mhurhangee/patent-ind-claim-en huggingface dataset:
A robotic wearable device testing system , comprising: a track drive system comprising one or more tracks comprising a plurality of attachment pads configured to attach to one or more wearable devices , wherein each track of the one or more tracks is configured to move along a path defined by the track; a tap point drive system comprising one or more tap point sliders configured to slide laterally with respect to the track drive system , wherein each tap point slider of the one or more tap point sliders comprises a tap point configured to wirelessly communicate with the one or more wearable devices when the one or more wearable devices are in close proximity with the tap point , and wherein each tap point slider of the one or more tap point sliders comprises an electronic interference door comprising an electro-magnetic blocking material configured to block wireless signals between the one or more wearable devices and the respective tap point ; and control circuitry configured to control relative movement of the one or more tracks and the one or more tap point sliders to position one or more wearable devices attached to respective attachment pads of the plurality of attachment pads in close proximity with a tap point of the one or more tap point sliders , and to control movement of the electronic interference door to allow or block the wireless signals between the one or more wearable devices and the tap point of the one or more tap point sliders . a track drive system comprising one or more tracks comprising a plurality of attachment pads configured to attach to one or more wearable devices , wherein each track of the one or more tracks is configured to move along a path defined by the track; a tap point drive system comprising one or more tap point sliders configured to slide laterally with respect to the track drive system , wherein each tap point slider of the one or more tap point sliders comprises a tap point configured to wirelessly communicate with the one or more wearable devices when the one or more wearable devices are in close proximity with the tap point , and wherein each tap point slider of the one or more tap point sliders comprises an electronic interference door comprising an electro-magnetic blocking material configured to block wireless signals between the one or more wearable devices and the respective tap point ; and control circuitry configured to control relative movement of the one or more tracks and the one or more tap point sliders to position one or more wearable devices attached to respective attachment pads of the plurality of attachment pads in close proximity with a tap point of the one or more tap point sliders , and to control movement of the electronic interference door to allow or block the wireless signals between the one or more wearable devices and the tap point of the one or more tap point sliders .
A system for automatically polishing a nail of a user including: an end-effector having a cartridge receiving unit, a cartridge including nail polish, and a nozzle; one or more sensors including a depth sensor to generate depth sensor readings; a nail determination unit, receiving said depth sensor readings, to automatically: translate the depth sensor readings to three-dimensional, 3D, spatial coordinates; and produce a representation of a location of the nail of the user in 3D spatial coordinates; a motion planning unit, for automatically generating, based on the representation, a motion path for said end-effector to position said end-effector such that said nozzle is directed over unpainted areas of the nail of the user; a motion platform , to automatically move said end-effector in three dimensions in accordance with the motion path; and a dispensing unit to automatically dispense nail polish in said cartridge through said nozzle onto the nail of the user as the motion platform moves, characterized in that the motion planning unit uses a combination of deep reinforcement learning, mathematical transformations, computer vision and artificial intelligence to generate the motion path. an end-effector having a cartridge receiving unit, a cartridge including nail polish, and a nozzle; a cartridge receiving unit, a cartridge including nail polish, and a nozzle; one or more sensors including a depth sensor to generate depth sensor readings; a nail determination unit, receiving said depth sensor readings, to automatically: translate the depth sensor readings to three-dimensional, 3D, spatial coordinates; and produce a representation of a location of the nail of the user in 3D spatial coordinates; translate the depth sensor readings to three-dimensional, 3D, spatial coordinates; and produce a representation of a location of the nail of the user in 3D spatial coordinates; a motion planning unit, for automatically generating, based on the representation, a motion path for said end-effector to position said end-effector such that said nozzle is directed over unpainted areas of the nail of the user; a motion platform , to automatically move said end-effector in three dimensions in accordance with the motion path; and a dispensing unit to automatically dispense nail polish in said cartridge through said nozzle onto the nail of the user as the motion platform moves, characterized in that the motion planning unit uses a combination of deep reinforcement learning, mathematical transformations, computer vision and artificial intelligence to generate the motion path.
A component mounting machine configured to perform a mounting operation of mounting an electronic component to a board, the component mounting machine comprising: multiple related operation devices each including an electrically-operated section configured to perform a related operation that is an operation related to the mounting operation, and an output section configured to output an operation signal (SA) representing a state of the electrically-operated section that is operating; and a limiting device configured to individually receive operation signals (SA) from the operation devices and configured to individually output interlock signals (SI) to bring the operation devices in a stopped state; wherein the limiting device is configured to limit the quantity of the related operation devices for which the electrically-operated section is in an operating state to a specified quantity (Na) or fewer by outputting an interlock signal (SI) to a quantity of related operating devices that are in the operating state in excess of the specified quantity (Na) based on whether there is presence of the operation signal (SA) of the multiple related operation devices . multiple related operation devices each including an electrically-operated section configured to perform a related operation that is an operation related to the mounting operation, and an output section configured to output an operation signal (SA) representing a state of the electrically-operated section that is operating; and a limiting device configured to individually receive operation signals (SA) from the operation devices and configured to individually output interlock signals (SI) to bring the operation devices in a stopped state; wherein the limiting device is configured to limit the quantity of the related operation devices for which the electrically-operated section is in an operating state to a specified quantity (Na) or fewer by outputting an interlock signal (SI) to a quantity of related operating devices that are in the operating state in excess of the specified quantity (Na) based on whether there is presence of the operation signal (SA) of the multiple related operation devices .
Hairstyling appliance for curling hair, comprising a mandrel , a tile hinged on the appliance to form a clamp with the mandrel so as to move the tile between a position disengaged from the mandrel and a supported position against the mandrel, a heating element , a liquid reservoir , a wick integral with the reservoir and communicating therewith so as to be soaked in liquid, and guide means arranged between the reservoir and the mandrel so as to enable the movement of the reservoir and the wick between a passive position and an active position wherein the wick is in contact with the heating element for the creation of steam, characterised in that the appliance comprises a locking/unlocking system configured to ensure that the reservoir and the wick are held in the active position.
A valve controller for controlling a valve , the valve controller comprising: a position controller couplable to the valve and capable of driving the valve to a known position, the position controller including a position controller processor and a position controller memory ; a transmitter coupled to the position controller via a communication link , the transmitter including a transmitter processor and a transmitter memory ; a valve position sensor operatively couplable to the valve , the position controller , and the transmitter , wherein the valve position sensor provides a valve position sensor value indicating the position of the valve ; a calibration table and/or chart including a correlation of a transmitter output value to the valve position sensor value, the correlation generated by the position controller processor executing an algorithm utilizing a calibration valve position sensor value attained by the valve position sensor during a calibration of the position controller in response to a calibration valve control signal driven by the position controller to initiate the calibration of the position controller ; characterized in that the valve controller is configured to transmit a transmitter output signal from the transmitter , the transmitter output signal including the transmitter output value correlated with the valve position sensor value in the calibration table and/or chart. a position controller couplable to the valve and capable of driving the valve to a known position, the position controller including a position controller processor and a position controller memory ; a transmitter coupled to the position controller via a communication link , the transmitter including a transmitter processor and a transmitter memory ; a valve position sensor operatively couplable to the valve , the position controller , and the transmitter , wherein the valve position sensor provides a valve position sensor value indicating the position of the valve ; a calibration table and/or chart including a correlation of a transmitter output value to the valve position sensor value, the correlation generated by the position controller processor executing an algorithm utilizing a calibration valve position sensor value attained by the valve position sensor during a calibration of the position controller in response to a calibration valve control signal driven by the position controller to initiate the calibration of the position controller ; characterized in that the valve controller is configured to transmit a transmitter output signal from the transmitter , the transmitter output signal including the transmitter output value correlated with the valve position sensor value in the calibration table and/or chart.
An in-situ rebuild method for in-situ rebuilding and repairing pipes and containment structures by resin vacuum infusion, comprising the steps of: applying one or more layers of a self-adhesive fiber sheet onto a surface to be treated of the pipe or containment structure, the surface to be treated being a surrounding inner or outer surface surrounding a defective section of the pipe or containment structure; encapsulating with a vacuum bag said one or more layers of the self-adhesive fiber sheet applied onto said surface to be treated; creating by means of a vacuum system a low pressure into a space between the vacuum bag and the surface to be treated to compress the one or more layers of the self-adhesive fiber sheet; injecting by means of an injection system an impregnation curable resin into said space between the vacuum bag and the surface to be treated where the low pressure has been created to impregnate the one or more layers of the self-adhesive fiber sheet with said impregnation curable resin; stopping the injecting and letting the impregnation curable resin to cure thereby forming a composite rebuild laminate; and disconnecting said vacuum system and said injection system and removing the vacuum bag, the method being characterized in that : the vacuum bag is a tubular surrounding vacuum bag covering said surrounding inner or outer surface to be treated; and the surrounding inner or outer surface to be treated is roughened by a roughening technique previous to said step of applying the one or more layers of the self-adhesive fiber sheet. applying one or more layers of a self-adhesive fiber sheet onto a surface to be treated of the pipe or containment structure, the surface to be treated being a surrounding inner or outer surface surrounding a defective section of the pipe or containment structure; encapsulating with a vacuum bag said one or more layers of the self-adhesive fiber sheet applied onto said surface to be treated; creating by means of a vacuum system a low pressure into a space between the vacuum bag and the surface to be treated to compress the one or more layers of the self-adhesive fiber sheet; injecting by means of an injection system an impregnation curable resin into said space between the vacuum bag and the surface to be treated where the low pressure has been created to impregnate the one or more layers of the self-adhesive fiber sheet with said impregnation curable resin; stopping the injecting and letting the impregnation curable resin to cure thereby forming a composite rebuild laminate; and disconnecting said vacuum system and said injection system and removing the vacuum bag, the vacuum bag is a tubular surrounding vacuum bag covering said surrounding inner or outer surface to be treated; and the surrounding inner or outer surface to be treated is roughened by a roughening technique previous to said step of applying the one or more layers of the self-adhesive fiber sheet.
Method for controlling an automated clutch during which an engine torque setpoint is based on a demand for torque from the driver and during which the clutch is regulated as a function of the variation in engine speed resulting from this engine torque setpoint , and during which clutch engagement does not begin until after the engine speed has reached a value higher than that of a speed of a primary shaft or higher than a predetermined threshold value, the method comprising at least: - a first phase during which the clutch is kept open and during which the engine speed is brought to a value higher than that of the speed of the primary shaft or than a threshold value; - a second phase which begins as soon as the value of the engine speed is at least equal to the value of the speed of the primary shaft or to said predetermined threshold value, during which phase a clutch torque setpoint is determined as a function of the engine speed and of a speed setpoint , the speed setpoint adopting the value of the engine speed at the start of this second phase, characterized in that the speed setpoint is kept constant throughout the entire duration of the second phase . - a first phase during which the clutch is kept open and during which the engine speed is brought to a value higher than that of the speed of the primary shaft or than a threshold value; - a second phase which begins as soon as the value of the engine speed is at least equal to the value of the speed of the primary shaft or to said predetermined threshold value, during which phase a clutch torque setpoint is determined as a function of the engine speed and of a speed setpoint , the speed setpoint adopting the value of the engine speed at the start of this second phase,
A resin composition comprising: (a) a polyphenylene ether resin; (b) a graft copolymer wherein 30% by mass to 70% by mass of an ethylene-α-olefin copolymer rubber latex having a gel content ratio of 30% by mass to 90% by mass, wherein the gel content ratio is defined and measured as indicated in the specification, and a volume average particle diameter of a rubber dispersion of 0.2 μm to 1.0 μm, measured as indicated in the specification, is graft-polymerized with 30% by mass to 70% by mass of an aromatic vinyl compound, and (c) a first hydrogenated block copolymer, wherein the (a) component forms a continuous phase, the (c) component is a hydrogenated block copolymer in which at least a part of a block copolymer containing at least one polymer block A1 composed primarily of a vinylarene compound and at least one polymer block B1 composed primarily of a conjugated diene compound is hydrogenated, and/or a modified product of the hydrogenated block copolymer, and the polymer block B1 in the (c) component has a glass transition temperature, measured by a dynamic viscoelasticity measurement apparatus using a sample processed into a film, under the condition of the tension mode, a temperature scan speed of 3°C/min, a frequency of 1 Hz and a nitrogen atmosphere, of -50°C or lower. (a) a polyphenylene ether resin; (b) a graft copolymer wherein 30% by mass to 70% by mass of an ethylene-α-olefin copolymer rubber latex having a gel content ratio of 30% by mass to 90% by mass, wherein the gel content ratio is defined and measured as indicated in the specification, and a volume average particle diameter of a rubber dispersion of 0.2 μm to 1.0 μm, measured as indicated in the specification, is graft-polymerized with 30% by mass to 70% by mass of an aromatic vinyl compound, and (c) a first hydrogenated block copolymer, the (c) component is a hydrogenated block copolymer in which at least a part of a block copolymer containing at least one polymer block A1 composed primarily of a vinylarene compound and at least one polymer block B1 composed primarily of a conjugated diene compound is hydrogenated, and/or a modified product of the hydrogenated block copolymer, and the polymer block B1 in the (c) component has a glass transition temperature, measured by a dynamic viscoelasticity measurement apparatus using a sample processed into a film, under the condition of the tension mode, a temperature scan speed of 3°C/min, a frequency of 1 Hz and a nitrogen atmosphere, of -50°C or lower.
Intraocular lens without haptics, consisting solely of a disc-shaped lens body , which is designed at least in part as an optical unit of the intraocular lens , wherein the lens body has a diameter (d) greater than or equal to 8 mm, wherein the lens body is constructed in several parts and has a first prefabricated lens body part and at least one separate, second prefabricated lens body part , which parts, in the assembled state, form the lens body , wherein, prior to their assembly, the first prefabricated lens body part and the second prefabricated lens body part are each a shaped part retaining its respective shape, wherein the flat-cylindrical lens body has at least one through-hole which extends from a front face of the lens body to a rear face of the lens body , and the through-hole , in a radial direction seen from a main optical axis (A) of the intraocular lens , is formed in a radially outer annular region of the disc-shaped lens body , wherein the lens body is otherwise formed free of cavities, and the base surface of the front face is convex or concave, and/or the base surface of the rear face is convex or concave.
A visible-and-ultraviolet-band optical frequency converter , wherein the converter uses a nonlinear optical crystal, and periodically arranged amorphous regions are formed in the said optical crystal; the amorphous regions are configured not to realize the coherent superposition of nonlinear optical effects, and to block the conversion process from frequency doubling light to fundamental frequency light, and to provide a phase difference between the fundamental frequency light and the frequency doubling light , characterized in that the phase difference between the fundamental frequency light and the frequency doubling light is as follows: Δ φ b = (2 m +1) π , where m is an integer; and wherein the said periodically arranged amorphous regions are phase gratings periodically arranged in a direction perpendicular to the light transmission direction according to different refractive indexes; the said phase gratings are arranged in parallel with the light transmission direction of the crystal; and the phase difference of transmission between the processed region and the un-processed region in each grating period is always Δ φ b = (2 m +1)) π where m is an integer; wherein said phase gratings are gratings formed in the crystal through processing and periodically arranged according to different refractive indexes, with grating period of Λ= l c + l b where l c is the width of the unprocessed part of the crystal in the light transmission direction within a period and l b is the width of the processed part of the crystal in the light transmission direction. wherein the said periodically arranged amorphous regions are phase gratings periodically arranged in a direction perpendicular to the light transmission direction according to different refractive indexes; the said phase gratings are arranged in parallel with the light transmission direction of the crystal; and the phase difference of transmission between the processed region and the un-processed region in each grating period is always Δ φ b = (2 m +1)) π where m is an integer; wherein said phase gratings are gratings formed in the crystal through processing and periodically arranged according to different refractive indexes, with grating period of Λ= l c + l b where l c is the width of the unprocessed part of the crystal in the light transmission direction within a period and l b is the width of the processed part of the crystal in the light transmission direction.
A gear pump with drive , comprising a housing with suction space and with discharge space , closed on one side by a cover , a drive gear and a driven gear , wherein pins of the gears are mounted via bearings in sleeves , and the drive having at least one integrated cooling circuit and connected to the housing by a flange with a passage for the drive shaft connecting the drive with drive gear , and guiding means of the loss flow of the working fluid from at least one gear into the suction space , wherein the inlet of the integrated cooling circuit of the drive opens into the housing through an inlet opening in the flange , is connected with the guiding means for leading the loss flow of the working fluid from at least one gear , and the outlet of the integrated cooling circuit of the drive opens into the housing via a passage in the flange and is connected to the suction space of the gear pump , characterized in that the guiding means of the loss flow of the working fluid guide fluid from the driven gear and includes at least one diverting groove formed in the bearing and mounted in at least one sleeve of the pin of the driven gear , the diverting groove in the bearing is parallel with the pin of the driven gear and is longer than the pin of the driven gear , and at least one plate for channeling the loss flow arranged between the front side of the pin of the driven gear and the flange of the housing , and a hole passing through the pin of the driven gear connected to the inlet opening for guiding the loss flow to the integrated cooling circuit , and/or the guiding means of the loss flow of the working fluid guide fluid from the drive gear and includes at least one diverting groove formed in the bearing mounted in at least one sleeve of the pin of the drive gear , and the diverting groove in the bearing is parallel with the pin of the drive gear and is longer than the pin of the drive gear , at least one plate for channeling the loss flow is arranged between the front side of the pin of the drive gear and the cover of the housing , the hole passing through the pin of the drive gear connecting with the passage , wherein on the flange at the front side of the pin of the drive gear there is formed an outlet groove connecting the passage and the suction space .