mhurhangee/patent-ind-claim-en huggingface dataset:
A speech conversion method, characterized by comprising: obtaining (S302), by a computer device, target text; synthesizing (S304), by the computer device, first machine speech corresponding to the target text; selecting (S306), by the computer device, an asynchronous machine speech unit sequence whose prosodic feature matches a prosodic feature of the first machine speech from an asynchronous machine speech library; searching (S308), by the computer device, a synchronous machine speech library for a synchronous machine speech unit sequence having a text content corresponding to the asynchronous machine speech unit sequence; synthesizing (S310), by the computer device based on a prosodic feature of the synchronous machine speech unit sequence, second machine speech corresponding to the target text; selecting (S312), by the computer device, a synchronous machine speech unit matching an acoustic feature of the second machine speech from the synchronous machine speech library; and splicing (S314), by the computer device, speaker speech units corresponding to the synchronous machine speech unit in a speaker speech library build from history speaker speech, to obtain target speaker speech; wherein: text content of the synchronous machine speech library, text content of the asynchronous machine speech library, and text content of the speaker speech library are the same, and a prosodic feature of the speaker speech library matches a prosodic feature of the synchronous machine speech library but does not match a prosodic feature of the asynchronous machine speech library. obtaining (S302), by a computer device, target text; synthesizing (S304), by the computer device, first machine speech corresponding to the target text; selecting (S306), by the computer device, an asynchronous machine speech unit sequence whose prosodic feature matches a prosodic feature of the first machine speech from an asynchronous machine speech library; searching (S308), by the computer device, a synchronous machine speech library for a synchronous machine speech unit sequence having a text content corresponding to the asynchronous machine speech unit sequence; synthesizing (S310), by the computer device based on a prosodic feature of the synchronous machine speech unit sequence, second machine speech corresponding to the target text; selecting (S312), by the computer device, a synchronous machine speech unit matching an acoustic feature of the second machine speech from the synchronous machine speech library; and splicing (S314), by the computer device, speaker speech units corresponding to the synchronous machine speech unit in a speaker speech library build from history speaker speech, to obtain target speaker speech; wherein: text content of the synchronous machine speech library, text content of the asynchronous machine speech library, and text content of the speaker speech library are the same, and a prosodic feature of the speaker speech library matches a prosodic feature of the synchronous machine speech library but does not match a prosodic feature of the asynchronous machine speech library.
A method at a wireless station for receiving an out-of-band wakeup trigger, the method comprising: receiving, at the wireless station , a message from an access point , the message providing an indication that the access point supports out-of-band signaling; associating with the access point over a first radio technology ; establishing a connection with the access point using a second radio technology ; entering a sleep state for a radio using the first radio technology ; upon receiving a wakeup trigger over the connection using the second radio technology, waking up the radio for the first radio technology for communication with the access point; detecting other signals for the second radio technology to maintain a list of target access points, wherein the target access points transmit a beacon over the second radio technology and have roughly the same coverage pattern for the second radio technology as for the first radio technology ; and upon a quality of the connection using the second radio technology falling below a threshold, waking up the radio for the first radio technology to associate with a target access point within the list of target access points. receiving, at the wireless station , a message from an access point , the message providing an indication that the access point supports out-of-band signaling; associating with the access point over a first radio technology ; establishing a connection with the access point using a second radio technology ; entering a sleep state for a radio using the first radio technology ; upon receiving a wakeup trigger over the connection using the second radio technology, waking up the radio for the first radio technology for communication with the access point; detecting other signals for the second radio technology to maintain a list of target access points, wherein the target access points transmit a beacon over the second radio technology and have roughly the same coverage pattern for the second radio technology as for the first radio technology ; and upon a quality of the connection using the second radio technology falling below a threshold, waking up the radio for the first radio technology to associate with a target access point within the list of target access points.
An apparatus, comprises M-1 optical splitters and M first optical transceivers , wherein M is an integer greater than or equal to 2, and operating wavelengths of the M first optical transceivers are different from each other, and the M-1 optical splitters are 1:2 optical splitters and have three interfaces, wherein: one interface of a first optical splitter is configured to receive multiple links of optical signals, and the other two interfaces are separately connected to the first optical transceiver of the M first optical transceivers and a second optical splitter ; one interface of the ith optical splitter is connected to the (i-1)th optical splitter , and the other two interfaces are separately connected to the ith optical transceiver of the M first optical transceivers and the (i+1)th optical splitter , where 2≤i≤M-2; one interface of the (M-1)th optical splitter is connected to the (M-2)th optical splitter , and the other two interfaces are separately connected to the (M-1)th optical transceiver and the Mth optical transceiver of the M first optical transceivers ; and the M first optical transceivers are single-core bidirectional optical transceivers, and the operating wavelength of each first optical transceiver comprises a transmit wavelength and a receive wavelength, which are different and are respectively used to transmit and receive optical signals. one interface of a first optical splitter is configured to receive multiple links of optical signals, and the other two interfaces are separately connected to the first optical transceiver of the M first optical transceivers and a second optical splitter ; one interface of the ith optical splitter is connected to the (i-1)th optical splitter , and the other two interfaces are separately connected to the ith optical transceiver of the M first optical transceivers and the (i+1)th optical splitter , where 2≤i≤M-2; one interface of the (M-1)th optical splitter is connected to the (M-2)th optical splitter , and the other two interfaces are separately connected to the (M-1)th optical transceiver and the Mth optical transceiver of the M first optical transceivers ; and the M first optical transceivers are single-core bidirectional optical transceivers, and the operating wavelength of each first optical transceiver comprises a transmit wavelength and a receive wavelength, which are different and are respectively used to transmit and receive optical signals.
Smudge pot for protecting agricultural crops against frost, having a container and a fuel accommodated in the container and a wick for the fuel, characterized in that the container has a candle body which is inserted into the container in a refillable manner and can be melted by the ignited wick , wherein the candle body , which is refillably inserted into the container , is provided with a wick which extends in a star-shaped or cross-shaped manner over the flame-facing surface of the candle body and forms radially outwardly open sectors of the candle body, and by means of a cross-section of the candle body deviating from the clear inner cross-section of the container , at least in the region of a sector of the candle body lying between two outer wick end edges , a receiving space for molten fuel arranged between the candle body and the container is formed. and a fuel accommodated in the container and a wick for the fuel, characterized in that the container has a candle body which is inserted into the container in a refillable manner and can be melted by the ignited wick , wherein the candle body , which is refillably inserted into the container , is provided with a wick which extends in a star-shaped or cross-shaped manner over the flame-facing surface of the candle body and forms radially outwardly open sectors of the candle body, and by means of a cross-section of the candle body deviating from the clear inner cross-section of the container , at least in the region of a sector of the candle body lying between two outer wick end edges , a receiving space for molten fuel arranged between the candle body and the container is formed.
A detecting device comprising: a detection element that detects a change in a physical amount; a processing circuit that applies electrical processing to a detection signal outputted by the detection element ; a power receiving terminal connected to a power supply provided outside; an output terminal connected to a processing device provided outside; a grounding terminal connected to a ground body provided outside; a power receiving ferrite bead connected to the power receiving terminal and a power receiving end in the processing circuit; an output ferrite bead connected to the output terminal and an output end in the processing circuit; and a grounding ferrite bead connected to the grounding terminal and a grounding end in the processing circuit, wherein a static characteristic nominal value, being the impedance value, of the grounding ferrite bead is smaller than each static characteristic nominal value of the power receiving ferrite bead and the output ferrite bead , and an R-X cross point, being the frequency at which the resistance component R and the reactance component X cross, of the grounding ferrite bead is higher than each R-X cross point of the power receiving ferrite bead and the output ferrite bead . a detection element that detects a change in a physical amount; a processing circuit that applies electrical processing to a detection signal outputted by the detection element ; a power receiving terminal connected to a power supply provided outside; an output terminal connected to a processing device provided outside; a grounding terminal connected to a ground body provided outside; a power receiving ferrite bead connected to the power receiving terminal and a power receiving end in the processing circuit; an output ferrite bead connected to the output terminal and an output end in the processing circuit; and a grounding ferrite bead connected to the grounding terminal and a grounding end in the processing circuit, wherein a static characteristic nominal value, being the impedance value, of the grounding ferrite bead is smaller than each static characteristic nominal value of the power receiving ferrite bead and the output ferrite bead , and an R-X cross point, being the frequency at which the resistance component R and the reactance component X cross, of the grounding ferrite bead is higher than each R-X cross point of the power receiving ferrite bead and the output ferrite bead .
A computer-implemented method of detecting and remediating a ransomware attack, comprising: identifying an access operation of a file under inspection as a write to the file or newly creating a file; operating a neural network of a file type identification, FTI, layer to compute a byte correlation factor for the file under inspection; classifying, with the FTI, the file under inspection as belonging to a file type according to the byte correlation; deleting a backup of the file under inspection , if the FTI does not determine that the file type is incorrect for the file under inspection ; passing the file to a heuristic layer, if the FTI determines that the file type is incorrect for the file under inspection; performing, with the heuristic layer, a statistical analysis of the file under inspection to determine a difference between an expected value and a computed value ; determining, with the heuristic layer from the difference that the file under inspection has been compromised by a ransomware attack ; and identifying and remediating a process that instigated the file access operation . identifying an access operation of a file under inspection as a write to the file or newly creating a file; operating a neural network of a file type identification, FTI, layer to compute a byte correlation factor for the file under inspection; classifying, with the FTI, the file under inspection as belonging to a file type according to the byte correlation; deleting a backup of the file under inspection , if the FTI does not determine that the file type is incorrect for the file under inspection ; passing the file to a heuristic layer, if the FTI determines that the file type is incorrect for the file under inspection; performing, with the heuristic layer, a statistical analysis of the file under inspection to determine a difference between an expected value and a computed value ; determining, with the heuristic layer from the difference that the file under inspection has been compromised by a ransomware attack ; and identifying and remediating a process that instigated the file access operation .
A wireless communication method, comprising: compressing, by a first device, an Ethernet frame ; and sending, by the first device, the compressed Ethernet frame to a second device ; characterized in that the first device is a terminal device, and the second device is a Session Management Function, SMF, wherein the method further comprises: reporting, by the terminal device, a compression capability for the Ethernet frame to the SMF, wherein the compression capability comprises a compression capability for a header of the Ethernet frame and/or a compression capability for a data part of the Ethernet frame; receiving, by the terminal device, configuration information from the SMF, wherein the configuration information comprises information for compressing or decompressing the Ethernet frame. compressing, by a first device, an Ethernet frame ; and sending, by the first device, the compressed Ethernet frame to a second device ; characterized in that the first device is a terminal device, and the second device is a Session Management Function, SMF, wherein the method further comprises: reporting, by the terminal device, a compression capability for the Ethernet frame to the SMF, wherein the compression capability comprises a compression capability for a header of the Ethernet frame and/or a compression capability for a data part of the Ethernet frame; receiving, by the terminal device, configuration information from the SMF, wherein the configuration information comprises information for compressing or decompressing the Ethernet frame. reporting, by the terminal device, a compression capability for the Ethernet frame to the SMF, wherein the compression capability comprises a compression capability for a header of the Ethernet frame and/or a compression capability for a data part of the Ethernet frame; receiving, by the terminal device, configuration information from the SMF, wherein the configuration information comprises information for compressing or decompressing the Ethernet frame.
Device for controlling a cooling assembly for a motor vehicle comprising an externally-controlled air-conditioning compressor , a cooling radiator and a condenser situated upstream of the radiator in the direction of the flow of air, the device comprising a loop for regulating the temperature of a coolant circulating in said cooling radiator , the regulation loop being able to deliver a first corrected difference (ε cond_cor ), said device comprising a module for controlling the air-conditioning compressor as a function of the first corrected difference (ε cond_cor ), the regulation loop comprising a first comparator capable of determining a first difference (ε cond ) between a first setpoint (t cond_cons_2 ) and a measured temperature (t cond_mes ) of an air-conditioning evaporator of the cooling assembly of the motor vehicle , and a first corrector capable of correcting said first difference (ε cond ) to deliver said first corrected difference ((ε cond_cor ), characterized in that the regulation loop comprises a second comparator capable of determining a second difference (ε liq ) between a second setpoint (t liq_cons ) and a measured temperature (t liq_mes ) of the coolant circulating in said cooling radiator , and a second corrector capable of correcting the second difference (ε liq ) to calculate a second corrected difference ((ε liq_cor ), and in that the regulation loop comprises a block for determining said first setpoint (t cond_cons_2 ), said determination block choosing the maximum value between said second corrected difference (ε liq_cor ) and a third setpoint (t cond_cons ) preferably lying between 2°C and 15°C.
An in-wheel motor drive device comprising a lubricating oil supply structure, the in-wheel motor drive device comprising: a motor unit including a stator core and a pair of coil ends disposed on either side of the stator core to drive a wheel (W); a wheel hub bearing unit ; and a reducer unit having a plurality of gears , the reducer unit configured to reduce rotation of the motor unit and transmit that rotation to the wheel hub bearing unit , the lubricating oil supply structure comprising: an oil tank provided at, when in use, a lower part of the motor unit and/or the reducer unit , being configured to store lubricating oil; an oil pump configured to pump up lubricating oil from the oil tank ; and an oil pipe fixedly attached to, when in use, an upper part of the motor unit and the reducer unit , wherein the oil pipe includes an inlet through which lubricating oil pumped up from the oil pump flows therein, and a plurality of outlets provided between one end thereof and the other end thereof, the plurality of outlets configured to discharge the lubricating oil flown into the oil pipe from the inlet downwards, characterized in that an internal space in the motor unit and an internal space in the reducer unit are partitioned by a partition , the oil pipe is inserted through the partition and extends in an axle direction, and includes a first portion located at an upper part of the internal space in the motor unit and a second portion located at an upper part of the internal space in the reducer unit , and the plurality of outlets include outlets provided at least at positions facing the coil ends in the first portion and at least one outlet provided at a position facing outer peripheral surface of at least one of the gears in the second portion . an oil tank provided at, when in use, a lower part of the motor unit and/or the reducer unit , being configured to store lubricating oil; an oil pump configured to pump up lubricating oil from the oil tank ; and an oil pipe fixedly attached to, when in use, an upper part of the motor unit and the reducer unit , wherein the oil pipe includes an inlet through which lubricating oil pumped up from the oil pump flows therein, and a plurality of outlets provided between one end thereof and the other end thereof, the plurality of outlets configured to discharge the lubricating oil flown into the oil pipe from the inlet downwards, characterized in that an internal space in the motor unit and an internal space in the reducer unit are partitioned by a partition , the oil pipe is inserted through the partition and extends in an axle direction, and includes a first portion located at an upper part of the internal space in the motor unit and a second portion located at an upper part of the internal space in the reducer unit , and the plurality of outlets include outlets provided at least at positions facing the coil ends in the first portion and at least one outlet provided at a position facing outer peripheral surface of at least one of the gears in the second portion .
A printing apparatus comprising: a plurality of can body support members that are provided rotatably to support can bodies, the plurality of can body support members performing a movement; an image forming unit that performs image formation onto the can bodies supported by the can body support members; and a transmission member , characterised in that the transmission member is configured to perform circulating movement through each of the plurality of can body support members in a state where the movement is stopped to transmit a rotational driving force to each of the plurality of can body support members in a state where the movement is stopped. a plurality of can body support members that are provided rotatably to support can bodies, the plurality of can body support members performing a movement; an image forming unit that performs image formation onto the can bodies supported by the can body support members; and a transmission member , characterised in that the transmission member is configured to perform circulating movement through each of the plurality of can body support members in a state where the movement is stopped to transmit a rotational driving force to each of the plurality of can body support members in a state where the movement is stopped.
A composition for producing a high performance glass fiber, comprising the following components with corresponding percentage amounts by weight: SiO 2 52-67% Al 2 O 3 12-24% Sm 2 O 3 +Gd 2 O 3 0.05-4.5% Sm 2 O 3 0.05-3% R 2 O=Li 2 O+Na 2 O+K 2 O <2% Li 2 O 0.1-1.5% CaO+MgO+SrO 10-24% CaO <16% MgO <13% TiO 2 <3% Fe 2 O 3 <1.5% wherein a weight percentage ratio C1= (Li 2 O+Sm 2 O 3 +Gd 2 O 3 )/Al 2 O 3 is 0.02-0.15.