mhurhangee/patent-ind-claim-en huggingface dataset:
A switching circuit, comprising: - a charging sub-circuit , having a first input end and an output end; - a switching sub-circuit , having a first end, a second end and a control end, wherein the control end of the switching sub-circuit is connected to the output end of the charging sub-circuit ; - a functional sub-circuit , connected to one of the first end and second end of the switching sub-circuit , and the functional sub-circuit having a first node, wherein an operating voltage of the first node is higher than an input voltage of an input power supply (V in ), wherein the switching sub-circuit comprises one or more NMOS switches (Q1), wherein the first input end of the charging sub-circuit is connected to the first node, wherein the other of the first end and second end of the switching sub-circuit is connected to the input power supply, and the charging sub-circuit further comprises a second input end connected to the input power supply, characterized in that : - the charging sub-circuit comprises a first diode (D1), a second diode (D2) and a second capacitor (C2), - the anode of the first diode is connected, as the second input end of the charging sub-circuit, to the input power supply, and the cathode is connected to the control end of the switching sub-circuit; - one end of the second capacitor is connected to the control end of the switching sub-circuit, and the other end is grounded; and - the anode of the second diode is connected, as the first input end of the charging sub-circuit, to the first node, and the cathode thereof is connected to the control end of the switching sub-circuit. - a charging sub-circuit , having a first input end and an output end; - a switching sub-circuit , having a first end, a second end and a control end, wherein the control end of the switching sub-circuit is connected to the output end of the charging sub-circuit ; - a functional sub-circuit , connected to one of the first end and second end of the switching sub-circuit , and the functional sub-circuit having a first node, wherein an operating voltage of the first node is higher than an input voltage of an input power supply (V in ), wherein the switching sub-circuit comprises one or more NMOS switches (Q1), wherein the first input end of the charging sub-circuit is connected to the first node, wherein the other of the first end and second end of the switching sub-circuit is connected to the input power supply, and the charging sub-circuit further comprises a second input end connected to the input power supply, - the charging sub-circuit comprises a first diode (D1), a second diode (D2) and a second capacitor (C2), - the anode of the first diode is connected, as the second input end of the charging sub-circuit, to the input power supply, and the cathode is connected to the control end of the switching sub-circuit; - one end of the second capacitor is connected to the control end of the switching sub-circuit, and the other end is grounded; and - the anode of the second diode is connected, as the first input end of the charging sub-circuit, to the first node, and the cathode thereof is connected to the control end of the switching sub-circuit.
A key transfer method based on a shared security application comprising a shared security application built in a secure element of a mobile terminal, several mobile applications and a shared security application proxy built in an execution environment of the mobile terminal, comprising the following steps: generating (S1), by management servers of the mobile applications, respective application keys for the several mobile applications in the execution environment in the mobile terminal, wherein the application keys comprise service keys, and delivering, by the management servers of the mobile application, the application keys to the mobile terminal; and receiving, by a management server of the shared security application, the application keys and delivering the application keys to the shared security application in a secure element in the mobile terminal; wherein the shared security application stores the application keys of the several mobile applications for responding to invocation of service operations of the respective mobile applications; wherein the method further comprises providing interfaces, by the shared security application proxy, between the several mobile applications and the corresponding application keys in the shared security application; and invoking (S2), by the mobile applications, the corresponding service keys in the shared security application through the interfaces first decrypting service data, then performing service processing, and returning service processing results to the corresponding mobile applications. generating (S1), by management servers of the mobile applications, respective application keys for the several mobile applications in the execution environment in the mobile terminal, wherein the application keys comprise service keys, and delivering, by the management servers of the mobile application, the application keys to the mobile terminal; and receiving, by a management server of the shared security application, the application keys and delivering the application keys to the shared security application in a secure element in the mobile terminal; wherein the shared security application stores the application keys of the several mobile applications for responding to invocation of service operations of the respective mobile applications; wherein the method further comprises providing interfaces, by the shared security application proxy, between the several mobile applications and the corresponding application keys in the shared security application; and invoking (S2), by the mobile applications, the corresponding service keys in the shared security application through the interfaces first decrypting service data, then performing service processing, and returning service processing results to the corresponding mobile applications.
A surgical device comprising: an outer sleeve including an inner wall , a port and a housing within the port, the port extending through the inner wall of the outer sleeve; and a luer configured for selective engagement with the housing, the luer including an input portion and an exit port , the input portion is disposed radially outward of the outer sleeve when the luer is engaged with the housing and is configured for engagement with a source of fluid, the exit port is disposed radially inward of the inner wall of the outer sleeve when the luer is engaged with the housing characterized in that the housing defines an aperture configured to direct fluid proximally. an outer sleeve including an inner wall , a port and a housing within the port, the port extending through the inner wall of the outer sleeve; and a luer configured for selective engagement with the housing, the luer including an input portion and an exit port , the input portion is disposed radially outward of the outer sleeve when the luer is engaged with the housing and is configured for engagement with a source of fluid, the exit port is disposed radially inward of the inner wall of the outer sleeve when the luer is engaged with the housing characterized in that the housing defines an aperture configured to direct fluid proximally.
A mobile structure configured to partition a room of a home into a first room and a second room of smaller dimensions, the mobile structure comprising: at least one first panel configured to: - extend substantially from a floor wall of the room to a ceiling wall of the room, and - define first volumes for each of the first and second rooms, and at least one connecting rod composed of a connection element and two articulation axes disposed at each end of the connection element, said connecting rod being configured to: ― connect the first panel to at least one fixed bearing element in the room, the first articulation being connected to said fixed bearing element of the room and the second articulation being connected to the first panel, the mobile structure being characterized in that said connecting rod is configured to ― translate the first panel , in a direction substantially perpendicular to the surface of the first panel , from a first position defining the first volumes to a second position defining second volumes for each of the first and second rooms. at least one first panel configured to: - extend substantially from a floor wall of the room to a ceiling wall of the room, and - define first volumes for each of the first and second rooms, and - extend substantially from a floor wall of the room to a ceiling wall of the room, and - define first volumes for each of the first and second rooms, and at least one connecting rod composed of a connection element and two articulation axes disposed at each end of the connection element, said connecting rod being configured to: ― connect the first panel to at least one fixed bearing element in the room, the first articulation being connected to said fixed bearing element of the room and the second articulation being connected to the first panel, the mobile structure being characterized in that said connecting rod is configured to ― translate the first panel , in a direction substantially perpendicular to the surface of the first panel , from a first position defining the first volumes to a second position defining second volumes for each of the first and second rooms. ― connect the first panel to at least one fixed bearing element in the room, the first articulation being connected to said fixed bearing element of the room and the second articulation being connected to the first panel, the mobile structure being characterized in that said connecting rod is configured to ― translate the first panel , in a direction substantially perpendicular to the surface of the first panel , from a first position defining the first volumes to a second position defining second volumes for each of the first and second rooms.
A power transmission belt B comprising: a belt body at least portion of which is made of a rubber composition containing a rubber component, cellulose-based fine fibers, cotton powder, and carbon black, wherein a content of the carbon black in the rubber composition is 5 parts by mass or more to 30 parts by mass or less relative to 100 parts by mass of the rubber composition. a belt body at least portion of which is made of a rubber composition containing a rubber component, cellulose-based fine fibers, cotton powder, and carbon black, wherein a content of the carbon black in the rubber composition is 5 parts by mass or more to 30 parts by mass or less relative to 100 parts by mass of the rubber composition.
A method of providing a dynamic and adaptable user interface for displaying print related information and/or functionality for various types of print technologies on a display unit of an industrial printer system, the display unit comprising a processing unit and a module unit , the method comprising: detecting and determining a utilized printing technology based on a print-head type; depending on the print-head type: retrieving data to be displayed from different data sources; and receiving by said module unit at least one module from a connecting print-head; associating the at least one module with changeable portions of a template for adapting the user interface template to the detected print-head type and a detected utilized printing technology; the module being configured to affect one or more of graphical layout of the user interface, information viewed and provided by the user interface, user operational options, data sources utilized by the user interface, and alter changeable portions of the user interface template based on the print-head type and on the retrieved data; and dynamically configuring by said module and/or the processing unit at least one changeable portion of a user interface template based on the print-head type and utilized printing technology, wherein the at least one changeable portion is related to display of a printing preview or a printing status. detecting and determining a utilized printing technology based on a print-head type; depending on the print-head type: retrieving data to be displayed from different data sources; and receiving by said module unit at least one module from a connecting print-head; retrieving data to be displayed from different data sources; and receiving by said module unit at least one module from a connecting print-head; associating the at least one module with changeable portions of a template for adapting the user interface template to the detected print-head type and a detected utilized printing technology; the module being configured to affect one or more of graphical layout of the user interface, information viewed and provided by the user interface, user operational options, data sources utilized by the user interface, and alter changeable portions of the user interface template based on the print-head type and on the retrieved data; and
A directional link maintenance method, comprising: monitoring, by a first station, STA, an information packet, wherein the information packet carries first identification information, and the first identification information is used to identify a first directional transmit beam that is used by a second STA when the second STA sends the information packet ; determining, by the first STA, whether the information packet is an information packet that is sent by the second STA to a third STA , and obtaining the first identification information if the information packet is an information packet that is sent by the second STA to the third STA ; and determining, by the first STA, whether the first identification information matches preset second identification information , and if the first identification information matches the preset second identification information, determining, by the first STA, that the first directional transmit beam matches a second directional transmit beam, and changing a value of a counter that corresponds to a directional link between the first STA and the second STA such as to be used for re-initiating a beam training process of the directional link, wherein the second directional transmit beam is a directional transmit beam determined by the second STA on the directional link through beam training, and the second identification information is used to identify the second directional transmit beam . monitoring, by a first station, STA, an information packet, wherein the information packet carries first identification information, and the first identification information is used to identify a first directional transmit beam that is used by a second STA when the second STA sends the information packet ; determining, by the first STA, whether the information packet is an information packet that is sent by the second STA to a third STA , and obtaining the first identification information if the information packet is an information packet that is sent by the second STA to the third STA ; and determining, by the first STA, whether the first identification information matches preset second identification information , and if the first identification information matches the preset second identification information, determining, by the first STA, that the first directional transmit beam matches a second directional transmit beam, and changing a value of a counter that corresponds to a directional link between the first STA and the second STA such as to be used for re-initiating a beam training process of the directional link, wherein the second directional transmit beam is a directional transmit beam determined by the second STA on the directional link through beam training, and the second identification information is used to identify the second directional transmit beam .
An uplink data sending method, comprising: determining a size of a to-be-sent data packet; obtaining a time-frequency resource and a data transmission format that correspond to the size of the to-be-sent data packet; and sending the to-be-sent data packet to a base station on the time-frequency resource according to the data transmission format; characterized in that the obtaining a time-frequency resource corresponding to the size of the to-be-sent data packet comprises: receiving a correspondence between data packets of different sizes and time-frequency resources from the base station, and obtaining, according to the received correspondence between data packets of different sizes and time-frequency resources, the time-frequency resource corresponding to the size of the to-be-sent data packet; and the obtained data transmission format comprises a subcarrier interval used during transmission of the to-be-sent data packet, a quantity of orthogonal frequency division multiplexing, OFDM, symbols, and duration of a cyclic prefix, CP, wherein a sum of the duration of the CP, duration of N OFDM symbols, and duration of a guard time, GT, is an integer multiple of a preset transmission timeslot, wherein N represents the quantity of the OFDM symbols and is a positive integer, and a preset subcarrier interval is an integer multiple of the subcarrier interval. determining a size of a to-be-sent data packet; obtaining a time-frequency resource and a data transmission format that correspond to the size of the to-be-sent data packet; and sending the to-be-sent data packet to a base station on the time-frequency resource according to the data transmission format; characterized in that the obtaining a time-frequency resource corresponding to the size of the to-be-sent data packet comprises: receiving a correspondence between data packets of different sizes and time-frequency resources from the base station, and obtaining, according to the received correspondence between data packets of different sizes and time-frequency resources, the time-frequency resource corresponding to the size of the to-be-sent data packet; and the obtained data transmission format comprises a subcarrier interval used during transmission of the to-be-sent data packet, a quantity of orthogonal frequency division multiplexing, OFDM, symbols, and duration of a cyclic prefix, CP, wherein a sum of the duration of the CP, duration of N OFDM symbols, and duration of a guard time, GT, is an integer multiple of a preset transmission timeslot, wherein N represents the quantity of the OFDM symbols and is a positive integer, and a preset subcarrier interval is an integer multiple of the subcarrier interval.
A discharge circuit integrated in a chip of a slave device connected to an output of a bus rectifier bridge, characterized in that the discharge circuit comprises: a comparator; a peripheral unit; a slave device voltage stabilizing module configured to maintain stability of an internal voltage of the slave device; a slave device signal processing module configured to process a signal of the slave device; a slave device bus communication module configured to implement bus communication of the slave device; a digital control module configured to generate, when an output result of the comparator is that a bus voltage falls, a high-level and time-configurable pulse width to drive the discharge circuit to discharge a bus, a discharge current source module configured to enable the discharge of the bus by means of the digital control module, and adjust a discharge current; the comparator configured to obtain a status of a change in the bus voltage; and the peripheral circuit configured to monitor the change in the bus voltage, provide to the comparator a voltage signal which reflects information on a fall of the bus voltage, and generate a comparison reference voltage, and the slave device voltage stabilizing module, the slave device signal processing module, the slave device bus communication module, the digital control module, the discharge current source module, the comparator and the peripheral circuit are connected to each other. a comparator; a peripheral unit; a slave device voltage stabilizing module configured to maintain stability of an internal voltage of the slave device; a slave device signal processing module configured to process a signal of the slave device; a slave device bus communication module configured to implement bus communication of the slave device; a digital control module configured to generate, when an output result of the comparator is that a bus voltage falls, a high-level and time-configurable pulse width to drive the discharge circuit to discharge a bus, a discharge current source module configured to enable the discharge of the bus by means of the digital control module, and adjust a discharge current; the comparator configured to obtain a status of a change in the bus voltage; and the peripheral circuit configured to monitor the change in the bus voltage, provide to the comparator a voltage signal which reflects information on a fall of the bus voltage, and generate a comparison reference voltage, and the slave device voltage stabilizing module, the slave device signal processing module, the slave device bus communication module, the digital control module, the discharge current source module, the comparator and the peripheral circuit are connected to each other.
A humanized antibody that specifically binds human CD40 for use in treating or preventing lupus nephritis, wherein said antibody comprises a heavy chain variable region of SEQ ID NO: 53 and a light chain variable region of SEQ ID NO: 52.
A method of making a library of target nucleic acid molecules from a sample comprising a plurality of target molecules, the method comprising for substantially each target molecule: a. ligating a single adaptor to a target molecule forming a circular molecule, wherein the adaptor comprises two barcodes, two primer binding sites situated between the two barcodes, wherein the primers annealing to the binding sites are facing away from each other, and at least one modified nucleotide effecting a strand synthesis termination by a nucleic acid polymerase situated between the two primer binding sites; b. annealing a forward primer complementary to the adaptor to one strand of the target molecule; c. extending the forward primer up to the modified nucleotide, thereby producing a first strand; d. annealing a reverse primer complementary to the adaptor to the first strand; e. extending the first primer, thereby producing the second strand and a double-stranded molecule comprising the first strand and the second strand wherein the two barcodes are flanking the target sequence. a. ligating a single adaptor to a target molecule forming a circular molecule, wherein the adaptor comprises two barcodes, two primer binding sites situated between the two barcodes, wherein the primers annealing to the binding sites are facing away from each other, and at least one modified nucleotide effecting a strand synthesis termination by a nucleic acid polymerase situated between the two primer binding sites; b. annealing a forward primer complementary to the adaptor to one strand of the target molecule; c. extending the forward primer up to the modified nucleotide, thereby producing a first strand; d. annealing a reverse primer complementary to the adaptor to the first strand; e. extending the first primer, thereby producing the second strand and a double-stranded molecule comprising the first strand and the second strand wherein the two barcodes are flanking the target sequence.