mhurhangee/patent-ind-claim-en huggingface dataset:
An ink jet recording apparatus, comprising: a pressure chamber in which a liquid can be contained; an actuator configured to change a pressure on the liquid in the pressure chamber by changing a volume of the pressure chamber in response to a drive signal; a nozzle connected to the pressure chamber and through which the liquid contained in the pressure chamber can be ejected when an ejection pulse is supplied to the actuator; and a drive circuit configured to output the drive signal to the actuator as a drive waveform having a first pulse group and a second pulse group following the first pulse group when at least three consecutive ejection pulses are included in the drive waveform; wherein all ejection pulses in the first pulse group have a first voltage amplitude, and all ejection pulses in the second pulse group have a second voltage amplitude that is smaller than the first voltage amplitude, characterized in that the first voltage amplitude and the second voltage amplitude are set so that a droplet ejected by a last ejection pulse in the second pulse group travels at a speed that is equal to or higher than a speed of a droplet ejected by a first ejection pulse in the first pulse group. a pressure chamber in which a liquid can be contained; an actuator configured to change a pressure on the liquid in the pressure chamber by changing a volume of the pressure chamber in response to a drive signal; a nozzle connected to the pressure chamber and through which the liquid contained in the pressure chamber can be ejected when an ejection pulse is supplied to the actuator; and a drive circuit configured to output the drive signal to the actuator as a drive waveform having a first pulse group and a second pulse group following the first pulse group when at least three consecutive ejection pulses are included in the drive waveform; wherein all ejection pulses in the first pulse group have a first voltage amplitude, and all ejection pulses in the second pulse group have a second voltage amplitude that is smaller than the first voltage amplitude, characterized in that the first voltage amplitude and the second voltage amplitude are set so that a droplet ejected by a last ejection pulse in the second pulse group travels at a speed that is equal to or higher than a speed of a droplet ejected by a first ejection pulse in the first pulse group.
A rotational alignment femoral sizing guide assembly, comprising: a) a body comprising an upper surface , a lower surface , an anterior portion , a posterior portion , and an actuator member located on the upper surface of the body; b) a stable condylar reference point or member on the body; c) a movable condylar referencing member having an actuator member cooperating portion that cooperates with the actuator member of the body; and d) a rotational actuator that cooperates with the actuator member of the body and the actuator member cooperating portion of the movable condylar referencing member to provide varying degrees of angulation between the movably condylar referencing member and the body. a) a body comprising an upper surface , a lower surface , an anterior portion , a posterior portion , and an actuator member located on the upper surface of the body; b) a stable condylar reference point or member on the body; c) a movable condylar referencing member having an actuator member cooperating portion that cooperates with the actuator member of the body; and d) a rotational actuator that cooperates with the actuator member of the body and the actuator member cooperating portion of the movable condylar referencing member to provide varying degrees of angulation between the movably condylar referencing member and the body.
A composition comprising a mixture of a nicking enzyme, and at least four dNTPs including at least one labeled dNTP; wherein the at least one labeled dNTP comprises a labeled dNTP that is capable of binding to an affinity matrix, and is present in the composition at a concentration in the range of 3 to 200 μM.
A method of decoding implemented by a video decoder, comprising: receiving , by the video decoder, a bitstream containing an external decoder refresh, EDR, picture and a list of pictures for the EDR picture, wherein the list of pictures lists in increasing decoding order pictures referred to by entries in a first reference picture list, pictures referred to by entries in a second reference picture list, and external pictures, wherein the external pictures are pictures that were decoded prior to decoding the EDR picture and wherein a difference between picture order count values for any two consecutive pictures in the list of pictures is greater than one half of a negative of maximum picture order count least significant bits and less than one half of the maximum picture order count least significant bits; obtaining , by the video decoder, one of the external pictures referred to in the list of pictures; and decoding , by the video decoder, the EDR picture using the external reference picture that was obtained. receiving , by the video decoder, a bitstream containing an external decoder refresh, EDR, picture and a list of pictures for the EDR picture, wherein the list of pictures lists in increasing decoding order pictures referred to by entries in a first reference picture list, pictures referred to by entries in a second reference picture list, and external pictures, wherein the external pictures are pictures that were decoded prior to decoding the EDR picture and wherein a difference between picture order count values for any two consecutive pictures in the list of pictures is greater than one half of a negative of maximum picture order count least significant bits and less than one half of the maximum picture order count least significant bits; obtaining , by the video decoder, one of the external pictures referred to in the list of pictures; and decoding , by the video decoder, the EDR picture using the external reference picture that was obtained.
A filter circuit for producing a noise reduction signal for reducing a noise signal collected by a microphone , comprising: a digital section including an analog/digital conversion section configured to convert the noise signal into a digital noise signal, a non-adaptive digital filter section configured to receive the digital noise signal from the analog/digital conversion section , to filter the digital noise signal and to produce a digital noise reduction signal, and a digital/analog conversion section configured to convert the digital noise reduction signal into an analog noise reduction signal; an analog path connected in parallel to said digital section and configured to output the noise signal as it is or after being processed by an analog filter ; and a synthesis section configured to add the analog noise reduction signal outputted from said digital/analog conversion section of said digital section with the analog signal outputted from said analog path to produce a noise reduction signal to be used for noise reduction. a digital section including an analog/digital conversion section configured to convert the noise signal into a digital noise signal, a non-adaptive digital filter section configured to receive the digital noise signal from the analog/digital conversion section , to filter the digital noise signal and to produce a digital noise reduction signal, and a digital/analog conversion section configured to convert the digital noise reduction signal into an analog noise reduction signal; an analog/digital conversion section configured to convert the noise signal into a digital noise signal, a non-adaptive digital filter section configured to receive the digital noise signal from the analog/digital conversion section , to filter the digital noise signal and to produce a digital noise reduction signal, and a digital/analog conversion section configured to convert the digital noise reduction signal into an analog noise reduction signal; an analog path connected in parallel to said digital section and configured to output the noise signal as it is or after being processed by an analog filter ; and a synthesis section configured to add the analog noise reduction signal outputted from said digital/analog conversion section of said digital section with the analog signal outputted from said analog path to produce a noise reduction signal to be used for noise reduction.
An absorbent article comprising a chassis comprising a topsheet , a backsheet , and an absorbent core disposed between the topsheet and backsheet; and wherein the backsheet comprises a film comprising an odor absorbing material , wherein the article comprises: a. one or more adhesives forming an aggregate adhesive content; and b. wherein the odor absorbing material forms an aggregate odor absorber content; and c. wherein the ratio of the aggregate odor absorbent content to the aggregate adhesive content is 0.5% to 10%; wherein the film comprises a plurality of micropores, and wherein the odor absorbing material is disposed in one or more of the micropores, and wherein the odor absorbing material comprises zeolites. a. one or more adhesives forming an aggregate adhesive content; and b. wherein the odor absorbing material forms an aggregate odor absorber content; and c. wherein the ratio of the aggregate odor absorbent content to the aggregate adhesive content is 0.5% to 10%;
An electronic device for a wireless communication system, comprising: one or more processing circuits configured to: measure a first link quality between the electronic device and a relay user equipment in the wireless communication system for a relay service for the electronic device in the wireless communication system, the first link being a PC5 link, and report the first link quality back to the relay user equipment ; receive, from the relay user equipment , relay reselection trigger information and scenario information; receive, from the relay user equipment , a cell ID of the candidate target cell and a corresponding bias value; receive discovery signals; based on the bias value and the discovery signals perform a relay reselection process on a candidate target relay user equipment; and perform communication with a base station through the relay user equipment when a second link quality between the electronic device and the base station becomes poor; wherein the one or more processing circuits are configured to: transmit a cell ID announcement request to the candidate target relay user equipment; and receive a cell ID announcement response from the candidate target relay user equipment. measure a first link quality between the electronic device and a relay user equipment in the wireless communication system for a relay service for the electronic device in the wireless communication system, the first link being a PC5 link, and report the first link quality back to the relay user equipment ; receive, from the relay user equipment , relay reselection trigger information and scenario information; receive, from the relay user equipment , a cell ID of the candidate target cell and a corresponding bias value; receive discovery signals; based on the bias value and the discovery signals perform a relay reselection process on a candidate target relay user equipment; and perform communication with a base station through the relay user equipment when a second link quality between the electronic device and the base station becomes poor; wherein the one or more processing circuits are configured to: transmit a cell ID announcement request to the candidate target relay user equipment; and receive a cell ID announcement response from the candidate target relay user equipment. transmit a cell ID announcement request to the candidate target relay user equipment; and receive a cell ID announcement response from the candidate target relay user equipment.
A method for reducing effects of a sinusoidal component of a noise signal, the method comprising a noise reduction engine performing the following method steps: receiving, at one or more processing devices, an error signal captured using a microphone, the error signal representing a difference between the sinusoidal component of the noise signal and an output of an acoustic transducer, the output of the acoustic transducer configured to reduce the effects of the sinusoidal component of the noise signal; processing the error signal using a digital filter that is configured to compensate for effects due to a signal path between the acoustic transducer and the microphone; determining, based on an output of the digital filter, a current estimate of one or more first parameters of the error signal; determining, based at least on the one or more first parameters of the error signal, a current estimate of a time-varying step size associated with an adaptive process configured to generate a driver signal ( e d ) for the acoustic transducer; and generating, based on the current estimate of the time-varying step size, the driver signal, wherein the driver signal is configured to change the output of the acoustic transducer, and wherein the digital filter is a system transfer function from speakers to microphones. receiving, at one or more processing devices, an error signal captured using a microphone, the error signal representing a difference between the sinusoidal component of the noise signal and an output of an acoustic transducer, the output of the acoustic transducer configured to reduce the effects of the sinusoidal component of the noise signal; processing the error signal using a digital filter that is configured to compensate for effects due to a signal path between the acoustic transducer and the microphone; determining, based on an output of the digital filter, a current estimate of one or more first parameters of the error signal; determining, based at least on the one or more first parameters of the error signal, a current estimate of a time-varying step size associated with an adaptive process configured to generate a driver signal ( e d ) for the acoustic transducer; and generating, based on the current estimate of the time-varying step size, the driver signal, wherein the driver signal is configured to change the output of the acoustic transducer, and
A tracking and identification method, comprising: obtaining, by a first aircraft , a first feature parameter of a target object, wherein the first feature parameter is used to track the target object; and if image data captured by the first aircraft does not match the first feature parameter, adjusting the first aircraft to a predetermined high-altitude area relative to the target object according to location information of a second aircraft that is sent by the second aircraft, wherein the second aircraft is in a predetermined low-altitude area relative to the target object, and image data captured by the second aircraft matches a second feature parameter of the target object, the second feature parameter being used to identify the target object, characterized in that the first feature parameter is used to indicate a parameter of an appearance outline of the target object, and the second feature parameter is used to indicate a parameter of a detail feature of the target object. obtaining, by a first aircraft , a first feature parameter of a target object, wherein the first feature parameter is used to track the target object; and if image data captured by the first aircraft does not match the first feature parameter, adjusting the first aircraft to a predetermined high-altitude area relative to the target object according to location information of a second aircraft that is sent by the second aircraft, wherein the second aircraft is in a predetermined low-altitude area relative to the target object, and image data captured by the second aircraft matches a second feature parameter of the target object, the second feature parameter being used to identify the target object, characterized in that the first feature parameter is used to indicate a parameter of an appearance outline of the target object, and the second feature parameter is used to indicate a parameter of a detail feature of the target object.
A method for planning a driving trajectory (T) defining a travelling path for a vehicle , wherein the driving trajectory (T) is intended to be followed by executing one or more vehicle manoeuvres and wherein the vehicle comprises at least one environment perception sensor having a sensor field of view , the method comprising: - planning the driving trajectory (T) from a first point (A) to a second point (B), by including at least one additional vehicle manoeuvre resulting in a deviation from an otherwise expected travelling path from the first point (A) to the second point (B), so that each section of an area which the vehicle is intended to pass from the first point (A) to the second point (B) is covered in the sensor field of view at least one time during driving from the first point (A) to the second point (B) and at least before passing each respective section. - planning the driving trajectory (T) from a first point (A) to a second point (B), by including at least one additional vehicle manoeuvre resulting in a deviation from an otherwise expected travelling path from the first point (A) to the second point (B), so that each section of an area which the vehicle is intended to pass from the first point (A) to the second point (B) is covered in the sensor field of view at least one time during driving from the first point (A) to the second point (B) and at least before passing each respective section.
An inverting reciprocal quantum logic, RQL, phase-mode flip-flop comprising: a stacked Josephson junction (102, 202, J3) configured to receive a data input signal (D) on a data input line as a positive or a negative single flux quantum, SFQ, pulse and to reverse a DC bias current flowing in the flip-flop based on the data input signal (D); and a comparator configured to receive a logical clock input signal (LCLK) and to either transmit the logical clock input signal (LCLK) on an output line as an output signal (Q) of the flip-flop , the output signal (Q) being a logical inversion of the data input signal (D), or to suppress such transmission, based on the direction of the DC bias current and a logical output state of the flip-flop , the comparator comprising an output Josephson junction (208, J4) and either an escape Josephson junction (206, J5) or a dissipating resistor (R1), the output Josephson junction (208, J4) being coupled between the output line and a circuit ground; wherein the stacked Josephson junction (102, 202, J3) is coupled between the output Josephson junction (208, J4) and a bias source of the DC bias current such that the stacked Josephson junction (102, 202, J3) and the output Josephson junction (208, J4) are biased in series as series Josephson junctions and the triggering of one of the series Josephson junctions can change the DC bias of the other of the series Josephson junctions. a stacked Josephson junction (102, 202, J3) configured to receive a data input signal (D) on a data input line as a positive or a negative single flux quantum, SFQ, pulse and to reverse a DC bias current flowing in the flip-flop based on the data input signal (D); and a comparator configured to receive a logical clock input signal (LCLK) and to either transmit the logical clock input signal (LCLK) on an output line as an output signal (Q) of the flip-flop , the output signal (Q) being a logical inversion of the data input signal (D), or to suppress such transmission, based on the direction of the DC bias current and a logical output state of the flip-flop , the comparator comprising an output Josephson junction (208, J4) and either an escape Josephson junction (206, J5) or a dissipating resistor (R1), the output Josephson junction (208, J4) being coupled between the output line and a circuit ground; wherein the stacked Josephson junction (102, 202, J3) is coupled between the output Josephson junction (208, J4) and a bias source of the DC bias current such that the stacked Josephson junction (102, 202, J3) and the output Josephson junction (208, J4) are biased in series as series Josephson junctions and the triggering of one of the series Josephson junctions can change the DC bias of the other of the series Josephson junctions.
An agricultural field sprayer , drivable or portable by a vehicle, comprising a distribution rod assembly for applying liquids to be distributed, wherein the distribution rod assembly consists of several distribution segments (3, 3' 4, 4'), which are movable relative to one another and which are provided with application pipes and application nozzles , wherein the distribution rod assembly or the distribution segments are movably or oscillatingly arranged relative to one another or relative to the distribution machine via at least one longitudinal axis , which is aligned approximately parallel to the driving direction of the field sprayer , wherein, at least at a distance to at least one longitudinal axis , an adjusting, spring, or damping member is arranged, by means of which the distance or the inclination of the distribution rod assembly or of at least one distribution segment to the contour of the traversable soil can be manipulated in connection with a control or regulating means , wherein the distribution rod assembly with its distribution segments (3, 3' 4, 4') can be folded from a work position extending transversely to the driving direction of the field sprayer , into a transport position corresponding to the transport width of the field sprayer , and that at least one distribution segment located to the right and at least one distribution segment located to the left of the field sprayer is provided with a distance measuring means , which is configured to transfer its measuring signals as guide variable to the control or regulating means , characterized in that the distance measuring means is arranged at a movable arm , wherein the arm is arranged so as to be capable of being moved mechanically by means of the folding movement of the distribution segment and/or the pivoting movement of the individual distribution segments relative to one another from a position, namely the work position, protruding approximately perpendicularly to a distribution segment in the driving direction , into a position, namely the transport position, running approximately parallel to a distribution segment , and vice versa.