mhurhangee/patent-ind-claim-en huggingface dataset:
A tubular electromechanical actuator for a closure or sun protection home automation installation, the electromechanical actuator comprising at least: - an electric motor , - a reduction gear , - an output shaft , and - a casing , the casing being hollow and configured to house at least the electric motor and the reduction gear , the casing comprising a first end and a second end , the second end being opposite the first end , characterized in that : - the electromechanical actuator also comprises a retaining element , the retaining element being assembled at the first end of the casing , so as to close off the first end of the casing , - the retaining element comprises at least: ∘ a first stop configured to cooperate with the reduction gear , in an assembled configuration of the electromechanical actuator , and ∘ a second stop configured to cooperate with the casing , at the first end of the casing , in the assembled configuration of the electromechanical actuator , and - the retaining element comprises at least one accommodation configured to cooperate with at least one rib of the reduction gear , so as to participate in the sealing between the retaining element and the reduction gear . - an electric motor , - a reduction gear , - an output shaft , and - a casing , the casing being hollow and configured to house at least the electric motor and the reduction gear , the casing comprising a first end and a second end , the second end being opposite the first end , - the electromechanical actuator also comprises a retaining element , the retaining element being assembled at the first end of the casing , so as to close off the first end of the casing , - the retaining element comprises at least: ∘ a first stop configured to cooperate with the reduction gear , in an assembled configuration of the electromechanical actuator , and ∘ a second stop configured to cooperate with the casing , at the first end of the casing , in the assembled configuration of the electromechanical actuator , and ∘ a first stop configured to cooperate with the reduction gear , in an assembled configuration of the electromechanical actuator , and ∘ a second stop configured to cooperate with the casing , at the first end of the casing , in the assembled configuration of the electromechanical actuator , and - the retaining element comprises at least one accommodation configured to cooperate with at least one rib of the reduction gear , so as to participate in the sealing between the retaining element and the reduction gear .
A multilayer nonwoven fabric, comprising: an elastic nonwoven fabric containing an α-olefin copolymer in which a ratio (E40/E23) between a storage elastic modulus E40 at 40°C and a storage elastic modulus E23 at 23°C is 37% or higher; and a mixed-fiber spunbond nonwoven fabric that is disposed on at least one side of the elastic nonwoven fabric, wherein the α-olefin copolymer includes a copolymer of ethylene and propylene, and the mixed-fiber spunbond nonwoven fabric contains a long fiber of a thermoplastic elastomer (A) and a long fiber of a thermoplastic resin (B), which is different from the thermoplastic elastomer (A) and which is a polyolefin, in a ratio (A) : (B) of from 10 to 90% by mass : from 90 to 10% by mass, wherein (A) + (B) = 100% by mass. an elastic nonwoven fabric containing an α-olefin copolymer in which a ratio (E40/E23) between a storage elastic modulus E40 at 40°C and a storage elastic modulus E23 at 23°C is 37% or higher; and a mixed-fiber spunbond nonwoven fabric that is disposed on at least one side of the elastic nonwoven fabric, wherein the α-olefin copolymer includes a copolymer of ethylene and propylene, and the mixed-fiber spunbond nonwoven fabric contains a long fiber of a thermoplastic elastomer (A) and a long fiber of a thermoplastic resin (B), which is different from the thermoplastic elastomer (A) and which is a polyolefin, in a ratio (A) : (B) of from 10 to 90% by mass : from 90 to 10% by mass, wherein (A) + (B) = 100% by mass.
A pressing machine for plastically deforming a tubular workpiece, in particular a fitting, the pressing machine comprising: press jaws; a drive configured to drive the press jaws to apply a force to the workpiece; a sensor system configured to record a press data set during a pressing operation to automatically identify the press jaws and/or the workpiece; characterized by a controller configured to automatically control the drive adapted to the workpiece and/or the press jaws during the pressing operation based on the recorded press data set to apply an individual pressing force, a storage medium with a database comprising at least one stored press data set for a pressing operation of at least one type of press jaws and/or at least one type of tubular workpieces, wherein the at least one recorded press data set represents a first press curve (K1, K2, K3, K4, K5, K6, K7) and wherein the at least one stored press data set represents a second press curve (K1, K2, K3, K4, K5, K6, K7) and wherein the courses of the first and the second press curve (K1, K2, K3, K4, K5, K6, K7) are checked for agreement and wherein the drive is controlled according to the stored press data set if the first and the second press curve (K1, K2, K3, K4, K5, K6, K7) agree. press jaws; a drive configured to drive the press jaws to apply a force to the workpiece; a sensor system configured to record a press data set during a pressing operation to automatically identify the press jaws and/or the workpiece; characterized by a controller configured to automatically control the drive adapted to the workpiece and/or the press jaws during the pressing operation based on the recorded press data set to apply an individual pressing force, a storage medium with a database comprising at least one stored press data set for a pressing operation of at least one type of press jaws and/or at least one type of tubular workpieces, wherein the at least one recorded press data set represents a first press curve (K1, K2, K3, K4, K5, K6, K7) and wherein the at least one stored press data set represents a second press curve (K1, K2, K3, K4, K5, K6, K7) and wherein the courses of the first and the second press curve (K1, K2, K3, K4, K5, K6, K7) are checked for agreement and wherein the drive is controlled according to the stored press data set if the first and the second press curve (K1, K2, K3, K4, K5, K6, K7) agree.
Method for assembling two metal sheet elements , comprising depositing a bead of glue on a first element, assembling the second metal sheet element on the first element and fixing by making weld points to hold the two metal sheet elements immobile before proceeding to the hardening of the glue, characterized in that the bead of glue is deposited discontinuously along a glue line on the first metal sheet element , and then, once the second metal sheet element is applied against the first, the two elements are kept fixed one with respect to the other by producing weld points at sections without glue of the discontinuous sizing line.
An alternator control system for use with an alternator configured to provide a charging voltage to a battery and having an output for outputting a charging voltage over cables to terminals of a battery or battery array , said alternator having an internal output voltage regulator that reads the charging voltage through an internal feedback line and regulates the charging voltage to the battery, said alternator control system comprising: a controller connected to receive a signal from the battery over an external feedback line indicating a condition of the battery receiving the charging voltage, and an adjustable voltage source controlled by the controller to adjust the charging voltage to the battery from said output , the system being characterized in that : the adjustable voltage source is connected to the internal feedback line between said output and the internal regulator ; a switch is provided on the internal feedback line to open and close the connection between said output and the internal regulator , the switch being arranged in parallel with the adjustable voltage source ; and in response to the signal corresponding to the condition of the battery , the controller is arranged to selectively open and close the switch , and selectively actuate the adjustable voltage source to selectively vary the voltage in the internal feedback line to the internal output voltage regulator , thereby causing the internal output voltage regulator to signal the alternator to correspondingly vary the voltage from said output over the cables so that the voltage reaching the battery is at a pre-set value. a controller connected to receive a signal from the battery over an external feedback line indicating a condition of the battery receiving the charging voltage, and an adjustable voltage source controlled by the controller to adjust the charging voltage to the battery from said output , the system being characterized in that : the adjustable voltage source is connected to the internal feedback line between said output and the internal regulator ; a switch is provided on the internal feedback line to open and close the connection between said output and the internal regulator , the switch being arranged in parallel with the adjustable voltage source ; and in response to the signal corresponding to the condition of the battery , the controller is arranged to selectively open and close the switch , and selectively actuate the adjustable voltage source to selectively vary the voltage in the internal feedback line to the internal output voltage regulator , thereby causing the internal output voltage regulator to signal the alternator to correspondingly vary the voltage from said output over the cables so that the voltage reaching the battery is at a pre-set value.
A NEBULISER WITH POWERED TURBINE of the type that comprise elements to generate an air current which is channelled towards a deflector that redirects this current to the exterior, dragging the product that flows through nozzles arranged in the vicinity of the air current at its outlet, comprising: a first propeller housed in a first duct , a second propeller housed in a second duct , a shaft , a chamber between the first and the second propeller, a deflector , wherein the first propeller and the second propeller are arranged in line, wherein the first propeller is in an outermost position sucking the outside air and taking it to the chamber and the second propeller takes the air from the chamber and propels it towards the deflector , and the first duct and the second duct are in line, the first duct being partially inserted in the second duct . a first propeller housed in a first duct , a second propeller housed in a second duct , a shaft , a chamber between the first and the second propeller, a deflector , wherein the first propeller and the second propeller are arranged in line, wherein the first propeller is in an outermost position sucking the outside air and taking it to the chamber and the second propeller takes the air from the chamber and propels it towards the deflector , and the first duct and the second duct are in line, the first duct being partially inserted in the second duct .
An integrated circuit, IC, comprising: a processor comprising a plurality of processor cores ; and a power management controller coupled to the plurality of processor cores and located outside the plurality of processor cores; wherein the plurality of processor cores include one core having a static random access memory, SRAM, operable to store data of the one core , the one core configured to store data from the SRAM to a dynamic RAM, DRAM, located externally to the processor in response to receipt from the power management controller of both a first indication that the one core is to transition from a first low power idle state to a second low power idle state corresponding to a deeper sleep state than the first low power idle state and a second indication generated externally from the one core and provided to the power management controller, from an operating system loaded in said dynamic RAM, for notification to the processor, the second indication indicating that the one core is to store the data from the SRAM to the DRAM as part of transitioning from the first low power idle state to the second low power idle state; wherein locations in the DRAM at which the data is stored are accessible by the one core and inaccessible by other processor cores of the plurality of processor cores. a processor comprising a plurality of processor cores ; and a power management controller coupled to the plurality of processor cores and located outside the plurality of processor cores; wherein the plurality of processor cores include one core having a static random access memory, SRAM, operable to store data of the one core , the one core configured to store data from the SRAM to a dynamic RAM, DRAM, located externally to the processor in response to receipt from the power management controller of both a first indication that the one core is to transition from a first low power idle state to a second low power idle state corresponding to a deeper sleep state than the first low power idle state and a second indication generated externally from the one core and provided to the power management controller, from an operating system loaded in said dynamic RAM, for notification to the processor, the second indication indicating that the one core is to store the data from the SRAM to the DRAM as part of transitioning from the first low power idle state to the second low power idle state; wherein locations in the DRAM at which the data is stored are accessible by the one core and inaccessible by other processor cores of the plurality of processor cores.
Silencer and fastening device for fastening the silencer to a handgun, wherein the fastening device has - a fastening rail for fastening the fastening apparatus to a mounting rail of the handgun, and - a fastening means for fastening the silencer to the fastening rail , wherein - a fastening plate , which is perpendicular to the fastening rail, is arranged on the front end of the fastening rail , wherein a firing channel is formed in the fastening plate, which channel extends coaxially to the central axis of the barrel of the handgun when the fastening device is fastened to the mounting rail , - the fastening plate has the fastening means, - the fastening means comprises a groove running circumferentially around at least part of the fastening plate or a tongue of a tongue and groove joint running circumferentially around at least part of the fastening plate , - the groove or the tongue is designed such that a tongue or groove provided on the silencer can be brought into engagement with the groove or tongue of the fastening plate , - a locking device is provided on the fastening plate for locking the silencer that is fastened to the fastening plate, and - the locking device comprises at least one hole which is provided in at least one side wall and corresponds to a borehole provided in the silencer when the silencer is fastened to the fastening plate . - a fastening rail for fastening the fastening apparatus to a mounting rail of the handgun, and - a fastening means for fastening the silencer to the fastening rail , - a fastening plate , which is perpendicular to the fastening rail, is arranged on the front end of the fastening rail , wherein a firing channel is formed in the fastening plate, which channel extends coaxially to the central axis of the barrel of the handgun when the fastening device is fastened to the mounting rail , - the fastening plate has the fastening means, - the fastening means comprises a groove running circumferentially around at least part of the fastening plate or a tongue of a tongue and groove joint running circumferentially around at least part of the fastening plate , - the groove or the tongue is designed such that a tongue or groove provided on the silencer can be brought into engagement with the groove or tongue of the fastening plate , - a locking device is provided on the fastening plate for locking the silencer that is fastened to the fastening plate, and - the locking device comprises at least one hole which is provided in at least one side wall and corresponds to a borehole provided in the silencer when the silencer is fastened to the fastening plate .
X-ray scattering apparatus, comprising: - a sample holder configured to align and orientate a sample to be analyzed by X-ray scattering; - an X-ray beam delivery system arranged upstream of the sample holder Z configured to generate and direct an X-ray beam along a propagation direction (X) towards the sample holder; - a proximal X-ray detector arranged downstream of the sample holder such as to let the direct X-ray beam pass and detect X rays scattered from the sample ; and - a distal X-ray detector arranged downstream of the sample holder and movable along the propagation direction (X) of the direct X-ray beam; characterised in that the proximal X-ray detector is also movable along the propagation direction (X) of the direct X-ray beam. - a sample holder configured to align and orientate a sample to be analyzed by X-ray scattering; - an X-ray beam delivery system arranged upstream of the sample holder Z configured to generate and direct an X-ray beam along a propagation direction (X) towards the sample holder; - a proximal X-ray detector arranged downstream of the sample holder such as to let the direct X-ray beam pass and detect X rays scattered from the sample ; and - a distal X-ray detector arranged downstream of the sample holder and movable along the propagation direction (X) of the direct X-ray beam; characterised in that the proximal X-ray detector is also movable along the propagation direction (X) of the direct X-ray beam.
A system of encryption for communication security that uses an encryption algorithm and a pre-placed encryption key , the system comprising: a security function adapted to generate a sequence of random-variant-keys one at a time in temporary memory of an encryption device from the pre-placed key at the time of encryption, use the random-variant-keys for encryption instead of the pre-placed key , and, after one time use for encryption, discard the random-variant-keys , characterized by : the security function comprising: an ambiguity envelope function adapted to create an ambiguity envelope , from which y-axis offsets can be derived from x-axis values; the ambiguity envelope function adapted to: additively combine a set of waves from a group of type of, triangle, sinusoid, and square, conceived from a randomly derived set of numbers; wherein the ambiguity envelope results from such combination of wave types, with an x-axis that corresponds to time or packet sequence number and y-axis that corresponds to an envelope offset , and wherein the envelope offset is used to create the sequence of random-variant-keys . a security function adapted to generate a sequence of random-variant-keys one at a time in temporary memory of an encryption device from the pre-placed key at the time of encryption, use the random-variant-keys for encryption instead of the pre-placed key , and, after one time use for encryption, discard the random-variant-keys , characterized by : the security function comprising: an ambiguity envelope function adapted to create an ambiguity envelope , from which y-axis offsets can be derived from x-axis values; the ambiguity envelope function adapted to: additively combine a set of waves from a group of type of, triangle, sinusoid, and square, conceived from a randomly derived set of numbers; wherein the ambiguity envelope results from such combination of wave types, with an x-axis that corresponds to time or packet sequence number and y-axis that corresponds to an envelope offset , and wherein the envelope offset is used to create the sequence of random-variant-keys . an ambiguity envelope function adapted to create an ambiguity envelope , from which y-axis offsets can be derived from x-axis values; the ambiguity envelope function adapted to: additively combine a set of waves from a group of type of, triangle, sinusoid, and square, conceived from a randomly derived set of numbers; wherein the ambiguity envelope results from such combination of wave types, with an x-axis that corresponds to time or packet sequence number and y-axis that corresponds to an envelope offset , and wherein the envelope offset is used to create the sequence of random-variant-keys . additively combine a set of waves from a group of type of, triangle, sinusoid, and square, conceived from a randomly derived set of numbers; wherein the ambiguity envelope results from such combination of wave types, with an x-axis that corresponds to time or packet sequence number and y-axis that corresponds to an envelope offset , and wherein the envelope offset is used to create the sequence of random-variant-keys .
An electronic device comprising: an antenna array including a plurality of elements (510 ~540) arranged to perform beamforming, wherein a first number corresponds to a total number of the plurality of elements; a processor operatively connected to the antenna array; and a memory , wherein the memory stores instructions that, when executed by the processor , cause the electronic device to: identify a second number of the plurality of elements (510 ~540) that are performing the beamforming, wherein the rest of the plurality of elements are not performing the beamforming, and the second number is less than the first number, determine a second backoff value based on the second number, and perform a power backoff operation according to the second backoff value. an antenna array including a plurality of elements (510 ~540) arranged to perform beamforming, wherein a first number corresponds to a total number of the plurality of elements; a processor operatively connected to the antenna array; and a memory , wherein the memory stores instructions that, when executed by the processor , cause the electronic device to: identify a second number of the plurality of elements (510 ~540) that are performing the beamforming, wherein the rest of the plurality of elements are not performing the beamforming, and the second number is less than the first number, determine a second backoff value based on the second number, and perform a power backoff operation according to the second backoff value. identify a second number of the plurality of elements (510 ~540) that are performing the beamforming, wherein the rest of the plurality of elements are not performing the beamforming, and the second number is less than the first number, determine a second backoff value based on the second number, and perform a power backoff operation according to the second backoff value.