage is a reference voltage for liquid crystal molecule deflection of the display screen; calculating a difference value between the acquired VCOM voltage value and a preset VCOM voltage value; calculating a target VCOM voltage value according to the acquired VCOM voltage value, the preset VCOM voltage value and the difference value; and adjusting the VCOM voltage value of the display screen into the target VCOM voltage value; wherein calculating the target VCOM voltage value according to the acquired VCOM voltage value, the preset VCOM voltage value and the difference value comprises: calculating an average value of the acquired VCOM voltage value and the preset VCOM voltage value; adding the difference value to the average value to obtain a first target VCOM voltage value, and subtracting the difference value from the average value to obtain a second target VCOM voltage value; and selecting a voltage value closer to the preset VCOM voltage value from the first target VCOM voltage value and the second target VCOM voltage value as the target VCOM voltage value. detecting whether screen flickering occurs or not; acquiring , in response to detecting that screen flickering occurs, a VCOM voltage of a display screen; wherein the display screen is a liquid crystal display screen, and the VCOM voltage is a reference voltage for liquid crystal molecule deflection of the display screen; calculating a difference value between the acquired VCOM voltage value and a preset VCOM voltage value; calculating a target VCOM voltage value according to the acquired VCOM voltage value, the preset VCOM voltage value and the difference value; and adjusting the VCOM voltage value of the display screen into the target VCOM voltage value; wherein calculating the target VCOM voltage value according to the acquired VCOM voltage value, the preset VCOM voltage value and the difference value comprises: calculating an average value of the acquired VCOM voltage value and the preset VCOM voltage value; adding the difference value to the average value to obtain a first target VCOM voltage value, and subtracting the difference value from the average value to obtain a second target VCOM voltage value; and selecting a voltage value closer to the preset VCOM voltage value from the first target VCOM voltage value and the second target VCOM voltage value as the target VCOM voltage value. calculating an average value of the acquired VCOM voltage value and the preset VCOM voltage value; adding the difference value to the average value to obtain a first target VCOM voltage value, and subtracting the difference value from the average value to obtain a second target VCOM voltage value; and selecting a voltage value closer to the preset VCOM voltage value from the first target VCOM voltage value and the second target VCOM voltage value as the target VCOM voltage value.
A structure comprising: a foundation including a plurality of hydraulic cylinders ; a truss tower located on the foundation and configured to support a tower built on the foundation; and a controller configured to control extension and retraction of the hydraulic cylinders; characterised in that the plurality of hydraulic cylinders are configured to push the tower up relative to the truss tower by directly exerting a vertical force on a bottom surface of the tower when extended. a foundation including a plurality of hydraulic cylinders ; a truss tower located on the foundation and configured to support a tower built on the foundation; and a controller configured to control extension and retraction of the hydraulic cylinders; characterised in that the plurality of hydraulic cylinders are configured to push the tower up relative to the truss tower by directly exerting a vertical force on a bottom surface of the tower when extended.
Touchscreen device for use in an industrial automation system, comprising at least one touchscreen as well as a touchscreen controller , wherein in the touchscreen device operating actions of a user are able to be captured by means of at least two diverse functional principles for identifying a touch instance, wherein a first functional principle is implemented solely in a first subregion of the touchscreen and a second functional principle is implemented solely in a second subregion of the touchscreen , wherein an operating action for triggering or executing an operating function which can be executed by the touchscreen device is defined such that the operating function is only triggered or executed when at least one particular field (PI) within the first subregion and a particular field (PI) within the second subregion are touched simultaneously, wherein a resistive or inductive functional principle for capturing touch instances is implemented in the first subregion and wherein the second subregion surrounds the first subregion .
A method of controlling a vehicle in an autonomous driving mode, the method comprising: receiving , by one or more processors , sensor data for an object ; receiving , by the one or more processors , a plurality of predicted trajectories , each predicted trajectory representing a plurality of possible future locations for the object ; and generating , by the one or more processors , a grid including a plurality of cells each representing a geographic area, characterised in that the method further comprises: predicting , by the one or more processors , probabilities that the object will enter the geographic area of each of the plurality of cells over a period of time into the future based on the sensor data in order to generate a heat map ; comparing , by the one or more processors , one or more of the plurality of predicted trajectories to the heat map ; and controlling , by the one or more processors , the vehicle in the autonomous driving mode based on the comparison. receiving , by one or more processors , sensor data for an object ; receiving , by the one or more processors , a plurality of predicted trajectories , each predicted trajectory representing a plurality of possible future locations for the object ; and generating , by the one or more processors , a grid including a plurality of cells each representing a geographic area, characterised in that the method further comprises: predicting , by the one or more processors , probabilities that the object will enter the geographic area of each of the plurality of cells over a period of time into the future based on the sensor data in order to generate a heat map ; comparing , by the one or more processors , one or more of the plurality of predicted trajectories to the heat map ; and controlling , by the one or more processors , the vehicle in the autonomous driving mode based on the comparison. predicting , by the one or more processors , probabilities that the object will enter the geographic area of each of the plurality of cells over a period of time into the future based on the sensor data in order to generate a heat map ; comparing , by the one or more processors , one or more of the plurality of predicted trajectories to the heat map ; and controlling , by the one or more processors , the vehicle in the autonomous driving mode based on the comparison.
A sensor control apparatus , comprising: a first System on Chip, SoC, configured to generate a first sensor configuration value for a sensor parameter; a second SoC configured to generate a second sensor configuration value for the sensor parameter; a sensor communicatively coupled to the first SoC and the second SoC ; a control logic circuit communicatively coupled to the first SoC , the second SoC , and the sensor , wherein the control logic circuit is configured to select between the first SoC and the second SoC as a host SoC and to apply to the sensor one of the first sensor configuration value or the second sensor configuration value for the sensor parameter based on the selected host SoC; and a monitor communicatively coupled to the control logic circuit , the sensor , the first SoC , and the second SoC , wherein the monitor is configured to: record a number of register updates from the selected host SoC in a predefined window; determine if the number of register updates in the predefined window exceeds a threshold; deselect the selected host SoC when the number of register updates in the predefined window does not exceed the threshold; and broadcast a release signal to the control logic circuit , the first SoC , and the second SoC when the selected host SoC is deselected. a first System on Chip, SoC, configured to generate a first sensor configuration value for a sensor parameter; a second SoC configured to generate a second sensor configuration value for the sensor parameter; a sensor communicatively coupled to the first SoC and the second SoC ; a control logic circuit communicatively coupled to the first SoC , the second SoC , and the sensor , wherein the control logic circuit is configured to select between the first SoC and the second SoC as a host SoC and to apply to the sensor one of the first sensor configuration value or the second sensor configuration value for the sensor parameter based on the selected host SoC; and a monitor communicatively coupled to the control logic circuit , the sensor , the first SoC , and the second SoC , wherein the monitor is configured to: record a number of register updates from the selected host SoC in a predefined window; determine if the number of register updates in the predefined window exceeds a threshold; deselect the selected host SoC when the number of register updates in the predefined window does not exceed the threshold; and broadcast a release signal to the control logic circuit , the first SoC , and the second SoC when the selected host SoC is deselected. record a number of register updates from the selected host SoC in a predefined window; determine if the number of register updates in the predefined window exceeds a threshold; deselect the selected host SoC when the number of register updates in the predefined window does not exceed the threshold; and broadcast a release signal to the control logic circuit , the first SoC , and the second SoC when the selected host SoC is deselected.
A liquid discharge apparatus, comprising: a liquid discharge surface having a plurality of liquid discharge ports ; and a control unit configured to generate a drive waveform and control discharge of liquid from the plurality of liquid discharge ports based on the drive waveform, wherein the control unit includes a plurality of droplet-count distribution tables in which information on a number of times of droplets to be discharged from each one of the plurality of liquid discharge ports is set, and wherein the control unit is configured to form the drive waveform based on image data and by using a droplet-count distribution table selected from the plurality of droplet-count distribution tables based on information on a use environment of the plurality of liquid discharge ports acquired before starting a discharge operation of the liquid. a liquid discharge surface having a plurality of liquid discharge ports ; and a control unit configured to generate a drive waveform and control discharge of liquid from the plurality of liquid discharge ports based on the drive waveform, wherein the control unit includes a plurality of droplet-count distribution tables in which information on a number of times of droplets to be discharged from each one of the plurality of liquid discharge ports is set, and wherein the control unit is configured to form the drive waveform based on image data and by using a droplet-count distribution table selected from the plurality of droplet-count distribution tables based on information on a use environment of the plurality of liquid discharge ports acquired before starting a discharge operation of the liquid.
An apparatus of an enhanced Node B, eNB, configured for operating in a time division duplex, TDD, network, the apparatus comprising: a memory ; and processing circuitry for dynamically adjusting an uplink/downlink, UL/DL, subframe configuration for at least one user equipment, UE, , characterized by : means for decoding a load indication and a first UL/DL subframe configuration received from a neighboring eNB; means for adapting a second UL/DL subframe configuration for the at least one UE, responsive to the received load indication and first UL/DL subframe configuration; means for encoding the adapted second UL/DL subframe configuration in downlink control information, DCI, of a physical downlink control channel, PDCCH; means for masking a cyclic redundancy check, CRC, for the PDCCH with a radio network temporary identifier, RNTI reserved for signaling UL/DL subframe configurations; and means for encoding the PDCCH for transmission to the at least one UE , wherein the memory is configured to store the adapted second UL/DL subframe configuration. a memory ; and processing circuitry for dynamically adjusting an uplink/downlink, UL/DL, subframe configuration for at least one user equipment, UE, , characterized by : means for decoding a load indication and a first UL/DL subframe configuration received from a neighboring eNB; means for adapting a second UL/DL subframe configuration for the at least one UE, responsive to the received load indication and first UL/DL subframe configuration; means for encoding the adapted second UL/DL subframe configuration in downlink control information, DCI, of a physical downlink control channel, PDCCH; means for masking a cyclic redundancy check, CRC, for the PDCCH with a radio network temporary identifier, RNTI reserved for signaling UL/DL subframe configurations; and means for encoding the PDCCH for transmission to the at least one UE , wherein the memory is configured to store the adapted second UL/DL subframe configuration. means for decoding a load indication and a first UL/DL subframe configuration received from a neighboring eNB; means for adapting a second UL/DL subframe configuration for the at least one UE, responsive to the received load indication and first UL/DL subframe configuration; means for encoding the adapted second UL/DL subframe configuration in downlink control information, DCI, of a physical downlink control channel, PDCCH; means for masking a cyclic redundancy check, CRC, for the PDCCH with a radio network temporary identifier, RNTI reserved for signaling UL/DL subframe configurations; and means for encoding the PDCCH for transmission to the at least one UE , wherein the memory is configured to store the adapted second UL/DL subframe configuration.
A cavity filter comprising: an RF signal connector configured to be spaced apart at a predetermined distance from an external member having an electrode pad on one surface thereof; a terminal section configured to electrically connect the electrode pad of the external member to the RF signal connector and to absorb an assembly tolerance existing at the predetermined distance while preventing an interruption of electrical flow between the electrode pad and the RF signal connector, a filter body having the RF signal connector therein; a terminal insertion port formed in the filter body ; a dielectric body inserted into the terminal insertion port to surround the terminal section , wherein the terminal section is inserted into the terminal insertion port through the dielectric body ; and and an elastic member in the form of a disk having an edge whose portion is supported by the dielectric body , the elastic member being configured to elastically support the terminal section by means of an operation in which a hollow portion of the elastic member is vertically deformed relative to the portion of the edge when an assembly force is applied to the terminal section supported to pass through the hollow portion, wherein the terminal section comprises: one terminal configured to come into contact with the electrode pad; and another terminal connected to the RF signal connector. an RF signal connector configured to be spaced apart at a predetermined distance from an external member having an electrode pad on one surface thereof; a terminal section configured to electrically connect the electrode pad of the external member to the RF signal connector and to absorb an assembly tolerance existing at the predetermined distance while preventing an interruption of electrical flow between the electrode pad and the RF signal connector, a filter body having the RF signal connector therein; a terminal insertion port formed in the filter body ; a dielectric body inserted into the terminal insertion port to surround the terminal section , wherein the terminal section is inserted into the terminal insertion port through the dielectric body ; and and an elastic member in the form of a disk having an edge whose portion is supported by the dielectric body , the elastic member being configured to elastically support the terminal section by means of an operation in which a hollow portion of the elastic member is vertically deformed relative to the portion of the edge when an assembly force is applied to the terminal section supported to pass through the hollow portion, wherein the terminal section comprises: one terminal configured to come into contact with the electrode pad; and another terminal connected to the RF signal connector. one terminal configured to come into contact with the electrode pad; and another terminal connected to the RF signal connector.
A lubricant application device , comprising: a rotatable applicator to apply a lubricant from a solid lubricant source to a rotating member ; a support member to support the solid lubricant source in contact with the rotatable applicator, a near-end detection member coupled to the support member to contact the rotatable applicator after a first amount of the solid lubricant source has been consumed; and an end detection member coupled to the support member to contact the rotatable applicator after a second amount of the solid lubricant source has been consumed. a rotatable applicator to apply a lubricant from a solid lubricant source to a rotating member ; a support member to support the solid lubricant source in contact with the rotatable applicator, a near-end detection member coupled to the support member to contact the rotatable applicator after a first amount of the solid lubricant source has been consumed; and an end detection member coupled to the support member to contact the rotatable applicator after a second amount of the solid lubricant source has been consumed.
A medical device for measuring blood pressure, comprising: an elongated shaft having a proximal region and a distal region , wherein the distal region has a distal inner diameter, wherein the proximal region has a proximal inner diameter, and wherein the distal inner diameter is greater than the proximal inner diameter; an optical fiber extending along the proximal region ; an optical pressure sensor coupled to the optical fiber , the optical pressure sensor being disposed along the distal region ; an attachment member that attaches the optical fiber to the elongated shaft ; and a centering member (160; 260; 360) coupled to the optical fiber and positioned adjacent to the optical pressure sensor , wherein the centering member (160; 260; 360) is disposed within the shaft along the distal region . an elongated shaft having a proximal region and a distal region , wherein the distal region has a distal inner diameter, wherein the proximal region has a proximal inner diameter, and wherein the distal inner diameter is greater than the proximal inner diameter; an optical fiber extending along the proximal region ; an optical pressure sensor coupled to the optical fiber , the optical pressure sensor being disposed along the distal region ; an attachment member that attaches the optical fiber to the elongated shaft ; and a centering member (160; 260; 360) coupled to the optical fiber and positioned adjacent to the optical pressure sensor , wherein the centering member (160; 260; 360) is disposed within the shaft along the distal region .
A method for calculating a pellet-cladding interaction PCI margin associated with a loading pattern of a nuclear reactor comprising a core in which fuel assemblies are loaded according to the loading pattern, the fuel assemblies comprising fuel rods each including nuclear fuel pellets and a cladding surrounding the pellets , the method being implemented by an electronic system and comprising the following steps: - b) calculating a reference principal PCI margin for a reference loading pattern of the fuel assemblies in the core , - c) calculating a reference secondary PCI margin for the reference pattern, - d) calculating a modified secondary PCI margin for a modified loading pattern of the fuel assemblies in the core , - e) calculating a modified principal PCI margin for the modified pattern, depending on a comparison of the modified secondary PCI margin with the reference secondary PCI margin. - b) calculating a reference principal PCI margin for a reference loading pattern of the fuel assemblies in the core , - c) calculating a reference secondary PCI margin for the reference pattern, - d) calculating a modified secondary PCI margin for a modified loading pattern of the fuel assemblies in the core , - e) calculating a modified principal PCI margin for the modified pattern, depending on a comparison of the modified secondary PCI margin with the reference secondary PCI margin.
Representation element having a substrate with a surface region in which a plurality of optical elements are arranged, wherein the representation element is designed and intended to generate, when illuminated with parallel light from a light source , a light spot image from a plurality of light spots , which appear for an observer to be floating above or below the surface region and which are arranged in the form of a predetermined motif, wherein the light spots are real images or virtual images of the illuminating light source , wherein the optical elements are made up of refractive and/or reflective optical elements and each light spot of the light spot image is assigned a plurality of refractive and/or reflective optical elements which in the case of illumination of the representation element contribute to the generation of the light spot assigned thereto, wherein f/d < 5 for the light spots and the assigned optical elements in each case, wherein f denotes the floating height of the light spot above or below the surface region, which corresponds to the focal length of the optical elements contributing to this light spot, and d denotes the diameter of the optical elements contributing to this light spot , wherein the light spots of the light spot image all float in regions at the same floating height above or below the surface region and above or below the representation element to form a backdrop motif.