mhurhangee/ep-ind-claims huggingface dataset:
A method for processing an audio signal to minimize audio artifacts caused by time scaling or pitch shifting the audio signal, comprising dividing said audio signal into auditory events, wherein said dividing comprises calculating the spectral content of each M-sample subblock of said audio signal by windowing the data of said audio signal into M-sample subblocks, converting the windowed data of each M-sample subblock to the frequency domain using an M-point Fast Fourier Transform, and calculating a magnitude of the FFT coefficients for each M-sample subblock, normalizing the calculated FFT coefficient data by setting the largest FFT coefficient value to unity to generate a normalized array of M numbers, converting the normalized array of M numbers to the log domain, calculating in the log domain the difference in spectral content between successive M-sample subblocks of said audio signal, and setting an auditory event boundary at the boundary between successive M-sample subblocks when the difference in the spectral content between such successive M-sample subblocks exceeds a threshold, and processing the signal in one of the time scaling or pitch shifting operation so that it is processed temporally in response to the auditory event boundaries set when dividing said audio signal into auditory events. calculating the spectral content of each M-sample subblock of said audio signal by windowing the data of said audio signal into M-sample subblocks, converting the windowed data of each M-sample subblock to the frequency domain using an M-point Fast Fourier Transform, and calculating a magnitude of the FFT coefficients for each M-sample subblock, normalizing the calculated FFT coefficient data by setting the largest FFT coefficient value to unity to generate a normalized array of M numbers, converting the normalized array of M numbers to the log domain, calculating in the log domain the difference in spectral content between successive M-sample subblocks of said audio signal, and setting an auditory event boundary at the boundary between successive M-sample subblocks when the difference in the spectral content between such successive M-sample subblocks exceeds a threshold, and
A winder unit (1; 100; 200; 300) for tensioning a cutting wire when operated, said cutting wire being tensioned to cut through adhesive bonding a vehicle window element to a vehicle, said winder unit having at least one winder spool assembly (2; 102, 103; 202; 302, 303) with a winder spool (4; 104, 105; 204; 304, 305) supported for rotation on a winder unit body (6; 106; 206; 306) for winding up wire thereon or unwinding wire therefrom when rotated and with an associated brake mechanism (10; 110, 111; 210; 310, 311) continuously counteracting rotation of the winder spool by yieldingly applying an adjustable force to a spool shaft (4A; 104A, 105A; 204A; 304A, 305A) of said winder spool and with at least one mount (7A, 7B) for temporary fixing of the winder unit on a window element, characterized in that two winder spool assemblies (102, 103; 302, 303) having one winder spool (104, 105; 304, 305) each are supported for rotation on the winder unit body (106; 306) and by a brake mechanism (10; 110, 111; 210; 310, 311) integrated in each of said two winder spool assemblies accommodated in a separate spool housing (8; 108, 109; 208; 308, 309) associated with the winder unit body (6; 106; 206; 306).
An expression vector comprising a promoter operably linked to the gene of interest, expression enhancement element, TPL, VA I and II genes, translation terminator and an antibiotic marker wherein the expression enhancement element is a matrix attachment region that is cLysMARs having the nucleotide sequence of SEQ ID NO:5.
An industrial vehicle (101, 201) driven by an internal combustion engine, the industrial vehicle (101, 201) comprising: a hydraulic mechanism (4, 5); an operation lever (21 a, 22a) operated to operate the hydraulic mechanism (4, 5); a pump driven by the internal combustion engine to discharge hydraulic oil; a hydraulic control valve unit (10, 210) supplied with the hydraulic oil from the pump and adapted to control the hydraulic oil supplied to the hydraulic mechanism (4, 5) based on the operation of the operation lever (21a, 22a); a lever operation detector (21 b, 22b) adapted to detect the operation of the operation lever (21a, 22a); an internal combustion engine controller adapted to control the internal combustion engine; and a valve controller adapted to receive detection information from the lever operation detector (21b, 22b) and control the hydraulic control valve unit (10, 210), wherein the valve controller is adapted so that when the lever operation detector (21b, 22b) detects the operation of the operation lever (21a, 22a) under a situation in which a speed of the internal combustion engine is less than or equal to a predetermined speed, the valve controller operates the hydraulic control valve unit (10, 210) to discharge the hydraulic oil without supplying the hydraulic oil to the hydraulic mechanism (4, 5) and instructs the internal combustion engine controller to increase the speed of the internal combustion engine, and subsequently operates the hydraulic control valve unit (10, 210) to supply the hydraulic mechanism (4, 5) with the hydraulic oil. a hydraulic mechanism (4, 5); an operation lever (21 a, 22a) operated to operate the hydraulic mechanism (4, 5); a pump driven by the internal combustion engine to discharge hydraulic oil; a hydraulic control valve unit (10, 210) supplied with the hydraulic oil from the pump and adapted to control the hydraulic oil supplied to the hydraulic mechanism (4, 5) based on the operation of the operation lever (21a, 22a); a lever operation detector (21 b, 22b) adapted to detect the operation of the operation lever (21a, 22a); an internal combustion engine controller adapted to control the internal combustion engine; and a valve controller adapted to receive detection information from the lever operation detector (21b, 22b) and control the hydraulic control valve unit (10, 210), wherein the valve controller is adapted so that when the lever operation detector (21b, 22b) detects the operation of the operation lever (21a, 22a) under a situation in which a speed of the internal combustion engine is less than or equal to a predetermined speed, the valve controller operates the hydraulic control valve unit (10, 210) to discharge the hydraulic oil without supplying the hydraulic oil to the hydraulic mechanism (4, 5) and instructs the internal combustion engine controller to increase the speed of the internal combustion engine, and subsequently operates the hydraulic control valve unit (10, 210) to supply the hydraulic mechanism (4, 5) with the hydraulic oil.
A system for implementing an automobile electronic control function, wherein the system comprises a first vehicle integration unit, VIU, an automobile control unit, and a plurality of automobile parts (310, 410), and the automobile control unit comprises a first domain controller, DC or a central computing platform, CCP; the automobile control unit is configured to send (910,1010) first control information to the first VIU; and the first VIU is configured to control (920,1020) the plurality of automobile parts based on the first control information; wherein the system comprises a plurality of VIUs (320, 420), the plurality of VIUs comprise the first VIU, and the plurality of VIUs form a ring communications network, or any two different VIUs in the plurality of VIUs have a communication connection; wherein the plurality of automobile parts are a first automobile part set, the system further comprises a second automobile part set, the plurality of VIUs further comprise a second VIU, the first VIU is configured to control the first automobile part set, and the second VIU is configured to control the second automobile part set; and the first VIU is further configured to: receive (1110, 1210) control information of the second automobile part set if the second VIU fails; and control (1120, 1220) an automobile part in the second automobile part set based on the control information of the second automobile part set. the automobile control unit is configured to send (910,1010) first control information to the first VIU; and the first VIU is configured to control (920,1020) the plurality of automobile parts based on the first control information; wherein the system comprises a plurality of VIUs (320, 420), the plurality of VIUs comprise the first VIU, and the plurality of VIUs form a ring communications network, or any two different VIUs in the plurality of VIUs have a communication connection; wherein the plurality of automobile parts are a first automobile part set, the system further comprises a second automobile part set, the plurality of VIUs further comprise a second VIU, the first VIU is configured to control the first automobile part set, and the second VIU is configured to control the second automobile part set; and the first VIU is further configured to: receive (1110, 1210) control information of the second automobile part set if the second VIU fails; and control (1120, 1220) an automobile part in the second automobile part set based on the control information of the second automobile part set. receive (1110, 1210) control information of the second automobile part set if the second VIU fails; and control (1120, 1220) an automobile part in the second automobile part set based on the control information of the second automobile part set.
A compound of Formula I: or a pharmaceutically acceptable salt thereof, wherein: R 1 is selected from -O-CD 2 CD 3, and -O-CD(CD 3) 2; and R 2 is selected from CH 3 and CD 3, wherein for each site designated as deuterium, deuterium incorporation is at least 90%. R 1 is selected from -O-CD 2 CD 3, and -O-CD(CD 3) 2; and R 2 is selected from CH 3 and CD 3,
A multi-touch detection method for a touch panel, wherein the touch panel comprises a first conductive layer and an overlapping second conductive layer, the first conductive layer having a plurality of first electrodes disposed along a first-axis direction, and the second conductive layer having a plurality of second electrodes disposed along a second-axis direction, the multi-touch detection method comprising: sensing the second electrodes to obtain a first voltage function when a first voltage is provided to the first electrodes; sensing the second electrodes to obtain a second voltage function when the first voltage is provided to a first portion of the first electrodes and is not provided to a second portion of the first electrodes; and calculating positions of a first contact point and a second contact point in the second-axis direction by the first and the second voltage functions. sensing the second electrodes to obtain a first voltage function when a first voltage is provided to the first electrodes; sensing the second electrodes to obtain a second voltage function when the first voltage is provided to a first portion of the first electrodes and is not provided to a second portion of the first electrodes; and calculating positions of a first contact point and a second contact point in the second-axis direction by the first and the second voltage functions.
A magazine of a multiple dosing device for releasing one or more doses of an additive, characterized in that it has a number of through openings each receiving a tube, open at both ends and filled with a dose of an additive, which openings and tubes extend axially between two opposite ends of the magazine, that the tubes are arranged moveable in an axial direction inside respective through opening, that an upper foil and a lower foil are placed adhered to the opposite ends of the magazine and wherein the ends of the tubes are placed abutting or adjacent the upper and lower foils (3, 4), respectively.
An apparatus for disinfecting the air of a vehicle with UV-radiation, the apparatus comprising: a housing with an inlet and an outlet for the air flow, wherein within the housing at least a UV-lamp and a device for cleaning the surface of the lamp is mounted, said device comprising a guide along the longitudinal axis of the lamp, wherein to said guide a motion element is attached, said motion element being connected with holders within which cleaning elements are mounted, characterized in that the longitudinal axis of the lamp and the guide are oriented in the direction of the movement of the vehicle, and as motion element a weight is used which under the influence of a driving force is freely movably supported in the guide, wherein the driving force occurs upon change of the driving speed of the vehicle.
A robotic apparatus, comprising: a first wheel assembly including a wheel and an alignment mechanism, and configured for positioning on an outer surface of a pipe on a first half of the pipe; a second wheel assembly and a third wheel assembly, each including a wheel and an alignment mechanism, and configured for positioning on the outer surface of the pipe on a second, circumferentially opposing half of the pipe; and a clamping mechanism configured to apply a force for urging the second wheel and the third wheel to pivot outwards, in opposing directions along a length of the pipe relative to the first wheel, for securing the first wheel, the second wheel, and the third wheel to the pipe, wherein the alignment mechanisms are configured for selectably adjusting an orientation of the wheels to allow the robotic apparatus to move along a straight path or a helical path on the pipe. a first wheel assembly including a wheel and an alignment mechanism, and configured for positioning on an outer surface of a pipe on a first half of the pipe; a second wheel assembly and a third wheel assembly, each including a wheel and an alignment mechanism, and configured for positioning on the outer surface of the pipe on a second, circumferentially opposing half of the pipe; and a clamping mechanism configured to apply a force for urging the second wheel and the third wheel to pivot outwards, in opposing directions along a length of the pipe relative to the first wheel, for securing the first wheel, the second wheel, and the third wheel to the pipe, wherein the alignment mechanisms are configured for selectably adjusting an orientation of the wheels to allow the robotic apparatus to move along a straight path or a helical path on the pipe.
An array of daisy chained image sensors (10, 12, 102, 104, 106, 110, 112, 114), each image sensor (10, 12, 102, 104, 106, 110, 112, 114) comprising a pixel array (32, 34), characterised in that a first image sensor at a first end of the image sensor array is configured to receive a data stream containing identification codes comprising predetermined embedded data values to indicate a start point and an end point of the data stream, wherein each image sensor (10, 12, 102, 104, 106, 110, 112, 114) is configured to monitor and replicate said input data stream up until the point that an identification code indicating an end point of the data stream is received, and then to append its own image data and then a data packet comprising an identification code indicating an end point of the data stream.
A drive system for a vehicle trailer maneuvering drive, comprising at least one motor unit and a voltage source for supplying the motor unit, the motor unit comprising a brushed electric motor with a motor shaft and a motor controller which includes a speed detection unit for detecting the speed of the motor shaft and a control and regulating unit for the motor, in particular for the voltage supply thereof, the motor controller comprising a PWM generator, so that the voltage output by the voltage source is controlled via a PWM signal, characterized in that when operating the drive system on level ground, not more than 90%, in particular not more than 80% of the maximum PWM can be used.
Piezoelectric micromachined ultrasonic transducer comprising: a membrane element for transmitting / receiving ultrasonic waves, during the transmission/reception of ultrasonic waves, the membrane element oscillating, about an equilibrium position, at a respective resonance frequency, and a cap structure extending above the membrane element, wherein said cap structure identifies, between it and said membrane element, a cavity whose volume is variable according to the equilibrium position of the membrane element, and wherein said cap structure comprises an opening for inputting / outputting the ultrasonic waves into/from the cavity; characterised in that: the equilibrium position of the membrane element is variable according to a biasing electric signal applied to the membrane element, and in that said cap structure and said membrane element act as tunable Helmholtz resonator, whereby said resonance frequency is variable according to the volume of the cavity. a membrane element for transmitting / receiving ultrasonic waves, during the transmission/reception of ultrasonic waves, the membrane element oscillating, about an equilibrium position, at a respective resonance frequency, and a cap structure extending above the membrane element, wherein said cap structure identifies, between it and said membrane element, a cavity whose volume is variable according to the equilibrium position of the membrane element, and wherein said cap structure comprises an opening for inputting / outputting the ultrasonic waves into/from the cavity; characterised in that: the equilibrium position of the membrane element is variable according to a biasing electric signal applied to the membrane element, and in that said cap structure and said membrane element act as tunable Helmholtz resonator, whereby said resonance frequency is variable according to the volume of the cavity. the equilibrium position of the membrane element is variable according to a biasing electric signal applied to the membrane element, and in that said cap structure and said membrane element act as tunable Helmholtz resonator, whereby said resonance frequency is variable according to the volume of the cavity.
A composition comprising one or multiple compound(s) of formula and/or one or multiple salt(s) thereof, wherein X is an aliphatic residue with one, two, three or more than three hydroxyl groups, wherein the total number of C-atoms in the aliphatic residue X is not greater than 15, and wherein the aliphatic residue - is saturated or unsaturated, and - is branched or unbranched, wherein in the composition the molar ratio of the total amount of compounds of formula and salts thereof to the amount of cannabidiol is greater than 1: 1, and simultaneously the molar ratio of the total amount of compounds of formula and salts thereof to the amount of compounds of formula is greater than 1: 1, wherein the compound of formula is selected from the group consisting of: - is saturated or unsaturated, and - is branched or unbranched, wherein in the composition the molar ratio of the total amount of compounds of formula and salts thereof to the amount of cannabidiol is greater than 1: 1, and simultaneously the molar ratio of the total amount of compounds of formula and salts thereof to the amount of compounds of formula is greater than 1: 1, wherein the compound of formula is selected from the group consisting of:
A system for enhancing position determination by rovers using a satellite ranging system to ascertain their locations, the satellite ranging system including a plurality of earth-orbiting satellites, the system for enhancing position determination comprising: A. a base station including one or more receivers for receiving and processing ranging signals from multiple earth-orbiting satellites and determining information relating to satellite ranging system timing at the location of the base station, and a transmitter for broadcasting a ranging signal that is based on the location of the base station, the base station ranging signal synchronized to the satellite ranging system time at the base station, wherein the base station includes a plurality of antennas; B. one or more rovers, each rover including at least one receiver for receiving and processing the ranging signals broadcast from the earth-orbiting satellites and the ranging signal from the base station; characterised in that each rover comprises a transmitter that transmits to the base station a return signal in response to the ranging signal received from the base station, the return signal being aligned with the satellite ranging system time at the location of the rover, wherein the base station determines the range of the rover from the base station and the rover's direction based on the received return signal. A. a base station including one or more receivers for receiving and processing ranging signals from multiple earth-orbiting satellites and determining information relating to satellite ranging system timing at the location of the base station, and a transmitter for broadcasting a ranging signal that is based on the location of the base station, the base station ranging signal synchronized to the satellite ranging system time at the base station, wherein the base station includes a plurality of antennas; B. one or more rovers, each rover including at least one receiver for receiving and processing the ranging signals broadcast from the earth-orbiting satellites and the ranging signal from the base station; characterised in that each rover comprises a transmitter that transmits to the base station a return signal in response to the ranging signal received from the base station, the return signal being aligned with the satellite ranging system time at the location of the rover, wherein the base station determines the range of the rover from the base station and the rover's direction based on the received return signal.