mhurhangee/patent-ind-claim-en huggingface dataset:
A closure for closing a mouth of a container of a liquid , the closure comprising: a cap having fixing means for fixing the cap to the container , a delivery port for delivering the liquid from the container , a valve member in a closed position wherein the valve member closes the delivery port , characterised by a cap suction conduit for suctioning air into the container during the delivering of the liquid and a connector for connecting to a delivery device of the liquid , the connector being in fluid communication with the delivery port , a slider slidebly coupled with the cap , the slider having a slider suction conduit for suctioning the air into the container during the delivering of the liquid slidebly coupled with the cap suction conduit , and a frangible element closing the cap suction conduit or the slider suction conduit , wherein the closure is configured to cause the delivery device during the connecting thereof to move inwards the container , in a fixed condition wherein the closure is fixed to the container , and thus moving the valve member inwards the container to an open position, wherein the valve member opens the delivery port , and moving the slider inwards the container to break the frangible element , thereby putting in fluid communication the slider suction conduit with the cap suction conduit . a cap having fixing means for fixing the cap to the container , a delivery port for delivering the liquid from the container , a valve member in a closed position wherein the valve member closes the delivery port , characterised by a cap suction conduit for suctioning air into the container during the delivering of the liquid and a connector for connecting to a delivery device of the liquid , the connector being in fluid communication with the delivery port , a slider slidebly coupled with the cap , the slider having a slider suction conduit for suctioning the air into the container during the delivering of the liquid slidebly coupled with the cap suction conduit , and a frangible element closing the cap suction conduit or the slider suction conduit , wherein the closure is configured to cause the delivery device during the connecting thereof to move inwards the container , in a fixed condition wherein the closure is fixed to the container , and thus moving the valve member inwards the container to an open position, wherein the valve member opens the delivery port , and moving the slider inwards the container to break the frangible element , thereby putting in fluid communication the slider suction conduit with the cap suction conduit .
A method of operating a wearable device for biometric information detection, the method comprising: detecting biometric information of a subject, using a biometric sensor contacting the subject; measuring a bio-impedance of the subject using a first biometric electrode pair being a measurement electrode pair contacting the subject; determining a bio-impedance ratio of the bio-impedance; and determining validity of the detected biometric information, based on the determined bio-impedance ratio, characterized in that the method further comprises measuring another bio-impedance of the subject using a second biometric electrode pair that is a reference electrode pair contacting the subject, and wherein the bio-impedance ratio is the ratio of the bio-impedance measured using the measurement electrode pair to the bio-impedance measured using the reference electrode pair. detecting biometric information of a subject, using a biometric sensor contacting the subject; measuring a bio-impedance of the subject using a first biometric electrode pair being a measurement electrode pair contacting the subject; determining a bio-impedance ratio of the bio-impedance; and determining validity of the detected biometric information, based on the determined bio-impedance ratio, characterized in that the method further comprises measuring another bio-impedance of the subject using a second biometric electrode pair that is a reference electrode pair contacting the subject, and wherein the bio-impedance ratio is the ratio of the bio-impedance measured using the measurement electrode pair to the bio-impedance measured using the reference electrode pair.
1. An electronic apparatus comprising: a communicator ; and a processor configured to: control the communicator to establish first respective connections between a plurality of terminals and the electronic apparatus , determine that the first respective connections between the plurality of terminals and the electronic apparatus have been disconnected, control the communicator to transmit a communication connection order message, including a communication connection order for the plurality of terminals , from the electronic apparatus to the plurality of terminals , receive respective association requests through the communicator from the plurality of terminals in response to the transmitted communication connection order message, and control the communicator to sequentially establish second respective connections with each of the plurality of terminals based on the received respective association requests. a communicator ; and a processor configured to: control the communicator to establish first respective connections between a plurality of terminals and the electronic apparatus , determine that the first respective connections between the plurality of terminals and the electronic apparatus have been disconnected, control the communicator to transmit a communication connection order message, including a communication connection order for the plurality of terminals , from the electronic apparatus to the plurality of terminals , receive respective association requests through the communicator from the plurality of terminals in response to the transmitted communication connection order message, and control the communicator to sequentially establish second respective connections with each of the plurality of terminals based on the received respective association requests. control the communicator to establish first respective connections between a plurality of terminals and the electronic apparatus , determine that the first respective connections between the plurality of terminals and the electronic apparatus have been disconnected, control the communicator to transmit a communication connection order message, including a communication connection order for the plurality of terminals , from the electronic apparatus to the plurality of terminals , receive respective association requests through the communicator from the plurality of terminals in response to the transmitted communication connection order message, and control the communicator to sequentially establish second respective connections with each of the plurality of terminals based on the received respective association requests.
A syringe assembly, comprising: a syringe barrel having an inside surface defining a chamber , an open proximal end , and a distal end having an opening therethrough; a plunger assembly disposed at least partially within the syringe barrel , the plunger assembly comprising an elongate plunger rod and a plunger head disposed on the plunger rod and slidably disposed within the syringe barrel , the plunger head separating the chamber of the syringe barrel into a proximal chamber adjacent the proximal end and a distal chamber adjacent the distal end ; a conduit extending between the proximal chamber and the opening at the distal end of the syringe barrel, the conduit extending across the plunger head and comprising a tubing having a first end positioned adjacent and fixed with respect to the opening at the distal end of the syringe barrel and a second end fixed with respect to the plunger head , wherein the syringe is adapted to contain a fluid in the proximal chamber , wherein the fluid contained within the proximal chamber is adapted to be expelled through the conduit and out of the opening at the distal end of the syringe barrel upon movement of the plunger head toward the proximal end of the syringe barrel , and wherein movement of the plunger head toward the proximal end of the syringe barrel occurs based on conventional operation of expelling fluid from a conventional syringe with a squeezing movement between a thumb and forefinger. a syringe barrel having an inside surface defining a chamber , an open proximal end , and a distal end having an opening therethrough; a plunger assembly disposed at least partially within the syringe barrel , the plunger assembly comprising an elongate plunger rod and a plunger head disposed on the plunger rod and slidably disposed within the syringe barrel , the plunger head separating the chamber of the syringe barrel into a proximal chamber adjacent the proximal end and a distal chamber adjacent the distal end ; a conduit extending between the proximal chamber and the opening at the distal end of the syringe barrel, the conduit extending across the plunger head and comprising a tubing having a first end positioned adjacent and fixed with respect to the opening at the distal end of the syringe barrel and a second end fixed with respect to the plunger head , wherein the syringe is adapted to contain a fluid in the proximal chamber , wherein the fluid contained within the proximal chamber is adapted to be expelled through the conduit and out of the opening at the distal end of the syringe barrel upon movement of the plunger head toward the proximal end of the syringe barrel , and wherein movement of the plunger head toward the proximal end of the syringe barrel occurs based on conventional operation of expelling fluid from a conventional syringe with a squeezing movement between a thumb and forefinger.
An entirely biodegradable or recyclable license plate configured from a set of superimposed and bonded layers, comprising at least: a substrate constituting a lower supporting base part; an intermediate sheet which is reflective on its upper face where there are incorporated distinctive logos and, optionally, the characters of the license printed thereon; a protective transparent upper sheet , which may occasionally include said characters printed in mirrored fashion on its lower face; and an adhesive defining the film bonding the substrate , the intermediate sheet , and the upper sheet to one another, characterized in that it is manufactured in its entirety with elements made from biodegradable and/or recyclable materials; wherein the substrate is a part made of biodegradable material, obtained from agricultural waste such as rice hull, olive pit, or almond shell, or a part made from 100% recyclable aluminum, further incorporating on its upper surface an anti-adherent layer facilitating its separation from the intermediate sheet at the end of the service life of the plate; wherein the intermediate sheet is a plastic sheet made of a natural cellulose-derived polymer; wherein the upper sheet is also a plastic sheet made of a natural cellulose-derived polymer; and wherein the adhesive bonding the substrate , the intermediate sheet , and the upper sheet to one another is water-based adhesive that is completely environmentally-friendly.
A pipe joint comprising: an outer pipe assembly comprising a first outer pipe portion , a second outer pipe portion , and a shroud which couples the first outer pipe portion to the second outer pipe portion via an outer pipe joint , wherein the outer pipe joint comprises an outer securing mechanism which secures the shroud to the second outer pipe portion; and an inner pipe assembly within the outer pipe assembly, the inner pipe assembly comprising a first inner pipe portion coupled to a second inner pipe portion via an inner pipe joint , wherein the inner pipe assembly is configured to provide an inner fluid flow path (F) which extends in an axial direction and across the inner pipe joint, wherein the shroud is movably mounted to the first outer pipe portion, and the outer securing mechanism is configured to be releasable to enable the shroud to be moved along the first outer pipe portion in the axial direction and withdrawn away from the second outer pipe portion, thereby opening a gap between the shroud and the second outer pipe portion which provides access to the inner pipe joint and, characterised in that the shroud comprises a first sleeve which engages the first outer pipe portion; a second sleeve with a larger inner diameter than the first sleeve; and a shoulder which connects the first sleeve to the second sleeve. an outer pipe assembly comprising a first outer pipe portion , a second outer pipe portion , and a shroud which couples the first outer pipe portion to the second outer pipe portion via an outer pipe joint , wherein the outer pipe joint comprises an outer securing mechanism which secures the shroud to the second outer pipe portion; and an inner pipe assembly within the outer pipe assembly, the inner pipe assembly comprising a first inner pipe portion coupled to a second inner pipe portion via an inner pipe joint , wherein the inner pipe assembly is configured to provide an inner fluid flow path (F) which extends in an axial direction and across the inner pipe joint, wherein the shroud is movably mounted to the first outer pipe portion, and the outer securing mechanism is configured to be releasable to enable the shroud to be moved along the first outer pipe portion in the axial direction and withdrawn away from the second outer pipe portion, thereby opening a gap between the shroud and the second outer pipe portion which provides access to the inner pipe joint and, characterised in that the shroud comprises a first sleeve which engages the first outer pipe portion; a second sleeve with a larger inner diameter than the first sleeve; and a shoulder which connects the first sleeve to the second sleeve.
A control method for verifying compatibility between an input filter of the RLC type for filtering harmonics from an electric network and a variable speed drive , said variable speed drive being connected to an electric power source via said input filter , said variable speed drive comprising as an input a rectifier stage connected to said input filter , a DC power supply bus connected to said rectifier stage and receiving a DC power supply voltage (Vdc), and as an output an inverter stage connected to the DC power supply bus and controlled to provide a variable voltage to an electric motor (M), said method being characterised in that it consists in: - Applying several successive commands to define several operating points of the electric motor, - For each operating point: Measuring the bus DC voltage, Comparing the maximum variation (Δ V dc_m ) of the amplitude of the DC voltage measured for said operating point with a threshold value (Δ V dc_ref ), Defining a new operating point as long as said maximum variation of the amplitude of the DC voltage is less than said threshold value, - Determining an operating range comprising all operating points for which said maximum variation of the amplitude of the DC voltage is less than said threshold value. - Applying several successive commands to define several operating points of the electric motor, - For each operating point: Measuring the bus DC voltage, Comparing the maximum variation (Δ V dc_m ) of the amplitude of the DC voltage measured for said operating point with a threshold value (Δ V dc_ref ), Defining a new operating point as long as said maximum variation of the amplitude of the DC voltage is less than said threshold value, Measuring the bus DC voltage, Comparing the maximum variation (Δ V dc_m ) of the amplitude of the DC voltage measured for said operating point with a threshold value (Δ V dc_ref ), Defining a new operating point as long as said maximum variation of the amplitude of the DC voltage is less than said threshold value, - Determining an operating range comprising all operating points for which said maximum variation of the amplitude of the DC voltage is less than said threshold value.
An agricultural toolbar comprising: a frame ; a furrow opening assembly supported on the frame ; two gauge wheels pivotally mounted to either side of the frame and disposed to roll along the surface of the soil; a fluid injector disposed to dispense fluid adjacent a trench created by the furrow opening assembly ; characterized in that at least one gauge wheel (52-1) of the two gauge wheels has a channel disposed from the outer circumference and radially inward toward the center of the at least one gauge wheel (52-1) and disposed to at least partially accept the fluid injector at least partially within the channel. a frame ; a furrow opening assembly supported on the frame ; two gauge wheels pivotally mounted to either side of the frame and disposed to roll along the surface of the soil; a fluid injector disposed to dispense fluid adjacent a trench created by the furrow opening assembly ; characterized in that at least one gauge wheel (52-1) of the two gauge wheels has a channel disposed from the outer circumference and radially inward toward the center of the at least one gauge wheel (52-1) and disposed to at least partially accept the fluid injector at least partially within the channel.
An encryption determining device, whereby the encryption determining device comprises: a side channel sensor , detecting a side channel signal; the encryption determining device being characterized in : a memory , being configured to store a characteristic recognition model; a processor , electrically connecting the side channel sensor and the memory , and being configured to: receive the side channel signal from the side channel sensor ; generate a filtered side channel signal by filtering noise within the side channel signal; generate a phasor signal by utilizing a filter to covert the filtered side channel signal; locate an encrypted segment by calculating a periodicity of the phasor signal utilizing a standard deviation window; extract at least one encrypted characteristic from the encrypted segment; and generate an encryption analytic result by recognizing the at least one encrypted characteristic according to the characteristic recognition model; wherein the encryption analytic result includes a position of the encrypted segment within the side channel signal, and an encryption type corresponding to the side channel signal. a side channel sensor , detecting a side channel signal; the encryption determining device being characterized in : a memory , being configured to store a characteristic recognition model; a processor , electrically connecting the side channel sensor and the memory , and being configured to: receive the side channel signal from the side channel sensor ; generate a filtered side channel signal by filtering noise within the side channel signal; generate a phasor signal by utilizing a filter to covert the filtered side channel signal; locate an encrypted segment by calculating a periodicity of the phasor signal utilizing a standard deviation window; extract at least one encrypted characteristic from the encrypted segment; and generate an encryption analytic result by recognizing the at least one encrypted characteristic according to the characteristic recognition model; wherein the encryption analytic result includes a position of the encrypted segment within the side channel signal, and an encryption type corresponding to the side channel signal. receive the side channel signal from the side channel sensor ; generate a filtered side channel signal by filtering noise within the side channel signal; generate a phasor signal by utilizing a filter to covert the filtered side channel signal; locate an encrypted segment by calculating a periodicity of the phasor signal utilizing a standard deviation window; extract at least one encrypted characteristic from the encrypted segment; and generate an encryption analytic result by recognizing the at least one encrypted characteristic according to the characteristic recognition model; wherein the encryption analytic result includes a position of the encrypted segment within the side channel signal, and an encryption type corresponding to the side channel signal.
A method of integrity monitoring of a casing in a well bore, comprising: (i) providing an optic fibre along the path of the casing ; the method further comprising: (ii) sealing the top of the casing ; (iii) providing a pressure differential between a fluid in the casing and a fluid external to the casing ; (iv) interrogating the optic fibre to provide a distributed acoustic sensor, and sampling data from a plurality of longitudinal portions of the fibre whilst said pressure differential exists; and (v) processing said data to detect a signal characteristic of the integrity of the casing , wherein the method is characterized in that the steps (iii) and (iv) are carried out iteratively, and wherein the integrity monitoring method is performed in the production process of the well, prior to the casing being cemented in place; and the method further comprises: pressurizing the fluid in the casing to a first predetermined level and allowing it to reduce a plurality of times if a leak is present in the casing as fluid flows through the leak into a surrounding cavity so as to increase the pressure in the fluid in the surrounding cavity. (i) providing an optic fibre along the path of the casing ; the method further comprising: (ii) sealing the top of the casing ; (iii) providing a pressure differential between a fluid in the casing and a fluid external to the casing ; (iv) interrogating the optic fibre to provide a distributed acoustic sensor, and sampling data from a plurality of longitudinal portions of the fibre whilst said pressure differential exists; and (v) processing said data to detect a signal characteristic of the integrity of the casing , wherein the method is characterized in that the steps (iii) and (iv) are carried out iteratively, and (ii) sealing the top of the casing ; (iii) providing a pressure differential between a fluid in the casing and a fluid external to the casing ; (iv) interrogating the optic fibre to provide a distributed acoustic sensor, and sampling data from a plurality of longitudinal portions of the fibre whilst said pressure differential exists; and (v) processing said data to detect a signal characteristic of the integrity of the casing , wherein the method is characterized in that the steps (iii) and (iv) are carried out iteratively, and
Timepiece mechanism comprising a drive member , an oscillator , an escapement to maintain the oscillations of the oscillator , an intermediate spring to supply the escapement with mechanical energy, one or more gears between the drive member and the intermediate spring and a blocking device permitting periodic winding of the intermediate spring by the drive member via the gear(s) , the intermediate spring comprising at least one elastic arm , the or each elastic arm being of a sinuous shape, characterised in that the intermediate spring is a spring which behaves in a non-linear manner and which produces, between a winding angle θ a and a winding angle θ b , which are separated by at least 10°, an elastic return moment which does not vary by more than 10%, and in that the intermediate spring is pre-wound by a value θ arm within the range [θ a , θ b ], the timepiece mechanism being arranged so that, during operation thereof, the winding angle of the intermediate spring remains in the range [θ a , θ b ].