mhurhangee/ep-ind-claims huggingface dataset:
A method of making a camera, the method comprising: assembling a plurality of lens elements, a sensor, and a housing to establish an assembly with each of the lens elements and the sensor at least partially in the housing; situating the assembly adjacent a circuit board substrate; and securing at least the sensor to the circuit board substrate using surface mount technology, wherein the assembly is fixed relative to the circuit board substrate by the securing; providing a ball grid array on a side of the sensor; performing the situating by situating the ball grid array adjacent a soldering paste on the circuit board substrate; and performing the securing using reflow soldering; characterized in that the method further comprising: determining a performance of the camera at an elevated temperature during the securing. assembling a plurality of lens elements, a sensor, and a housing to establish an assembly with each of the lens elements and the sensor at least partially in the housing; situating the assembly adjacent a circuit board substrate; and securing at least the sensor to the circuit board substrate using surface mount technology, wherein the assembly is fixed relative to the circuit board substrate by the securing; providing a ball grid array on a side of the sensor; performing the situating by situating the ball grid array adjacent a soldering paste on the circuit board substrate; and performing the securing using reflow soldering; characterized in that the method further comprising: determining a performance of the camera at an elevated temperature during the securing.
A method of detecting the presence of an insult within an absorbent article, said method comprising: monitoring an electrical resistance of the article as the article is being worn by a wearer wherein the electrical resistance changes in response to an insult; wherein monitoring an electrical resistance comprises measuring a resistance value between two conductors (C1, C2); characterised in that the method comprises: determining a slope of the electrical resistance or of a value that is a function of the electrical resistance over time; and comparing the slope to a threshold value to determine the presence of an insult; and wherein the article has a zone with lower levels of an absorbent material in contact with the two conductors. monitoring an electrical resistance of the article as the article is being worn by a wearer wherein the electrical resistance changes in response to an insult; determining a slope of the electrical resistance or of a value that is a function of the electrical resistance over time; and comparing the slope to a threshold value to determine the presence of an insult; and
A method for synchronizing a signaling message transmitted over multi-cell MCCH, MBMS Control Channel, comprising: transmitting, by a gateway, the signaling message carried with activation time information to a base station (eNB) via a MCE, MBMS Control Entity, or transmitting, by a MCE, the signaling message carried with activation time information directly to a base station (eNB); and making, by the base station (eNB), the signaling message take effect synchronously based on the activation time information contained in the signaling message.
A ligand-SIFA-chelator conjugate, comprising, within a single molecule three separate moieties: (a) one or more ligands which are capable of binding to PSMA; (b) a silicon-fluoride acceptor (SIFA) moiety which comprises a covalent bond between a silicon and a 18 F fluorine atom; (c) one or more chelating groups, containing a chelated nonradioactive metal cation; and, wherein the ligand-SIFA-chelator conjugate is a compound of formula and M 3+ is the chelated nonradioactive cation (a) one or more ligands which are capable of binding to PSMA; (b) a silicon-fluoride acceptor (SIFA) moiety which comprises a covalent bond between a silicon and a 18 F fluorine atom; (c) one or more chelating groups, containing a chelated nonradioactive metal cation; and, wherein the ligand-SIFA-chelator conjugate is a compound of formula
An oil separator comprising: an oil separator main body that is formed with a gas flow path between a gas introduction port that introduces blow-by gas and a gas discharge port that discharges the blow-by gas; a flap that is provided extending along a direction orthogonal to the gas flow path, that opens and closes the gas flow path, and that includes a circular shaped valve section including a straight line portion of a straight line shape at a portion of an outer periphery of the valve section; and a first impact wall for capturing oil, that is provided along the outer periphery of the valve section at a downstream side of the valve section in the gas flow path, that includes a straight line portion of a straight line shape along the straight line portion of the valve section, and that is impacted by the blow-by gas flowing out from a peripheral edge of the valve section. an oil separator main body that is formed with a gas flow path between a gas introduction port that introduces blow-by gas and a gas discharge port that discharges the blow-by gas; a flap that is provided extending along a direction orthogonal to the gas flow path, that opens and closes the gas flow path, and that includes a circular shaped valve section including a straight line portion of a straight line shape at a portion of an outer periphery of the valve section; and a first impact wall for capturing oil, that is provided along the outer periphery of the valve section at a downstream side of the valve section in the gas flow path, that includes a straight line portion of a straight line shape along the straight line portion of the valve section, and that is impacted by the blow-by gas flowing out from a peripheral edge of the valve section.
A method for adjusting the response curve of a hybrid hearing prosthesis system, the system including at least a filter bank (10, 20), a processor (11, 21), an acoustic stimulator, an electrical stimulator and an electrode array, the filter bank (10,20) operatively providing output channel signals corresponding to amplitude in predefined channels (30, 40), and the processor (10, 20) operatively applying input/output parameters to the output channel signals to produce acoustic stimuli, the method including: for each channel for which acoustic stimulation is contemplated, providing an acoustic stimulus at a known level; determining the evoked neural response to each stimulus using the implanted electrode array; compiling the sum of evoked neural responses across multiple channels to produce a response curve, and comparing the response curve to a predetermined response curve; and adjusting one or more selected input/output parameters of one or more channels, so that the adjusted response curve best matches the predetermined response curve. for each channel for which acoustic stimulation is contemplated, providing an acoustic stimulus at a known level; determining the evoked neural response to each stimulus using the implanted electrode array; compiling the sum of evoked neural responses across multiple channels to produce a response curve, and comparing the response curve to a predetermined response curve; and adjusting one or more selected input/output parameters of one or more channels, so that the adjusted response curve best matches the predetermined response curve.
A computer-implemented method for generating a sequence of commands for replicating data on a source storage system to a destination storage system; and wherein the source and destination storage system support a first and a second remote file access protocol, the method comprising: - scanning (101, 102) a directory of the source storage system for file system objects by the first and second remote file access protocol thereby obtaining a respective first and second representation of the file system objects; and - generating the sequence of commands based on the first and second representation and based on a predetermined rule set comprising rules for generating a command for replicating a file system object depending on a difference in representation of file system objects by the first and second remote file access protocol. - scanning (101, 102) a directory of the source storage system for file system objects by the first and second remote file access protocol thereby obtaining a respective first and second representation of the file system objects; and - generating the sequence of commands based on the first and second representation and based on a predetermined rule set comprising rules for generating a command for replicating a file system object depending on a difference in representation of file system objects by the first and second remote file access protocol.
A superconducting reciprocal quantum logic, RQL, cell circuit (800, 900) comprising: a decision loop comprising: a magnetic Josephson junction, MJJ, configured to set a digital state as one of a first logic state and a second logic state based on write signals provided on write inputs; a secondary inductor of a selection input transformer (802, 902) through which an RQL-compliant read selection signal is provided to the decision loop from a read selection Josephson transmission line, JTL (806, 906); and an escape Josephson junction, JJ, (JJ ESC) configured to trigger or not to trigger so as to block an RQL-compliant read data signal from propagating to an output JTL (JTL 1) or to act as a superconducting short to pass the read data signal to the output JTL (JTL 1), respectively, based on bias conditions established by the digital state and the read selection signal, wherein the decision loop is configured to store the digital state and to readout an RQL-compliant logical output signal as the logical AND of the read data signal and the logical inversion of the logical AND of the digital state and the read selection signal. a decision loop comprising: a magnetic Josephson junction, MJJ, configured to set a digital state as one of a first logic state and a second logic state based on write signals provided on write inputs; a secondary inductor of a selection input transformer (802, 902) through which an RQL-compliant read selection signal is provided to the decision loop from a read selection Josephson transmission line, JTL (806, 906); and an escape Josephson junction, JJ, (JJ ESC) configured to trigger or not to trigger so as to block an RQL-compliant read data signal from propagating to an output JTL (JTL 1) or to act as a superconducting short to pass the read data signal to the output JTL (JTL 1), respectively, based on bias conditions established by the digital state and the read selection signal, a magnetic Josephson junction, MJJ, configured to set a digital state as one of a first logic state and a second logic state based on write signals provided on write inputs; a secondary inductor of a selection input transformer (802, 902) through which an RQL-compliant read selection signal is provided to the decision loop from a read selection Josephson transmission line, JTL (806, 906); and an escape Josephson junction, JJ, (JJ ESC) configured to trigger or not to trigger so as to block an RQL-compliant read data signal from propagating to an output JTL (JTL 1) or to act as a superconducting short to pass the read data signal to the output JTL (JTL 1), respectively, based on bias conditions established by the digital state and the read selection signal, wherein the decision loop is configured to store the digital state and to readout an RQL-compliant logical output signal as the logical AND of the read data signal and the logical inversion of the logical AND of the digital state and the read selection signal.
An improper fuel nozzle insertion-inhibiting assembly (22, 30, 200, 300, 400, 501, 600) configured to prevent an improper fuel-dispensing device from dispensing fuel into a fuel fill line of a vehicle, the improper fuel nozzle insertion-inhibiting assembly comprising: a cover (34, 252, 320, 404, 500, 604) including a nozzle inlet barrier door (44, 220, 306, 410, 608) pivotally secured to the cover (34, 252, 320, 404, 500, 604), and a main body (58, 242, 326, 406, 502, 606) secured to the cover (34, 252, 320, 404, 500, 604) and configured to connect to a fuel fill pipe (402, 504, 602), wherein the main body (58, 242, 326, 406, 502, 606) includes a nozzle outlet barrier door (100, 222, 308, 412, 610) pivotally secured to the main body (58, 242, 326, 406, 502, 606), characterized in that the cover (34, 252, 320, 404, 500, 604) includes a safety-release groove that is configured to separate the cover (34, 252, 320, 404, 500, 604) into separate pieces upon exertion of sufficient force, and further comprises a debris filter secured to one or both of the cover (34, 252, 320, 404, 500, 604) and the main body (58, 242, 326, 406, 502, 606), wherein the debris filter is configured to prevent debris from passing into an internal chamber defined by one or both of the cover (34, 252, 320, 404, 500, 604) and the main body (58, 242, 326, 406, 502, 606). a cover (34, 252, 320, 404, 500, 604) including a nozzle inlet barrier door (44, 220, 306, 410, 608) pivotally secured to the cover (34, 252, 320, 404, 500, 604), and a main body (58, 242, 326, 406, 502, 606) secured to the cover (34, 252, 320, 404, 500, 604) and configured to connect to a fuel fill pipe (402, 504, 602), wherein the main body (58, 242, 326, 406, 502, 606) includes a nozzle outlet barrier door (100, 222, 308, 412, 610) pivotally secured to the main body (58, 242, 326, 406, 502, 606), characterized in that the cover (34, 252, 320, 404, 500, 604) includes a safety-release groove that is configured to separate the cover (34, 252, 320, 404, 500, 604) into separate pieces upon exertion of sufficient force, and further comprises a debris filter secured to one or both of the cover (34, 252, 320, 404, 500, 604) and the main body (58, 242, 326, 406, 502, 606), wherein the debris filter is configured to prevent debris from passing into an internal chamber defined by one or both of the cover (34, 252, 320, 404, 500, 604) and the main body (58, 242, 326, 406, 502, 606).
Electronic system comprising at least a base part, a power source, control means and at least one electronic module comprising a light element and adapted to be powered by the power source, the base part is provided with at least two parallel extending, elongated tracks being electrically conductive, wherein the control means are configured to calculate the electric resistance between the electronic module and a predetermined location via the tracks in order to determine the position of the electronic module on the tracks and to control at least one parameter of the electronic module, depending on the distance between the calculated position and the predetermined location on the tracks, and characterized in that the predetermined location on the tracks is chosen by an installer, and that the base part and the electronic module are releasably magnetically attached to each other.
A power control apparatus that controls equipment provided in a consumer, comprising: a transceiver unit that transmits a command to instruct processing executed by the equipment; and a control unit; wherein the consumer is a house, building or factory; characterized in that: the control unit is configured to acquire start time information indicating a first time period from when the equipment receives the command to when the equipment starts processing according to the command from the equipment and control the equipment based on the acquired start time information. a transceiver unit that transmits a command to instruct processing executed by the equipment; and a control unit; wherein the consumer is a house, building or factory; characterized in that: the control unit is configured to acquire start time information indicating a first time period from when the equipment receives the command to when the equipment starts processing according to the command from the equipment and control the equipment based on the acquired start time information. the control unit is configured to acquire start time information indicating a first time period from when the equipment receives the command to when the equipment starts processing according to the command from the equipment and control the equipment based on the acquired start time information.
A method for video conferencing, executable by a processor, wherein the method comprises: receiving video data associated with an immersive teleconferencing session; identifying a parameter associated with the video data, wherein the parameter specifies overlay data associated with the immersive teleconferencing session; and displaying the video data with one or more overlays based on the identified parameter, characterized in that the parameter defines whether a receiver is allowed to use overlays other than overlays shared by a sender; the parameter defines a list of allowed senders from whom a receiver receives and uses overlays; the parameter defines whether a receiver is allowed to use overlays from another sender not associated with the received video data, wherein the received video data is associated with a sender; and/or the parameter defines a prioritized list of overlay ids the receiver is allowed to use other than overlays shared by a sender. receiving video data associated with an immersive teleconferencing session; identifying a parameter associated with the video data, wherein the parameter specifies overlay data associated with the immersive teleconferencing session; and displaying the video data with one or more overlays based on the identified parameter, characterized in that the parameter defines whether a receiver is allowed to use overlays other than overlays shared by a sender; the parameter defines a list of allowed senders from whom a receiver receives and uses overlays; the parameter defines whether a receiver is allowed to use overlays from another sender not associated with the received video data, wherein the received video data is associated with a sender; and/or the parameter defines a prioritized list of overlay ids the receiver is allowed to use other than overlays shared by a sender.
Control structure for a mobile working machine having power participants (2, 4, 6), of which at least one is a power source, one is a driving load and one is a hydraulic working load, having energy coordinators (20, 22), which each have a signal connection to a controller (12, 14, 16, 18) assigned to the respective load (4, 6), wherein a setpoint value is transferred from the energy coordinator to the controller (12, 14, 16, 18) by means of which a power (P limup, P limlow) of the load (4, 6) is limited depending on the setpoint value, characterized in that the setpoint value for the driving load is a setpoint torque (T reqvarset) and the setpoint value for the working load is a setpoint pressure medium volume flow (Q set).
A method, comprising: towing a plurality of sensor streamers behind a vessel in a body of water, wherein each sensor streamer is associated with a respective lateral distance from a centerline of the vessel; characterized in that the method further comprises: determining a deflection force for each sensor streamer, wherein the deflection force monotonically increases with the respective lateral distance from the centerline of the vessel; and applying, to each sensor streamer, the corresponding deflection force. towing a plurality of sensor streamers behind a vessel in a body of water, wherein each sensor streamer is associated with a respective lateral distance from a centerline of the vessel; characterized in that the method further comprises: determining a deflection force for each sensor streamer, wherein the deflection force monotonically increases with the respective lateral distance from the centerline of the vessel; and applying, to each sensor streamer, the corresponding deflection force.
Method for forming a depression in a workpiece, in which a laser beam pulsating at a pulse frequency fL is guided over the surface of the workpiece by means of a beam guide, in which the laser beam is guided so that its track speed vB on the workpiece surface fulfils the following condition: vB > n * dS * fL where n is a proportional factor, which may be 0.2 or 0.4 or 0.6 or 0.8 or 1 or greater, dS is the beam diameter at workpiece level, and where the pulse frequency is greater than 100 kHz, wherein the laser beam guide comprises a first guide located in the beam path of the laser beam, which in itself causes the laser beam to be guided at a first track speed, characterised in that the laser beam guide comprises a second guide operating simultaneously with the first guide and located in the beam path of the laser beam, which in itself causes the laser beam to travel at a second track speed that is higher than the first track speed. in which the laser beam is guided so that its track speed vB on the workpiece surface fulfils the following condition: vB > n * dS * fL where n is a proportional factor, which may be 0.2 or 0.4 or 0.6 or 0.8 or 1 or greater, dS is the beam diameter at workpiece level, and where the pulse frequency is greater than 100 kHz, wherein the laser beam guide comprises a first guide located in the beam path of the laser beam, which in itself causes the laser beam to be guided at a first track speed, characterised in that the laser beam guide comprises a second guide operating simultaneously with the first guide and located in the beam path of the laser beam, which in itself causes the laser beam to travel at a second track speed that is higher than the first track speed.