mhurhangee/ep-ind-claims huggingface dataset:
A plug for a container for containing a liquid, the plug comprising: a plug body; a lid adapted to engage the plug body; and a columnar elastic body contained in the plug body and pierceable with an extraction needle; wherein the plug body has: an elastic body storage part for storing the elastic body; a liquid guide path communicating with the elastic body storage part; a plurality of axially extending longitudinal ribs formed on an inner wall surface facing the elastic body storage part; and axially extending groove parts formed between the plurality of longitudinal ribs; characterized in that a circle passing vertexes of the plurality of longitudinal ribs has a diameter smaller than that of the elastic body in a state in which no needle is inserted into the elastic body. a plug body; a lid adapted to engage the plug body; and a columnar elastic body contained in the plug body and pierceable with an extraction needle; wherein the plug body has: an elastic body storage part for storing the elastic body; a liquid guide path communicating with the elastic body storage part; a plurality of axially extending longitudinal ribs formed on an inner wall surface facing the elastic body storage part; and axially extending groove parts formed between the plurality of longitudinal ribs; characterized in that a circle passing vertexes of the plurality of longitudinal ribs has a diameter smaller than that of the elastic body in a state in which no needle is inserted into the elastic body. an elastic body storage part for storing the elastic body; a liquid guide path communicating with the elastic body storage part; a plurality of axially extending longitudinal ribs formed on an inner wall surface facing the elastic body storage part; and axially extending groove parts formed between the plurality of longitudinal ribs; characterized in that a circle passing vertexes of the plurality of longitudinal ribs has a diameter smaller than that of the elastic body in a state in which no needle is inserted into the elastic body.
An implantable medical device, comprising: a tank circuit tuned to a recharge frequency of recharge energy; a receiver with at least one input electrically connected to a node of the tank circuit, the receiver being configured to receive telemetry signals at a telemetry frequency while the tank circuit is tuned to the recharge frequency, which is different from the telemetry frequency; a rechargeable power source; a rectifier that is electrically connected between the rechargeable power source and the tank circuit and that is configured to receive the recharge energy at the recharge frequency; and medical circuitry electrically connected to the rechargeable power source. a tank circuit tuned to a recharge frequency of recharge energy; a receiver with at least one input electrically connected to a node of the tank circuit, the receiver being configured to receive telemetry signals at a telemetry frequency while the tank circuit is tuned to the recharge frequency, which is different from the telemetry frequency; a rechargeable power source; a rectifier that is electrically connected between the rechargeable power source and the tank circuit and that is configured to receive the recharge energy at the recharge frequency; and medical circuitry electrically connected to the rechargeable power source.
A method for synchronizing a master clock and a slave clock of a packet-switched network comprising at least two equipments (Ei) which are connected to one another via an aggregated connection made up of at least two links (Lk) and located between said master and slave clocks in order to enable them to transmit synchronization packets with one another using a timestamp protocol, said method comprising: (a) achieving a distribution of said synchronization packets within at least one subset of links (Lk) that transport these synchronization packets, and being characterized in that it comprises the following step (b) transmitting to said slave clock first information representative of said distribution, second information representative of timestamps associated with said synchronization packets, and third information representative of packet transmission times over said links (Lk), in order to synchronize said slave clock to said master clock as a function of at least said first, second, and third information transmitted. (a) achieving a distribution of said synchronization packets within at least one subset of links (Lk) that transport these synchronization packets, and being characterized in that it comprises the following step (b) transmitting to said slave clock first information representative of said distribution, second information representative of timestamps associated with said synchronization packets, and third information representative of packet transmission times over said links (Lk), in order to synchronize said slave clock to said master clock as a function of at least said first, second, and third information transmitted.
A system for securing a prosthetic valve at a native valve, comprising: an expandable/collapsible anchor device having a ventricular portion below an atrial portion, the ventricular portion having an expandable tubular body about a vertical axis and comprising undulating struts (34, 36), the tubular body defining a leaflet clamping portion defined by at least one peak extending upward toward the atrial portion, wherein there is a valley on the ventricular portion adjacent the at least one leaflet clamping portion, characterized by the anchor device further including an upstanding vertical post commencing at the valley and extending upward toward the atrial portion beyond a maximum height of the at least one peak of the leaflet clamping portion and terminating in the atrial portion to support the atrial portion above a native annulus or the native valve. an expandable/collapsible anchor device having a ventricular portion below an atrial portion, the ventricular portion having an expandable tubular body about a vertical axis and comprising undulating struts (34, 36), the tubular body defining a leaflet clamping portion defined by at least one peak extending upward toward the atrial portion, wherein there is a valley on the ventricular portion adjacent the at least one leaflet clamping portion,
An automated isothermal titration micro calorimetry system comprising: • a micro calorimeter with a sample cell and a reference cell, the sample cell is accessible via a sample cell stem and the reference cell is accessible via a reference cell stem; and characterised by • an automatic pipette assembly comprising a syringe with a titration needle arranged to be inserted into the sample cell for supplying titrant, the pipette assembly comprising an activator for driving a plunger in the syringe; • a pipette translation unit supporting the pipette assembly and being arranged to place the pipette assembly in position for titration, washing and filling operations; • a wash station for the titrant needle; • a cell preparation unit arranged to perform operations for replacing the sample liquid in the sample cell when the pipette assembly is placed in another position than the position for titration; and • a syringe fluidics system; wherein • the syringe comprises a fill port at an upper section thereof, providing fluidic contact with a cavity of the syringe when the plunger is positioned above said fill port, and • the automated ITC system comprises a fill port connection unit arranged to selectively connect to the fill port, thereby providing fluidic contact between the cavity of the syringe and the syringe fluidics system to selectively pull or push liquid or gas through the syringe. • a micro calorimeter with a sample cell and a reference cell, the sample cell is accessible via a sample cell stem and the reference cell is accessible via a reference cell stem; and characterised by • an automatic pipette assembly comprising a syringe with a titration needle arranged to be inserted into the sample cell for supplying titrant, the pipette assembly comprising an activator for driving a plunger in the syringe; • a pipette translation unit supporting the pipette assembly and being arranged to place the pipette assembly in position for titration, washing and filling operations; • a wash station for the titrant needle; • a cell preparation unit arranged to perform operations for replacing the sample liquid in the sample cell when the pipette assembly is placed in another position than the position for titration; and • a syringe fluidics system; • the syringe comprises a fill port at an upper section thereof, providing fluidic contact with a cavity of the syringe when the plunger is positioned above said fill port, and • the automated ITC system comprises a fill port connection unit arranged to selectively connect to the fill port, thereby providing fluidic contact between the cavity of the syringe and the syringe fluidics system to selectively pull or push liquid or gas through the syringe.
A system comprising: a client device executing a native app and an embedded web browser that is embedded within the native app, wherein: the native app has a device session token that provides a session authentication with a server for an authenticated device session between the native app and the server, wherein the session authentication is based on credentials for authenticating a user; and the native app invokes the embedded web browser, providing the embedded web browser with the device session token based on the credentials, wherein the device session token provides authentication for a web flow session on the embedded web browser, wherein the web flow session continues the authenticated device session from the native app based on the authentication provided from the device session token; and the native app refreshes the device session token by monitoring uniform resource locators requests from the embedded web browser so that the device session between the native app and the server remains active while the web flow session is active. a client device executing a native app and an embedded web browser that is embedded within the native app, wherein: the native app has a device session token that provides a session authentication with a server for an authenticated device session between the native app and the server, wherein the session authentication is based on credentials for authenticating a user; and the native app invokes the embedded web browser, providing the embedded web browser with the device session token based on the credentials, wherein the device session token provides authentication for a web flow session on the embedded web browser, wherein the web flow session continues the authenticated device session from the native app based on the authentication provided from the device session token; and the native app refreshes the device session token by monitoring uniform resource locators requests from the embedded web browser so that the device session between the native app and the server remains active while the web flow session is active. the native app has a device session token that provides a session authentication with a server for an authenticated device session between the native app and the server, wherein the session authentication is based on credentials for authenticating a user; and the native app invokes the embedded web browser, providing the embedded web browser with the device session token based on the credentials, wherein the device session token provides authentication for a web flow session on the embedded web browser, wherein the web flow session continues the authenticated device session from the native app based on the authentication provided from the device session token; and the native app refreshes the device session token by monitoring uniform resource locators requests from the embedded web browser so that the device session between the native app and the server remains active while the web flow session is active.
A computer-implemented method comprising: determining, via an outdoor positioning system, that at least one probe device (101a-101n) has entered a point-of-interest (405, 500); initiating an indoor positioning system to determine indoor location data associated for the at least one probe device while the at least one device is within the POI; characterized by the following steps: processing the indoor location data to generate an origin-destination matrix, wherein the OD matrix represents an indoor movement of the at least one probe device among a plurality of sub-POIs (709a-709c) located within the POI indicated by the indoor location data; and providing the OD matrix as an output. determining, via an outdoor positioning system, that at least one probe device (101a-101n) has entered a point-of-interest (405, 500); initiating an indoor positioning system to determine indoor location data associated for the at least one probe device while the at least one device is within the POI; characterized by the following steps: processing the indoor location data to generate an origin-destination matrix, wherein the OD matrix represents an indoor movement of the at least one probe device among a plurality of sub-POIs (709a-709c) located within the POI indicated by the indoor location data; and providing the OD matrix as an output. processing the indoor location data to generate an origin-destination matrix, wherein the OD matrix represents an indoor movement of the at least one probe device among a plurality of sub-POIs (709a-709c) located within the POI indicated by the indoor location data; and providing the OD matrix as an output.
A cutaneous sensory threshold measurement device for measuring a cutaneous sensory threshold of a fingertip of a subject, said device comprising: a body case accommodating therein a probe configured to give a stimulus by coming into contact with a skin of the fingertip, a probe drive unit configured to drive the probe, a drive control unit configured to control a drive state of the probe drive unit, and a movement amount detection unit configured to detect a movement amount of the probe moved by the probe drive unit; the probe drive unit includes a vibration giving function configured to give ultrasonic vibration to the probe and a movement function configured to move the probe; and with the probe in contact with the skin of the fingertip, the probe drive unit is driven by a control signal from the drive control unit to give the fingertip a moving stimulus accompanied by an ultrasonic vibration stimulus, and the movement amount detection unit is configured to detect a movement amount of the probe at a time when the subject shows a reaction, so that a cutaneous sensory threshold of the fingertip of the subject is measured, wherein the probe drive unit uses an ultrasonic motor as a drive source; and the probe is moved by a drive force of the ultrasonic motor, so that ultrasonic vibration derived from the ultrasonic motor is given to the probe, and a moving stimulus accompanied by an ultrasonic vibration stimulus is given to the fingertip. a body case accommodating therein a probe configured to give a stimulus by coming into contact with a skin of the fingertip, a probe drive unit configured to drive the probe, a drive control unit configured to control a drive state of the probe drive unit, and a movement amount detection unit configured to detect a movement amount of the probe moved by the probe drive unit; the probe drive unit includes a vibration giving function configured to give ultrasonic vibration to the probe and a movement function configured to move the probe; and with the probe in contact with the skin of the fingertip, the probe drive unit is driven by a control signal from the drive control unit to give the fingertip a moving stimulus accompanied by an ultrasonic vibration stimulus, and the movement amount detection unit is configured to detect a movement amount of the probe at a time when the subject shows a reaction, so that a cutaneous sensory threshold of the fingertip of the subject is measured, wherein the probe drive unit uses an ultrasonic motor as a drive source; and the probe is moved by a drive force of the ultrasonic motor, so that ultrasonic vibration derived from the ultrasonic motor is given to the probe, and a moving stimulus accompanied by an ultrasonic vibration stimulus is given to the fingertip.
A method for determining an authenticity of a microparticle mark (10, 20, 30, 40, 50, 60) having one or more microparticles (14, 24, 34, 44, 54, 64), comprising: acquiring at least a first set and a second set of information from the microparticle mark, each set of information being acquired under differing conditions and comprising an image of the microparticles which have one or more characteristics that are usable in verifying that the mark includes at least one three-dimensional microparticle; using a processing system to perform an automatic analysis of at least the first set and the second set of information to confirm that the microparticle mark includes at least one three-dimensional microparticle by detecting a difference between the first set and the second set of information arising from at least one characteristic of a microparticle in the first set and the same characteristic in the second set, the difference being producible only by a three-dimensional microparticle; and providing a tangible indication of an authentication of the microparticle mark in response to the automatic analysis confirming the existence of at least one three-dimensional microparticle in the microparticle mark. acquiring at least a first set and a second set of information from the microparticle mark, each set of information being acquired under differing conditions and comprising an image of the microparticles which have one or more characteristics that are usable in verifying that the mark includes at least one three-dimensional microparticle; using a processing system to perform an automatic analysis of at least the first set and the second set of information to confirm that the microparticle mark includes at least one three-dimensional microparticle by detecting a difference between the first set and the second set of information arising from at least one characteristic of a microparticle in the first set and the same characteristic in the second set, the difference being producible only by a three-dimensional microparticle; and providing a tangible indication of an authentication of the microparticle mark in response to the automatic analysis confirming the existence of at least one three-dimensional microparticle in the microparticle mark.
A chewing gum base comprising food acceptable substituted polysaccharides wherein the polysaccharides consist essentially of linked saccharide units selected from the group consisting of allose, altrose, mannose, gulose, idose, galactose, 3,6 anhydro galactose, sulfated 3,6 anhydro galactose, glucuronic acid, 4-o-methyl-glucuronic acid, esters of galacturonic acid, mannuronic acid, galacturonic acid and esters, aldobiouronic acid, fucose, rhamnose, sulfated galactose, arabinose, xylose, talose, acyl substituted glucose, 2-acetamido-2-deoxyl-glucose, fructose, lactose and their derivatives and combinations thereof, wherein the substituted polysaccharides comprise galactomannans wherein substituents on the saccharide units in the polysaccharides produce a degree of substitution of at least 1.0, and wherein the substituents are fatty acid alkyl esters having between 6 and 20 carbon atoms. wherein the substituted polysaccharides comprise galactomannans wherein substituents on the saccharide units in the polysaccharides produce a degree of substitution of at least 1.0, and wherein the substituents are fatty acid alkyl esters having between 6 and 20 carbon atoms.
An optical measuring method for three-dimensional acquisition of the surface of an object with an optical capture unit, wherein, - during a first measurement time interval, the optical capture unit is moved relative to the object, - during the first measurement time interval, the object is illuminated by the capture unit with an illumination beam with a light intensity, - during the first measurement time interval, height images (b i) are successively acquired by the capture unit at a capture frequency (f A), - at least some of the acquired height images (b i) being added to a total height image (b tot) during the measurement time interval and the total height image (b tot) being displayed, characterised in that - the light intensity and/or the capture frequency (f A) during the measurement time interval is/are controlled by control signals, wherein - the control signals are generated at time intervals during the measurement time interval and - each control signal is generated on the basis of at least one sensor signal from at least one temperature sensor. - during a first measurement time interval, the optical capture unit is moved relative to the object, - during the first measurement time interval, the object is illuminated by the capture unit with an illumination beam with a light intensity, - during the first measurement time interval, height images (b i) are successively acquired by the capture unit at a capture frequency (f A), - at least some of the acquired height images (b i) being added to a total height image (b tot) during the measurement time interval and the total height image (b tot) being displayed, - the light intensity and/or the capture frequency (f A) during the measurement time interval is/are controlled by control signals, wherein - the control signals are generated at time intervals during the measurement time interval and - each control signal is generated on the basis of at least one sensor signal from at least one temperature sensor.
A method executed by a network node (232, 234, 236, 532, 534, 536, 632, 634, 636, 732, 734, 736, 832, 834, 836, 920, 920-a, 1102) for configuring wireless service for a user equipment, UE, in a wireless communications network, comprising: identifying a first set of parameters comprising a licensed radio frequency spectrum band associated with a first cell of an access node; identifying a second set of parameters comprising an unlicensed frequency spectrum band associated with a second cell of the access node; and providing one or more cell configurations of at least one of the first cell and the second cell to the access node for serving the UE based on at least one of the first set of parameters and the second set of parameters; wherein the one or more cell configurations comprise a percentage of traffic volume to be served over the first cell and a percentage of traffic volume to be served over the second cell. identifying a first set of parameters comprising a licensed radio frequency spectrum band associated with a first cell of an access node; identifying a second set of parameters comprising an unlicensed frequency spectrum band associated with a second cell of the access node; and providing one or more cell configurations of at least one of the first cell and the second cell to the access node for serving the UE based on at least one of the first set of parameters and the second set of parameters; wherein the one or more cell configurations comprise a percentage of traffic volume to be served over the first cell and a percentage of traffic volume to be served over the second cell.