mhurhangee/patent-ind-claim-en huggingface dataset:
An electro-thermal based device, comprising - a heater , - a readout circuit which is coupled to the heater and is configured to generate a readout signal (SR) as a function of a resistance value of the heater at a first output , - a digital controller configured to generate a control signal (SC) at an output and having a first input coupled to the first output of the readout circuit , and - a digital sigma-delta modulator having a first input coupled to the output of the digital controller and an output coupled to the heater , wherein the digital sigma-delta modulator is configured to generate a modulator output signal (SM) at its output , characterized in that the digital sigma-delta modulator comprises a second input for receiving a pause signal (SP) and is configured to generate the modulator output signal (SM) with a constant value when the pause signal (SP) has a first value, wherein the digital sigma-delta modulator comprises a sigma-delta modulator circuit and a power buffer , wherein the sigma-delta modulator circuit is connected on its input side to the first input of the digital sigma-delta modulator , and wherein the power buffer forms the output of the sigma-delta modulator and comprises - an input connected to an output of the sigma-delta modulator circuit and - a control input connected to the second input of the digital sigma-delta modulator . - a heater , - a readout circuit which is coupled to the heater and is configured to generate a readout signal (SR) as a function of a resistance value of the heater at a first output , - a digital controller configured to generate a control signal (SC) at an output and having a first input coupled to the first output of the readout circuit , and - a digital sigma-delta modulator having a first input coupled to the output of the digital controller and an output coupled to the heater , that the digital sigma-delta modulator comprises a second input for receiving a pause signal (SP) and is configured to generate the modulator output signal (SM) with a constant value when the pause signal (SP) has a first value, wherein the digital sigma-delta modulator comprises a sigma-delta modulator circuit and a power buffer , wherein the sigma-delta modulator circuit is connected on its input side to the first input of the digital sigma-delta modulator , and wherein the power buffer forms the output of the sigma-delta modulator and comprises - an input connected to an output of the sigma-delta modulator circuit and - a control input connected to the second input of the digital sigma-delta modulator . - an input connected to an output of the sigma-delta modulator circuit and - a control input connected to the second input of the digital sigma-delta modulator .
Electric motor comprising a rotor which is mounted such that it can rotate in relation to a stator , wherein a first air-guiding contour , which generates an outwardly directed air stream (S) when the rotor rotates in a reference rotation direction (R), is formed on a first partial segment of an end face of the rotor , and wherein a second air-guiding contour , which generates an inwardly directed air stream (S) when the rotor rotates in the reference rotation direction (R), is formed on a second partial segment of the same end face , having a housing part of a motor housing, which housing part is situated opposite the end face of the rotor , wherein a mating air-guiding contour comprising webs extending predominantly at least approximately in the radial direction and slots , which are situated between said webs, is formed on a mating face of said housing part , which mating face adjoins the end face , wherein each slot opens out into a ventilation opening on the circumference of the mating surface , through which opening the motor interior is fluidically connected to the outside world, and wherein during rotation of the rotor , the air stream (S) which is produced by the air-guiding contours continuously changes its direction at each stationary point over the periphery of the end face as the first partial segment and the second partial segment alternately pass by, wherein an oscillating air flow is produced by the rotor at each ventilation opening .
A connection assembly for a tower of a wind turbine , the connection assembly comprising: a first tower section segment comprising an inner surface spaced apart from an outer surface ; a second tower section segment positioned adjacent to the first tower section segment , the second tower section segment comprising an inner surface spaced apart from an outer surface , wherein the first tower section segment and the second tower section segment define a vertically extending gap therebetween and at least partially define a tower interior ; and a connector plate comprising a first connector plate portion , a second connector plate portion spaced apart from the first connector plate portion , and a third connector plate portion positioned between the first connector plate portion and the second connector plate portion , wherein the connector plate is S-shaped; wherein the first connector plate portion couples to the first tower section segment , the second connector plate portion couples to the second tower section segment , and the third connector plate portion extends through the vertically extending gap . a first tower section segment comprising an inner surface spaced apart from an outer surface ; a second tower section segment positioned adjacent to the first tower section segment , the second tower section segment comprising an inner surface spaced apart from an outer surface , wherein the first tower section segment and the second tower section segment define a vertically extending gap therebetween and at least partially define a tower interior ; and a connector plate comprising a first connector plate portion , a second connector plate portion spaced apart from the first connector plate portion , and a third connector plate portion positioned between the first connector plate portion and the second connector plate portion , wherein the connector plate is S-shaped; wherein the first connector plate portion couples to the first tower section segment , the second connector plate portion couples to the second tower section segment , and the third connector plate portion extends through the vertically extending gap .
A wireless communication device comprising: a first transceiver comprising a first frequency synthesizer ; a second transceiver comprising a wakeup receiver (Rx2); and a control unit configured to control operation of the wireless communication device, characterized in that the first frequency synthesizer comprises a first digitally controlled oscillator (DCO1) and a crystal oscillator (XO); the second transceiver further comprises a second transmitter (Tx2) and a second digitally controlled oscillator (DCO2) connected to the wakeup receiver (Rx2) and second transmitter (Tx2); and the second transmitter (Tx2) is configured to transmit periodically a signal to a base station, the signal is modulated by a code identifying the wireless communication device and transmitted at a frequency set by the second digitally controlled oscillator (DCO2). a first transceiver comprising a first frequency synthesizer ; a second transceiver comprising a wakeup receiver (Rx2); and a control unit configured to control operation of the wireless communication device, characterized in that the first frequency synthesizer comprises a first digitally controlled oscillator (DCO1) and a crystal oscillator (XO); the second transceiver further comprises a second transmitter (Tx2) and a second digitally controlled oscillator (DCO2) connected to the wakeup receiver (Rx2) and second transmitter (Tx2); and the second transmitter (Tx2) is configured to transmit periodically a signal to a base station, the signal is modulated by a code identifying the wireless communication device and transmitted at a frequency set by the second digitally controlled oscillator (DCO2).
A medical device for preventing or treating atopic dermatitis, comprising: a covered space operable to cover a patient itself or an affected area; an ion generating element operable to fill the covered space with positive ions composed of H + (H 2 O) m (m being any integer) and negative ions composed of O 2 - (H 2 O) n (n being any integer) which are generated as a result of discharge in an atmosphere, said medical device configured such that said positive ions and said negative ions are brought into contact with a skin surface of the patient, characterised in that the respective concentrations of said positive ions and said negative ions generated as a result of discharge are not less than 200000/cm 3 . a covered space operable to cover a patient itself or an affected area; an ion generating element operable to fill the covered space with positive ions composed of H + (H 2 O) m (m being any integer) and negative ions composed of O 2 - (H 2 O) n (n being any integer) which are generated as a result of discharge in an atmosphere, said medical device configured such that said positive ions and said negative ions are brought into contact with a skin surface of the patient, characterised in that the respective concentrations of said positive ions and said negative ions generated as a result of discharge are not less than 200000/cm 3 .
A composition comprising a PUFA product, wherein the PUFA product is EPA, the PUFA product is present in an amount greater than 96.5 wt%, and the composition comprises: - an amount of ω-6 polyunsaturated fatty acids up to 0.40 wt%; - an amount of ω-3 eicosatetraenoic acid from 0.1 to 1 wt%; - an amount of DHA up to 1 wt%; - an amount of α-linolenic acid up to 1 wt%; - an amount of stearidonic acid from 0.1 to 1 wt%; - an amount of docosapentaenoic acid up to 1 wt%; and - an amount of arachidonic acid up to 0.25 wt%. - an amount of ω-6 polyunsaturated fatty acids up to 0.40 wt%; - an amount of ω-3 eicosatetraenoic acid from 0.1 to 1 wt%; - an amount of DHA up to 1 wt%; - an amount of α-linolenic acid up to 1 wt%; - an amount of stearidonic acid from 0.1 to 1 wt%; - an amount of docosapentaenoic acid up to 1 wt%; and - an amount of arachidonic acid up to 0.25 wt%.
Motor-driven axial-flow control valve , comprising a valve body having an inlet and an opposite outlet and an interposed passage having substantially axial alignment relative to the inlet and to the outlet , as well as a flow control part arranged in the passage with operative connection to a motor drive belonging to the valve in a switch housing adjacent to the valve body and belonging to the valve, wherein the flow-control part is formed by two radially arranged discs lying one on top of the other and each having at least one passage opening, of which the one disc is a stator disc permanently arranged in the valve body and the other disc lies axially rotatably on the stator disc , and the rotatable disc is in engagement with an axially rotatable sleeve which is arranged axially in the passage and through which flow can pass in the cavity thereof, wherein said sleeve is operatively connected to the motor drive on the outer periphery of said sleeve, wherein the motor drive comprises an electric motor having a gear unit and a drive shaft , and a drive wheel which is operatively connected to the outer circumference of the axially rotatable sleeve is seated on the drive shaft , wherein the drive wheel is designed as a gearwheel, characterized in that the axially rotatable sleeve has a toothing on its outer circumference, wherein the drive wheel designed as a gearwheel engages in the toothing and is thus operatively connected to the axially rotatable sleeve .
A method of sending data related to cardholder transactions, performed by a remote database, comprising receiving transaction data from a merchant relating to the cardholder transactions, the transaction data comprising itemised product data and payment device data, the itemised product data comprising itemised receipt line items for goods or services received from the merchant; storing , for each cardholder transaction, the received transaction data relating to that transaction in a transaction record in the remote database, wherein each transaction record comprises a transaction ID and wherein the remote database defines a set of attributes relating to the transaction records; aggregating the received transaction data and storing the aggregated transaction data in the transaction records; receiving, from a third party, a request for data related to cardholder transactions stored in the remote database; generating a polynomial Ai(X) for each attribute whose zeros correspond to the transaction IDs of the records that have the ith attribute; assigning a Tag, Tag_i, to each attribute and encrypting each Ai(x) as Enc (Ai(x)) sending a set {Tag_i, Enc(Ai(x))} to a proxy database; receiving an encrypted and blinded polynomial Enc(B(x)) that is based on the polynomial Ai(x) from the proxy database through the third party, the polynomial Enc (B(x)) comprising attributes selected by the third party; decrypting Enc(B(x)) and sending the decrypted polynomial B(x) to the third party; querying the remote database based on the decrypted polynomial B(x) and returning aggregated transaction data to the third party. receiving transaction data from a merchant relating to the cardholder transactions, the transaction data comprising itemised product data and payment device data, the itemised product data comprising itemised receipt line items for goods or services received from the merchant; storing , for each cardholder transaction, the received transaction data relating to that transaction in a transaction record in the remote database, wherein each transaction record comprises a transaction ID and wherein the remote database defines a set of attributes relating to the transaction records; aggregating the received transaction data and storing the aggregated transaction data in the transaction records; receiving, from a third party, a request for data related to cardholder transactions stored in the remote database; generating a polynomial Ai(X) for each attribute whose zeros correspond to the transaction IDs of the records that have the ith attribute; assigning a Tag, Tag_i, to each attribute and encrypting each Ai(x) as Enc (Ai(x)) sending a set {Tag_i, Enc(Ai(x))} to a proxy database; receiving an encrypted and blinded polynomial Enc(B(x)) that is based on the polynomial Ai(x) from the proxy database through the third party, the polynomial Enc (B(x)) comprising attributes selected by the third party; decrypting Enc(B(x)) and sending the decrypted polynomial B(x) to the third party; querying the remote database based on the decrypted polynomial B(x) and returning aggregated transaction data to the third party.
A media gateway comprising: a plurality of instantiations of a media session manager function ; a plurality of instantiations of a media processor function ; and a plurality of instantiations of a media session state datastore function , wherein instantiations of the media session manager function, instantiations of the media processor function, and instantiations of the media session state datastore function are instantiated on different containers. a plurality of instantiations of a media session manager function ; a plurality of instantiations of a media processor function ; and a plurality of instantiations of a media session state datastore function , wherein instantiations of the media session manager function, instantiations of the media processor function, and instantiations of the media session state datastore function are instantiated on different containers.
A structure comprising: a semiconductor light emitting device ; and thermochromic pigments disposed in a path of light emitted by the semiconductor light emitting device ; characterized in that , the structure comprises a separate heat generator that is thermally coupled with the thermochromic pigments , wherein the heat generator is configured to heat the thermochromic pigments when the semiconductor light emitting device is turned on wherein the heat generator is in direct contact with the thermochromic pigments , and wherein the thermochromic pigments are arranged to change during a phase transition from having a colored appearance to having a transparent or translucent appearance when the thermochromic pigments are heated by the heat generator. a semiconductor light emitting device ; and thermochromic pigments disposed in a path of light emitted by the semiconductor light emitting device ; characterized in that , the structure comprises a separate heat generator that is thermally coupled with the thermochromic pigments , wherein the heat generator is configured to heat the thermochromic pigments when the semiconductor light emitting device is turned on wherein the heat generator is in direct contact with the thermochromic pigments , and wherein the thermochromic pigments are arranged to change during a phase transition from having a colored appearance to having a transparent or translucent appearance when the thermochromic pigments are heated by the heat generator.
An electrolyte solution for a lithium-sulfur secondary battery comprising a lithium salt and a non-aqueous solvent, wherein the non-aqueous solvent comprises an ether-based solvent and a nonsolvent, the ether-based solvent comprises a linear ether and a cyclic ether, and the nonsolvent comprises a compound represented by Chemical Formula 1 below: wherein Rfs are the same as or different from each other, and each independently represent a fluorinated C1 to C3 alkyl group, wherein the content of the nonsolvent is 5 vol.% to 20 vol.% relative to the total volume of the non-aqueous solvent. wherein the non-aqueous solvent comprises an ether-based solvent and a nonsolvent, the ether-based solvent comprises a linear ether and a cyclic ether, and the nonsolvent comprises a compound represented by Chemical Formula 1 below: wherein Rfs are the same as or different from each other, and each independently represent a fluorinated C1 to C3 alkyl group, wherein the content of the nonsolvent is 5 vol.% to 20 vol.% relative to the total volume of the non-aqueous solvent.
A method for controlling flight control surfaces of an aircraft wing having a first flight control surface and a second flight control surface , the first flight control surface having a first leading edge and a first trailing edge , the second flight control surface having a contact surface extending between a second leading edge and a second trailing edge , the first flight control surface being movable to contact the first trailing edge with the contact surface and make a seal therewith, the method comprising: displacing the first trailing edge of the first flight control surface towards the contact surface of the second flight control surface ; characterised in that the method further comprises: determining a mechanical stiffness of the first flight control surface as defined by a ratio of ΔF/ΔX as the first flight control surface is displaced, where ΔF is a difference in force F applied to at least two different positions X1 and X2 of the first flight control surface at times T1 and T2, and ΔX is a difference in position X2-X1; and achieving full contact between the first trailing edge and the second leading edge when a known full contact mechanical stiffness is reached. displacing the first trailing edge of the first flight control surface towards the contact surface of the second flight control surface ; characterised in that the method further comprises: determining a mechanical stiffness of the first flight control surface as defined by a ratio of ΔF/ΔX as the first flight control surface is displaced, where ΔF is a difference in force F applied to at least two different positions X1 and X2 of the first flight control surface at times T1 and T2, and ΔX is a difference in position X2-X1; and achieving full contact between the first trailing edge and the second leading edge when a known full contact mechanical stiffness is reached. determining a mechanical stiffness of the first flight control surface as defined by a ratio of ΔF/ΔX as the first flight control surface is displaced, where ΔF is a difference in force F applied to at least two different positions X1 and X2 of the first flight control surface at times T1 and T2, and ΔX is a difference in position X2-X1; and achieving full contact between the first trailing edge and the second leading edge when a known full contact mechanical stiffness is reached.
A refrigeration cycle apparatus comprising: a plurality of indoor heat exchangers exchanging heat between refrigerant and indoor air; an outdoor heat exchanger exchanging heat between the refrigerant and outdoor air; a six-way valve switching a flow path of the refrigerant; a compressor for compressing the refrigerant; a first expansion valve configured to be capable of shutting off a flow of the refrigerant, the plurality of indoor heat exchangers being connected with the outdoor heat exchanger via the six-way valve , the plurality of indoor heat exchangers being arranged in parallel and connected with the six-way valve, and at least one of the plurality of indoor heat exchangers being connected with the six-way valve via the first expansion valve ; and a second expansion valve arranged between the outdoor heat exchanger and the six-way valve , at a time of cooling operation, the six-way valve being controlled to direct the refrigerant from the outdoor heat exchanger to the six-way valve , and the refrigerant condensed in the outdoor heat exchanger being decompressed and expanded by at least the first expansion valve , of the first expansion valve and the second expansion valve arranged between the outdoor heat exchanger and the indoor heat exchanger , and being delivered to the indoor heat exchanger ; wherein the plurality of indoor heat exchangers are provided to be individually switchable between an operated state and a stopped state; when the at least one of the plurality of indoor heat exchangers is in the stopped state, the first expansion valve is closed. a plurality of indoor heat exchangers exchanging heat between refrigerant and indoor air; an outdoor heat exchanger exchanging heat between the refrigerant and outdoor air; a six-way valve switching a flow path of the refrigerant; a compressor for compressing the refrigerant; a first expansion valve configured to be capable of shutting off a flow of the refrigerant, the plurality of indoor heat exchangers being connected with the outdoor heat exchanger via the six-way valve , the plurality of indoor heat exchangers being arranged in parallel and connected with the six-way valve, and at least one of the plurality of indoor heat exchangers being connected with the six-way valve via the first expansion valve ; and a second expansion valve arranged between the outdoor heat exchanger and the six-way valve , at a time of cooling operation, the six-way valve being controlled to direct the refrigerant from the outdoor heat exchanger to the six-way valve , and the refrigerant condensed in the outdoor heat exchanger being decompressed and expanded by at least the first expansion valve , of the first expansion valve and the second expansion valve arranged between the outdoor heat exchanger and the indoor heat exchanger , and being delivered to the indoor heat exchanger ; wherein the plurality of indoor heat exchangers are provided to be individually switchable between an operated state and a stopped state; when the at least one of the plurality of indoor heat exchangers is in the stopped state, the first expansion valve is closed.