mhurhangee/patent-ind-claim-en huggingface dataset:
A system for tracking a substrate to be printed upon, the substrate translated on a pallet with a conveyance system , the conveyance system configured to translate the pallet through a print zone of a print head , the system comprising: an encoding sensor disposed proximate to the conveyance system , the encoding sensor configured to be oriented toward the pallet and to acquire positional information regarding the pallet ; wherein there is at least one processor operably coupled to the print head and the encoding sensor , the at least one processor configured to: receive the positional information from the encoding sensor ; determine timing information corresponding to when the substrate disposed on the pallet will be in the print zone ; and control the print head to print on the substrate when the substrate is in the print zone characterised in that the encoding sensor is disposed directly behind the pallet and substrate along a line of travel , and is oriented along the line of travel toward the pallet and substrate and that the encoding sensor comprises at least one of a laser interferometer or a laser velocimeter. an encoding sensor disposed proximate to the conveyance system , the encoding sensor configured to be oriented toward the pallet and to acquire positional information regarding the pallet ; wherein there is at least one processor operably coupled to the print head and the encoding sensor , the at least one processor configured to: receive the positional information from the encoding sensor ; determine timing information corresponding to when the substrate disposed on the pallet will be in the print zone ; and control the print head to print on the substrate when the substrate is in the print zone characterised in that the encoding sensor is disposed directly behind the pallet and substrate along a line of travel , and is oriented along the line of travel toward the pallet and substrate and that the encoding sensor comprises at least one of a laser interferometer or a laser velocimeter. receive the positional information from the encoding sensor ; determine timing information corresponding to when the substrate disposed on the pallet will be in the print zone ; and control the print head to print on the substrate when the substrate is in the print zone characterised in that the encoding sensor is disposed directly behind the pallet and substrate along a line of travel , and is oriented along the line of travel toward the pallet and substrate and that the encoding sensor comprises at least one of a laser interferometer or a laser velocimeter.
Method for controlling a wiper device by means of a control and/or regulating unit , wherein at least one operating parameter is set depending on at least one parameter that is different from a vehicle windscreen coverage parameter , and wherein the wiper device is protected against overloading with an overload protection means, wherein the overload protection is triggered in the event of a torque of the wiper device exceeding at least one maximum torque, wherein the at least one maximum torque is set depending on the at least one operating parameter, characterized in that the at least one operating parameter is set depending on at least one external temperature.
A method, comprising: training a job categorizer using learning data , comprising vibration sensor data and activity data from a plurality of preset activities of a robotic apparatus , to sort vibration sensor data into different groups which are associated with the different preset activities; receiving vibration sensor data from sensors associated with the robotic apparatus configured to perform an activity from a plurality of the preset activities; clustering the vibration sensor data to determine the activity the robotic apparatus is performing; executing a first anomaly calculation process on the vibration sensor data , the first anomaly calculation process configured to calculate anomalies from the vibration sensor data for the activity that the robotic apparatus is performing, the output involving a first set of first anomaly scores corresponding to each sample set in the vibration sensor data for a preset time window; and providing the first set of first anomaly scores to a second anomaly calculation process configured to detect anomalies across a batch of results from the first anomaly calculation process and across the plurality of activities, the second anomaly calculation process outputting a detection of anomaly or normal condition of the robotic apparatus . training a job categorizer using learning data , comprising vibration sensor data and activity data from a plurality of preset activities of a robotic apparatus , to sort vibration sensor data into different groups which are associated with the different preset activities; receiving vibration sensor data from sensors associated with the robotic apparatus configured to perform an activity from a plurality of the preset activities; clustering the vibration sensor data to determine the activity the robotic apparatus is performing; executing a first anomaly calculation process on the vibration sensor data , the first anomaly calculation process configured to calculate anomalies from the vibration sensor data for the activity that the robotic apparatus is performing, the output involving a first set of first anomaly scores corresponding to each sample set in the vibration sensor data for a preset time window; and providing the first set of first anomaly scores to a second anomaly calculation process configured to detect anomalies across a batch of results from the first anomaly calculation process and across the plurality of activities, the second anomaly calculation process outputting a detection of anomaly or normal condition of the robotic apparatus .
A system for optimizing neuromodulation therapy, the system comprising: a neuromodulation catheter including: an elongate shaft having a proximal portion and a distal portion , wherein the shaft is configured to locate the distal portion intravascularly at a treatment region within a blood vessel of a human patient; a neuromodulation assembly at the distal portion of the shaft; and at least one sensor , wherein the sensor is configured to transmit hemodynamic data regarding the blood vessel; a computing device having a memory and a processor , wherein the memory stores instructions that, when executed by the processor, cause the system to perform operations comprising: receiving digital data regarding three-dimensional imaging of the vessel; receiving hemodynamic data from the sensor; generating, at the processor, a computational fluid dynamics (CFD) model of the vessel based at least in part on the three-dimensional imaging data and the hemodynamic data; identifying target regions of the vessel suitable for neuromodulation therapy and avoidance regions of the vessel less suitable for neuromodulation therapy based on the CFD model; and displaying a representation of the vessel including visual markers indicating the avoidance regions. an elongate shaft having a proximal portion and a distal portion , wherein the shaft is configured to locate the distal portion intravascularly at a treatment region within a blood vessel of a human patient; a neuromodulation assembly at the distal portion of the shaft; and at least one sensor , wherein the sensor is configured to transmit hemodynamic data regarding the blood vessel; a computing device having a memory and a processor , wherein the memory stores instructions that, when executed by the processor, cause the system to perform operations comprising: receiving digital data regarding three-dimensional imaging of the vessel; receiving hemodynamic data from the sensor; generating, at the processor, a computational fluid dynamics (CFD) model of the vessel based at least in part on the three-dimensional imaging data and the hemodynamic data; identifying target regions of the vessel suitable for neuromodulation therapy and avoidance regions of the vessel less suitable for neuromodulation therapy based on the CFD model; and displaying a representation of the vessel including visual markers indicating the avoidance regions. receiving digital data regarding three-dimensional imaging of the vessel; receiving hemodynamic data from the sensor; generating, at the processor, a computational fluid dynamics (CFD) model of the vessel based at least in part on the three-dimensional imaging data and the hemodynamic data; identifying target regions of the vessel suitable for neuromodulation therapy and avoidance regions of the vessel less suitable for neuromodulation therapy based on the CFD model; and displaying a representation of the vessel including visual markers indicating the avoidance regions.
A single crystal silicon wafer comprising two major, parallel surfaces, one of which is a front surface and one of which is a back surface, a central plane between the front surface and the back surface, a circumferential edge joining the front surface and the back surface, a front surface layer having a depth, D, measured from the front surface and toward the central plane, and a bulk region being between the front surface layer and the central plane, wherein: the single crystal silicon wafer has a thickness between about 500 micrometers and about 1000 micrometers; the bulk region comprises oxygen precipitates having a size of at least 20 nanometers at a density of at least about 1×10 8 cm -3 and a peak density of oxygen precipitates of at least about 1×10 9 cm -3 , wherein the peak density is between 10 micrometers and about 100 micrometers from the front surface of the single crystal silicon wafer; the front surface layer comprises oxygen precipitates having a size of at least 20 nanometers at a density of less than about 1×10 7 cm -3 , wherein the depth, D, of the front surface layer is between about 1 micrometer and 10 micrometers; and the front surface has no gate oxide integrity pattern related crystal defect bands. the single crystal silicon wafer has a thickness between about 500 micrometers and about 1000 micrometers; the bulk region comprises oxygen precipitates having a size of at least 20 nanometers at a density of at least about 1×10 8 cm -3 and a peak density of oxygen precipitates of at least about 1×10 9 cm -3 , wherein the peak density is between 10 micrometers and about 100 micrometers from the front surface of the single crystal silicon wafer; the front surface layer comprises oxygen precipitates having a size of at least 20 nanometers at a density of less than about 1×10 7 cm -3 , wherein the depth, D, of the front surface layer is between about 1 micrometer and 10 micrometers; and the front surface has no gate oxide integrity pattern related crystal defect bands.
A method for grinding a metal annular member, comprising a step of grinding a circumferential surface of a metal annular processed object using a rotating grindstone while measuring a dimension in a radial direction of the processed object in process, the grinding comprising a rough grinding, a finish grinding, and a spark out in order, characterized in that a first threshold value (v 1 ) for the rate of change of the dimension (D) in the radial direction of the processed object is determined for each of a plurality of different preset target values (D i ) for the dimension (D) in the radial direction of the processed object , and when the dimension (D) in the radial direction of the processed object becomes one target value of the plurality of different preset target values (D i ), the spark out starts under a condition that an absolute value (|v|) of the rate of change of the dimension (D) in the radial direction of the processed object becomes greater than the first threshold value (v 1 ) that corresponds to the one target value.
A motor controller comprising: a main controller ; and a motor control unit configured to be capable of communicating with the main controller to drive a motor (M) according to a drive command output (T 1ref , ..., T nref ) from the main controller, wherein the motor control unit includes a deceleration controller for outputting a drive command (T0 ref ) based on a zero speed command (S0 ref ), so as to decelerate the motor (M), if any failure occurs in communication with the main controller while the motor (M) is being driven, wherein the motor control unit further includes: a communication failure detector for detecting a failure in communication with the main controller ; and a command selector for selecting a drive command (T 1ref , ..., T nref ) output from the main controller as a drive command for the motor (M) if any communication failure is not detected by the communication failure detector , and selecting a drive command (T0 ref ) output from the deceleration controller as a drive command for the motor (M) based on a zero speed command (S0 ref ) if a communication failure is detected by the communication failure detector . a main controller ; and a motor control unit configured to be capable of communicating with the main controller to drive a motor (M) according to a drive command output (T 1ref , ..., T nref ) from the main controller, wherein the motor control unit includes a deceleration controller for outputting a drive command (T0 ref ) based on a zero speed command (S0 ref ), so as to decelerate the motor (M), if any failure occurs in communication with the main controller while the motor (M) is being driven, wherein the motor control unit further includes: a communication failure detector for detecting a failure in communication with the main controller ; and a command selector for selecting a drive command (T 1ref , ..., T nref ) output from the main controller as a drive command for the motor (M) if any communication failure is not detected by the communication failure detector , and selecting a drive command (T0 ref ) output from the deceleration controller as a drive command for the motor (M) based on a zero speed command (S0 ref ) if a communication failure is detected by the communication failure detector . a communication failure detector for detecting a failure in communication with the main controller ; and a command selector for selecting a drive command (T 1ref , ..., T nref ) output from the main controller as a drive command for the motor (M) if any communication failure is not detected by the communication failure detector , and selecting a drive command (T0 ref ) output from the deceleration controller as a drive command for the motor (M) based on a zero speed command (S0 ref ) if a communication failure is detected by the communication failure detector .
A non-transitory machine-readable storage medium storing instructions that upon execution cause an electronic device to: receive a configuration setting that is configurable to a first setting to indicate a first mode of operation, and a second setting to indicate a second mode of operation, wherein a feature supported by the first mode of operation is disabled in the second mode of operation; and configure a dock to which the electronic device is connected to operate according to a mode indicated by the configuration setting, characterised in that configuring the dock to the first mode allows for remote management of the electronic device over a network from a remote device, the remote management of the electronic device over the network from the remote device comprising the remote device remotely powering up or down the electronic device or the remote device booting the electronic device, and wherein configuring the dock to the second mode disables the remote management of the electronic device over the network. receive a configuration setting that is configurable to a first setting to indicate a first mode of operation, and a second setting to indicate a second mode of operation, wherein a feature supported by the first mode of operation is disabled in the second mode of operation; and configure a dock to which the electronic device is connected to operate according to a mode indicated by the configuration setting, characterised in that configuring the dock to the first mode allows for remote management of the electronic device over a network from a remote device, the remote management of the electronic device over the network from the remote device comprising the remote device remotely powering up or down the electronic device or the remote device booting the electronic device, and wherein configuring the dock to the second mode disables the remote management of the electronic device over the network.
Advanced driver-assistance method for assisting with driving a motor vehicle comprising an assistance system for controlling the front wheels and rear wheels and means for measuring the spatial position and movement of the vehicle, wherein a steering angle ( δ ref ) of front steered wheels of the vehicle is computed so as to keep the vehicle in a traffic lane based on a dynamic model of the vehicle, characterized in that the method comprises a correction due to steering of the rear wheels comprising the following successive steps: - a step of taking measurements of driving parameters comprising a measurement of the steering angle ( δ r ) of the rear wheels, - a step of determining transverse correction gain factors (K) off-line depending on driving safety criteria and on driver comfort criteria and that regard angle of friction, yaw rate, angle of relative heading and transverse deviation, - a step of determining a correction ( δ 4 RD ) of the steering angle of the front wheels due to steering of the rear wheels (δ r ), the correction being determined with the measurement of the steering angle of the rear wheels and steering correction factors (K) of the front wheels generated in the preceding step, characterized in that the correction ( δ 4 RD ) is dependent on the value of a slip holding gain ( K β ), and/or a heading holding gain ( K ψ L ). - a step of taking measurements of driving parameters comprising a measurement of the steering angle ( δ r ) of the rear wheels, - a step of determining transverse correction gain factors (K) off-line depending on driving safety criteria and on driver comfort criteria and that regard angle of friction, yaw rate, angle of relative heading and transverse deviation, - a step of determining a correction ( δ 4 RD ) of the steering angle of the front wheels due to steering of the rear wheels (δ r ), the correction being determined with the measurement of the steering angle of the rear wheels and steering correction factors (K) of the front wheels generated in the preceding step, characterized in that the correction ( δ 4 RD ) is dependent on the value of a slip holding gain ( K β ), and/or a heading holding gain ( K ψ L ).
A device for driving an elongated construction element , such as a pile, a tubular post, a profiled beam, or a sheet pile segment, into a ground layer and/or for pulling the elongated construction element from the ground layer, wherein the device comprises at least two actuators and a base with an aperture and a clamping device ; wherein each of the actuators is fixedly mounted onto the base and wherein the actuators are arranged around the aperture on the base ; wherein the aperture defines a passageway that extends along the axial direction (Z) through the base and terminates on two axially opposite sides of the base, wherein the aperture is adapted to receive a part of the elongated construction element such that the construction element extends substantially along the axial direction through the base; and wherein the clamping member is arranged on or around the aperture, and is adapted for temporarily fixing and preventing translation of the construction element in the axial direction relative to the base, characterized in that the device is configured to use a plurality of elongated auxiliary elements that are placed in the ground layer for generating reactive forces and in that each of the actuators is provided with a coupling member for releasably coupling the actuator with a respective auxiliary element and for exerting, along an axial direction (Z) and relative to the base, both vertical pushing forces on the auxiliary element for driving the respective auxiliary element deeper into the ground and vertical pulling forces on the auxiliary element for pulling the respective auxiliary element from the ground.
A method comprising: determining, by a computing device, a first filter to determine a first up-sampled value for a first layer for a video, wherein the first filter has a first set of coefficient values of [-1, 3, - 9, 47, 31, -10, 4, -1] assigned to the first filter; determining, by the computing device, the first up-sampled value by applying the first set of coefficient values of [-1, 3, -9, 47, 31, -10, 4, -1] to a plurality of sample values; outputting, by the computing device, the first up-sampled value for use in coding a second layer of a higher resolution than the first layer, determining, by the computing device, a second filter, wherein the second filter has a second set of coefficient values of [-1, 4, -10, 31, 47, -9, 3, -1] assigned for the second filter; determining, by the computing device, a second up-sampled value by applying the second set of coefficient values of [-1, 4, -10, 31, 47, -9, 3, -1] to the plurality of sample values; and outputting, by the computing device, the second up-sampled value for use in coding the second layer of the higher resolution than the first layer, wherein the first and second filters are luma filters having 1/16 resolution, the first filter having a phase offset of 6/16, and the second filter having a phase offset of -6/16. determining, by a computing device, a first filter to determine a first up-sampled value for a first layer for a video, wherein the first filter has a first set of coefficient values of [-1, 3, - 9, 47, 31, -10, 4, -1] assigned to the first filter; determining, by the computing device, the first up-sampled value by applying the first set of coefficient values of [-1, 3, -9, 47, 31, -10, 4, -1] to a plurality of sample values; outputting, by the computing device, the first up-sampled value for use in coding a second layer of a higher resolution than the first layer, determining, by the computing device, a second filter, wherein the second filter has a second set of coefficient values of [-1, 4, -10, 31, 47, -9, 3, -1] assigned for the second filter; determining, by the computing device, a second up-sampled value by applying the second set of coefficient values of [-1, 4, -10, 31, 47, -9, 3, -1] to the plurality of sample values; and outputting, by the computing device, the second up-sampled value for use in coding the second layer of the higher resolution than the first layer, wherein the first and second filters are luma filters having 1/16 resolution, the first filter having a phase offset of 6/16, and the second filter having a phase offset of -6/16.
Refrigerant compressor comprising a hermetically sealable compressor housing and a compressor-motor unit disposed in a housing interior of the compressor housing , which is elastically mounted on an inner side of the compressor housing via at least one spring element , wherein at least one damping element made of an elastomer is provided in order to dampen the transmission of vibrations caused by the compressor-motor unit to the compressor housing , wherein the at least one damping element is disposed between the at least one spring element and the inner side of the compressor housing or between the at least one spring element and the compressor-motor unit , wherein the at least one damping element is made of an elastomer that is softer than polyamide (PA), polybutylene terephthalate (PBT), and ethylene chlorotrifluoroethylene (ECTFE), wherein the Shore A hardness of the damping element has a value between 40 and 80, characterized in that the at least one damping element is made of a composite material comprising a fluoroelastomer, hydrogenated acrylonitrile butadiene rubber and/or ethylene acrylate rubber.