mhurhangee/patent-ind-claim-en huggingface dataset:
A system for suppressing vestibular activity of a human subject, the system comprising: an electronics module configured to generate at least first and second electrical stimulation signals, the first electrical stimulation signal including a first carrier signal and the second electrical stimulation signal including a second carrier signal, said first electrical stimulation signal being the first carrier signal imposed on a positive biased DC signal and said second electrical stimulation signal being the second carrier signal imposed on a negative biased DC signal; a plurality of electrodes including a first electrode configured to be placed at an upper mastoid position on a side of a head of the human subject and a second electrode configured to be placed at a lower mastoid position on the same side of the head of the human subject, and wherein the electronics module is configured to modulate the current applied to respective electrodes between 0 amps and a maximum positive/negative current and apply the first electrical stimulation signal to the first electrode while concurrently applying the second electrical stimulation signal to the second electrode to suppress vestibular activity of the human subject, the one or more electrical stimulation signals configured to hyperpolarize and/or depolarize cells located proximate the stimulation regions to suppress vestibular activity. an electronics module configured to generate at least first and second electrical stimulation signals, the first electrical stimulation signal including a first carrier signal and the second electrical stimulation signal including a second carrier signal, said first electrical stimulation signal being the first carrier signal imposed on a positive biased DC signal and said second electrical stimulation signal being the second carrier signal imposed on a negative biased DC signal; a plurality of electrodes including a first electrode configured to be placed at an upper mastoid position on a side of a head of the human subject and a second electrode configured to be placed at a lower mastoid position on the same side of the head of the human subject, and wherein the electronics module is configured to modulate the current applied to respective electrodes between 0 amps and a maximum positive/negative current and apply the first electrical stimulation signal to the first electrode while concurrently applying the second electrical stimulation signal to the second electrode to suppress vestibular activity of the human subject, the one or more electrical stimulation signals configured to hyperpolarize and/or depolarize cells located proximate the stimulation regions to suppress vestibular activity.
A seeder head comprising: a body having a proximal end and a distal end spaced a distance from the proximal end ; a bore extending through an interior of the body from the proximal end to the distal end , the bore comprising a proximal opening at the proximal end and a distal opening at the distal end ; a first hold arm disposed within the bore between the proximal end and the distal end; and a second hold arm disposed within the bore between the distal end and the first hold arm, , wherein: the bore is shaped and sized to receive a plurality of seeds at the proximal opening, the seeder head being characterized in that the first hold arm is coupled to a first actuator ; the second hold arm is coupled to a second actuator ; wherein the first hold arm and the second hold arm are movable by the first actuator and the second actuator to selectively allow one or more of the plurality of seeds to fall under force of gravity to the distal opening of the bore. a body having a proximal end and a distal end spaced a distance from the proximal end ; a bore extending through an interior of the body from the proximal end to the distal end , the bore comprising a proximal opening at the proximal end and a distal opening at the distal end ; a first hold arm disposed within the bore between the proximal end and the distal end; and a second hold arm disposed within the bore between the distal end and the first hold arm, , wherein: the bore is shaped and sized to receive a plurality of seeds at the proximal opening, the bore is shaped and sized to receive a plurality of seeds at the proximal opening, the seeder head being characterized in that the first hold arm is coupled to a first actuator ; the second hold arm is coupled to a second actuator ; wherein the first hold arm and the second hold arm are movable by the first actuator and the second actuator to selectively allow one or more of the plurality of seeds to fall under force of gravity to the distal opening of the bore.
Electrical power supply assembly (10'; 10") for a motor vehicle, comprising: - a casing (12'; 12") having a bottom (14'; 14") and at least two lateral walls (20', 22'; 20'', 22'') that are opposite one another and protrude upright from said bottom (14'; 14"); - a set of accumulator battery modules (30', 32'; 30", 31, 32"), each of the modules of said set having an accumulator battery (34'; 34'') having two opposite ends (36', 38'; 36", 38"), and two opposite flanges (40', 42'; 40", 42") respectively covering said ends, the modules (30', 32'; 30", 31, 32") of said set being installed inside said casing (12'; 12") on said bottom (14'; 14") in a plurality of contiguous rows (24', 26', 28'; 24", 26", 28'') of n modules situated coaxially in the extension of one another and substantially parallel to said lateral walls (20', 22'; 20", 22"); characterized in that said contiguous rows (24', 26', 28'; 24", 26", 28") are arranged such that the flanges (40', 42', 50'; 50", 40", 42") of the modules of said rows are respectively aligned edge to edge in a direction substantially perpendicular to said opposite lateral walls (20', 22'; 20", 22"); and in that said aligned flanges (40', 42', 50'; 50", 40", 42") are secured to said bottom (14'; 14") of said casing (12'; 12") so as to form rigid crossmembers inside said casing. - a casing (12'; 12") having a bottom (14'; 14") and at least two lateral walls (20', 22'; 20'', 22'') that are opposite one another and protrude upright from said bottom (14'; 14"); - a set of accumulator battery modules (30', 32'; 30", 31, 32"), each of the modules of said set having an accumulator battery (34'; 34'') having two opposite ends (36', 38'; 36", 38"), and two opposite flanges (40', 42'; 40", 42") respectively covering said ends, the modules (30', 32'; 30", 31, 32") of said set being installed inside said casing (12'; 12") on said bottom (14'; 14") in a plurality of contiguous rows (24', 26', 28'; 24", 26", 28'') of n modules situated coaxially in the extension of one another and substantially parallel to said lateral walls (20', 22'; 20", 22"); characterized in that said contiguous rows (24', 26', 28'; 24", 26", 28") are arranged such that the flanges (40', 42', 50'; 50", 40", 42") of the modules of said rows are respectively aligned edge to edge in a direction substantially perpendicular to said opposite lateral walls (20', 22'; 20", 22"); and in that said aligned flanges (40', 42', 50'; 50", 40", 42") are secured to said bottom (14'; 14") of said casing (12'; 12") so as to form rigid crossmembers inside said casing.
A network topology discovery method, comprising: sending (S101) a link discovery message to a child node device through a first port; receiving (S102) a link discovery acknowledge message sent by the child node device through a second port of the child node device , wherein the link discovery acknowledge message comprises an identifier of the child node device and an identifier of the second port; and determining (S102) a first link based on the link discovery acknowledge message, wherein the first link is a link between the first port and the second port; the child node device is a new device discovered for the first time, and sending (S107) a device discovery message to the child node device through the first port, wherein the device discovery message comprises the identifier of the child node device ; and receiving (S108) a device discovery acknowledge message sent by the child node device through the second port, wherein the device discovery acknowledge message comprises the identifier of the child node device , and identifiers, statuses, and port capabilities of all ports of the child node device . sending (S101) a link discovery message to a child node device through a first port; receiving (S102) a link discovery acknowledge message sent by the child node device through a second port of the child node device , wherein the link discovery acknowledge message comprises an identifier of the child node device and an identifier of the second port; and determining (S102) a first link based on the link discovery acknowledge message, wherein the first link is a link between the first port and the second port; the child node device is a new device discovered for the first time, and sending (S107) a device discovery message to the child node device through the first port, wherein the device discovery message comprises the identifier of the child node device ; and receiving (S108) a device discovery acknowledge message sent by the child node device through the second port, wherein the device discovery acknowledge message comprises the identifier of the child node device , and identifiers, statuses, and port capabilities of all ports of the child node device .
Method for identifying transponders on the basis of identification codes with a system comprising a sensor and a controller , wherein the sensor comprises a base housing , wherein the base housing comprises an RFID reader , a control and evaluation unit , two safety-related switching outputs and an I/O link connection , wherein the controller comprises inputs , wherein the inputs of the controller are connected to the two safety switching outputs and to the I/O link connector of the sensor , respectively, or wherein at least one bus module comprises inputs , wherein the inputs of the bus module each being connected to the two safety-related switching outputs and to the I/O link connection of the sensor , and the bus module comprises an interface which is connected to an input of the controller , wherein the sensor comprises a first memory unit for storing a selection of valid identification codes , wherein, when a valid transponder is detected, a signal is output on the safety-related switching output and the identification code is output on the I/O link connection , characterized in that the controller comprises a second memory unit for storing the selection of valid identification codes , wherein the controller is adapted to compare the selection of valid identification codes with the read identification code and, in the event of a valid comparison, a checked result signal is generated, wherein upon detection of signals on the safety-related switching outputs the result signal is generated. wherein the sensor comprises a base housing , wherein the base housing comprises an RFID reader , a control and evaluation unit , two safety-related switching outputs and an I/O link connection , wherein the controller comprises inputs , wherein the inputs of the controller are connected to the two safety switching outputs and to the I/O link connector of the sensor , respectively, or wherein at least one bus module comprises inputs , wherein the inputs of the bus module each being connected to the two safety-related switching outputs and to the I/O link connection of the sensor , and the bus module comprises an interface which is connected to an input of the controller , wherein the sensor comprises a first memory unit for storing a selection of valid identification codes , wherein, when a valid transponder is detected, a signal is output on the safety-related switching output and the identification code is output on the I/O link connection , characterized in that the controller comprises a second memory unit for storing the selection of valid identification codes , wherein the controller is adapted to compare the selection of valid identification codes with the read identification code and, in the event of a valid comparison, a checked result signal is generated, wherein upon detection of signals on the safety-related switching outputs the result signal is generated.
An aqueous wax dispersion suitable as opacifier and/or conditioner for cosmetic formulations, comprising a) ethylene glycol fatty acid esters as wax body and b) fatty acid partial glycerides and c) anionic surfactants selected from the group formed by fatty alcohol (ether) sulfates and d) amphoteric surfactants selected from the group formed by betaines, wherein the ethylene glycol fatty acid esters (a) are formed by stearic acid or a mixture of fatty acids comprising 85-100% by weight - based on fatty acid - of stearic acid. a) ethylene glycol fatty acid esters as wax body and b) fatty acid partial glycerides and c) anionic surfactants selected from the group formed by fatty alcohol (ether) sulfates and d) amphoteric surfactants selected from the group formed by betaines,
A cutting tool comprising: a drive unit ; a working assembly having a proximal end, a distal end, and a longitudinal axis that passes between the proximal end and the distal end, the working assembly configured to couple with the drive unit by releasable locking and to at least in part be rotated by the drive unit ; and two or more sensors positioned between the drive unit and the working assembly; wherein the two or more sensors are positioned to detect force applied to the working assembly transverse to the longitudinal axis of the working assembly while the working assembly is coupled to the drive unit ; and wherein the working assembly comprises a housing and a rotatable shaft mounted in the housing , wherein the two or more sensors are spaced around the periphery of the housing when the working assembly is coupled to the drive unit . a drive unit ; a working assembly having a proximal end, a distal end, and a longitudinal axis that passes between the proximal end and the distal end, the working assembly configured to couple with the drive unit by releasable locking and to at least in part be rotated by the drive unit ; and two or more sensors positioned between the drive unit and the working assembly; wherein the two or more sensors are positioned to detect force applied to the working assembly transverse to the longitudinal axis of the working assembly while the working assembly is coupled to the drive unit ; and wherein the working assembly comprises a housing and a rotatable shaft mounted in the housing , wherein the two or more sensors are spaced around the periphery of the housing when the working assembly is coupled to the drive unit .
An interventional device comprising: an elongated member extending between a proximal end and a distal end, the elongated member including a proximal section ; a distal section ; and an intermediate section having a proximal-intermediate section extending distally from the proximal section and a distal intermediate section extending proximally from the distal section , wherein the proximal-intermediate section includes a microfabricated cut arrangement with cuts arranged on a single side to leave a resulting spine and enable preferential flexing in one plane, and wherein the distal-intermediate section omits cuts and is more rigid than the proximal-intermediate section and the distal section . an elongated member extending between a proximal end and a distal end, the elongated member including a proximal section ; a distal section ; and an intermediate section having a proximal-intermediate section extending distally from the proximal section and a distal intermediate section extending proximally from the distal section , wherein the proximal-intermediate section includes a microfabricated cut arrangement with cuts arranged on a single side to leave a resulting spine and enable preferential flexing in one plane, and wherein the distal-intermediate section omits cuts and is more rigid than the proximal-intermediate section and the distal section .
A data collection system, comprising: a data receiving unit that acquires a chronological measurement value acquired from at least one sensor installed in a device; an abnormality degree calculating unit that calculates an abnormality degree on the basis of the measurement value; an abnormality detecting unit that detects an abnormality on the basis of the abnormality degree; an abnormality frequency measuring unit that measures an abnormality frequency on the basis of the detected abnormality; a remaining lifespan calculating unit that calculates a remaining lifespan on the basis of the abnormality degree; a data period setting unit that controls a data period on the basis of the abnormality frequency and the remaining lifespan of the device; and at least one of a transmitting unit that transmits the measurement value in the data period and a data storage unit that stores the measurement value in the data period. a data receiving unit that acquires a chronological measurement value acquired from at least one sensor installed in a device; an abnormality degree calculating unit that calculates an abnormality degree on the basis of the measurement value; an abnormality detecting unit that detects an abnormality on the basis of the abnormality degree; an abnormality frequency measuring unit that measures an abnormality frequency on the basis of the detected abnormality; a remaining lifespan calculating unit that calculates a remaining lifespan on the basis of the abnormality degree; a data period setting unit that controls a data period on the basis of the abnormality frequency and the remaining lifespan of the device; and at least one of a transmitting unit that transmits the measurement value in the data period and a data storage unit that stores the measurement value in the data period.
A method, performed in a system comprising a testing device and a supply chip , for securing data in the supply chip , comprising: receiving, by the supply chip , a read command from a testing device ; upon receiving the read command, identifying a status of processing the read command; determining whether the status is one of disabled and enabled; upon a determination that the status is disabled, blocking the testing device from accessing encrypted data stored in the supply chip ; upon a determination that the status is enabled, allowing the testing device to access the encrypted data stored in the supply chip , wherein the supply chip sends a response to the testing device which includes an address or region in memory storing the encrypted data ; and storing the encrypted data temporarily in the memory of the testing device when decrypting the encrypted data such that no data is displayed or logged in the memory of the testing device following the decryption. receiving, by the supply chip , a read command from a testing device ; upon receiving the read command, identifying a status of processing the read command; determining whether the status is one of disabled and enabled; upon a determination that the status is disabled, blocking the testing device from accessing encrypted data stored in the supply chip ; upon a determination that the status is enabled, allowing the testing device to access the encrypted data stored in the supply chip , wherein the supply chip sends a response to the testing device which includes an address or region in memory storing the encrypted data ; and storing the encrypted data temporarily in the memory of the testing device when decrypting the encrypted data such that no data is displayed or logged in the memory of the testing device following the decryption.
Two-layer multi-strand cord (50; 60) comprising: - an internal layer (CI) of the cord made up of K≥1 internal strand(s) (Tl) wound in a helix about a main axis (A), the or each internal strand (Tl) having one layer (C1) of metal filaments (F1) and comprising Q>1 metal filaments (F1) wound in a helix about an axis (B); and - an external layer (CE) of the cord made up of L>1 external strands (TE) wound around the internal layer (CI) of the cord, each external strand (TE) having one layer (C1') of metal filaments (F1') and comprising Q'>1 metal filaments (F1') wound in a helix about an axis (B'), characterized in that : - the cord (50; 60) has a tangent modulus E2 ranging from 35 to 80 GPa; and - the energy-at-break indicator Er of the cord (50; 60), defined by Er = ∫ 0 At σ Ai × dAi where σ ( Ai ) is the tensile stress in MPa measured at the elongation Ai and dAi is the elongation such that Er is strictly greater than 40 MJ/m 3 . - an internal layer (CI) of the cord made up of K≥1 internal strand(s) (Tl) wound in a helix about a main axis (A), the or each internal strand (Tl) having one layer (C1) of metal filaments (F1) and comprising Q>1 metal filaments (F1) wound in a helix about an axis (B); and - an external layer (CE) of the cord made up of L>1 external strands (TE) wound around the internal layer (CI) of the cord, each external strand (TE) having one layer (C1') of metal filaments (F1') and comprising Q'>1 metal filaments (F1') wound in a helix about an axis (B'), - the cord (50; 60) has a tangent modulus E2 ranging from 35 to 80 GPa; and - the energy-at-break indicator Er of the cord (50; 60), defined by Er = ∫ 0 At σ Ai × dAi where σ ( Ai ) is the tensile stress in MPa measured at the elongation Ai and dAi is the elongation such that Er is strictly greater than 40 MJ/m 3 .
A swing door operator for moving at least one door leaf between a first position (O) and a second position (C), the swing door operator being arranged to operate in a powered mode and a powerless mode and comprising: a permanent magnet DC motor , arranged to move the door leaf at least from the second position (C) to the first position (O) in the powered mode, a mechanical drive unit , arranged to move the door leaf from the first position (O) to the second position (C) in the powerless mode, in the powerless mode, a resistive device arrangement electrically connected in parallel with the permanent magnet DC motor and arranged to limit a current (I G ) generated by the permanent magnet DC motor in response to the movement of the door leaf from the first position (O) to the second position (C) by means of the mechanical drive unit , characterized by the resistive device arrangement comprising at least two resistive devices , and at least one position switch arranged to sense an intermittent position (I) of the door leaf and to switch which one of the at least two resistive devices of the resistive device arrangement that is operatively connected to the permanent magnet DC motor depending on the intermittent position (I) of the door leaf . a permanent magnet DC motor , arranged to move the door leaf at least from the second position (C) to the first position (O) in the powered mode, a mechanical drive unit , arranged to move the door leaf from the first position (O) to the second position (C) in the powerless mode, in the powerless mode, a resistive device arrangement electrically connected in parallel with the permanent magnet DC motor and arranged to limit a current (I G ) generated by the permanent magnet DC motor in response to the movement of the door leaf from the first position (O) to the second position (C) by means of the mechanical drive unit , characterized by the resistive device arrangement comprising at least two resistive devices , and at least one position switch arranged to sense an intermittent position (I) of the door leaf and to switch which one of the at least two resistive devices of the resistive device arrangement that is operatively connected to the permanent magnet DC motor depending on the intermittent position (I) of the door leaf .