mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating an actuation device of a motor vehicle, comprising the steps: - capturing a number (n m ) of objects , with which a touch-sensitive actuation unit is simultaneously touched, - determining a position, in which, in case of only one touching object , the actuation unit is touched with the one object , or setting a triggering object as well as determining a position of the triggering object on the touch-sensitive actuation unit depending on respective touch signals , which, in case of more than one touching object , are generated due to the simultaneous touch of the objects , wherein that object is ascertained as the triggering object from the number (n m ) of the captured objects , the touch signal of which has the greatest change of the signal strength over a time; - presetting a pressure threshold value (p s ) depending on the captured number (n m ) of the objects ; - capturing a pressure (p m ), with which the touch-sensitive actuation unit is overall applied in touching; - ascertaining if the captured pressure (p m ) is greater than the preset pressure threshold value (p s ); - triggering a function (F) of the motor vehicle associated with the captured position exclusively if the captured pressure (p m ) is greater than the preset pressure threshold value (p s ). - capturing a number (n m ) of objects , with which a touch-sensitive actuation unit is simultaneously touched, - determining a position, in which, in case of only one touching object , the actuation unit is touched with the one object , or setting a triggering object as well as determining a position of the triggering object on the touch-sensitive actuation unit depending on respective touch signals , which, in case of more than one touching object , are generated due to the simultaneous touch of the objects , wherein that object is ascertained as the triggering object from the number (n m ) of the captured objects , the touch signal of which has the greatest change of the signal strength over a time; - presetting a pressure threshold value (p s ) depending on the captured number (n m ) of the objects ; - capturing a pressure (p m ), with which the touch-sensitive actuation unit is overall applied in touching; - ascertaining if the captured pressure (p m ) is greater than the preset pressure threshold value (p s ); - triggering a function (F) of the motor vehicle associated with the captured position exclusively if the captured pressure (p m ) is greater than the preset pressure threshold value (p s ).
A water purifying filter assembly comprising: a filter ; a filter case comprising a receiving member receiving the filter ; and a head assembly mounted on one side of the filter case and coupled to the filter , wherein the filter comprises a recessed portion provided on an outer circumferential surface thereof, wherein the receiving member comprises a protrusion formed in a shape corresponding to the recessed portion , wherein the filter is fixedly coupled to the head assembly at a position in which the recessed portion and the protrusion are engaged with each other. a filter ; a filter case comprising a receiving member receiving the filter ; and a head assembly mounted on one side of the filter case and coupled to the filter , wherein the filter comprises a recessed portion provided on an outer circumferential surface thereof, wherein the receiving member comprises a protrusion formed in a shape corresponding to the recessed portion , wherein the filter is fixedly coupled to the head assembly at a position in which the recessed portion and the protrusion are engaged with each other.
A vehicle display system , the display system comprising: a first display device implemented within a display housing ; a transparent cover disposed over the first display device ; a second display device implemented within the display housing , the second display device overlaying at least a portion of the first display device , wherein the second display device is a separate component from the transparent cover and is disposed along a common plane with the transparent cover; and one or more control devices configured to provide for display first display data on the first display device , and to provide for display second display data on the second display device , wherein the one or more control devices are further configured to receive one or more signals indicative of a failure of the first display device , and the one or more control devices are configured to provide for display the second display data responsive to receiving the one or more signals indicative of the failure of the first display. a first display device implemented within a display housing ; a transparent cover disposed over the first display device ; a second display device implemented within the display housing , the second display device overlaying at least a portion of the first display device , wherein the second display device is a separate component from the transparent cover and is disposed along a common plane with the transparent cover; and one or more control devices configured to provide for display first display data on the first display device , and to provide for display second display data on the second display device , wherein the one or more control devices are further configured to receive one or more signals indicative of a failure of the first display device , and the one or more control devices are configured to provide for display the second display data responsive to receiving the one or more signals indicative of the failure of the first display.
A system for processing an input audio signal including a left input channel and a right input channel, the system comprising: a crossover network configured to separate the input audio signal into a low frequency signal and a high frequency signal ; a high frequency processor configured to apply a b-chain processing to the high frequency signal to generate a high frequency output signal, the b-chain processing comprising adjusting for an asymmetry between a left speaker and a right speaker in at least one of a frequency response, a time alignment, or a signal level; a low frequency processor configured to: apply a parametric band-pass filter and a first gain to the low frequency signal to generate a low frequency resonator signal, apply a second gain to the low frequency signal to generate a low frequency passthrough signal, and generate a low frequency output signal by combining the low frequency resonator signal with the low frequency passthrough signal; and a combiner configured to generate an output signal including a left channel of the high frequency output signal for the left speaker and a right channel of the high frequency output signal for the right speaker, wherein the combiner is further configured to combine the low frequency output signal with one of the left channel of the high frequency output signal for the left speaker or the right channel of the high frequency output signal for the right speaker. a crossover network configured to separate the input audio signal into a low frequency signal and a high frequency signal ; a high frequency processor configured to apply a b-chain processing to the high frequency signal to generate a high frequency output signal, the b-chain processing comprising adjusting for an asymmetry between a left speaker and a right speaker in at least one of a frequency response, a time alignment, or a signal level; a low frequency processor configured to: apply a parametric band-pass filter and a first gain to the low frequency signal to generate a low frequency resonator signal, apply a second gain to the low frequency signal to generate a low frequency passthrough signal, and generate a low frequency output signal by combining the low frequency resonator signal with the low frequency passthrough signal; and apply a parametric band-pass filter and a first gain to the low frequency signal to generate a low frequency resonator signal, apply a second gain to the low frequency signal to generate a low frequency passthrough signal, and generate a low frequency output signal by combining the low frequency resonator signal with the low frequency passthrough signal; and a combiner configured to generate an output signal including a left channel of the high frequency output signal for the left speaker and a right channel of the high frequency output signal for the right speaker, wherein the combiner is further configured to combine the low frequency output signal with one of the left channel of the high frequency output signal for the left speaker or the right channel of the high frequency output signal for the right speaker.
Method for repairing a vehicle body having the steps: the release in a damage free manner of a connection between a fibre composite central element , which is embodied as a battery housing , and a front of vehicle crash structure in the region of a front interface and/or of a connection between said fibre composite central element and a rear of vehicle crash structure in the region of a rear end interface and/or of a connection between said fibre composite central element and a side crash structure in the region of a side interface (7; 8) ; the removal of the front of vehicle crash structure and/or of the rear of vehicle crash structure and/or of the side crash structure from the fibre composite central element ; and the attachment and releasable connection to the fibre composite central element of a new front of vehicle crash structure at the front interface and/or of a new rear of vehicle crash structure at the rear end interface and/or of a new side crash structure at the side interface (7; 8). the release in a damage free manner of a connection between a fibre composite central element , which is embodied as a battery housing , and a front of vehicle crash structure in the region of a front interface and/or of a connection between said fibre composite central element and a rear of vehicle crash structure in the region of a rear end interface and/or of a connection between said fibre composite central element and a side crash structure in the region of a side interface (7; 8) ; the removal of the front of vehicle crash structure and/or of the rear of vehicle crash structure and/or of the side crash structure from the fibre composite central element ; and the attachment and releasable connection to the fibre composite central element of a new front of vehicle crash structure at the front interface and/or of a new rear of vehicle crash structure at the rear end interface and/or of a new side crash structure at the side interface (7; 8).
A no-voltage output and voltage output switching circuit comprising: an actuator connection terminal block including a plurality of ports each including a first pin , a second pin , and a third pin to which an actuator is connected; a power connection terminal block including a voltage terminal and a common terminal to which a power supply is connected; a plurality of first relays ; and a plurality of second relays , wherein the voltage terminal is a terminal to which a voltage different from a voltage applied to the common terminal is applied when the power supply is connected to the power connection terminal block , the common terminal is connected to the second pin of each of the plurality of ports , each of the plurality of first relays corresponds to one of the plurality of ports , and each of the plurality of ports corresponds to one of the plurality of first relays , each of the plurality of second relays corresponds to one of the plurality of ports , and each of the plurality of ports corresponds to one of the plurality of second relays , one of the plurality of first relays is a first specific relay to enable connection between the first pin of a corresponding port among the plurality of ports and the third pin of the corresponding port , and the second relay corresponding to a port among the plurality of ports corresponding to the first specific relay enables connection between the first pin of the port corresponding to the first specific relay and the voltage terminal . an actuator connection terminal block including a plurality of ports each including a first pin , a second pin , and a third pin to which an actuator is connected; a power connection terminal block including a voltage terminal and a common terminal to which a power supply is connected; a plurality of first relays ; and a plurality of second relays , wherein the voltage terminal is a terminal to which a voltage different from a voltage applied to the common terminal is applied when the power supply is connected to the power connection terminal block , the common terminal is connected to the second pin of each of the plurality of ports , each of the plurality of first relays corresponds to one of the plurality of ports , and each of the plurality of ports corresponds to one of the plurality of first relays , each of the plurality of second relays corresponds to one of the plurality of ports , and each of the plurality of ports corresponds to one of the plurality of second relays , one of the plurality of first relays is a first specific relay to enable connection between the first pin of a corresponding port among the plurality of ports and the third pin of the corresponding port , and the second relay corresponding to a port among the plurality of ports corresponding to the first specific relay enables connection between the first pin of the port corresponding to the first specific relay and the voltage terminal .
A process for the synthesis of methanol comprising the steps of: (i) passing a first synthesis gas mixture comprising a make-up gas through a first synthesis reactor containing a cooled methanol synthesis catalyst to form a first product gas stream, (ii) recovering methanol from the first product gas stream thereby forming a first methanol-depleted gas mixture, (iii) combining the first methanol-depleted gas mixture with a loop recycle gas stream to form a second synthesis gas mixture, (iv) passing the second synthesis gas mixture through a second synthesis reactor containing a cooled methanol synthesis catalyst to form a second product gas stream, (v) recovering methanol from the second product gas stream thereby forming a second methanol-depleted gas mixture, and (vi) using at least part of the second methanol-depleted gas mixture as the loop recycle gas stream, wherein the first synthesis reactor has a higher heat transfer per cubic metre of catalyst than the second synthesis reactor, none of the loop recycle gas stream is fed to the first synthesis gas mixture and the recycle ratio of the loop recycle gas stream to form the second synthesis gas mixture is in the range 1.1:1 to 6:1. (i) passing a first synthesis gas mixture comprising a make-up gas through a first synthesis reactor containing a cooled methanol synthesis catalyst to form a first product gas stream, (ii) recovering methanol from the first product gas stream thereby forming a first methanol-depleted gas mixture, (iii) combining the first methanol-depleted gas mixture with a loop recycle gas stream to form a second synthesis gas mixture, (iv) passing the second synthesis gas mixture through a second synthesis reactor containing a cooled methanol synthesis catalyst to form a second product gas stream, (v) recovering methanol from the second product gas stream thereby forming a second methanol-depleted gas mixture, and (vi) using at least part of the second methanol-depleted gas mixture as the loop recycle gas stream,
Device for blow molding containers made of a thermoplastic material from a preform • with at least one blowing station , which has at least one blow mold for forming the container , • with at least one compressor for providing blowing gas for carrying out the blow molding in the blow mold , • with at least one blowing nozzle for delivering the blowing gas to the preform , the blowing nozzle being fluidically connected to the compressor , • with at least one stretching rod for stretching the preform , • with at least one stretching rod drive for moving the at least one stretching rod into the preform , characterized in that the stretching rod drive drives the compressor to provide the blowing gas and in that the compressor is connected to the blowing nozzle via a conduit , which is connected to a blowing gas reservoir , the blowing gas reservoir preferably being separable from the blowing nozzle and/or the compressor via at least one valve . • with at least one blowing station , which has at least one blow mold for forming the container , • with at least one compressor for providing blowing gas for carrying out the blow molding in the blow mold , • with at least one blowing nozzle for delivering the blowing gas to the preform , the blowing nozzle being fluidically connected to the compressor , • with at least one stretching rod for stretching the preform , • with at least one stretching rod drive for moving the at least one stretching rod into the preform ,
A method for wireless communications at a first wireless device , comprising: identifying a transmission timing scheme for a shared radio frequency spectrum band, the transmission timing scheme comprising a first set of time intervals allocated for transmissions using a first radio access technology and a second set of time intervals allocated for transmissions using a second radio access technology, the first wireless device operating according to the first radio access technology; receiving, from a second wireless device operating according to the first radio access technology, a first channel reservation signal for a first transmission during a time interval of the first set of time intervals, the first channel reservation signal indicating a first time difference between a transmission time of the first channel reservation signal and a first end time of the time interval; transmitting , during the time interval of the first set of time intervals, a second channel reservation signal for a second transmission to be transmitted after the first transmission, the second channel reservation signal indicating a second time difference between a transmission time of the second channel reservation signal and the first end time of the time interval and indicating that the first wireless device uses the first radio access technology; and transmitting , based at least in part on the transmitted second channel reservation signal, the second transmission over the shared radio frequency spectrum band during at least a portion of the time interval before the first end of the time interval. identifying a transmission timing scheme for a shared radio frequency spectrum band, the transmission timing scheme comprising a first set of time intervals allocated for transmissions using a first radio access technology and a second set of time intervals allocated for transmissions using a second radio access technology, the first wireless device operating according to the first radio access technology; receiving, from a second wireless device operating according to the first radio access technology, a first channel reservation signal for a first transmission during a time interval of the first set of time intervals, the first channel reservation signal indicating a first time difference between a transmission time of the first channel reservation signal and a first end time of the time interval; transmitting , during the time interval of the first set of time intervals, a second channel reservation signal for a second transmission to be transmitted after the first transmission, the second channel reservation signal indicating a second time difference between a transmission time of the second channel reservation signal and the first end time of the time interval and indicating that the first wireless device uses the first radio access technology; and transmitting , based at least in part on the transmitted second channel reservation signal, the second transmission over the shared radio frequency spectrum band during at least a portion of the time interval before the first end of the time interval.
Slatted base , in particular for a bed, comprising a head part to support at least the head of a person, and a foot part to support at least the legs and the feet of a person, wherein the head part is pivotable in relation to the foot part about an axis of rotation extending transversely to the longitudinal extension of the head part and foot part , wherein the head part is designed to be translationally movable in relation to the foot part in the direction of the longitudinal extension of the head part and the foot part , wherein the slatted base comprises a frame which supports the head part and the foot part , wherein the frame comprises and outer frame and inner frame , characterized in that the inner frame has longitudinal spars which carry U profiles on their outer side facing the outer frame , which U profiles serve the movable receipt of slats .
A bi-directional sensor circuit comprising: - a sensing impedance with a first terminal and a second terminal ; - a first operational amplifier for which the non-inverting input is connected to the first terminal and its inverting input is connected to the second terminal ; - a second operational amplifier with the non-inverting input connected to the second terminal and its inverting input is connected to the first terminal ; - a first diode with the anode connected to the inverting input of the first operational amplifier and for which the cathode is connected to the output of the first operational amplifier ; - a second diode with the anode connected to the output of the first operational amplifier and to the cathode of the first diode ; - a variable impedance connected to the anode of the first diode and to the cathode of the second diode ; - a fourth diode with the cathode connected to the cathode of the second diode and to one end of the variable impedance ; - a third diode with the anode connected to the inverting input of the second operational amplifier and the cathode to the output of the second operational amplifier and to the anode of the fourth diode ; - a variable impedance connected to the cathode of the fourth diode and the anode of the third diode ; wherein the input of the bidirectional sensor circuit consists of the terminals and of the sensing impedance , and the output is at the anode of the second diode and senses a load impedance connected to the first terminal of the sensing impedance . - a sensing impedance with a first terminal and a second terminal ; - a first operational amplifier for which the non-inverting input is connected to the first terminal and its inverting input is connected to the second terminal ; - a second operational amplifier with the non-inverting input connected to the second terminal and its inverting input is connected to the first terminal ; - a first diode with the anode connected to the inverting input of the first operational amplifier and for which the cathode is connected to the output of the first operational amplifier ; - a second diode with the anode connected to the output of the first operational amplifier and to the cathode of the first diode ; - a variable impedance connected to the anode of the first diode and to the cathode of the second diode ; - a fourth diode with the cathode connected to the cathode of the second diode and to one end of the variable impedance ; - a third diode with the anode connected to the inverting input of the second operational amplifier and the cathode to the output of the second operational amplifier and to the anode of the fourth diode ; - a variable impedance connected to the cathode of the fourth diode and the anode of the third diode ;