mhurhangee/patent-ind-claim-en huggingface dataset:
A device for battery formation, comprising a negative pressure mechanism , a connecting assembly and a suction joint ; the negative pressure mechanism having a receiving cavity (S) inside; the suction joint being provided to the negative pressure mechanism and communicated with the receiving cavity (S); the connecting assembly being provided as plurality in number, and the plurality of the connecting assemblies being provided to the negative pressure mechanism ; each connecting assembly being communicated with the receiving cavity (S) and used for being connected to a battery; each connecting assembly comprises a first connecting pipe and a nozzle , one end of the first connecting pipe is connected with the negative pressure mechanism , the other end of the first connecting pipe is connected with the nozzle ; characterized in that the device for battery formation further comprises a base plate , a press plate and a positioning block ; the positioning block is provided as plurality in number and the plurality of positioning blocks are positioned between the base plate and the press plate ; the negative pressure mechanism is connected with the base plate , the press plate is positioned at a side of the base plate away from negative pressure mechanism and connected with the base plate ; the first connecting pipe of each connecting assembly is connected with the positioning block . the negative pressure mechanism having a receiving cavity (S) inside; the suction joint being provided to the negative pressure mechanism and communicated with the receiving cavity (S); the connecting assembly being provided as plurality in number, and the plurality of the connecting assemblies being provided to the negative pressure mechanism ; each connecting assembly being communicated with the receiving cavity (S) and used for being connected to a battery; each connecting assembly comprises a first connecting pipe and a nozzle , one end of the first connecting pipe is connected with the negative pressure mechanism , the other end of the first connecting pipe is connected with the nozzle ; characterized in that the device for battery formation further comprises a base plate , a press plate and a positioning block ; the positioning block is provided as plurality in number and the plurality of positioning blocks are positioned between the base plate and the press plate ; the negative pressure mechanism is connected with the base plate , the press plate is positioned at a side of the base plate away from negative pressure mechanism and connected with the base plate ; the first connecting pipe of each connecting assembly is connected with the positioning block .
An array antenna, comprising a first subarray, a second subarray, a first power detector, a second power detector, and a decision device , wherein the first power detector is connected to the first subarray, the second power detector is connected to the second subarray, the decision device is connected to the first power detector, the decision device is connected to the second power detector, wherein each subarray comprises a first array element, a second array element, a first phase shifter, a second phase shifter, and a subarray combiner , wherein the first phase shifter is connected to the first array element, the second phase shifter is connected to the second array element, the subarray combiner is connected to the first phase shifter, the subarray combiner is connected to the second phase shifter, the first phase shifter is configured to perform phase shifting on a signal from the first array element and send the phase-shifted signal to the subarray combiner, the second phase shifter is configured to perform phase shifting on a signal from the second array element and send the phase-shifted signal to the subarray combiner, and the subarray combiner is configured to combine the signal from the first phase shifter and the signal from the second phase shifter, and output a signal, wherein a receiving beam direction corresponding to an output signal of the first subarray is set as a first direction by setting parameters of the corresponding phase shifters and a receiving beam direction corresponding to an output signal of the second subarray is set as a second direction by setting parameters of the corresponding phase shifters, wherein the second direction is different from the first direction, and wherein the first power detector is configured to detect a power of the output signal of the first subarray, the second power detector is configured to detect a power of the output signal of the second subarray, and the decision device is configured to determine a first alignment direction of the array antenna according to the power of the output signal of the first subarray and the power of the output signal of the second subarray, wherein the decision device is specifically configured to determine the first alignment direction of the array antenna according to a power of the output signal of the first subarray at a first moment and a power of the output signal of the second subarray at the first moment.
Hydrophobic filter for filtering an airflow (A) or another gaseous flow in a medical application, the filter comprising: - a housing encompassing a filter chamber and comprising a bottom and a top , - an inlet port arranged on the housing and forming an inlet opening , - an outlet port arranged on the housing and forming an outlet opening , and - a filtering media comprising a hydrophobic structure extending along a plane of extension (E) extending from the bottom of the housing to the top of the housing and separating the filter chamber into an inlet chamber and an outlet chamber , wherein the inlet opening opens into the inlet chamber and the outlet opening opens into the outlet chamber , the outlet opening opens into the outlet chamber at a first location when viewed along the plane of extension (E) and the inlet opening opens into the inlet chamber at a second location displaced with respect to the first location towards the top when viewed along the plane of extension (E), the outlet opening extends along a horizontal direction (H) directed perpendicular to the plane of extension (E) for guiding the airflow (A) or another gaseous flow out of the filter chamber along the horizontal direction (H), the inlet opening extends along a vertical direction (V) directed parallel to the plane of extension (E) for guiding the airflow (A) or another gaseous flow into the filter chamber along the vertical direction (V), and the inlet chamber includes an inlet structure comprising a guide face configured to redirect the airflow or another gaseous flow entering the filter chamber via the inlet opening from the vertical direction (V) to the horizontal direction (H) and toward the filtering media. - a housing encompassing a filter chamber and comprising a bottom and a top , - an inlet port arranged on the housing and forming an inlet opening , - an outlet port arranged on the housing and forming an outlet opening , and - a filtering media comprising a hydrophobic structure extending along a plane of extension (E) extending from the bottom of the housing to the top of the housing and separating the filter chamber into an inlet chamber and an outlet chamber , wherein the inlet opening opens into the inlet chamber and the outlet opening opens into the outlet chamber , the outlet opening extends along a horizontal direction (H) directed perpendicular to the plane of extension (E) for guiding the airflow (A) or another gaseous flow out of the filter chamber along the horizontal direction (H), the inlet opening extends along a vertical direction (V) directed parallel to the plane of extension (E) for guiding the airflow (A) or another gaseous flow into the filter chamber along the vertical direction (V), and the inlet chamber includes an inlet structure comprising a guide face configured to redirect the airflow or another gaseous flow entering the filter chamber via the inlet opening from the vertical direction (V) to the horizontal direction (H) and toward the filtering media.
A system for monitoring stroke of a spring brake actuator of a vehicle, the system comprising: - a spring brake actuator having a push rod, wherein pneumatic activation of the spring brake actuator causes the push rod to further extend out of the spring brake actuator to thereby activate braking of the vehicle, and wherein pneumatic deactivation of the spring brake actuator causes the push rod to retract back into the spring brake actuator to thereby deactivate braking of the vehicle; - a first magnet and a second magnet coupled to the push rod, the second magnet spaced apart from the first magnet; - a sensor configured to sense a magnetic field strength created by the first magnet and the second magnet; and - a controller configured to determine stroke of the push rod based upon the magnetic field strength. - a spring brake actuator having a push rod, wherein pneumatic activation of the spring brake actuator causes the push rod to further extend out of the spring brake actuator to thereby activate braking of the vehicle, and wherein pneumatic deactivation of the spring brake actuator causes the push rod to retract back into the spring brake actuator to thereby deactivate braking of the vehicle; - a first magnet and a second magnet coupled to the push rod, the second magnet spaced apart from the first magnet; - a sensor configured to sense a magnetic field strength created by the first magnet and the second magnet; and - a controller configured to determine stroke of the push rod based upon the magnetic field strength.
A gully sensor for deployment within, and detecting the presence of matter contained in, a gully, the gully sensor comprising an elongate body , the body comprising: a first portion accommodating a light source ; a second portion accommodating a light detector for detecting light emitted from the light source along a light path towards the light detector; a third portion connecting the first and second portions; and an indented portion formed between the first, second and third portions, wherein the indented portion forms a trench configured to enable the matter to enter the trench, and wherein the light path is configured to pass through the indented portion; and wherein the elongate body comprises a cross sectional profile that is substantially C-shaped, and wherein an outer peripheral wall of the elongate body comprises a tube, and the cross sectional profile of the elongate body extends throughout the length of the tube. a first portion accommodating a light source ; a second portion accommodating a light detector for detecting light emitted from the light source along a light path towards the light detector; a third portion connecting the first and second portions; and an indented portion formed between the first, second and third portions, wherein the indented portion forms a trench configured to enable the matter to enter the trench, and wherein the light path is configured to pass through the indented portion; and wherein the elongate body comprises a cross sectional profile that is substantially C-shaped, and wherein an outer peripheral wall of the elongate body comprises a tube, and the cross sectional profile of the elongate body extends throughout the length of the tube.
A composition comprising monoamine oxidase (MAO) inhibitory compounds, which composition is prepared by removing ethanol from a distilled alcoholic beverage derived from agave, said removal of ethanol occurring by a process that retains volatile compounds other than ethanol, which process is reverse osmosis or spinning cone columns.
A method for configuring devices for a user, the method comprising: creating (s602) a device-set profile for the user, wherein the device-set profile includes a first set of configuration parameters for a first set of devices at a first location and wherein the device-set profile further includes usage characteristics information and device interactions information for devices in the first set of devices; retrieving (s604) the device-set profile for the user; discovering (s606) a second set of devices at a second location; and automatically (s608) configuring the second set of devices based on the device-set profile for the user; characterized in that creating the device-set profile for the user comprises receiving a master device-set profile from a database; wherein the master device-set profile is based on input received from multiple users. creating (s602) a device-set profile for the user, wherein the device-set profile includes a first set of configuration parameters for a first set of devices at a first location and wherein the device-set profile further includes usage characteristics information and device interactions information for devices in the first set of devices; retrieving (s604) the device-set profile for the user; discovering (s606) a second set of devices at a second location; and automatically (s608) configuring the second set of devices based on the device-set profile for the user; characterized in that creating the device-set profile for the user comprises receiving a master device-set profile from a database; wherein the master device-set profile is based on input received from multiple users.
A headset system for acoustic authentication of a user, comprising at least a headset and an authenticator, wherein the headset comprises at least a first microphone to obtain a first input signal, arranged so that during use of the headset, a first acoustic signal received by the first microphone is influenced by the outer ear of the user; a second microphone to obtain a second input signal, arranged so that during use of the headset, a second acoustic signal is received by the second microphone, which second acoustic signal is correlated to the first acoustic signal; and a controllable filter, configured to receive the first input signal and the second input signal and to determine at least one filter transfer function from the received first input signal and the second input signal; and the authenticator is configured to determine a current user acoustic signature from the at least one filter transfer function and to compare the current user acoustic signature with a predefined user acoustic signature and to authenticate the user based on the comparison of the current user acoustic signature with the predefined user acoustic signature. a first microphone to obtain a first input signal, arranged so that during use of the headset, a first acoustic signal received by the first microphone is influenced by the outer ear of the user; a second microphone to obtain a second input signal, arranged so that during use of the headset, a second acoustic signal is received by the second microphone, which second acoustic signal is correlated to the first acoustic signal; and a controllable filter, configured to receive the first input signal and the second input signal and to determine at least one filter transfer function from the received first input signal and the second input signal; and the authenticator is configured to determine a current user acoustic signature from the at least one filter transfer function and to compare the current user acoustic signature with a predefined user acoustic signature and to authenticate the user based on the comparison of the current user acoustic signature with the predefined user acoustic signature.
A discharge circuit connectable between AC power input lines receiving AC power to discharge a first capacitor (X-Cap) adapted to be charged by the AC power, comprising: a first resistor (R) and a first switch element (Q1) which are connected in series between the AC power input lines; a second resistor and a second switch element (Q2) which are connected in series between the AC power input lines, the first switch element (Q1) arranged to be turned off upon receiving an electric current during supply of the AC power, and the first switch element (Q1) arranged to be turned on in response to cutoff of the AC power so as to discharge the first capacitor through the first resistor (R) and the first switch element (Q1); a second capacitor (C1) adapted to be charged through the second resistor during the supply of the AC power and arranged to turn on the second switch element (Q2); and a third resistor (Ri) usable with the second capacitor to turn off the second switch element (Q2) by discharging the second capacitor during the cutoff of the AC power, wherein the resistance value of the second resistor is higher than the resistance value of the first resistor (R), the first switch element (Q1) is arranged to be turned on by the turning off of the second switch element (Q2), and the first switch element (Q1) is arranged to be turned off by the turning on of the second switch element (Q2). a first resistor (R) and a first switch element (Q1) which are connected in series between the AC power input lines; a second resistor and a second switch element (Q2) which are connected in series between the AC power input lines, the first switch element (Q1) arranged to be turned off upon receiving an electric current during supply of the AC power, and the first switch element (Q1) arranged to be turned on in response to cutoff of the AC power so as to discharge the first capacitor through the first resistor (R) and the first switch element (Q1); a second capacitor (C1) adapted to be charged through the second resistor during the supply of the AC power and arranged to turn on the second switch element (Q2); and a third resistor (Ri) usable with the second capacitor to turn off the second switch element (Q2) by discharging the second capacitor during the cutoff of the AC power, wherein the resistance value of the second resistor is higher than the resistance value of the first resistor (R), the first switch element (Q1) is arranged to be turned on by the turning off of the second switch element (Q2), and the first switch element (Q1) is arranged to be turned off by the turning on of the second switch element (Q2).
An implantable neurostimulation system comprising a neurostimulator, an electrode assembly and a control system, the electrode assembly and the control system coupled to the neurostimulator, said neurostimulator adapted to deliver a stimulation signal to a patient and having a stimulation parameter set comprising an output current, a frequency, a pulse width, and a duty cycle, and wherein the control system is configured to at an initial titration session, activate the neurostimulator system to generate a stimulation signal having an initial stimulation parameter set, said initial parameter set comprising an initial output current, an initial frequency, an initial pulse width, and an initial duty cycle; and to perform a titration process, said titration process comprising: increasing the output current of the stimulation signal until the stimulation signal comprises a target output current, or the patient exceeds a side effect tolerance zone boundary, or adequate adaptation is achieved; and characterised in that said control system is further configured for increasing one or more of the frequency and the duty cycle, and optionally additionally increasing the pulse width, said increasing one or more of the frequency and the duty cycle, and optionally additionally increasing the pulse width occuring after the stimulation signal comprises the target output current. at an initial titration session, activate the neurostimulator system to generate a stimulation signal having an initial stimulation parameter set, said initial parameter set comprising an initial output current, an initial frequency, an initial pulse width, and an initial duty cycle; and to perform a titration process, said titration process comprising: increasing the output current of the stimulation signal until the stimulation signal comprises a target output current, or the patient exceeds a side effect tolerance zone boundary, or adequate adaptation is achieved; and characterised in that said control system is further configured for increasing one or more of the frequency and the duty cycle, and optionally additionally increasing the pulse width, said increasing one or more of the frequency and the duty cycle, and optionally additionally increasing the pulse width occuring after the stimulation signal comprises the target output current.
A seat belt fastened/unfastened state detection switch comprising: a printed substrate that includes a circuit for detecting a fastened/unfastened state of a seat belt; a rotor that is rotatably attached to the printed substrate , includes a contact portion , the contact portion coming into contact with a tongue of the seat belt, and rotates in a forward direction in accordance with pushing of the tongue into a buckle; a spring that makes the rotor , the rotor being in a rotated state in the forward direction, rotate in a reverse direction in accordance with pulling of the tongue from the buckle; and an electric brush that is attached to a surface of the rotor , the surface facing the printed substrate , and includes a leg portion whose contact/non-contact state with respect to a conductive part of the circuit changes depending on a rotation state of the rotor , wherein the rotor includes a claw that extends toward the printed substrate and is projected to a direction different from an extending direction thereof, the printed substrate includes a slit that has an arc shape and through which the claw is inserted, and an end of the claw is engaged with the slit . a printed substrate that includes a circuit for detecting a fastened/unfastened state of a seat belt; a rotor that is rotatably attached to the printed substrate , includes a contact portion , the contact portion coming into contact with a tongue of the seat belt, and rotates in a forward direction in accordance with pushing of the tongue into a buckle; a spring that makes the rotor , the rotor being in a rotated state in the forward direction, rotate in a reverse direction in accordance with pulling of the tongue from the buckle; and an electric brush that is attached to a surface of the rotor , the surface facing the printed substrate , and includes a leg portion whose contact/non-contact state with respect to a conductive part of the circuit changes depending on a rotation state of the rotor , wherein the rotor includes a claw that extends toward the printed substrate and is projected to a direction different from an extending direction thereof, the printed substrate includes a slit that has an arc shape and through which the claw is inserted, and an end of the claw is engaged with the slit .