mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle control device connected to first and second computing units which control an operation of a vehicle, the vehicle control device comprising: a monitoring unit which monitors an operation in which, when the first computing unit fails, the second computing unit performs substitution of a control computation to be executed by the first computing unit in place of the first computing unit; and characterized by : a determination unit which determines whether the second computing unit has succeeded in the substitution based on a monitoring result by the monitoring unit the monitoring unit monitors the operation of the substitution based on whether a difference between a computing result output by the first computing unit and a computing result output by the second computing unit is within a determination threshold value, and the monitoring unit uses, as the determination threshold value, an amount by which the computing result output by the first computing unit changes or an amount obtained by multiplying the amount by a predetermined coefficient, during a period from a time when the first computing unit fails to elapse of an estimated required time estimated to be necessary for the second computing unit to start the substitution. a determination unit which determines whether the second computing unit has succeeded in the substitution based on a monitoring result by the monitoring unit the monitoring unit monitors the operation of the substitution based on whether a difference between a computing result output by the first computing unit and a computing result output by the second computing unit is within a determination threshold value, and the monitoring unit uses, as the determination threshold value, an amount by which the computing result output by the first computing unit changes or an amount obtained by multiplying the amount by a predetermined coefficient, during a period from a time when the first computing unit fails to elapse of an estimated required time estimated to be necessary for the second computing unit to start the substitution.
A system comprising: a broadband light source that generates a light beam ; a stage configured to hold a workpiece ; a microlens array positioned in a path of the light beam, wherein the microlens array focuses the light beam to a plurality of points in a focal plane of the microlens array, and wherein the microlens array is configured as a spatial filter for the light beam that is reflected from the workpiece on the stage thereby only passing the light beam that is in focus at the workpiece on the stage; a tunable color filter positioned in the path of the light beam, wherein the tunable color filter is configured to narrow the light beam to a band at a central wavelength and to sweep a narrow band from a low wavelength to a high wavelength; a lens system positioned to image the plurality of points onto the workpiece using the light beam, wherein the lens system is configured to provide longitudinal chromatic aberration whereby different wavelengths are imaged at different distances from the lens system; a detector positioned to receive the light beam from the workpiece on the stage, wherein the light beam reflected from the workpiece on the stage is directed through the microlens array before being received by the detector; and a processor in electronic communication with the tunable color filter and the detector, wherein the processor is configured to determine 3D measurements of features on the workpiece, wherein the processor is configured to skip parts of the workpiece by changing the color of the tunable color filter. a broadband light source that generates a light beam ; a stage configured to hold a workpiece ; a microlens array positioned in a path of the light beam, wherein the microlens array focuses the light beam to a plurality of points in a focal plane of the microlens array, and wherein the microlens array is configured as a spatial filter for the light beam that is reflected from the workpiece on the stage thereby only passing the light beam that is in focus at the workpiece on the stage; a tunable color filter positioned in the path of the light beam, wherein the tunable color filter is configured to narrow the light beam to a band at a central wavelength and to sweep a narrow band from a low wavelength to a high wavelength; a lens system positioned to image the plurality of points onto the workpiece using the light beam, wherein the lens system is configured to provide longitudinal chromatic aberration whereby different wavelengths are imaged at different distances from the lens system; a detector positioned to receive the light beam from the workpiece on the stage, wherein the light beam reflected from the workpiece on the stage is directed through the microlens array before being received by the detector; and a processor in electronic communication with the tunable color filter and the detector, wherein the processor is configured to determine 3D measurements of features on the workpiece, wherein the processor is configured to skip parts of the workpiece by changing the color of the tunable color filter.
A Controller Area Network, CAN, transceiver comprising: a receiver arrangement for coupling to a CAN bus , the receiver arrangement configured to determine a differential signal from analog signalling received from the CAN bus; and a receive output for coupling to a CAN controller and wherein the receiver arrangement is configured to provide a digital output signal to the receive output based on the differential signal; characterized in that the receiver arrangement is configured to operate in at least a first mode in which: the receiver arrangement is configured to: provide the digital output signal comprising logic 0 when the differential signal is greater than a first receiver threshold; and provide the digital output signal comprising logic 1 when the differential signal is less than said first receiver threshold unless said differential signal satisfies a condition, whereupon the receiver arrangement is configured to provide the digital output signal comprising logic 0, wherein the condition at least comprises the differential signal being below an activity-voltage threshold , wherein the activity-voltage threshold is below the first receiver threshold . a receiver arrangement for coupling to a CAN bus , the receiver arrangement configured to determine a differential signal from analog signalling received from the CAN bus; and a receive output for coupling to a CAN controller and wherein the receiver arrangement is configured to provide a digital output signal to the receive output based on the differential signal; characterized in that the receiver arrangement is configured to operate in at least a first mode in which: the receiver arrangement is configured to: provide the digital output signal comprising logic 0 when the differential signal is greater than a first receiver threshold; and provide the digital output signal comprising logic 1 when the differential signal is less than said first receiver threshold unless said differential signal satisfies a condition, whereupon the receiver arrangement is configured to provide the digital output signal comprising logic 0, wherein the condition at least comprises the differential signal being below an activity-voltage threshold , wherein the activity-voltage threshold is below the first receiver threshold . provide the digital output signal comprising logic 0 when the differential signal is greater than a first receiver threshold; and provide the digital output signal comprising logic 1 when the differential signal is less than said first receiver threshold unless said differential signal satisfies a condition, whereupon the receiver arrangement is configured to provide the digital output signal comprising logic 0, wherein the condition at least comprises the differential signal being below an activity-voltage threshold , wherein the activity-voltage threshold is below the first receiver threshold .
An inspecting device for inspecting a semiconductor device or a photo device as an inspecting target , the device comprising: a light source for emitting pulsed light (LP11); a scan part for obliquely irradiating an inspecting target with said pulsed light (LP11), while changing an optical path of said pulsed light (LP11), to scan said inspecting target with said pulsed light (LP11); a detection part for detecting an electromagnetic wave (LT1) emitted non-coaxially with said pulsed light (LP11) from said inspecting target in accordance with the illumination with said pulsed light (LP11); and an image generation part for generating an image indicating electric field intensity distribution of said inspecting target based on an electric field intensity of an electromagnetic wave (LT1) detected by said detection part , characterized in that said image generation part is adapted to obtain fluctuations of data acquisition interval due to fluctuations in incidence angle of said pulsed light (LP11) on said inspecting target and to specify a position on said image which corresponds to an acquisition point of an electromagnetic wave intensity based on said fluctuations of data acquisition interval. a light source for emitting pulsed light (LP11); a scan part for obliquely irradiating an inspecting target with said pulsed light (LP11), while changing an optical path of said pulsed light (LP11), to scan said inspecting target with said pulsed light (LP11); a detection part for detecting an electromagnetic wave (LT1) emitted non-coaxially with said pulsed light (LP11) from said inspecting target in accordance with the illumination with said pulsed light (LP11); and an image generation part for generating an image indicating electric field intensity distribution of said inspecting target based on an electric field intensity of an electromagnetic wave (LT1) detected by said detection part , characterized in that said image generation part is adapted to obtain fluctuations of data acquisition interval due to fluctuations in incidence angle of said pulsed light (LP11) on said inspecting target and to specify a position on said image which corresponds to an acquisition point of an electromagnetic wave intensity based on said fluctuations of data acquisition interval.
A computer-implemented method for visualizing physiological data of a patient, the method comprising: storing in memory electroanatomic data representing electrical activity for a predetermined surface region of the patient; providing an interactive graphical representation of the predetermined surface region of the patient based on the stored electroanatomic data; receiving a user input that defines location data corresponding to a user-selected location; generating a graphical representation of the physiological data corresponding to a current location of a user interface pointing element relative to the graphical representation of the predetermined surface region of the patient, characterized by the received input corresponding to a user-selected location for at least one roving virtual electrode on the graphical representation of the predetermined surface region of the patient; and wherein the generated graphical representation of the physiological data is dynamically modified responsive to changes in the current location of the user interface pointing element to represent the physiological data for location of the roving virtual electrode as it moves, in response to a user input, with respect to the graphical representation of the predetermined surface region of the patient. storing in memory electroanatomic data representing electrical activity for a predetermined surface region of the patient; providing an interactive graphical representation of the predetermined surface region of the patient based on the stored electroanatomic data; receiving a user input that defines location data corresponding to a user-selected location; generating a graphical representation of the physiological data corresponding to a current location of a user interface pointing element relative to the graphical representation of the predetermined surface region of the patient, characterized by the received input corresponding to a user-selected location for at least one roving virtual electrode on the graphical representation of the predetermined surface region of the patient; and wherein the generated graphical representation of the physiological data is dynamically modified responsive to changes in the current location of the user interface pointing element to represent the physiological data for location of the roving virtual electrode as it moves, in response to a user input, with respect to the graphical representation of the predetermined surface region of the patient.
A terminal comprising: a transmission section configured to transmit a random access preamble in a first cell among a plurality of cells supporting different time intervals; a control section configured to determine Random Access Radio Network Temporary Identifier, RA-RNTI, used for reception of a response signal to the random access preamble, based on a number of a time interval in which the random access preamble was transmitted in the first cell; and a reception section configured to receive the response signal in a second cell. a transmission section configured to transmit a random access preamble in a first cell among a plurality of cells supporting different time intervals; a control section configured to determine Random Access Radio Network Temporary Identifier, RA-RNTI, used for reception of a response signal to the random access preamble, based on a number of a time interval in which the random access preamble was transmitted in the first cell; and a reception section configured to receive the response signal in a second cell.
Mobile device for taking a sample of a pressurised gas from a pipe, which device comprises, in a single housing : - a removable fastener of an inlet line to a branch of the pipe, - an expander of the gas passing through the inlet line, - at least one intermediate line configured to transfer the gas coming from the expander, - a means for measuring the flow rate of gas passing through at least one intermediate line, - a means for regulating the flow rate of gas passing through at least one intermediate line, and - a removable fastener of an outlet line , connected to at least one intermediate line, configured to be fixed to a sampler ; and at least one intermediate line comprises a flexible portion positioned upstream from the flow rate measurement means and from the flow rate regulation means , the device comprising: - a means for fixing a sampler to connect this sampler to a portion of the inflexible intermediate line connected to the expander, on one side, and the flexible portion, on the other side, characterised in that the device comprises, for positioning a variable-length sampler, a means for moving, along an axis of insertion of the sampler in the device, one end of the flexible portion configured to be fixed to the sampler at a position between two extreme positions corresponding to the desired minimum and maximum extension lengths for the flexible portion. - a removable fastener of an inlet line to a branch of the pipe, - an expander of the gas passing through the inlet line, - at least one intermediate line configured to transfer the gas coming from the expander, - a means for measuring the flow rate of gas passing through at least one intermediate line, - a means for regulating the flow rate of gas passing through at least one intermediate line, and - a removable fastener of an outlet line , connected to at least one intermediate line, configured to be fixed to a sampler ; and at least one intermediate line comprises a flexible portion positioned upstream from the flow rate measurement means and from the flow rate regulation means , the device comprising: - a means for fixing a sampler to connect this sampler to a portion of the inflexible intermediate line connected to the expander, on one side, and the flexible portion, on the other side, - a means for fixing a sampler to connect this sampler to a portion of the inflexible intermediate line connected to the expander, on one side, and the flexible portion, on the other side, characterised in that the device comprises, for positioning a variable-length sampler, a means for moving, along an axis of insertion of the sampler in the device, one end of the flexible portion configured to be fixed to the sampler at a position between two extreme positions corresponding to the desired minimum and maximum extension lengths for the flexible portion.
Medical sliding shaft instrument comprising a tool element carrier , a tubular sliding shaft surrounding the tool element carrier and defining a sliding direction , and an actuating device for moving the sliding shaft relative to the tool element carrier in the distal direction, wherein at least one tool element is arranged or movably mounted on the distal end of the tool element carrier , wherein the at least one tool element is arranged or formed so as to cooperate with a distal end region of the sliding shaft in such a way that the at least one tool element is moved as a result of a movement of the sliding shaft in the distal direction, wherein the sliding shaft instrument further comprises a locking device for blocking a movement of the sliding shaft relative to the tool element carrier in at least one advancing position, wherein the sliding shaft in the at least one advancing position is displaced in the distal direction in relation to a basic position in which the sliding shaft is displaced to a maximum extent in the proximal direction relative to the tool element carrier , wherein the locking device defines a release position in which the sliding shaft is displaceable, in particular in the proximal direction, relative to the tool element carrier , and a locking position in which a movement of the sliding shaft relative to the tool element carrier in the proximal and/or distal direction is blocked, wherein the locking device comprises at least one first locking element and at least one second locking element , which in the locking position are in forcelocking and/or positive-locking engagement and in the release position are out of engagement, characterized in that the at least one second locking element is arranged or formed on the sliding shaft and in that the at least one first locking element is transferable from the release position into the locking position by a movement toward the sliding shaft .
A thermal management system , comprising: a closed dynamic cooling circuit with a compressor , a heat rejection exchanger , and an expansion device ; and a closed first steady-state cooling circuit , wherein said circuit has its own compressor , heat rejection exchanger , and expansion device ; a thermal energy storage (TES) system configured to receive a dynamic thermal load and thermally couple the dynamic cooling circuit and the first steady-state cooling circuit ; the dynamic cooling circuit is configured to cool the TES system to fully absorb the dynamic thermal load received by the TES system ; and the first steady-state cooling circuit is configured to cool the TES system when there is no dynamic thermal load . a closed dynamic cooling circuit with a compressor , a heat rejection exchanger , and an expansion device ; and a closed first steady-state cooling circuit , wherein said circuit has its own compressor , heat rejection exchanger , and expansion device ; a thermal energy storage (TES) system configured to receive a dynamic thermal load and thermally couple the dynamic cooling circuit and the first steady-state cooling circuit ; the dynamic cooling circuit is configured to cool the TES system to fully absorb the dynamic thermal load received by the TES system ; and the first steady-state cooling circuit is configured to cool the TES system when there is no dynamic thermal load .
A method for configuring a search space, applied to a terminal device, wherein the method comprises: receiving a configuration signaling sent by a network device, wherein the configuration signaling is used for configuring at least one first search space for cross-carrier scheduling a second cell by a first cell, and the second cell is a self-scheduling cell; and detecting downlink control information in the at least one first search space, characterized in that the configuration signaling is further used for releasing at least one third search space, and the at least one third search space is used for cross-carrier scheduling the second cell by the first cell, or the at least one third search space is used for the second cell to schedule the second cell, wherein the at least one third search space belongs to a first releasing space group. receiving a configuration signaling sent by a network device, wherein the configuration signaling is used for configuring at least one first search space for cross-carrier scheduling a second cell by a first cell, and the second cell is a self-scheduling cell; and detecting downlink control information in the at least one first search space, characterized in that the configuration signaling is further used for releasing at least one third search space, and the at least one third search space is used for cross-carrier scheduling the second cell by the first cell, or the at least one third search space is used for the second cell to schedule the second cell, wherein the at least one third search space belongs to a first releasing space group.
A method of providing a fiber reinforced braze, the method comprising: providing a substrate comprising a superalloy, wherein the superalloy comprises at least one of a nickel-based superalloy, a cobalt-based superalloy and an iron-based superalloy; disposing at least a first fiber reinforcement layer on the substrate, wherein the at least first fiber reinforcement layer comprises a fiber material; disposing at least a first braze layer on the at least first fiber reinforcement layer, wherein a melt temperature of the braze layer is lower than a melt temperature of the fiber material; wherein at least one of the braze layers comprise a pre-sintered preform, the pre-sintered preform further comprising a base alloy and a second alloy that have been sintered together at a temperature below their melting points to form an agglomerate and somewhat porous mass, the second alloy containing a melting point depressant to enable bonding of the pre-sintered preform to the substrate at temperatures below the melting point of the substrate; and, heating the at least first fiber reinforcement layer and the at least first braze layer to bond the fiber reinforced braze to the substrate. providing a substrate comprising a superalloy, wherein the superalloy comprises at least one of a nickel-based superalloy, a cobalt-based superalloy and an iron-based superalloy; disposing at least a first fiber reinforcement layer on the substrate, wherein the at least first fiber reinforcement layer comprises a fiber material; disposing at least a first braze layer on the at least first fiber reinforcement layer, wherein a melt temperature of the braze layer is lower than a melt temperature of the fiber material; wherein at least one of the braze layers comprise a pre-sintered preform, the pre-sintered preform further comprising a base alloy and a second alloy that have been sintered together at a temperature below their melting points to form an agglomerate and somewhat porous mass, the second alloy containing a melting point depressant to enable bonding of the pre-sintered preform to the substrate at temperatures below the melting point of the substrate; and, heating the at least first fiber reinforcement layer and the at least first braze layer to bond the fiber reinforced braze to the substrate.