mhurhangee/patent-ind-claim-en huggingface dataset:
A display apparatus comprising: a displayer configured to display a video frame; a plurality of speakers dispersedly disposed in a main body of the display apparatus; a controller configured to detect a vocalized position in the video frame; and an audio processor configured to: process an audio signal corresponding to the video frame differently according to a distance between the vocalized position and each of the plurality of speakers; create a plurality of audio output signals, and provide each created audio output signal to each of the plurality of speakers, wherein, when the vocalized position is moved within the video frame, the controller controls the audio processor to change the each created audio output signal provided to the each of the plurality of speakers according to the moved vocalized position, wherein the audio processor, when an audio signal corresponding to the video frame includes sub audio signals with frequency bands different from each other, adjusts and re-combines the audio signal according to the distance between the vocalized position of a vocalizing object, which corresponds to each of the sub audio signals, and the plurality of speakers, and creates the plurality of audio output signals. a displayer configured to display a video frame; a plurality of speakers dispersedly disposed in a main body of the display apparatus; a controller configured to detect a vocalized position in the video frame; and an audio processor configured to: process an audio signal corresponding to the video frame differently according to a distance between the vocalized position and each of the plurality of speakers; create a plurality of audio output signals, and provide each created audio output signal to each of the plurality of speakers, wherein, when the vocalized position is moved within the video frame, the controller controls the audio processor to change the each created audio output signal provided to the each of the plurality of speakers according to the moved vocalized position, process an audio signal corresponding to the video frame differently according to a distance between the vocalized position and each of the plurality of speakers; create a plurality of audio output signals, and provide each created audio output signal to each of the plurality of speakers, wherein, when the vocalized position is moved within the video frame, the controller controls the audio processor to change the each created audio output signal provided to the each of the plurality of speakers according to the moved vocalized position, wherein the audio processor, when an audio signal corresponding to the video frame includes sub audio signals with frequency bands different from each other, adjusts and re-combines the audio signal according to the distance between the vocalized position of a vocalizing object, which corresponds to each of the sub audio signals, and the plurality of speakers, and creates the plurality of audio output signals.
A method for displaying a stream of video data, comprising: identifying a first plurality of frames in the stream of video data to be displayed at a fast forward rate during fast forward play, wherein identifying the first plurality includes selecting frames that are a constant distance apart in the video stream; for each respective frame in the first plurality, identifying a second plurality of frames from the stream in an interval between the respective frame and a consecutive frame in the first plurality, wherein the second plurality of frames are consecutive with their respective first frame in playback order; and displaying each first frame and its associated second plurality of frames at a playback rate slower than the fast forward rate. identifying a first plurality of frames in the stream of video data to be displayed at a fast forward rate during fast forward play, wherein identifying the first plurality includes selecting frames that are a constant distance apart in the video stream; for each respective frame in the first plurality, identifying a second plurality of frames from the stream in an interval between the respective frame and a consecutive frame in the first plurality, wherein the second plurality of frames are consecutive with their respective first frame in playback order; and displaying each first frame and its associated second plurality of frames at a playback rate slower than the fast forward rate.
Topical composition comprising coenzyme Q10 in oxidized form and glutathione in reduced form as active ingredients comprising: A) an oily phase in which the above mentioned active ingredients are dispersed and comprising: A1) oleic acid, A2) ascorbyl palmitate and A3) at least one of the following components promoting the absorption of the mixture at the skin tissue level selected from cetearyl alcohol, glyceryl stearate, sorbitan stearate, cetearyl glucoside, potassium cetyl phosphate, tocopheryl acetate; B) an aqueous phase in which at least one osmotically active electrolytic agent, selected from magnesium sulphate, magnesium chloride, sodium chloride, is dissolved, wherein the oily phase A) contains oleic acid A1) in quantities comprised between 20% and 50% by weight on the total weight of the composition and ascorbyl palmitate A2) in molar ratio 1:1 with the oxidized form of coenzyme Q10. A) an oily phase in which the above mentioned active ingredients are dispersed and comprising: A1) oleic acid, A2) ascorbyl palmitate and A3) at least one of the following components promoting the absorption of the mixture at the skin tissue level selected from cetearyl alcohol, glyceryl stearate, sorbitan stearate, cetearyl glucoside, potassium cetyl phosphate, tocopheryl acetate; A1) oleic acid, A2) ascorbyl palmitate and A3) at least one of the following components promoting the absorption of the mixture at the skin tissue level selected from cetearyl alcohol, glyceryl stearate, sorbitan stearate, cetearyl glucoside, potassium cetyl phosphate, tocopheryl acetate; B) an aqueous phase in which at least one osmotically active electrolytic agent, selected from magnesium sulphate, magnesium chloride, sodium chloride, is dissolved,
Gas container equipped with a gas distribution assembly comprising a tap unit and a protective cap arranged around the tap unit , the protective cap comprising a cap body forming a protective shell delimiting an inner volume designed to receive all or some of the tap unit , characterised in that : - the tap unit comprises at least one blind slot opening onto the outer peripheral surface thereof, and - the cap body comprises, on the inner wall thereof, at least one protruding finger being projected into said inner volume , said at least one protruding finger being housed in said at least one blind slot when the protective cap is arranged around the tap unit . - the tap unit comprises at least one blind slot opening onto the outer peripheral surface thereof, and - the cap body comprises, on the inner wall thereof, at least one protruding finger being projected into said inner volume , said at least one protruding finger being housed in said at least one blind slot when the protective cap is arranged around the tap unit .
A PTO drive assembly for a transmission , comprising: a shaft defining a shaft axis ; a PTO gear defined radially about the shaft axis that includes a gear base having one or more gear base splines; and a clutch assembly positioned between the shaft and the PTO gear and having an engaged position and a disengaged position, the clutch assembly including a piston assembly that has a piston ; wherein, when the clutch assembly is in the engaged position, torque is transferred from the shaft to the PTO gear ; characterised in that when the clutch assembly is in the disengaged position, torque is not transferred from the shaft to the PTO gear ; and wherein the piston assembly has a housing , the piston is movably disposed in a cavity defined by the housing and the housing of the piston assembly has a first cylindrical segment that is removably coupled to the gear base with the one or more gear base splines. a shaft defining a shaft axis ; a PTO gear defined radially about the shaft axis that includes a gear base having one or more gear base splines; and a clutch assembly positioned between the shaft and the PTO gear and having an engaged position and a disengaged position, the clutch assembly including a piston assembly that has a piston ; wherein, when the clutch assembly is in the engaged position, torque is transferred from the shaft to the PTO gear ; characterised in that when the clutch assembly is in the disengaged position, torque is not transferred from the shaft to the PTO gear ; and wherein the piston assembly has a housing , the piston is movably disposed in a cavity defined by the housing and the housing of the piston assembly has a first cylindrical segment that is removably coupled to the gear base with the one or more gear base splines.
A cooking apparatus comprising: a cooking surface ; a leveling device constructed and arranged to adjust a position of the cooking surface relative to a horizontal plane ; a dual-axis inclinometer configured to sense the position operatively engaged to an underside of the cooking surface ; and an electronic controller configured to receive a position signal from the dual-axis inclinometer and output a command signal to the leveling device to adjust the position of the cooking surface relative to said horizontal plane . a cooking surface ; a leveling device constructed and arranged to adjust a position of the cooking surface relative to a horizontal plane ; a dual-axis inclinometer configured to sense the position operatively engaged to an underside of the cooking surface ; and an electronic controller configured to receive a position signal from the dual-axis inclinometer and output a command signal to the leveling device to adjust the position of the cooking surface relative to said horizontal plane .
A MEMS displacement sensor having a plurality of deformable members and at least one driving member positioned in spaced relationship related to said deformable members and providing displacement, wherein the driving member forms part of an electrical circuit and the deformable members are electrically connected to the electrical circuit, the deformable members having an electro-conductive property; characterized in that said displacement causes said deformable members to create a sequential contact between said plurality of said deformable members , wherein a predetermined spacing between said deformable members defines said MEMS displacement sensor sensitivity to said displacement, and wherein each deformable member has a movable, distal end , and a fixed, proximal end and is spaced apart from an adjacent deformable member by a predetermined distance, and wherein, as the at least one driving member moves relative to the plurality of deformable members by a distance corresponding to the predetermined distance, driving member makes electrical contact with the distal end of the outermost deformable member , and as the at least one driving member continues to move relative to the plurality of deformable members by an additional predetermined distance, the distal end of the outermost deformable member makes contact with the distal end of the adjacent deformable member , so that an output voltage is reduced by a stepwise amount, whereby the state of the contacts assigned to a specific displacement defines the output of said sensor.
A missile detector, in particular a passive missile detector, comprising: a primary sensor for detecting a potential missile in a first spectral range; a secondary sensor for detecting the potential missile in a second spectral range; an evaluation unit configured to: - receive first detection signals from the primary sensor and to generate a warning signal from the potential missile after a declaration threshold value has been exceeded, - continuously receive second detection signals from the secondary sensor and to store said second detection signals for a predetermined period of time, wherein the predetermined time period depends on an expected flight time period of the potential missile to an object to be warned by the missile detector, - perform a verification of the potential missile based on a tracking when the warning signal is present, the tracking comprising an analysis of the stored sensor signals of the secondary sensor and being performed in time up to a possible firing event , the firing event being a temporally localized maximum in the sensor data or an earliest possible sensor signal within the tracking. a primary sensor for detecting a potential missile in a first spectral range; a secondary sensor for detecting the potential missile in a second spectral range; an evaluation unit configured to: - receive first detection signals from the primary sensor and to generate a warning signal from the potential missile after a declaration threshold value has been exceeded, - continuously receive second detection signals from the secondary sensor and to store said second detection signals for a predetermined period of time, wherein the predetermined time period depends on an expected flight time period of the potential missile to an object to be warned by the missile detector, - perform a verification of the potential missile based on a tracking when the warning signal is present, the tracking comprising an analysis of the stored sensor signals of the secondary sensor and being performed in time up to a possible firing event , the firing event being a temporally localized maximum in the sensor data or an earliest possible sensor signal within the tracking. - receive first detection signals from the primary sensor and to generate a warning signal from the potential missile after a declaration threshold value has been exceeded, - continuously receive second detection signals from the secondary sensor and to store said second detection signals for a predetermined period of time, wherein the predetermined time period depends on an expected flight time period of the potential missile to an object to be warned by the missile detector, - perform a verification of the potential missile based on a tracking when the warning signal is present, the tracking comprising an analysis of the stored sensor signals of the secondary sensor and being performed in time up to a possible firing event , the firing event being a temporally localized maximum in the sensor data or an earliest possible sensor signal within the tracking.
An ophthalmologic apparatus , comprising: an acquisition unit including an optical scanner capable of deflecting light in a predetermined deflection angle range and configured to acquire data of a subject's eye (E) by performing A-scan on the subject's eye (E) using optical coherence tomography by measurement light (LS) deflected by the optical scanner ; and a controller configured to cause the acquisition unit to perform A-scan based on a deflection operation state of the optical scanner , wherein the controller is configured to cause the acquisition unit to perform A-scan depending on a deflection angle of the optical scanner and is configured to cause the acquisition unit to perform A-scan so that intervals between the deflection angles are substantially equal; characterized in that the controller is configured: to acquire operation information representing a deflection angle of the optical scanner ; to determine whether or not the deflection angle is a predetermined deflection angle based on the acquired operation information; and to cause the acquisition unit to perform A-scan when it is determined that the deflection angle is the predetermined deflection angle. an acquisition unit including an optical scanner capable of deflecting light in a predetermined deflection angle range and configured to acquire data of a subject's eye (E) by performing A-scan on the subject's eye (E) using optical coherence tomography by measurement light (LS) deflected by the optical scanner ; and a controller configured to cause the acquisition unit to perform A-scan based on a deflection operation state of the optical scanner , wherein the controller is configured to cause the acquisition unit to perform A-scan depending on a deflection angle of the optical scanner and is configured to cause the acquisition unit to perform A-scan so that intervals between the deflection angles are substantially equal; characterized in that the controller is configured: to acquire operation information representing a deflection angle of the optical scanner ; to determine whether or not the deflection angle is a predetermined deflection angle based on the acquired operation information; and to cause the acquisition unit to perform A-scan when it is determined that the deflection angle is the predetermined deflection angle. to acquire operation information representing a deflection angle of the optical scanner ; to determine whether or not the deflection angle is a predetermined deflection angle based on the acquired operation information; and to cause the acquisition unit to perform A-scan when it is determined that the deflection angle is the predetermined deflection angle.
A method of controlling access to a zone , performed by a first access controller or a server configured to communicate with the first access controller , wherein the zone is a section of a building or outside area accessed via a first access point having an associated first set of access rights, the first set of access rights including permission for a first entity category to access the zone , the method comprising: receiving a first signal including a first identifier indicating that a first entity identified by the first identifier and belonging to the first entity category is at the first access point; in response to receipt of the first signal, allowing the first entity entry into the zone through the first access point; and in response to receipt of the first signal, temporarily changing the access rights associated with the first access point to a second set of access rights, wherein the first set of access rights include permission for a second entity category to access the zone , and the second set of access rights deny permission for the second entity category to access the zone , characterized by : reverting the access rights associated with the first access point to the first set of access rights on expiry of a predetermined time period since receipt of the first signal. receiving a first signal including a first identifier indicating that a first entity identified by the first identifier and belonging to the first entity category is at the first access point; in response to receipt of the first signal, allowing the first entity entry into the zone through the first access point; and in response to receipt of the first signal, temporarily changing the access rights associated with the first access point to a second set of access rights, wherein the first set of access rights include permission for a second entity category to access the zone , and the second set of access rights deny permission for the second entity category to access the zone , characterized by : reverting the access rights associated with the first access point to the first set of access rights on expiry of a predetermined time period since receipt of the first signal.
A method of generating soft information values for bit-tuple data values read from a storage medium , the method characterized by : retrieving a characterization vector , of a plurality of distinct characterization vectors (421-1, ..., 421-n) for the storage medium, based on a set of one or more storage medium characterization parameter values associated with the current state of the storage medium; wherein each characterization vector includes a set of soft information values including one or more soft information values for each of the bit-tuples that may be read from the storage medium; generating a first plurality of soft information values corresponding to a first plurality of bit-tuple data values read from the storage medium by selecting the respective soft information value from the retrieved characterization vector for each bit-tuple of the first plurality of bit-tuple data values read from the storage medium; and generating a second plurality of soft information values corresponding to a second plurality of bit-tuple data values read from the storage medium by selecting the respective soft information value from the retrieved characterization vector for each bit-tuple of the second plurality of bit-tuple data values read from the storage medium. retrieving a characterization vector , of a plurality of distinct characterization vectors (421-1, ..., 421-n) for the storage medium, based on a set of one or more storage medium characterization parameter values associated with the current state of the storage medium; wherein each characterization vector includes a set of soft information values including one or more soft information values for each of the bit-tuples that may be read from the storage medium; generating a first plurality of soft information values corresponding to a first plurality of bit-tuple data values read from the storage medium by selecting the respective soft information value from the retrieved characterization vector for each bit-tuple of the first plurality of bit-tuple data values read from the storage medium; and generating a second plurality of soft information values corresponding to a second plurality of bit-tuple data values read from the storage medium by selecting the respective soft information value from the retrieved characterization vector for each bit-tuple of the second plurality of bit-tuple data values read from the storage medium.
A process for the purification of levulinic acid, comprising: i) providing an aqueous solution comprising levulinic acid; ii) subjecting the aqueous solution of step (i) to an organic extraction to yield an organic solution and an aqueous solution; iii) subjecting the organic solution obtained in the previous step to an aqueous extraction to yield an aqueous solution, comprising levulinic acid, and an organic solution; and iv) subjecting the aqueous solution comprising levulinic acid obtained in step (iii) to a membrane separation to yield an aqueous solution comprising levulinic acid, and a residue. i) providing an aqueous solution comprising levulinic acid; ii) subjecting the aqueous solution of step (i) to an organic extraction to yield an organic solution and an aqueous solution; iii) subjecting the organic solution obtained in the previous step to an aqueous extraction to yield an aqueous solution, comprising levulinic acid, and an organic solution; and iv) subjecting the aqueous solution comprising levulinic acid obtained in step (iii) to a membrane separation to yield an aqueous solution comprising levulinic acid, and a residue.
Circuit arrangement for balancing electric voltages of electric capacitors in a series circuit, having in each case a half bridge module connected to each of the electric capacitors , which provides a central terminal , and having a clock generator for operating all half bridge modules in cyclic operation, wherein a respective first terminal of an electric coil assigned individually to the respective half bridge module is connected to the central terminal of each half bridge module , and a second terminal of this electric coil is connected accordingly via a series capacitor to one of two terminals of the capacitor connected in parallel to the corresponding half bridge module , wherein the clock generator is designed to operate the half bridge modules in synchrony in cyclic operation, and wherein the electric coils are coupled magnetically such that the magnetic fluxes generated by the electric coils add together, characterised in that during operation of the circuit arrangement as a resonance capacitor the respective series capacitor is operated.