mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-channel audio decoder (200; 300; 700; 800) for providing at least two output audio signals (212, 214; 312, 314; 712, 714) on the basis of an encoded representation (210; 310; 710), wherein the multi-channel audio decoder is configured to perform a weighted combination (220; 780, 790, 792) of a downmix signal (222; 752, 754), a decorrelated signal (224; 756,758) and a residual signal (226; 760, 762; res), to obtain one of the output audio signals (212,214; 712, 714), wherein the multi-channel audio decoder is configured to determine a weight (232; r; r dec ) describing a contribution of the decorrelated signal in the weighted combination in dependence on both the residual signal and the decorrelated signal, wherein the downmix signal, the decorrelated signal and the residual signal are derived from the encoded representation; wherein the multi-channel audio decoder is configured to determine the weight (232; r; r dec ) describing the contribution of the decorrelated signal in the weighted combination such that the weight of the decorrelated signal decreases with increasing energy of the residual signal. wherein the multi-channel audio decoder is configured to perform a weighted combination (220; 780, 790, 792) of a downmix signal (222; 752, 754), a decorrelated signal (224; 756,758) and a residual signal (226; 760, 762; res), to obtain one of the output audio signals (212,214; 712, 714), wherein the multi-channel audio decoder is configured to determine a weight (232; r; r dec ) describing a contribution of the decorrelated signal in the weighted combination in dependence on both the residual signal and the decorrelated signal, wherein the downmix signal, the decorrelated signal and the residual signal are derived from the encoded representation; wherein the multi-channel audio decoder is configured to determine the weight (232; r; r dec ) describing the contribution of the decorrelated signal in the weighted combination such that the weight of the decorrelated signal decreases with increasing energy of the residual signal.
Assembly with an energy absorber for energy absorption in an overload event to reduce a resulting load on an object coupled with the assembly , wherein the energy absorber is set up and suitable, in a single overload event involving energy input that is so high that absent such an energy absorber damage to the object is highly probable, to absorb energy so as to avoid excessive load on the object in the overload event by way of the energy absorption of the energy absorber , wherein the energy absorber comprises a fastener provided thereat and a holding device provided on the energy absorber , which energy absorber is provided to absorb energy in a relative motion between the fastener and the holding device , wherein the energy absorber comprises an absorber cylinder and a piston device with an absorber piston and a piston rod connected therewith, wherein the absorber piston on the absorber cylinder defines at least one first chamber of an absorber chamber , wherein the first chamber is at least partially filled with a field-sensitive absorber fluid , and wherein at least one absorber valve with at least one absorber duct extending in an axial direction is provided on the piston device which absorber duct can be exposed to a field of the field generating device , characterised in that a ratio of the outer diameter of the piston rod to an outer diameter of the absorber piston is larger than 3:5 and the first chamber that is at least partially filled with the field-sensitive absorber fluid extends in a space around the piston rod so that during the relative motion of the fastener and of the holding device of the energy absorber during the energy absorption in the overload event the field-sensitive absorber fluid is urged through the damping duct of the absorber piston .
A screw rope for use in a successive screw clamping machine which includes a grip unit in which a screw clamping bit is disposed so as to project therefrom and which rotationally drives the bit by switch operation and a clutch, a screw clamping machine body unit which includes a feeder block which makes a leading end of the bit face a clamping action position and is disposed on the lateral side of the clamping action position and a guide cover which is disposed so as to face the feeder block and also includes a guide projection part for guidance of a screw rope which is formed into an inclined shape and a magazine unit which feeds in turn many screws held by the screw rope , wherein the screw rope is configured to hold fixed portions of threaded parts (S1) of the respective screws (S) so as to be obliquely disposed at predetermined parallel intervals and at a predetermined inclination angle (θ) corresponding to an inclination angle of the guide projection part by a belt-shaped member which runs in a length direction and binding strips which are provided on the rear surface side of the belt-shaped member at predetermined intervals and to continuously form a guide groove which engages with the guide protection part in the screw clamping machine body unit on the front surface side of the belt-shaped member along a length direction thereof, and the screw rope is configured such that when the screw rope is used, the screws (S) are guided to the clamping action position in turn in a manner that height positions of screw heads of the respective screws (S) are lowered as the screws (S) approach the clamping action position side of the bit while keeping the screw rope in an inclined state and keeping the respective screws (S) in vertical states by engagement of the guide projection part of the guide cover with the guide groove in the screw rope .
A method of distributing data to a transducer array of an ultrasonic device, the transducer array including drivers to control groups of transduction elements arranged in modules, the method comprising: generating a data packet from an optical transceiver in a controller, the data packet including activation instructions encoded in a first wavelength; transmitting the data packet from the controller to a target device via a data signal in an optical fiber, the target device having a beam divider device ; splitting the data signal, using the beam divider device , into a plurality of data streams, with each of the data streams carrying the data packet in an identical phase; transmitting the data streams to the drivers; and activating the transduction elements based on the received data streams. generating a data packet from an optical transceiver in a controller, the data packet including activation instructions encoded in a first wavelength; transmitting the data packet from the controller to a target device via a data signal in an optical fiber, the target device having a beam divider device ; splitting the data signal, using the beam divider device , into a plurality of data streams, with each of the data streams carrying the data packet in an identical phase; transmitting the data streams to the drivers; and activating the transduction elements based on the received data streams.
An apparatus located in a vehicle comprising: a processor; and a memory storing thereon a computer program, which when executed by the processor, causes the processor to perform operations including: detecting a traffic mirror and an object in the traffic mirror by using an image which is captured by an image capturing apparatus mounted in a vehicle; calculating a position of the object in the traffic mirror ; recognizing the object reflected in the traffic mirror ; generating driving assist information by using the position of the object in the traffic mirror ; and outputting the driving assist information, characterized in that the driving assist information is generated if the object is approaching the vehicle and if the object recognized in at least one image of a plurality of consecutive time-series images is not recognized in an image subsequent to the at least one image in time series. a processor; and a memory storing thereon a computer program, which when executed by the processor, causes the processor to perform operations including: detecting a traffic mirror and an object in the traffic mirror by using an image which is captured by an image capturing apparatus mounted in a vehicle; calculating a position of the object in the traffic mirror ; recognizing the object reflected in the traffic mirror ; generating driving assist information by using the position of the object in the traffic mirror ; and outputting the driving assist information, characterized in that the driving assist information is generated if the object is approaching the vehicle and if the object recognized in at least one image of a plurality of consecutive time-series images is not recognized in an image subsequent to the at least one image in time series. detecting a traffic mirror and an object in the traffic mirror by using an image which is captured by an image capturing apparatus mounted in a vehicle; calculating a position of the object in the traffic mirror ; recognizing the object reflected in the traffic mirror ; generating driving assist information by using the position of the object in the traffic mirror ; and outputting the driving assist information, characterized in that the driving assist information is generated if the object is approaching the vehicle and if the object recognized in at least one image of a plurality of consecutive time-series images is not recognized in an image subsequent to the at least one image in time series.
A lockable electromechanical actuator comprising: - a body ; - a motor having its outlet shaft constrained to rotate with a screw extending along a longitudinal axis (Oy) ; - a nut engaged on the screw and provided with connection means for connection to an element that is to be moved, the nut moving on the screw from a retracted first position of the nut to a deployed second position of the nut corresponding respectively to a retracted first position of the element that is to be moved and to a deployed second position of the element that is to be moved; and - a locking device for locking the element that is to be moved in the retracted position; the locking device comprising one of the means for actuating a lock being capable of selectively adopting a first position in which the lock prevents relative turning between the screw and the nut that would lead to the element that is to be moved being deployed and a second position in which relative rotation between the screw and the nut is free; characterized in that the locking device is a passive device and is arranged so that: - when the lock is in its first position, the lock passes from the first position to the second position when the element that is to be moved is taken beyond its retracted position; and - when the lock is in its second position, the lock passes from the second position to the first position when the element that is to be moved is taken beyond its retracted position. - a body ; - a motor having its outlet shaft constrained to rotate with a screw extending along a longitudinal axis (Oy) ; - a nut engaged on the screw and provided with connection means for connection to an element that is to be moved, the nut moving on the screw from a retracted first position of the nut to a deployed second position of the nut corresponding respectively to a retracted first position of the element that is to be moved and to a deployed second position of the element that is to be moved; and - a locking device for locking the element that is to be moved in the retracted position; - when the lock is in its first position, the lock passes from the first position to the second position when the element that is to be moved is taken beyond its retracted position; and - when the lock is in its second position, the lock passes from the second position to the first position when the element that is to be moved is taken beyond its retracted position.
A method for determining a synthetic aperture of a synthetic aperture radar, SAR, system, using a mobile radar system that travels in a defined path, wherein information about the path travelled by the mobile radar system is provided by using information from a global navigation satellite system, GNSS, which includes a plurality of satellites each transmitting a radio frequency signal comprising a unique pseudo random number, PRN, the method comprising: - receiving the radio frequency signal from a group of satellites in the GNSS; - determining a first maximum correlation peak of the PRN of the received radio frequency signal from each satellite in the group of satellites; - determining the phase shift between the first determined maximum correlation peak and a second determined maximum correlation peak of a received PRN from the same satellite at a later time, for each satellite in the group of satellites; - determining a line-of-sight, LOS, movement of the SAR system relative each of the satellites in the group of satellites by means of the determined phase shift for each satellite in the group of satellites; and - determining a synthetic aperture using the LOS movement relative each satellite in the group of satellites. - receiving the radio frequency signal from a group of satellites in the GNSS; - determining a first maximum correlation peak of the PRN of the received radio frequency signal from each satellite in the group of satellites; - determining the phase shift between the first determined maximum correlation peak and a second determined maximum correlation peak of a received PRN from the same satellite at a later time, for each satellite in the group of satellites; - determining a line-of-sight, LOS, movement of the SAR system relative each of the satellites in the group of satellites by means of the determined phase shift for each satellite in the group of satellites; and - determining a synthetic aperture using the LOS movement relative each satellite in the group of satellites.
A computer-implemented method for predicting a concentration of an in vivo analyte, the method comprising: obtaining a plurality of in vivo spectra of the in vivo analyte (S201); determining a learning section (S202) of a concentration predicting algorithm for the in vivo analyte based on an unchanged section, during which a concentration of the in vivo analyte is not substantially changed, and the in vivo spectra; and predicting the concentration of the in vivo analyte (S204) by using the concentration predicting algorithm based on a learned result of the learning section and an intrinsic spectrum of the in vivo analyte, characterized in that , the determining of the learning section comprises: calculating a similarity between the in vivo spectra (S401); determining a section having a high similarity as a similar section (S402); and determining a section, during which the unchanged section and the similar section overlap each other, as the learning section (S403). obtaining a plurality of in vivo spectra of the in vivo analyte (S201); determining a learning section (S202) of a concentration predicting algorithm for the in vivo analyte based on an unchanged section, during which a concentration of the in vivo analyte is not substantially changed, and the in vivo spectra; and predicting the concentration of the in vivo analyte (S204) by using the concentration predicting algorithm based on a learned result of the learning section and an intrinsic spectrum of the in vivo analyte, characterized in that , the determining of the learning section comprises: calculating a similarity between the in vivo spectra (S401); determining a section having a high similarity as a similar section (S402); and determining a section, during which the unchanged section and the similar section overlap each other, as the learning section (S403). calculating a similarity between the in vivo spectra (S401); determining a section having a high similarity as a similar section (S402); and determining a section, during which the unchanged section and the similar section overlap each other, as the learning section (S403).
Apparatus for treating a respiratory disorder in a patient, comprising: a pressure generator configured to supply a flow of air at positive pressure to an airway of the patient through a patient interface; a sensor configured to generate a signal representative of respiratory flow rate of the patient; and a controller configured to: control the pressure generator to provide ventilation therapy having a base pressure to the patient interface, detect an apnea from the signal representative of respiratory flow rate, estimate a leak flow rate during the apnea, and adjust a set point for the base pressure of the ventilation therapy in response to the apnea based on the estimated leak flow rate during the apnea, wherein to adjust the set point for the base pressure of the ventilation therapy in response to the apnea the controller is configured to: compute an effective duration of the apnea dependent on the estimate of leak flow rate during the apnea, and adjust the set point for the base pressure based on the effective duration of the apnea. a pressure generator configured to supply a flow of air at positive pressure to an airway of the patient through a patient interface; a sensor configured to generate a signal representative of respiratory flow rate of the patient; and a controller configured to: control the pressure generator to provide ventilation therapy having a base pressure to the patient interface, detect an apnea from the signal representative of respiratory flow rate, estimate a leak flow rate during the apnea, and adjust a set point for the base pressure of the ventilation therapy in response to the apnea based on the estimated leak flow rate during the apnea, wherein to adjust the set point for the base pressure of the ventilation therapy in response to the apnea the controller is configured to: compute an effective duration of the apnea dependent on the estimate of leak flow rate during the apnea, and adjust the set point for the base pressure based on the effective duration of the apnea. control the pressure generator to provide ventilation therapy having a base pressure to the patient interface, detect an apnea from the signal representative of respiratory flow rate, estimate a leak flow rate during the apnea, and adjust a set point for the base pressure of the ventilation therapy in response to the apnea based on the estimated leak flow rate during the apnea, wherein to adjust the set point for the base pressure of the ventilation therapy in response to the apnea the controller is configured to: compute an effective duration of the apnea dependent on the estimate of leak flow rate during the apnea, and adjust the set point for the base pressure based on the effective duration of the apnea. compute an effective duration of the apnea dependent on the estimate of leak flow rate during the apnea, and adjust the set point for the base pressure based on the effective duration of the apnea.
An industrial truck with a drive part and a standing platform (14, 14', 14", 14"') for an operator arranged on the drive part , wherein the standing platform (14, 14', 14", 14''') has a base element (20, 20', 20") that can be pivoted about a first pivot axis (S 1 ) fixed relative to the vehicle, and a standing element (22, 22', 22"), mounted pivotably about a second pivot axis (S 2 ) on the base element (20, 20', 20"), wherein the first pivot axis (S 1 ) and the second pivot axis (S 2 ) run parallel to each other and are arranged offset from each other along a longitudinal vehicle axis (L), wherein the standing element (22, 22', 22") which extends above the base element (20, 20', 20") forms the standing surface for the operator, wherein the base element (20, 20', 20"), in its pivoting movement about the first pivot axis (S 1 ), is supported on the industrial truck by a first suspension (44, 44', 44"), wherein the standing element (22, 22', 22"), in its pivoting movement about the second pivot axis (S 2 ), is supported by a second suspension (36, 36', 36", 38, 38', 38"), characterized in that the first suspension (44, 44', 44") is arranged along the vehicle axis (L) at a distance from the first pivot axis (S 1 ).
A ventilation housing having a ventilation function, comprising: a housing body having a vent hole ; and a ventilation member having a seal ring and a support with a leg portion , the leg portion being fitted in the vent hole , characterized in that the housing body has an inner peripheral surface that defines the vent hole , the inner peripheral surface including a first rounded segment (23 R1 ), a first straight segment (23 S1 ), a second rounded segment (23 R2 ), and a second straight segment (23 S2 ) that are formed in order from an exterior space side to an interior space side of the housing body, the first rounded segment (23 R1 ) and the second rounded segment (23 R2 ) each form a curve convex toward a central axis (O) of the vent hole in a cross section of the housing body including the central axis (O), the first straight segment (23 S1 ) and the second straight segment (23 S2 ) each form a straight line in the cross section, the seal ring is provided at the base of the leg portion of the support , the seal ring is disposed in the vent hole between the support and the housing body , and the seal ring is deformed along the inner peripheral surface so that the seal ring is in contact with the first rounded segment (23 R1 ) and the first straight segment (23 S1 ). a housing body having a vent hole ; and a ventilation member having a seal ring and a support with a leg portion , the leg portion being fitted in the vent hole , characterized in that the housing body has an inner peripheral surface that defines the vent hole , the inner peripheral surface including a first rounded segment (23 R1 ), a first straight segment (23 S1 ), a second rounded segment (23 R2 ), and a second straight segment (23 S2 ) that are formed in order from an exterior space side to an interior space side of the housing body, the first rounded segment (23 R1 ) and the second rounded segment (23 R2 ) each form a curve convex toward a central axis (O) of the vent hole in a cross section of the housing body including the central axis (O), the first straight segment (23 S1 ) and the second straight segment (23 S2 ) each form a straight line in the cross section, the seal ring is provided at the base of the leg portion of the support , the seal ring is disposed in the vent hole between the support and the housing body , and the seal ring is deformed along the inner peripheral surface so that the seal ring is in contact with the first rounded segment (23 R1 ) and the first straight segment (23 S1 ).