mhurhangee/patent-ind-claim-en huggingface dataset:
An induction-heating cooker (1a; 1b; 1c; 1d; 1e; 1f; 1g; 1h), comprising: a direct-current power supply ; a first switching element and a second switching element connected in series between output terminals of the direct-current power supply ; a third switching element and a fourth switching element connected in series between the output terminals of the direct-current power supply ; a first resonant circuit including a first heating coil and a first resonant capacitor connected in series, the first resonant circuit having one end connected to a connection point between the first switching element and the second switching element ; and a controller configured to control the first switching element , the second switching element , the third switching element , and the fourth switching element ; characterized by a second resonant circuit including a second heating coil and a second resonant capacitor connected in series, the second resonant circuit having one end connected to a connection point between the third switching element and the fourth switching element and the other end connected to the other end of the first resonant circuit ; and a third resonant capacitor connected between one of a positive output terminal and a negative output terminal of the direct-current power supply and a connection point between the first resonant circuit and the second resonant circuit . a direct-current power supply ; a first switching element and a second switching element connected in series between output terminals of the direct-current power supply ; a third switching element and a fourth switching element connected in series between the output terminals of the direct-current power supply ; a first resonant circuit including a first heating coil and a first resonant capacitor connected in series, the first resonant circuit having one end connected to a connection point between the first switching element and the second switching element ; and a controller configured to control the first switching element , the second switching element , the third switching element , and the fourth switching element ; characterized by a second resonant circuit including a second heating coil and a second resonant capacitor connected in series, the second resonant circuit having one end connected to a connection point between the third switching element and the fourth switching element and the other end connected to the other end of the first resonant circuit ; and a third resonant capacitor connected between one of a positive output terminal and a negative output terminal of the direct-current power supply and a connection point between the first resonant circuit and the second resonant circuit .
A challenge-response method for a client device , the method comprising steps of: receiving challenge data , wherein the challenge data is audio content encrypted using an encryption key, the audio content including a nonce; using a secured module of the client device to access the audio content by decrypting the challenge data using a decryption key of the secured module, the decryption key corresponding to the encryption key; using the secured module to output an audible version of the audio content via a speaker of the client device; receiving the audible version of the audio content using a microphone of the client device; processing the audible version of the audio content received by the microphone so as to obtain the nonce; and providing the nonce as a response . receiving challenge data , wherein the challenge data is audio content encrypted using an encryption key, the audio content including a nonce; using a secured module of the client device to access the audio content by decrypting the challenge data using a decryption key of the secured module, the decryption key corresponding to the encryption key; using the secured module to output an audible version of the audio content via a speaker of the client device; receiving the audible version of the audio content using a microphone of the client device; processing the audible version of the audio content received by the microphone so as to obtain the nonce; and providing the nonce as a response .
A test meter for receiving a test strip comprising: (a) a housing ; (b) electronic circuitry disposed within the housing, and (c) a strip port connector connected to the electronic circuitry and extending to an opening in the housing, said strip port connector connecting the electronic circuitry with a received test strip, wherein the strip port connector contains top and bottom contacts forming a pair of contacts (20,20';30,30';40,40';50,50'), said top and bottom contacts having a proximal end (22,22';32,32';42,42') and a distal end (23,23';33,33';43,43') and a central contact portion (24,24';34,34';44,44';54,54'), the top and bottom contacts of the pair are transversely aligned with one another, the distal ends of the top and bottom contacts being separable from one another by insertion of a test strip therebetween, and wherein one of the top or bottom contacts is connected to the electronic circuitry to read encoding marks disposed on one surface of a test strip, and the other of the top or bottom contacts is connected to the electronic circuitry to obtain information about measurements made by the test strip on a sample introduced into the test strip, characterised in that the top and bottom contacts of the pair are biased such that the respective central contact portions are in electrical contact with one another when no test strip is received in the test meter, and the electronic circuitry is configured to test for electrical contact between the pair of top and bottom contacts at one or more times when a test strip is not inserted between top and bottom contacts. (a) a housing ; (b) electronic circuitry disposed within the housing, and (c) a strip port connector connected to the electronic circuitry and extending to an opening in the housing, said strip port connector connecting the electronic circuitry with a received test strip, wherein
A pipe structure comprising: - a pipe which is made of fiber-reinforced plastic; - moisture-proof foils which individually cover an outer circumferential surface of the pipe and an inner circumferential surface thereof; and - an intermediate part which is made of metal and fitted to an end of the pipe , wherein end portions of the moisture-proof foils are tightly sandwiched between the pipe and the intermediate part , wherein the pipe has a protrusion , projecting in an axial direction at the end thereof, and the intermediate part has a recessed portion , characterised in that the moisture-proof foil covering the outer circumferential surface of the pipe extends to the outer circumferential surface of the protrusion and is sandwiched between an outer circumferential surface of the protrusion and an inner circumferential surface of the recessed portion . - a pipe which is made of fiber-reinforced plastic; - moisture-proof foils which individually cover an outer circumferential surface of the pipe and an inner circumferential surface thereof; and - an intermediate part which is made of metal and fitted to an end of the pipe , wherein end portions of the moisture-proof foils are tightly sandwiched between the pipe and the intermediate part , wherein the pipe has a protrusion , projecting in an axial direction at the end thereof, and the intermediate part has a recessed portion , characterised in that the moisture-proof foil covering the outer circumferential surface of the pipe extends to the outer circumferential surface of the protrusion and is sandwiched between an outer circumferential surface of the protrusion and an inner circumferential surface of the recessed portion .
A method of operating a staged steam injection system for a flare tip that can discharge waste gas into a combustion zone and includes an inner tubular member disposed within an outer tubular member, the method comprising: at a first gas injection assembly , injecting steam at a high flow rate of at least 0,252 kg/s (2000 Ib/hr) and a high pressure of at least 344,738 kPa (50 psig) into the inner tubular member of the flare tip , said first gas injection assembly including: a first stage gas source , said first stage gas source being a source of steam; and a first gas injection nozzle fluidly connected to said first stage gas source ; and at a second gas injection assembly , injecting a gas at a low flow rate of one-half or less of the high flow rate and a high pressure of at least 344,738 kPa (50 psig) into the inner tubular member of the flare tip , said second gas injection assembly including: a second stage gas source ; and a second gas injection nozzle fluidly connected to said second stage gas source , wherein said first gas injection assembly and said second gas injection assembly are proximate to each other and oriented in the same direction such that both said first gas injection assembly and said second gas injection assembly inject gas into the inner tubular member of the flare tip . at a first gas injection assembly , injecting steam at a high flow rate of at least 0,252 kg/s (2000 Ib/hr) and a high pressure of at least 344,738 kPa (50 psig) into the inner tubular member of the flare tip , said first gas injection assembly including: a first stage gas source , said first stage gas source being a source of steam; and a first gas injection nozzle fluidly connected to said first stage gas source ; and a first stage gas source , said first stage gas source being a source of steam; and a first gas injection nozzle fluidly connected to said first stage gas source ; and at a second gas injection assembly , injecting a gas at a low flow rate of one-half or less of the high flow rate and a high pressure of at least 344,738 kPa (50 psig) into the inner tubular member of the flare tip , said second gas injection assembly including: a second stage gas source ; and a second gas injection nozzle fluidly connected to said second stage gas source , a second stage gas source ; and a second gas injection nozzle fluidly connected to said second stage gas source , wherein said first gas injection assembly and said second gas injection assembly are proximate to each other and oriented in the same direction such that both said first gas injection assembly and said second gas injection assembly inject gas into the inner tubular member of the flare tip .
Electromotive furniture drive comprising a drive motor and a lift spindle , wherein the lift spindle and an output shaft of the drive motor are arranged in a common plane (A), and wherein the output shaft is coupled to the lift spindle via a gear assembly with an intermediate shaft , having a housing in which the gear assembly is accommodated and from which a motor housing of the drive motor and a standpipe project parallel to one another on one side, wherein a lifting tube is mounted in the standpipe so as to be linearly displaceable, which lifting tube is coupled to a spindle nut which interacts with the lift spindle , wherein the intermediate shaft intersects the plane (A) in which the lift spindle and the output shaft lie, between the lift spindle and the output shaft characterized in that the housing has an upper part from which the motor housing , the drive motor and the standpipe project, and a lower part arranged on an opposite side..
Device comprising: a substrate ; a first layer resting on the substrate, the first layer comprising a first part and a second part mobile with respect to each other; an annular optical resonator defined in a second layer , the device being characterized in that the resonator comprises a first portion fixed to a first anchor pad connected to the first part of the first layer and a second portion fixed to a second anchor pad connected to the second part of the first layer . a substrate ; a first layer resting on the substrate, the first layer comprising a first part and a second part mobile with respect to each other; an annular optical resonator defined in a second layer , the device being characterized in that the resonator comprises a first portion fixed to a first anchor pad connected to the first part of the first layer and a second portion fixed to a second anchor pad connected to the second part of the first layer .
An electrical paper comprising a fibrous substrate having a first side and a second side opposite the first side, and comprising a consolidated product of a fiber composition comprising: about 20 to 65 wt.% of polyimide fibers; about 30 to 70 wt.% of aromatic polyamide fibers; about 10 to 30 wt.% aromatic polyamide fibrids; each based on the total weight of these fibers and fibrids in the fiber composition; and having a first layer comprising about 75 to 95 wt.% polyimide fibers and about 5 to 25 wt.% aromatic polyamide fibrids disposed on the first side of the fibrous substrate; and a second layer comprising about 75 to 95 wt.% polyimide fibers and about 5 to 25 wt.% aromatic polyamide fibrids disposed on the second side of the fibrous substrate, wherein the electrical paper has a thickness of from more than 0 to less than 203 micrometers (8 mil). about 20 to 65 wt.% of polyimide fibers; about 30 to 70 wt.% of aromatic polyamide fibers; about 10 to 30 wt.% aromatic polyamide fibrids; each based on the total weight of these fibers and fibrids in the fiber composition; and having a first layer comprising about 75 to 95 wt.% polyimide fibers and about 5 to 25 wt.% aromatic polyamide fibrids disposed on the first side of the fibrous substrate; and a second layer comprising about 75 to 95 wt.% polyimide fibers and about 5 to 25 wt.% aromatic polyamide fibrids disposed on the second side of the fibrous substrate, wherein the electrical paper has a thickness of from more than 0 to less than 203 micrometers (8 mil).
Electrical appliance having a ventilation device , the ventilation device comprising: - a fan , - an elongate air guide in which the fan is disposed, - wherein the fan has a planar flap disposed for oscillating movement, - actuators on the planar flap for oscillating movement of the latter, wherein the air guide has a flat cross section, wherein the width of the planar flap is at least 60% of the width of the air guide along which it extends, wherein the planar flap is retained on one longitudinal side as a holder which runs transversely to a longitudinal direction of the air guide and transversely to an air flow therein, wherein downstream behind the ventilation device electrical components to be cooled of the electrical appliance are disposed, characterized in that the electrical appliance is an electrical cooking appliance as a cooktop , baking oven or microwave oven. - a fan , - an elongate air guide in which the fan is disposed, - wherein the fan has a planar flap disposed for oscillating movement, - actuators on the planar flap for oscillating movement of the latter,
A communication system comprising a plurality of slave devices and a master device that communicates with the plurality of slave devices , wherein the master device includes: a plurality of switches (CH21-CH2n) provided for each of the plurality of slave devices , for supplying power to the corresponding slave devices ; a storage unit for storing identification information corresponding to the plurality of switches ; and a transmission unit ; characterized in that the transmission unit transmits corresponding identification information each time the switch (CH21-CH2n) is turned on by sequentially turning on the switch (CH21-CH2n), and wherein the plurality of slave devices has a setting unit that sets the identification information received after power supply as its own identification information. wherein the master device includes: a plurality of switches (CH21-CH2n) provided for each of the plurality of slave devices , for supplying power to the corresponding slave devices ; a storage unit for storing identification information corresponding to the plurality of switches ; and a transmission unit ; a plurality of switches (CH21-CH2n) provided for each of the plurality of slave devices , for supplying power to the corresponding slave devices ; a storage unit for storing identification information corresponding to the plurality of switches ; and a transmission unit ; characterized in that the transmission unit transmits corresponding identification information each time the switch (CH21-CH2n) is turned on by sequentially turning on the switch (CH21-CH2n), and wherein the plurality of slave devices has a setting unit that sets the identification information received after power supply as its own identification information.
A computer-implemented method for controlling access of a terminal to an attribute stored in an ID token , wherein the ID token is associated with a user, wherein the method, at the start of a new communication session between the terminal and the ID token , comprises receipt of an identification of the terminal by the ID token and checking by the ID token if a session identification validly associated with the identification of the terminal is stored in the ID token , wherein, if a session identification validly associated with the identification of the terminal is stored in the ID token , the ID token transmits the session identification to the terminal to check if a session-specific session key validly associated with the session identification for encrypting a subsequent communication is stored in the terminal and grants the terminal access to the attribute , wherein the terminal is granted access to the attribute for the current session between ID token and terminal without a further authentication process between ID token and terminal and the further subsequent communication with access to the attribute is carried out in an encrypted manner using the session-specific session key, wherein the session-specific session key is stored in the ID token in a manner associated with the session identification or the identification of the terminal , wherein, if no session identification validly associated with the identification of the terminal is stored in the ID token , the method comprises the following steps: - authenticating the terminal by the ID token and authenticating the ID token to the terminal, wherein, following successful authentications, the terminal is granted access to the attribute , - deriving a session-specific session key, wherein a subsequent communication with access to the attribute is carried out in an encrypted manner using a session-specific session key, - deriving a session identification, - storing, in the ID token , the identification of the terminal associated with the session identification, - storing, in the ID token , the session-specific session key associated with the identification of the terminal . - authenticating the terminal by the ID token and authenticating the ID token to the terminal, wherein, following successful authentications, the terminal is granted access to the attribute , - deriving a session-specific session key, wherein a subsequent communication with access to the attribute is carried out in an encrypted manner using a session-specific session key, - deriving a session identification, - storing, in the ID token , the identification of the terminal associated with the session identification, - storing, in the ID token , the session-specific session key associated with the identification of the terminal .
A container gripping aid , including a jacket for reception of the container, , the jacket being resiliently deformable and having a mesh configuration with a plurality of holes to provide gripping means, the jacket having a somewhat bulbous shape such that when it is engaged with the container most of a side wall of the jacket is supported spaced-apart from an exterior side wall of the container , a top of the jacket being engagable with a top of the container to secure the jacket in engagement with the container in use, characterised in that at a lower end of the jacket an opposed pair of resiliently deformable support arms project inwardly and upwardly at a bottom of the jacket for engagement with a base of the container when the container is inserted into the jacket .
A computer-implemented method for implementation on a measurement device , comprising: a differential measurement operation, comprising: reading in signals from at least two input channels of the measurement device, the signal from each input channel being received from a respective sensor element ; applying a linearization function to each of the input channels, the linearization function having adjustable parameters; applying a computation algorithm to the input channels subsequent to applying the linearization function, to derive at least one output measurement ; outputting a data signal indicative of the output measurement; and a calibration operation performed at a different time than the measurement operation comprising: applying a plurality of sets of constant-value calibration input signals to the input channels of the measurement device; applying the computation algorithm to each set of the calibration input signals without applying the linearization function, and recording each respective output measurement, to form a calibration dataset ; and fitting the adjustable parameters of the linearization function based on the calibration dataset. a differential measurement operation, comprising: reading in signals from at least two input channels of the measurement device, the signal from each input channel being received from a respective sensor element ; applying a linearization function to each of the input channels, the linearization function having adjustable parameters; applying a computation algorithm to the input channels subsequent to applying the linearization function, to derive at least one output measurement ; outputting a data signal indicative of the output measurement; and reading in signals from at least two input channels of the measurement device, the signal from each input channel being received from a respective sensor element ; applying a linearization function to each of the input channels, the linearization function having adjustable parameters; applying a computation algorithm to the input channels subsequent to applying the linearization function, to derive at least one output measurement ; outputting a data signal indicative of the output measurement; a calibration operation performed at a different time than the measurement operation comprising: applying a plurality of sets of constant-value calibration input signals to the input channels of the measurement device; applying the computation algorithm to each set of the calibration input signals without applying the linearization function, and recording each respective output measurement, to form a calibration dataset ; and fitting the adjustable parameters of the linearization function based on the calibration dataset. applying a plurality of sets of constant-value calibration input signals to the input channels of the measurement device; applying the computation algorithm to each set of the calibration input signals without applying the linearization function, and recording each respective output measurement, to form a calibration dataset ; and fitting the adjustable parameters of the linearization function based on the calibration dataset.