mhurhangee/patent-ind-claim-en huggingface dataset:
A smoking substitute device having: a control unit ; a battery configured to supply power to the smoking substitute device ; a movement sensing component configured to sense movement of the smoking substitute device ; and a battery level indicator configured to, when activated, provide an indication of charge remaining in the battery; wherein the control unit is configured to activate the battery level indicator , when a predetermined movement of the smoking substitute device is detected using the movement sensing component , wherein the control unit is configured to obtain one or more measurements indicative of charge remaining in the battery, and to select an indication state to be provided by the battery level indicator based on the one or more measurements, wherein the control unit is configured such that the selection of an indication state by the control unit uses configuration information stored on the smoking substitute device , wherein the configuration information stored on the smoking substitute device provides a relationship between the one or more measurements indicative of charge remaining in the battery and the plurality of indication states, characterized in that the configuration information stored on the smoking substitute device is configured to be updated based on data concerning how the smoking substitute device has been used by a user of the smoking substitute device . a control unit ; a battery configured to supply power to the smoking substitute device ; a movement sensing component configured to sense movement of the smoking substitute device ; and a battery level indicator configured to, when activated, provide an indication of charge remaining in the battery; wherein the control unit is configured to activate the battery level indicator , when a predetermined movement of the smoking substitute device is detected using the movement sensing component , wherein the control unit is configured to obtain one or more measurements indicative of charge remaining in the battery, and to select an indication state to be provided by the battery level indicator based on the one or more measurements, wherein the control unit is configured such that the selection of an indication state by the control unit uses configuration information stored on the smoking substitute device , wherein the configuration information stored on the smoking substitute device provides a relationship between the one or more measurements indicative of charge remaining in the battery and the plurality of indication states, characterized in that the configuration information stored on the smoking substitute device is configured to be updated based on data concerning how the smoking substitute device has been used by a user of the smoking substitute device .
Method to detect a jamming situation for a user equipment (UE) operating in a cellular network (CN) comprising a plurality of base stations (eNB1, eNB2), the user equipment (UE) operating on at least one of the base stations, hereinafter the serving base station (eNB1), for the case of a communication loss to its serving base station (eNB1), whereby the conditions relating to the serving base station (eNB1) or the corresponding frequency fulfills the criteria concerning jamming, the method comprises the steps of: - scanning for accessible base stations (eNB2) of the cellular network (CN), - examining the at least one base station being identified through the scanning step, by means of signalling message, - evaluating the response behavior of said at least one base station, wherein in consideration of the response behavior of at least one of said base station if said base station is rated as suspicious: - indicating a jamming situation, otherwise camping on at least one of said base stations (eNB2), wherein rating the response behavior of a base station as suspicious, when the response behavior comprises one of the following : - not answering on said signalling message, - transmitting at least one of a barring indication or a restriction for operator use indication, - while said signalling message is a connection attempt, rejecting a plurality of connection attempts. for the case of a communication loss to its serving base station (eNB1), whereby the conditions relating to the serving base station (eNB1) or the corresponding frequency fulfills the criteria concerning jamming, the method comprises the steps of: - scanning for accessible base stations (eNB2) of the cellular network (CN), - examining the at least one base station being identified through the scanning step, by means of signalling message, - evaluating the response behavior of said at least one base station, - scanning for accessible base stations (eNB2) of the cellular network (CN), - examining the at least one base station being identified through the scanning step, by means of signalling message, - evaluating the response behavior of said at least one base station, wherein in consideration of the response behavior of at least one of said base station if said base station is rated as suspicious: - indicating a jamming situation, - indicating a jamming situation, otherwise camping on at least one of said base stations (eNB2), wherein rating the response behavior of a base station as suspicious, when the response behavior comprises one of the following : - not answering on said signalling message, - transmitting at least one of a barring indication or a restriction for operator use indication, - while said signalling message is a connection attempt, rejecting a plurality of connection attempts. - not answering on said signalling message, - transmitting at least one of a barring indication or a restriction for operator use indication, - while said signalling message is a connection attempt, rejecting a plurality of connection attempts.
A composition comprising: a general formula: or a salt thereof; wherein R1, R2, R3, and R4 are each independently selected from the group consisting of hydrogen, iodine, fluorine, bromine, a methoxy group, a nitro group, an amine group, and a nitrile group; wherein R5, R6, R7, and R8 are each independently selected from the group consisting of hydrogen, iodine, and an alkane group; and n 1 ≥ 0; n 2 ≥ 1; and a general formula: or a salt thereof; wherein R1, R2, R3, and R4 are each independently selected from the group consisting of hydrogen, iodine, fluorine, bromine, a methoxy group, a nitro group, an amine group, and a nitrile group; wherein R5, R6, R7, and R8 are each independently selected from the group consisting of hydrogen, iodine, and an alkane group; and n 1 ≥ 0; n 2 ≥ 1; and
A rotor locking system for a rotor hub of a wind driven power plant, comprising a rotor locking disk , a rotor locking pin unit , and a rotor locking pin , wherein the rotor locking disk is mounted to the rotor hub , wherein the rotor locking pin is an actuated element of the rotor locking pin unit , wherein the rotor locking pin is configured to assume a first position, wherein the rotor locking pin is configured to assume a second position in which the rotor locking pin extends into a recess of the rotor locking disk such that a rotation of the rotor hub is preventable, and wherein the rotor locking pin is lockable, characterized in that the rotor locking system further comprises - a displacement sensor , wherein a position of the rotor locking pin is detectable by means of the displacement sensor , and/or - a pressure sensor , wherein an internal pressure inside a first working volume is detectable by the pressure sensor , wherein the rotor locking system further comprises a working space and a piston , wherein the piston defines the first working volume inside the working space, and wherein a position of the piston inside the working space defines a position of the rotor locking pin . - a displacement sensor , wherein a position of the rotor locking pin is detectable by means of the displacement sensor , and/or - a pressure sensor , wherein an internal pressure inside a first working volume is detectable by the pressure sensor , wherein the rotor locking system further comprises a working space and a piston , wherein the piston defines the first working volume inside the working space, and wherein a position of the piston inside the working space defines a position of the rotor locking pin .
An air cleaner, comprising: a case including a case body and an inlet , wherein the case body includes a case opening and a case peripheral wall surrounding the case opening , and the inlet is connected to the case peripheral wall ; a cap including an outlet and a cap opening that faces the case opening ; and a filter element including a filter and an annular sealing portion arranged on a circumferential edge of the filter , wherein the filter element is arranged between the case opening and the cap opening , wherein the case includes an annular sealing surface disposed on a circumferential edge of the case opening on an outer surface of the case body , wherein the sealing portion of the filter element contacts the sealing surface , the inlet includes a connection portion connected to the case body , and the sealing surface includes a part of an outer surface of the connection portion , characterized in that an inner rib is arranged on an inner surface positioned on a reverse side of the outer surface of the connection portion , the inner rib being a lattice rib having a lattice-like shape, and the lattice rib including a plurality of first ribs extending in a protruding direction of the connection portion from the case body and a plurality of second ribs extending in a direction crossing the protruding direction. a case including a case body and an inlet , wherein the case body includes a case opening and a case peripheral wall surrounding the case opening , and the inlet is connected to the case peripheral wall ; a cap including an outlet and a cap opening that faces the case opening ; and a filter element including a filter and an annular sealing portion arranged on a circumferential edge of the filter , wherein the filter element is arranged between the case opening and the cap opening , wherein the case includes an annular sealing surface disposed on a circumferential edge of the case opening on an outer surface of the case body , wherein the sealing portion of the filter element contacts the sealing surface , the inlet includes a connection portion connected to the case body , and the sealing surface includes a part of an outer surface of the connection portion , characterized in that an inner rib is arranged on an inner surface positioned on a reverse side of the outer surface of the connection portion , the inner rib being a lattice rib having a lattice-like shape, and the lattice rib including a plurality of first ribs extending in a protruding direction of the connection portion from the case body and a plurality of second ribs extending in a direction crossing the protruding direction.
A computer-executable method, comprising: sending, by a computing device acting as a forwarding node in a Content-Centric Network (CCN) , a first interest associated with an explicit strategy feedback request via an egress interface, wherein the egress interface is in a plurality of egress interfaces associated with a same name in a forwarding table , wherein an interest indicates a content object in a CCN, wherein the interest is routed based on the name in the CCN, and wherein the first interest is for a content object associated with the name, and the explicit strategy feedback request is piggybacked in the first interest; storing, by the computing device, one or more parameters received in response to the explicit strategy feedback request in an entry in the forwarding table, wherein the one or more parameters are associated with a first device, wherein the parameters received in response to the explicit strategy feedback request are one or more of server load, server disk space, server cost, storage cost, server processing power, network cost, expected service time, network congestion, network reliability, server energy load, server energy consumption, network energy load and network energy consumption, and wherein the entry comprises the name and the egress interface; and determining, by the computing device, for a second interest for a content object associated with the name, an egress interface from the plurality of egress interfaces based on the stored parameters. sending, by a computing device acting as a forwarding node in a Content-Centric Network (CCN) , a first interest associated with an explicit strategy feedback request via an egress interface, wherein the egress interface is in a plurality of egress interfaces associated with a same name in a forwarding table , wherein an interest indicates a content object in a CCN, wherein the interest is routed based on the name in the CCN, and wherein the first interest is for a content object associated with the name, and the explicit strategy feedback request is piggybacked in the first interest; storing, by the computing device, one or more parameters received in response to the explicit strategy feedback request in an entry in the forwarding table, wherein the one or more parameters are associated with a first device, wherein the parameters received in response to the explicit strategy feedback request are one or more of server load, server disk space, server cost, storage cost, server processing power, network cost, expected service time, network congestion, network reliability, server energy load, server energy consumption, network energy load and network energy consumption, and wherein the entry comprises the name and the egress interface; and determining, by the computing device, for a second interest for a content object associated with the name, an egress interface from the plurality of egress interfaces based on the stored parameters.
A method for transmitting information, comprising: determining a reference signal according to a predetermined mode (S102); and transmitting the reference signal in a Transmission Time Interval, TTI (S104), wherein on one of Orthogonal Frequency Division Multiplexing, OFDM, symbols where the reference signal is, and in m continuous Physical Resource Blocks, PRBs, for each layer of reference signal, one in every x continuous Resource Elements, RE, is the reference signal, wherein the x is one of the following: an integral multiple of 3; x = ⌊ 12 m − 2 n − 1 ⌋ ; x = ⌊ 12 m − 1 n − 1 ⌋ , where └ ┘ is a function of rounding down, m is a positive integer greater than 1, and n and x are positive integers; n is the number of the REs corresponding to each layer of Demodulation Reference Signal, DMRS, in the m continuous PRBs on the OFDM symbol. determining a reference signal according to a predetermined mode (S102); and transmitting the reference signal in a Transmission Time Interval, TTI (S104), wherein on one of Orthogonal Frequency Division Multiplexing, OFDM, symbols where the reference signal is, and in m continuous Physical Resource Blocks, PRBs, for each layer of reference signal, one in every x continuous Resource Elements, RE, is the reference signal, wherein the x is one of the following: an integral multiple of 3; x = ⌊ 12 m − 2 n − 1 ⌋ ; x = ⌊ 12 m − 1 n − 1 ⌋ , where └ ┘ is a function of rounding down, m is a positive integer greater than 1, and n and x are positive integers; n is the number of the REs corresponding to each layer of Demodulation Reference Signal, DMRS, in the m continuous PRBs on the OFDM symbol. an integral multiple of 3; x = ⌊ 12 m − 2 n − 1 ⌋ ; x = ⌊ 12 m − 1 n − 1 ⌋ , where └ ┘ is a function of rounding down, m is a positive integer greater than 1, and n and x are positive integers; n is the number of the REs corresponding to each layer of Demodulation Reference Signal, DMRS, in the m continuous PRBs on the OFDM symbol.
Control unit device for a motor vehicle, having - a circuit board on which a plurality of electronic components are arranged, which electronic components are electrically coupled to one another via conductor tracks of the circuit board , wherein the circuit board is arranged on a metallic base carrier ; and - an essentially gas-impermeable cover which is connected in a materially joined fashion to the circuit board in such a way that said cover forms with the circuit board a closed cavity in which the electronic components and the associated conductor tracks are located, characterized in that the control unit device also has a plug connector which is arranged on the base carrier and electrically coupled to the circuit board , wherein the cover is configured in such a way that, in the state in which it is connected to the circuit board , it secures the plug connector mechanically to the base carrier outside the cavity . - a circuit board on which a plurality of electronic components are arranged, which electronic components are electrically coupled to one another via conductor tracks of the circuit board , wherein the circuit board is arranged on a metallic base carrier ; and - an essentially gas-impermeable cover which is connected in a materially joined fashion to the circuit board in such a way that said cover forms with the circuit board a closed cavity in which the electronic components and the associated conductor tracks are located,
A method for measuring a flow velocity (v) of a gas flow comprising the steps: (a) time-resolved measurement of an IR radiation parameter (E) at a first measurement point (P1) outside of the gas flow , thereby obtaining a first IR radiation parameter curve (E g1,1 (t)), (b) time-resolved measurement of the IR radiation parameter (E) at a second measurement point (P2) outside of the gas flow , thereby obtaining a second IR radiation parameter curve (E g1,2 (t)), (c) calculating a run time (τ1) from the first IR radiation parameter curve (E g1,1 (t)) and the second IR radiation parameter curve (E g1,2 (t)) by means of cross-correlation, and (d) calculating the flow velocity (vG) from the run time (τ1), wherein (e) the gas flow is conducted in a line, the walls of which emit black body radiation, and contains particles that emit black body radiation, (f) the IR radiation parameter (E g1 ) is photoelectrically measured at a wavelength (λ g1 ) of at least 1.5 μm and at most 15 μm, (g) a measurement frequency (f) is at least 1 kilohertz, (h) the IR radiation parameter indicates the radiation intensity of IR radiation of the gas flow and (i) the temperature (T) of the gas flow is at least 1000°C. (a) time-resolved measurement of an IR radiation parameter (E) at a first measurement point (P1) outside of the gas flow , thereby obtaining a first IR radiation parameter curve (E g1,1 (t)), (b) time-resolved measurement of the IR radiation parameter (E) at a second measurement point (P2) outside of the gas flow , thereby obtaining a second IR radiation parameter curve (E g1,2 (t)), (c) calculating a run time (τ1) from the first IR radiation parameter curve (E g1,1 (t)) and the second IR radiation parameter curve (E g1,2 (t)) by means of cross-correlation, and (d) calculating the flow velocity (vG) from the run time (τ1), wherein (e) the gas flow is conducted in a line, the walls of which emit black body radiation, and contains particles that emit black body radiation, (f) the IR radiation parameter (E g1 ) is photoelectrically measured at a wavelength (λ g1 ) of at least 1.5 μm and at most 15 μm, (g) a measurement frequency (f) is at least 1 kilohertz, (h) the IR radiation parameter indicates the radiation intensity of IR radiation of the gas flow and (i) the temperature (T) of the gas flow is at least 1000°C.
A system for feeding propellant to an igniter, the system comprising: - a tank presenting an admission and an outlet ; - a liquid propellant feed line connected to the admission of the tank ; and - a propellant outlet line connecting an outlet of the tank to an igniter ; said tank comprising an inside volume filled with heat storage spheres , said storage spheres being adapted successively to store heat delivered by a heat-conveying fluid, and to transmit it to a fluid passing through said tank , in such a manner as to vaporize a liquid propellant passing through said tank . - a tank presenting an admission and an outlet ; - a liquid propellant feed line connected to the admission of the tank ; and - a propellant outlet line connecting an outlet of the tank to an igniter ;
A network device discovery method, comprising: receiving (S101), by a network device , a sensor signal sent by a sensor signal transmitter ; and determining to send (S102), by the network device , a signal to an alerter according to the sensor signal, so that the alerter sends an alert signal, wherein the alert signal is used to indicate a location of the network device and/or indicate that the network device exists within a preset range; characterized in that the alerter is integrated into the sensor signal transmitter . receiving (S101), by a network device , a sensor signal sent by a sensor signal transmitter ; and determining to send (S102), by the network device , a signal to an alerter according to the sensor signal, so that the alerter sends an alert signal, wherein the alert signal is used to indicate a location of the network device and/or indicate that the network device exists within a preset range; characterized in that the alerter is integrated into the sensor signal transmitter .
Process for the gas-phase production of 2,3,3,3-tetrafluoropropene, comprising the steps: i) providing a composition A comprising 2-chloro-3,3,3-trifluoropropene and/or 2,3-dichloro-1,1,1-trifluoropropane and/or 2-chloro-1,1,1,2-tetrafluoropropane or a composition B comprising 1, 1, 1, 2, 2-pentafluoropropane and/or 1,1,1,2,3-pentafluoropropane; ii) placing said composition A in contact with hydrofluoric acid in the presence of a catalytic composition comprising a chromium-based catalyst or placing said composition B in contact with a catalytic composition comprising a chromium-based catalyst to produce a composition C comprising 2,3,3,3-tetrafluoropropene, characterized in that step ii) is performed at a temperature of between 310°C and 450°C and in that the temperature of step ii) is controlled so as not to exceed 450°C; and when said catalyst is deactivated, the temperature of step ii) is increased in increments of 0.5°C to 20°C on condition that the temperature does not exceed 450°C. i) providing a composition A comprising 2-chloro-3,3,3-trifluoropropene and/or 2,3-dichloro-1,1,1-trifluoropropane and/or 2-chloro-1,1,1,2-tetrafluoropropane or a composition B comprising 1, 1, 1, 2, 2-pentafluoropropane and/or 1,1,1,2,3-pentafluoropropane; ii) placing said composition A in contact with hydrofluoric acid in the presence of a catalytic composition comprising a chromium-based catalyst or placing said composition B in contact with a catalytic composition comprising a chromium-based catalyst to produce a composition C comprising 2,3,3,3-tetrafluoropropene, characterized in that step ii) is performed at a temperature of between 310°C and 450°C and in that the temperature of step ii) is controlled so as not to exceed 450°C; and when said catalyst is deactivated, the temperature of step ii) is increased in increments of 0.5°C to 20°C on condition that the temperature does not exceed 450°C.