mhurhangee/patent-ind-claim-en huggingface dataset:
An electricity generation device, comprising: (a) a formic acid reservoir; (b) a reaction chamber comprising an exhaust gas react furnace to transfer heat to the reactor; (c) a conduit for delivering formic acid from the formic acid reservoir to the reaction chamber; (d) a fuel cell that generates at least electricity and heat as by-products; wherein the reaction chamber receives heat generated by operation of the fuel cell, and promotes the formic acid to convert to hydrogen and carbon dioxide, wherein the initial heating is powered by a battery; (e) a delivery system for moving converted hydrogen into the fuel cell; and (f) a battery powered by electricity generated by the fuel cell. (a) a formic acid reservoir; (b) a reaction chamber comprising an exhaust gas react furnace to transfer heat to the reactor; (c) a conduit for delivering formic acid from the formic acid reservoir to the reaction chamber; (d) a fuel cell that generates at least electricity and heat as by-products; wherein the reaction chamber receives heat generated by operation of the fuel cell, and promotes the formic acid to convert to hydrogen and carbon dioxide, wherein the initial heating is powered by a battery; (e) a delivery system for moving converted hydrogen into the fuel cell; and (f) a battery powered by electricity generated by the fuel cell.
A data transmission method, comprising: sending (S401), by user equipment, UE, uplink data to a base station by using an uplink user equipment relay uplink, UE-relay; receiving (S402), by the UE, downlink data from the base station; characterized by sending, by the UE, first indication information to the uplink UE-relay, wherein the first indication information is used to indicate an uplink transmission resource corresponding to the UE, so that the uplink UE-relay sends the uplink data to the base station according to the uplink transmission resource; and receiving, by the UE, second indication information from the uplink UE-relay, wherein the second indication information is used to indicate a downlink transmission resource corresponding to the uplink UE-relay, wherein the uplink transmission resource comprises a physical uplink control channel PUCCH resource; and the first indication information comprises n CCE and N PUCCH 1 , wherein n CCE is used to indicate a number of a first control channel element CCE that is in a physical downlink control channel PDCCH and that is used to indicate downlink transmission, and N PUCCH 1 is used to indicate a UE-dedicated PUCCH ACK/NACK resource offset or used to indicate a PUCCH format 1a/1b start offset used for a subframe set K2. sending (S401), by user equipment, UE, uplink data to a base station by using an uplink user equipment relay uplink, UE-relay; receiving (S402), by the UE, downlink data from the base station; characterized by sending, by the UE, first indication information to the uplink UE-relay, wherein the first indication information is used to indicate an uplink transmission resource corresponding to the UE, so that the uplink UE-relay sends the uplink data to the base station according to the uplink transmission resource; and receiving, by the UE, second indication information from the uplink UE-relay, wherein the second indication information is used to indicate a downlink transmission resource corresponding to the uplink UE-relay, wherein the uplink transmission resource comprises a physical uplink control channel PUCCH resource; and the first indication information comprises n CCE and N PUCCH 1 , wherein n CCE is used to indicate a number of a first control channel element CCE that is in a physical downlink control channel PDCCH and that is used to indicate downlink transmission, and N PUCCH 1 is used to indicate a UE-dedicated PUCCH ACK/NACK resource offset or used to indicate a PUCCH format 1a/1b start offset used for a subframe set K2.
A method comprising: receiving a data flow of an application directed to a destination in a software-defined network (SDN); identifying a classification of the application; identifying a set of performance thresholds associated with the classification of the application; determining a current performance of the data flow of the application in the SDN, including identifying a first tunnel associated with the application through which the data flow is configured to travel; generating a performance score for the application based on the set of performance thresholds and the current performance of the data flow of the application in the SDN; causing the performance score for the application to be presented via an interface; selecting a second tunnel based on the performance score for the application; monitoring one or more network performance metrics for the first tunnel and the second tunnel; and storing historical performance data of the network performance metrics of the first tunnel and the second tunnel; characterised by the method comprising the step wherein the second tunnel is selected at least in part based on the historical performance data of the network performance metrics of the first tunnel and the second tunnel, wherein the selecting comprises analysing the historical performance data to yield a historical score for each of the first tunnel and the second tunnel, the historical score representing an aggregate historical performance for the respective tunnel, and wherein the second tunnel is selected based on the second tunnel historically being above the set of performance thresholds for a longer duration than the first tunnel historically being above the set of performance thresholds. receiving a data flow of an application directed to a destination in a software-defined network (SDN); identifying a classification of the application; identifying a set of performance thresholds associated with the classification of the application; determining a current performance of the data flow of the application in the SDN, including identifying a first tunnel associated with the application through which the data flow is configured to travel; generating a performance score for the application based on the set of performance thresholds and the current performance of the data flow of the application in the SDN; causing the performance score for the application to be presented via an interface; selecting a second tunnel based on the performance score for the application; monitoring one or more network performance metrics for the first tunnel and the second tunnel; and storing historical performance data of the network performance metrics of the first tunnel and the second tunnel;
Method of controlling an electrical assembly for a hybrid motor vehicle comprising a hybrid transmission gearbox, a high-voltage electrical network comprising an electrical storage battery , a high-voltage starter-alternator associated with an inverter , an electrical machine associated with another inverter , the hybrid motor vehicle further comprising a low-voltage electrical network , and a DC-DC converter able to supply the low-voltage electrical network from the high-voltage network ; the method comprising: - a step of detecting a mode or speed change on said gearbox, requiring the battery relays to be open, characterized in that, when such a mode or speed change is detected, - a step of acquiring voltage and current values at the terminals of the DC-DC converter , - a first step of calculating the input power of the DC-DC converter as a function of the acquired voltage and current values; - a second step of calculating a minimum power value as a function of said input power and a correction value, and - a step of controlling the DC-DC converter so as to output said calculated minimum power. - a step of detecting a mode or speed change on said gearbox, requiring the battery relays to be open, characterized in that, when such a mode or speed change is detected, - a step of acquiring voltage and current values at the terminals of the DC-DC converter , - a first step of calculating the input power of the DC-DC converter as a function of the acquired voltage and current values; - a second step of calculating a minimum power value as a function of said input power and a correction value, and - a step of controlling the DC-DC converter so as to output said calculated minimum power.
A method for determining an amplitude of a braking portion of a waveform of a driving voltage signal for a linear resonant actuator , the method comprising: obtaining, by a processor , a measure of a characteristic of the linear resonant actuator , the characteristic being different from a quality factor of the linear resonant actuator ; determining, by the processor and based on the measure of the characteristic, the quality factor; determining, by the processor and based on the quality factor, the amplitude of the braking portion of the waveform of the driving voltage signal; and setting, by the processor and based on the amplitude, data for a driving voltage signal circuitry to cause the driving voltage signal circuitry to produce the driving voltage signal, the driving voltage signal having the waveform in which the braking portion has the amplitude; wherein the method is performed in response to an event associated with a product that includes the linear resonant actuator ; and the event comprises at least one of a mechanical shock to the product , a charging of a power supply of the product , or a duration of time associated with a lack of a particular activity associated with the product , the duration of time being greater than five minutes, the particular activity being at least one of a motion of the product or an input signal from a user of the product . obtaining, by a processor , a measure of a characteristic of the linear resonant actuator , the characteristic being different from a quality factor of the linear resonant actuator ; determining, by the processor and based on the measure of the characteristic, the quality factor; determining, by the processor and based on the quality factor, the amplitude of the braking portion of the waveform of the driving voltage signal; and setting, by the processor and based on the amplitude, data for a driving voltage signal circuitry to cause the driving voltage signal circuitry to produce the driving voltage signal, the driving voltage signal having the waveform in which the braking portion has the amplitude; wherein the method is performed in response to an event associated with a product that includes the linear resonant actuator ; and the event comprises at least one of a mechanical shock to the product , a charging of a power supply of the product , or a duration of time associated with a lack of a particular activity associated with the product , the duration of time being greater than five minutes, the particular activity being at least one of a motion of the product or an input signal from a user of the product . the method is performed in response to an event associated with a product that includes the linear resonant actuator ; and the event comprises at least one of a mechanical shock to the product , a charging of a power supply of the product , or a duration of time associated with a lack of a particular activity associated with the product , the duration of time being greater than five minutes, the particular activity being at least one of a motion of the product or an input signal from a user of the product .
A device for use in delivering neural stimulation to treat a disease, disorder or symptom, comprising: a pulse generator; and a processor positioned in the pulse generator, and characterized by the pulse generator applying an electrical stimulation having a temporal pattern of inter-pulse intervals of 2ms, 50ms, 16ms , 4ms, 52ms, 19ms, 2ms, 48ms and 7ms and repeating the temporal pattern of inter-pulse intervals. a pulse generator; and a processor positioned in the pulse generator, and characterized by the pulse generator applying an electrical stimulation having a temporal pattern of inter-pulse intervals of 2ms, 50ms, 16ms , 4ms, 52ms, 19ms, 2ms, 48ms and 7ms and repeating the temporal pattern of inter-pulse intervals.
A hot melt processable composition mixture comprising: an acid-functional (meth)acrylate-based adhesive composition with a hot melt processing temperature; and a zinc di-(meth)acrylate salt with a melting point wherein the melting point is higher than the hot melt processing temperature of the acid-functional (meth)acrylate-based adhesive composition, wherein the mixture is hot melt processable, and upon application to a substrate the mixture forms an ionically crosslinked layer comprising thermally reversible ionic crosslinks. an acid-functional (meth)acrylate-based adhesive composition with a hot melt processing temperature; and a zinc di-(meth)acrylate salt with a melting point wherein the melting point is higher than the hot melt processing temperature of the acid-functional (meth)acrylate-based adhesive composition, wherein the mixture is hot melt processable, and upon application to a substrate the mixture forms an ionically crosslinked layer comprising thermally reversible ionic crosslinks.
A light field acquisition device comprising an optical system, the optical system comprising a main lens , an image sensor and a microlens array comprising a plurality of microlenses , wherein the centres of the microlenses of the microlens array are displaced a certain distance ( d ul(i) ) from a regular arrangement with a constant pitch P ul such that adjacent microlenses are in contact, wherein the displaced distance (d ul(i) ) is zero in a central zone of the microlens array , characterized in that the pitch between centres of microlenses is gradually increased as the field of view increases to an increased new pitch P ul ( i ) for microlens i, greater than the constant pitch P ul , to compensate the non-linearities of the chief ray angle with the field of view; wherein the size of a plurality of microlenses of the microlens array is dependent upon the distance to the center of the microlens array , the sizes of the microlenses being increased such that the interstitial spaces ( g i ) between adjacent microlenses are filled. the pitch between centres of microlenses is gradually increased as the field of view increases to an increased new pitch P ul ( i ) for microlens i, greater than the constant pitch P ul , to compensate the non-linearities of the chief ray angle with the field of view; wherein the size of a plurality of microlenses of the microlens array is dependent upon the distance to the center of the microlens array , the sizes of the microlenses being increased such that the interstitial spaces ( g i ) between adjacent microlenses are filled.
A pharmaceutical composition comprising a therapeutically effective amount of a compound of Formula I: or an isotope labelled analog thereof, or a pharmaceutically acceptable salt thereof, wherein: each of R 1 , R 2 , R 3 , R 6 and R 7 represents H or F, R 4 represents H or CH 3 R 5 represents H or C 1 -C 4 alkyl, wherein at least two of R 1 , R 2 , R 3 , R 6 and R 7 represent F, together with at least one pharmaceutically acceptable carrier, excipient and/or diluent. each of R 1 , R 2 , R 3 , R 6 and R 7 represents H or F, R 4 represents H or CH 3 R 5 represents H or C 1 -C 4 alkyl, wherein at least two of R 1 , R 2 , R 3 , R 6 and R 7 represent F, together with at least one pharmaceutically acceptable carrier, excipient and/or diluent.
Method of controlling emission wavelength of a light emitting device, the method comprising: providing an amplitude modulated current ( I f ) through the device to maintain light emission of the device; during said light emission, determining a dynamic resistance indication of series resistance (Rs) of the device, the series resistance comprising ohmic resistance of the device, and measuring a forward voltage ( V f ) of the device during said light emission, the forward voltage being across an impedance comprising impedance of an active region of the device and the series resistance; determining an indicator of active region voltage (V j ) of the device on the basis of the measured forward voltage and the determined dynamic resistance indication of series resistance; and controlling a temperature of the device on the basis of the determined indicator of active region voltage, characterised in that the determining the dynamic resistance indication of series resistance comprises: extracting an AC component of forward voltage of the device while providing the amplitude modulated current; determining the dynamic resistance indication on the basis of the extracted AC component and the modulation amplitude of the amplitude modulated current, to thereby obtain the dynamic resistance indication of series resistance. providing an amplitude modulated current ( I f ) through the device to maintain light emission of the device; during said light emission, determining a dynamic resistance indication of series resistance (Rs) of the device, the series resistance comprising ohmic resistance of the device, and measuring a forward voltage ( V f ) of the device during said light emission, the forward voltage being across an impedance comprising impedance of an active region of the device and the series resistance; determining an indicator of active region voltage (V j ) of the device on the basis of the measured forward voltage and the determined dynamic resistance indication of series resistance; and controlling a temperature of the device on the basis of the determined indicator of active region voltage, characterised in that the determining the dynamic resistance indication of series resistance comprises: extracting an AC component of forward voltage of the device while providing the amplitude modulated current; determining the dynamic resistance indication on the basis of the extracted AC component and the modulation amplitude of the amplitude modulated current, to thereby obtain the dynamic resistance indication of series resistance. extracting an AC component of forward voltage of the device while providing the amplitude modulated current; determining the dynamic resistance indication on the basis of the extracted AC component and the modulation amplitude of the amplitude modulated current, to thereby obtain the dynamic resistance indication of series resistance.
Sealing apron device for a transport system , wherein the transport system comprises a conveyor and a wall arranged above said conveyor , wherein the sealing apron device comprises a sealing apron block for sealing gaps between the wall and the conveyor in a sealing direction (B) and a holder for holding said sealing apron block relative to said wall in a mounting plane (P) parallel to said sealing direction (B), wherein the sealing apron block comprises a main body and a protrusion extending away from said main body in a protrusion direction perpendicular to the sealing direction (B), wherein the sealing apron block is adjustable with respect to the holder in the sealing direction (B) along an adjustment path (L) by applying blows of a hammer or a mallet to the protrusion , wherein the holder comprises a bracket with a mounting section for mounting the bracket relative to the wall and a retaining section for retaining the sealing apron block in the sealing direction (B), wherein the retaining section comprises a retaining part for clamping the sealing apron block in a clamping direction (B) transverse to the mounting plane (P), characterized in that the retaining section further comprises a guiding part for guiding the protrusion of the sealing apron block along at least a part of the adjustment path (L), wherein the guiding part is arranged for engaging the protrusion of the sealing apron block along at least a part of the adjustment path (L).
A composition of matter, comprising: 1-60 parts by weight of a compound selected from the group consisting of ammonium ferric sulphate, ferric chloride, ferric sulphate, polyferric sulphate, and a mixture thereof; 1-30 parts by weight of glacial acetic acid; 1-40 parts by weight of 8-hydroxyquinoline or methyl 8-hydroxyquinoline or a mixture thereof; and 1-50 parts by weight of sodium pyrosulphate. 1-60 parts by weight of a compound selected from the group consisting of ammonium ferric sulphate, ferric chloride, ferric sulphate, polyferric sulphate, and a mixture thereof; 1-30 parts by weight of glacial acetic acid; 1-40 parts by weight of 8-hydroxyquinoline or methyl 8-hydroxyquinoline or a mixture thereof; and 1-50 parts by weight of sodium pyrosulphate.
Control system for a technical installation, in particular a production installation or process installation, and said control system comprises at least one certification body , at least one first installation component and at least one second installation component , wherein the certification body is responsible for and embodied for issuing and revoking certificates for at least the first installation component and the second installation component , wherein a certificate revocation list service is implemented in the control system and said certificate revocation list service is embodied so as to receive from the certification body a certificate revocation list having certificates that have been revoked by the certification body and so as to provide said certificate revocation list to the installation components , and that a certificate revocation list distribution service is implemented at least on the first installation component and the second installation component and said certificate revocation list distribution service is embodied so as to receive the certificate revocation list from the certificate revocation list service and to store said certificate revocation list in a storage device of the respective installation component , wherein the certificate revocation list distribution service of an installation component is furthermore embodied in each case so as to connect to the certificate revocation list distribution service on another installation component and to receive the certificate revocation list from this certificate revocation list distribution service on the other component. wherein the certification body is responsible for and embodied for issuing and revoking certificates for at least the first installation component and the second installation component , wherein a certificate revocation list service is implemented in the control system and said certificate revocation list service is embodied so as to receive from the certification body a certificate revocation list having certificates that have been revoked by the certification body and so as to provide said certificate revocation list to the installation components , and that a certificate revocation list distribution service is implemented at least on the first installation component and the second installation component and said certificate revocation list distribution service is embodied so as to receive the certificate revocation list from the certificate revocation list service and to store said certificate revocation list in a storage device of the respective installation component , wherein the certificate revocation list distribution service of an installation component is furthermore embodied in each case so as to connect to the certificate revocation list distribution service on another installation component and to receive the certificate revocation list from this certificate revocation list distribution service on the other component.