mhurhangee/ep-ind-claims huggingface dataset:
An audio signal processing method, wherein the method comprises: obtaining a voice coil direct current resistance of a speaker, comprising: obtaining feedback voltage signals and feedback current signals at two ends of the speaker by using a feedback circuit; and obtaining the voice coil direct current resistance based on the feedback voltage signals and the feedback current signals; obtaining an audio input signal to be input into the speaker; determining an audio input power based on the voice coil direct current resistance and the audio input signal; obtaining a thermal model of the speaker, and determining a transient power threshold based on the audio input power and the thermal model; determining a power constraint gain based on the audio input power and the transient power threshold, wherein if the audio input power is greater than the transient power threshold, the power constraint gain is less than 1; obtaining a voice coil temperature of the speaker; determining a temperature constraint gain based on the voice coil temperature and an upper operating temperature limit of the speaker, wherein if the voice coil temperature is greater than the upper operating temperature limit of the speaker, the temperature constraint gain is less than 1; and adjusting the audio input signal based on the power constraint gain and the temperature constraint gain, to obtain a target signal. obtaining a voice coil direct current resistance of a speaker, comprising: obtaining feedback voltage signals and feedback current signals at two ends of the speaker by using a feedback circuit; and obtaining the voice coil direct current resistance based on the feedback voltage signals and the feedback current signals; obtaining feedback voltage signals and feedback current signals at two ends of the speaker by using a feedback circuit; and obtaining the voice coil direct current resistance based on the feedback voltage signals and the feedback current signals; obtaining an audio input signal to be input into the speaker; determining an audio input power based on the voice coil direct current resistance and the audio input signal; obtaining a thermal model of the speaker, and determining a transient power threshold based on the audio input power and the thermal model; determining a power constraint gain based on the audio input power and the transient power threshold, wherein if the audio input power is greater than the transient power threshold, the power constraint gain is less than 1; obtaining a voice coil temperature of the speaker; determining a temperature constraint gain based on the voice coil temperature and an upper operating temperature limit of the speaker, wherein if the voice coil temperature is greater than the upper operating temperature limit of the speaker, the temperature constraint gain is less than 1; and adjusting the audio input signal based on the power constraint gain and the temperature constraint gain, to obtain a target signal.
A capsule comprising: a cup-shaped body for containing a beverage ingredient, the body having a peripheral rim; and a covering membrane assembled to the body at the rim, characterized in that the capsule further comprises a communication assembly (104, 304), said communication assembly comprising an integrated circuit (106, 306) coupled with a ring antenna (102, 302) being mounted on a rim portion of the capsule, the communication assembly being adapted to transmit information related to the capsule to an external reader, wherein the antenna is arranged with the ring thereof extending entirely around the peripheral rim.
A biosensor comprising: (a) a multisite array of test sites, each test site having an aqueous solution comprising an electrochemically active agent; (b) a transparent support substrate supporting one or more transparent electrodes, wherein the substrate is in contact with the aqueous solution; and (c) a biomolecular interface layer having: immobilized pH sensitive Fluorescent Protein that covers both (a) a first area of the substrate where the immobilized pH sensitive Fluorescent Protein also covers at least one respective one of the one or more transparent electrodes supported on the substrate and (b) a second area of the substrate where the immobilized pH sensitive Fluorescent Protein does not cover any electrodes supported on the substrate; and one or more immobilized probes. (a) a multisite array of test sites, each test site having an aqueous solution comprising an electrochemically active agent; (b) a transparent support substrate supporting one or more transparent electrodes, wherein the substrate is in contact with the aqueous solution; and (c) a biomolecular interface layer having: immobilized pH sensitive Fluorescent Protein that covers both (a) a first area of the substrate where the immobilized pH sensitive Fluorescent Protein also covers at least one respective one of the one or more transparent electrodes supported on the substrate and (b) a second area of the substrate where the immobilized pH sensitive Fluorescent Protein does not cover any electrodes supported on the substrate; and one or more immobilized probes. immobilized pH sensitive Fluorescent Protein that covers both (a) a first area of the substrate where the immobilized pH sensitive Fluorescent Protein also covers at least one respective one of the one or more transparent electrodes supported on the substrate and (b) a second area of the substrate where the immobilized pH sensitive Fluorescent Protein does not cover any electrodes supported on the substrate; and one or more immobilized probes.
An ophthalmic imaging method for three-dimensional imaging a tomographic image of a subject's eye based on interference light generated by interference between return light from the subject's eye irradiated with measurement light and reference light corresponding to the measurement light, characterized by: prior to acquiring a three-dimensional tomographic image of an entire predetermined region of the subject's eye, acquiring consecutive images of an ocular-fundus of the subject's eye, and using the acquired images of the ocular-fundus to thereby detect an amount of displacement of the subject's eye due to a subject's involuntary eye movement during visual-fixation; and detecting a flick motion among motions of the subject's involuntary eye movement during visual-fixation, based on the detected amount of displacement of the subject's eye; and starting acquisition of the three-dimensional tomographic image of the entire predetermined region of the subject's eye after an end of the flick motion is detected in detecting the flick motion. prior to acquiring a three-dimensional tomographic image of an entire predetermined region of the subject's eye, acquiring consecutive images of an ocular-fundus of the subject's eye, and using the acquired images of the ocular-fundus to thereby detect an amount of displacement of the subject's eye due to a subject's involuntary eye movement during visual-fixation; and detecting a flick motion among motions of the subject's involuntary eye movement during visual-fixation, based on the detected amount of displacement of the subject's eye; and acquiring consecutive images of an ocular-fundus of the subject's eye, and using the acquired images of the ocular-fundus to thereby detect an amount of displacement of the subject's eye due to a subject's involuntary eye movement during visual-fixation; and detecting a flick motion among motions of the subject's involuntary eye movement during visual-fixation, based on the detected amount of displacement of the subject's eye; and starting acquisition of the three-dimensional tomographic image of the entire predetermined region of the subject's eye after an end of the flick motion is detected in detecting the flick motion.
Heating, ventilation and/or air-conditioning device for a motor vehicle, comprising a housing comprising: - a first heat exchanger, - a flow duct for a flow of air, where the first heat exchanger is arranged, - a first bypass path for bypassing the first heat exchanger, - a first flap and a second flap that at least partially obstruct the flow duct for the flow of air, said flaps (18, 28) being located close to the first heat exchanger, the first flap being of the sliding type whereas the second flap is of a type different from said first flap, the second flap being of the drum type, the device comprising a synchronization mechanism for synchronising said flaps (18, 28), this mechanism being housed inside the housing, a second heat exchanger being arranged upstream, with respect to the flow direction of the flow of air, of the first heat exchanger, the device comprising a second bypass path for bypassing the first heat exchanger, the second bypass path being arranged at a distance from the first bypass path, the first flap being arranged at the first bypass path and the second flap being arranged at the second bypass path, the device comprising a separation element arranged between said bypass paths (16, 26) of the first heat exchanger, comprising receiving means that are able to accommodate the first flap and the second flap, said heat exchangers (6, 8) being arranged essentially in parallel, said bypass paths (16, 26) being arranged on either side of the first heat exchanger. - a first heat exchanger, - a flow duct for a flow of air, where the first heat exchanger is arranged, - a first bypass path for bypassing the first heat exchanger, - a first flap and a second flap that at least partially obstruct the flow duct for the flow of air, said flaps (18, 28) being located close to the first heat exchanger,
An injection-molded stepping motor, comprising an injection-molded stator assembly and a rotor assembly, wherein the injection-molded stator assembly comprises a stator iron core, a front framework, a rear framework, a stator winding, a front lining ring, a rear lining ring and a mounting bracket, wherein the stator winding is wound in grooves of the stator iron core into which the front framework and the rear framework have been inserted, the front lining ring is mounted at a front side of the stator iron core, and the rear lining ring is mounted at a rear side of the stator iron core, the stator iron core is fixed on the mounting bracket, characterized in that the front lining ring and the rear lining ring each adopts a structure which is formed by punching and laminating thin plates with different inner diameters, wherein the thin plates comprise a first thin plate and a second thin plate which have different inner diameters, and the first thin plate and the second thin plate are laminated for forming a retainer ring groove configured to place in said retainer ring groove a retainer ring for preventing said rotor assembly from being removed. wherein the stator winding is wound in grooves of the stator iron core into which the front framework and the rear framework have been inserted, the front lining ring is mounted at a front side of the stator iron core, and the rear lining ring is mounted at a rear side of the stator iron core, the stator iron core is fixed on the mounting bracket, characterized in that the front lining ring and the rear lining ring each adopts a structure which is formed by punching and laminating thin plates with different inner diameters, wherein the thin plates comprise a first thin plate and a second thin plate which have different inner diameters, and the first thin plate and the second thin plate are laminated for forming a retainer ring groove configured to place in said retainer ring groove a retainer ring for preventing said rotor assembly from being removed.
A cosmetic formulation with deodorant activity for topical application, comprising vitamin E or an ester thereof, starch, sodium bicarbonate, zinc oxide and a cosmetically acceptable vehicle, wherein said vitamin E or an ester thereof is contained in an amount of 5-40%, preferably 15-35%, by weight of the weight of the formulation.
Device for stoving a coating layer on a wire comprising a passageway, having a stoving zone, for the wire, a circulating air fan for generating a circulating air flow that is conducted through the passageway and circulated by means of an air guide system and an exhaust air fan for discharging an exhaust air flow from the circulating air flow being provided such that fresh air (5', 6') flows in at the inlet and at the outlet of the passageway in order to stove the coating, characterised in that a speed controller of the circulating air fan or of the exhaust air fan is provided depending on an adjustable setpoint of the temperature in the stoving zone, the setpoint of the temperature in the stoving zone being associated with a speed value of the circulating air fan or of the exhaust air fan.
A power take-off, PTO, transmission for a vehicle, comprising an input shaft for connection to an engine of the vehicle, an output shaft for connection to an implement, a gear arrangement connecting the input shaft and the output shaft, and a casing in which the input and output shaft (2,3) are journaled for rotation and wherein the casing encloses the gear arrangement; and further comprising a clutch member arranged to engage and disengage the output shaft with and from the input shaft and an oil pump resiliently coupled to the gear arrangement and driven thereby for providing oil pressure to the clutch member, wherein the oil pump comprises a pump shaft for driving the oil pump and wherein the pump shaft is provided with a pump gear in meshed engagement with the gear arrangement, and characterized in that the pump gear is resilient and comprises rubber and/or plastic material. a clutch member arranged to engage and disengage the output shaft with and from the input shaft and an oil pump resiliently coupled to the gear arrangement and driven thereby for providing oil pressure to the clutch member, wherein the oil pump comprises a pump shaft for driving the oil pump and wherein the pump shaft is provided with a pump gear in meshed engagement with the gear arrangement, and characterized in that the pump gear is resilient and comprises rubber and/or plastic material.
An electrically conductive adhesive composition comprising: milled carbon fibers dispersed in a thermosetting resin; and a curative agent, wherein the milled carbon fibers have an average diameter in the range of 5 to 10 microns and an average length in the range of 1 to 300 microns, and wherein the adhesive composition has a linear conductivity in the range of 10 -14 to 10 -10 siemens/cm, wherein the milled carbon fibers are present in an amount in the range of 1 to 20 weight%, based on the total weight of the electrically conductive adhesive composition, and wherein the milled carbon fibers have an average diameter of 7.2 microns and an average length of 100 microns. milled carbon fibers dispersed in a thermosetting resin; and a curative agent, wherein the milled carbon fibers have an average diameter in the range of 5 to 10 microns and an average length in the range of 1 to 300 microns, and wherein the adhesive composition has a linear conductivity in the range of 10 -14 to 10 -10 siemens/cm, wherein the milled carbon fibers are present in an amount in the range of 1 to 20 weight%, based on the total weight of the electrically conductive adhesive composition, and wherein the milled carbon fibers have an average diameter of 7.2 microns and an average length of 100 microns.
An attachment system, comprising: a platform having a front side, an opposite back side, and a plurality of slits through the platform arranged in a predetermined pattern of vertically aligned and spaced apart rows, configured for receiving tabs (54, 72) or straps for attaching at least one holder to the platform, wherein the platform is supported by and comprises an element of a carrier configured to be worn on a user's body for carrying the at least one holder at a desired location on the user's body; characterized by the back side of the platform including a fastening component (48, 56) of a hook and loop fastening system thereon adjacent to the slits and being disposed in opposing relation to a surface of the carrier or a backing element forming a generally flat pocket therebetween, the platform and the carrier or backing element having generally coextensive peripheral edge portions (64, 66) bounding and substantially enclosing the flat pocket providing a barrier to entry of particulates thereabout, at least one of the coextensive edge portions (64, 66) being openable to allow insertion of fingers of a hand into the flat pocket to access tabs (54, 72) or straps inserted through the slits, and the slits being defined and bound by opposing edges (38, 40), respectively, disposed sufficiently close together when in a free state, providing a barrier to passage of particulates therebetween. a platform having a front side, an opposite back side, and a plurality of slits through the platform arranged in a predetermined pattern of vertically aligned and spaced apart rows, configured for receiving tabs (54, 72) or straps for attaching at least one holder to the platform, wherein the platform is supported by and comprises an element of a carrier configured to be worn on a user's body for carrying the at least one holder at a desired location on the user's body; characterized by the back side of the platform including a fastening component (48, 56) of a hook and loop fastening system thereon adjacent to the slits and being disposed in opposing relation to a surface of the carrier or a backing element forming a generally flat pocket therebetween, the platform and the carrier or backing element having generally coextensive peripheral edge portions (64, 66) bounding and substantially enclosing the flat pocket providing a barrier to entry of particulates thereabout, at least one of the coextensive edge portions (64, 66) being openable to allow insertion of fingers of a hand into the flat pocket to access tabs (54, 72) or straps inserted through the slits, and the slits being defined and bound by opposing edges (38, 40), respectively, disposed sufficiently close together when in a free state, providing a barrier to passage of particulates therebetween.
A system for aligning and welding together two segments of a pipe, the system comprising: a welding mechanism for applying a weld to a face joint of the two pipe segments, the welding mechanism including an articulating torch, a sensor for tracking the face joint of the two segments of the pipe and detecting a profile of the face joint of the two segments of the pipe, and an electronic controller for receiving information on the face joint profile from the sensor to control a position and/or orientation of the torch; an alignment mechanism (10A, 10B) for manipulating the orientation of the longitudinal axis of at least one of the pipe segments relative to the other; and wherein the welding mechanism further includes a carriage for securing a position of the welding mechanism in the pipe and a welding portion capable of rotating relative to the carriage within the pipe about the longitudinal axis of at least one of the segments; and wherein the torch and the sensor are rotatably supported by the welding portion such that during welding, the torch follows the sensor along the face joint; characterized in that the sensor comprises a laser sensor, and the electronic controller is configured to receive a signal from the laser sensor to direct the alignment mechanism (10A, 10B) to adjust the relative positions of the pipe segments based on the detected profile of the face joint. a welding mechanism for applying a weld to a face joint of the two pipe segments, the welding mechanism including an articulating torch, a sensor for tracking the face joint of the two segments of the pipe and detecting a profile of the face joint of the two segments of the pipe, and an electronic controller for receiving information on the face joint profile from the sensor to control a position and/or orientation of the torch; an alignment mechanism (10A, 10B) for manipulating the orientation of the longitudinal axis of at least one of the pipe segments relative to the other; and wherein the welding mechanism further includes a carriage for securing a position of the welding mechanism in the pipe and a welding portion capable of rotating relative to the carriage within the pipe about the longitudinal axis of at least one of the segments; and wherein the torch and the sensor are rotatably supported by the welding portion such that during welding, the torch follows the sensor along the face joint; characterized in that the sensor comprises a laser sensor, and the electronic controller is configured to receive a signal from the laser sensor to direct the alignment mechanism (10A, 10B) to adjust the relative positions of the pipe segments based on the detected profile of the face joint.
Method for setting a gear in a gear mechanism of a power tool, in particular a power core drill, wherein the power tool includes an electric motor for generating and transmitting a torque to the gear mechanism and a control unit for setting the speed of the electric motor, and the gear mechanism includes an operating device for selecting a gear in the gear mechanism, a gearshift fork for engaging a gear in the gear mechanism and an actuator for transmitting a movement of the operating device to the gearshift fork, wherein the operating device includes at least one signal transmitter and at least one sensor for receiving at least one signal from the at least one signal transmitter, wherein the method comprises the following method steps: - adjusting the operating device from a first position to a second position for selecting a gear in the gear mechanism; - detecting a signal using the at least one sensor in accordance with the second position of the operating device; - sending the signal to the control unit; characterized in that the actuator is a stepper motor; and wherein the method comprises the following method steps: - adjusting the speed of the electric motor from a first value to a second value using the control unit; - positioning the operating device from the second position to a third position; - adjusting the stepper motor from a first position to a second position in accordance with the third position of the operating device; and - adjusting the gearshift fork from a first position to a second position for changing from a first gear to a second gear. - adjusting the operating device from a first position to a second position for selecting a gear in the gear mechanism; - detecting a signal using the at least one sensor in accordance with the second position of the operating device; - sending the signal to the control unit; - adjusting the speed of the electric motor from a first value to a second value using the control unit; - positioning the operating device from the second position to a third position; - adjusting the stepper motor from a first position to a second position in accordance with the third position of the operating device; and - adjusting the gearshift fork from a first position to a second position for changing from a first gear to a second gear.