mhurhangee/ep-ind-claims huggingface dataset:
A multiband coupling circuit comprising: a number (n) of paths equal to the number of frequency bands, each path having a first terminal (IN i) and a second terminal (OUT i); a third terminal (CPLD) and a fourth terminal; characterized in that it comprises: a number (n) of distributed couplers (31 i) equal to the number of paths, all couplers being identical and sized according to the highest frequency band, and each coupler comprising a first conductive line between first and second ports (IN i, OUT i) connected to the first and second terminals of the concerned path, and a second conductive line (322, 323) coupled to the first one between third and fourth ports (CPLD i, ISO i); a first set of attenuators between the third ports (CPLD i) of the couplers and the third terminal of the circuit; and an array of filters (42 i; 48 i, 49 i) between the fourth ports (ISO i) of the couplers and the fourth terminal of the circuit, said array being adapted to, for each path, filtering signals which are outside from the concerned frequency band. a number (n) of paths equal to the number of frequency bands, each path having a first terminal (IN i) and a second terminal (OUT i); a third terminal (CPLD) and a fourth terminal; characterized in that it comprises: a number (n) of distributed couplers (31 i) equal to the number of paths, all couplers being identical and sized according to the highest frequency band, and each coupler comprising a first conductive line between first and second ports (IN i, OUT i) connected to the first and second terminals of the concerned path, and a second conductive line (322, 323) coupled to the first one between third and fourth ports (CPLD i, ISO i); a first set of attenuators between the third ports (CPLD i) of the couplers and the third terminal of the circuit; and an array of filters (42 i; 48 i, 49 i) between the fourth ports (ISO i) of the couplers and the fourth terminal of the circuit, said array being adapted to, for each path, filtering signals which are outside from the concerned frequency band. a number (n) of distributed couplers (31 i) equal to the number of paths, all couplers being identical and sized according to the highest frequency band, and each coupler comprising a first conductive line between first and second ports (IN i, OUT i) connected to the first and second terminals of the concerned path, and a second conductive line (322, 323) coupled to the first one between third and fourth ports (CPLD i, ISO i); a first set of attenuators between the third ports (CPLD i) of the couplers and the third terminal of the circuit; and an array of filters (42 i; 48 i, 49 i) between the fourth ports (ISO i) of the couplers and the fourth terminal of the circuit, said array being adapted to, for each path, filtering signals which are outside from the concerned frequency band.
Protected vehicle comprising at least one rollover protection system, the rollover protection system comprising: a turret carrying a weapon, a sensor technology configured to detect a tilting of the protected vehicle about at least one spatial direction (x, y, z), characterized by a controlling and steering unit configured to transfer the turret from an initial state to a protected state based on sensor signals from the sensor technology immediately before or during a rollover of the protected vehicle, wherein the turret is configured to support itself in the protected state on a subsoil on which the protected vehicle travels, so that a crew member being located partially inside and partially outside the protected vehicle is protected during the rollover of the protected vehicle. a turret carrying a weapon, a sensor technology configured to detect a tilting of the protected vehicle about at least one spatial direction (x, y, z), characterized by a controlling and steering unit configured to transfer the turret from an initial state to a protected state based on sensor signals from the sensor technology immediately before or during a rollover of the protected vehicle, wherein the turret is configured to support itself in the protected state on a subsoil on which the protected vehicle travels, so that a crew member being located partially inside and partially outside the protected vehicle is protected during the rollover of the protected vehicle.
A wireless communication apparatus comprising: a wireless communication unit configured to perform wireless communication with a terminal apparatus (200A; 200B; 200C; 200D; 200E; 200F); a communication control unit configured to control multicast transmission performed by the wireless communication unit; and a setting unit configured to set a threshold for determining whether or not it is necessary for the communication control unit to perform a retransmission process, on the basis of information about reception of a reception acknowledgment response corresponding to the multicast transmission from the terminal apparatus (200A; 200B; 200C; 200D; 200E; 200F), characterized in that the information about reception of the reception acknowledgment response is information indicating an importance level of a transmitted frame for which reception of the reception acknowledgment response has resulted in failure, and in that the setting unit is configured to calculate the importance level on the basis of information about a multicast frame for which reception of the corresponding reception acknowledgment response has resulted in failure. a wireless communication unit configured to perform wireless communication with a terminal apparatus (200A; 200B; 200C; 200D; 200E; 200F); a communication control unit configured to control multicast transmission performed by the wireless communication unit; and a setting unit configured to set a threshold for determining whether or not it is necessary for the communication control unit to perform a retransmission process, on the basis of information about reception of a reception acknowledgment response corresponding to the multicast transmission from the terminal apparatus (200A; 200B; 200C; 200D; 200E; 200F), characterized in that the information about reception of the reception acknowledgment response is information indicating an importance level of a transmitted frame for which reception of the reception acknowledgment response has resulted in failure, and in that the setting unit is configured to calculate the importance level on the basis of information about a multicast frame for which reception of the corresponding reception acknowledgment response has resulted in failure.
An encoding method for encoding a speech signal, comprising: dividing a to-be-encoded time-domain signal into a low band signal and a high band signal; performing encoding on the low band signal to obtain a low frequency encoding parameter; performing linear predictive coding, LPC, analysis on the high band signal to obtain an LPC coefficient, predicting a high frequency excitation signal using the low frequency encoding parameter, obtaining a synthesized high band signal, using the high frequency excitation signal and a synthesis filter that is determined according to the LPC coefficient; the method being characterised by: performing short-time post-filtering processing on the synthesized high band signal to obtain a short-time filtered signal, wherein the performing short-time post-filtering processing on the synthesized high band signal comprises: setting a coefficient of a pole-zero post-filter based on the LPC coefficient; and performing filtering processing on the synthesized high band signal by using the pole-zero post-filter; and calculating a high frequency gain based on the high band signal and the short-time filtered signal. dividing a to-be-encoded time-domain signal into a low band signal and a high band signal; performing encoding on the low band signal to obtain a low frequency encoding parameter; performing linear predictive coding, LPC, analysis on the high band signal to obtain an LPC coefficient, predicting a high frequency excitation signal using the low frequency encoding parameter, obtaining a synthesized high band signal, using the high frequency excitation signal and a synthesis filter that is determined according to the LPC coefficient; the method being characterised by: performing short-time post-filtering processing on the synthesized high band signal to obtain a short-time filtered signal, wherein the performing short-time post-filtering processing on the synthesized high band signal comprises: setting a coefficient of a pole-zero post-filter based on the LPC coefficient; and performing filtering processing on the synthesized high band signal by using the pole-zero post-filter; and calculating a high frequency gain based on the high band signal and the short-time filtered signal. performing short-time post-filtering processing on the synthesized high band signal to obtain a short-time filtered signal, wherein the performing short-time post-filtering processing on the synthesized high band signal comprises: setting a coefficient of a pole-zero post-filter based on the LPC coefficient; and performing filtering processing on the synthesized high band signal by using the pole-zero post-filter; setting a coefficient of a pole-zero post-filter based on the LPC coefficient; and performing filtering processing on the synthesized high band signal by using the pole-zero post-filter; and calculating a high frequency gain based on the high band signal and the short-time filtered signal.
A method for suppressing the generation of iron-containing vapor during filling or emptying of a container for an iron-containing metal melt with the aid of CO 2 snow, characterized in that a planar CO 2 snow jet is applied by means of a nozzle dispersing in a planar manner onto a surface of an iron-containing stream which is poured into or out of the container.
A razor handle comprising: a rigid member forming a frame; a first member having one or more movable elements, wherein a portion of said first member is connected to a first surface of said rigid member; a second member, said second member coupled to a second surface of said rigid member characterized in that a benefit delivery assembly (72, 201, 14, 301) for providing heating or cooling of the skin, and/or for applying fluids to the skin is disposed in an area between said first and second members (19, 20), and the movable elements serve as a cartridge eject mechanism and are configured to perform a rotational and/or linear movement. a rigid member forming a frame; a first member having one or more movable elements, wherein a portion of said first member is connected to a first surface of said rigid member; a second member, said second member coupled to a second surface of said rigid member characterized in that a benefit delivery assembly (72, 201, 14, 301) for providing heating or cooling of the skin, and/or for applying fluids to the skin is disposed in an area between said first and second members (19, 20), and the movable elements serve as a cartridge eject mechanism and are configured to perform a rotational and/or linear movement.
A method, performed by a server, of controlling a device (121 to 127) among a plurality of devices in a network environment, based on a speech input, the method comprising: receiving, from a client device, a speech input of a user; performing, by a first assistant model, automatic speech recognition, ASR, to convert the received speech input into text by using an ASR model; analyzing, by a device dispatcher model of the first assistant model, the converted text by parsing the converted text in at least one of morphemes, words and phrases and determine, by using a first natural language understanding, NLU, model, a first intent based on the analysis result; determining, by the device dispatcher model, a type of a target device based on the first intent; determining, by the device dispatcher model, a target device from a plurality of previously-registered target device candidates based on the determined type and device information; providing, by the first assistant model, the parsed text and the device information to a second assistant model; determining, by the second assistant model, a second intent and a parameter by analyzing the parsed text by using a second NLU model corresponding to the determined type of the target device among a plurality of second NLU models; obtaining, by an action plan management model of the second assistant model, the operation information of operations to be performed by the target device based on the determined second intent and the determined parameter; and providing, by the second assistant model, the operation information obtained through the action plan management model to the first assistant model. receiving, from a client device, a speech input of a user; performing, by a first assistant model, automatic speech recognition, ASR, to convert the received speech input into text by using an ASR model; analyzing, by a device dispatcher model of the first assistant model, the converted text by parsing the converted text in at least one of morphemes, words and phrases and determine, by using a first natural language understanding, NLU, model, a first intent based on the analysis result; determining, by the device dispatcher model, a type of a target device based on the first intent; determining, by the device dispatcher model, a target device from a plurality of previously-registered target device candidates based on the determined type and device information; providing, by the first assistant model, the parsed text and the device information to a second assistant model; determining, by the second assistant model, a second intent and a parameter by analyzing the parsed text by using a second NLU model corresponding to the determined type of the target device among a plurality of second NLU models; obtaining, by an action plan management model of the second assistant model, the operation information of operations to be performed by the target device based on the determined second intent and the determined parameter; and providing, by the second assistant model, the operation information obtained through the action plan management model to the first assistant model.
A noise reduction device connectable to a plurality of sound acquisition devices and a plurality of control sound output devices for reducing a noise emitted by a noise source in a given space where a sound field can be formed, the noise reduction device comprising: a sound receiver for receiving a sound signal from at least two of the plurality of sound acquisition devices; a control sound generating unit for generating a control sound signal to reduce noise with respect to the sound signal; and a control sound transmitter for outputting the control sound signal to each of the control sound output devices; a detecting unit for detecting a state change of the sound field; and an operation control unit for controlling the generation of the control sound signal by the control sound generating unit based on the change of state of the sound field characterized in that the operation control unit is configured to determine the at least two of the plurality of sound acquisition devices as either one of a noise acquisition device for acquiring the noise emitted by the noise source or an error sound acquisition device for acquiring an error sound, which is a result of superimposing the control sound signal emitted from the control sound output devices onto the noise emitted from the noise source, based on the change of state of the sound field; and the control sound generating unit is configured to generate the control sound signal according to the determination. a sound receiver for receiving a sound signal from at least two of the plurality of sound acquisition devices; a control sound generating unit for generating a control sound signal to reduce noise with respect to the sound signal; and a control sound transmitter for outputting the control sound signal to each of the control sound output devices; a detecting unit for detecting a state change of the sound field; and an operation control unit for controlling the generation of the control sound signal by the control sound generating unit based on the change of state of the sound field characterized in that the operation control unit is configured to determine the at least two of the plurality of sound acquisition devices as either one of a noise acquisition device for acquiring the noise emitted by the noise source or an error sound acquisition device for acquiring an error sound, which is a result of superimposing the control sound signal emitted from the control sound output devices onto the noise emitted from the noise source, based on the change of state of the sound field; and the control sound generating unit is configured to generate the control sound signal according to the determination.
A 3-phase even-numbered-pole 2-layered armature winding housed in 45 slots per pole provided in a laminated iron core of a rotating electrical machine, comprising: six parallel circuits provided for each phase of the winding and divided into a pair of phase belts including first and second phase belts (17, 18), each parallel circuit including upper and lower coil pieces (15, 16) which are connected to each other in series in a connection side coil end and a counter-connection side coil end, wherein the coil pieces (15, 16) corresponding to first, second, and third parallel circuits are placed in the first phase belt, and the coil pieces (15, 16) corresponding to fourth, fifth, and sixth parallel circuits are placed in the second phase belt, and the upper coil pieces and the lower coil pieces of each parallel circuit are mutually placed in identical-numbered positions from a pole center, characterized in that: the upper and lower coil pieces (15, 16) of the first and fourth parallel circuits are placed in the 1st, 6th, 9th, 12th, and 15th positions from the pole center, the upper and lower coil pieces (15, 16) of the second and fifth parallel circuits are placed in the 2nd, 5th, 8th, 11th, and 14th positions from the pole center, and the upper and lower coil pieces (15, 16) of the third and sixth parallel circuits are placed in the 3rd, 4th, 7th, 10th, and 13th positions from the pole center. six parallel circuits provided for each phase of the winding and divided into a pair of phase belts including first and second phase belts (17, 18), each parallel circuit including upper and lower coil pieces (15, 16) which are connected to each other in series in a connection side coil end and a counter-connection side coil end, wherein the coil pieces (15, 16) corresponding to first, second, and third parallel circuits are placed in the first phase belt, and the coil pieces (15, 16) corresponding to fourth, fifth, and sixth parallel circuits are placed in the second phase belt, and the upper coil pieces and the lower coil pieces of each parallel circuit are mutually placed in identical-numbered positions from a pole center, the upper and lower coil pieces (15, 16) of the first and fourth parallel circuits are placed in the 1st, 6th, 9th, 12th, and 15th positions from the pole center, the upper and lower coil pieces (15, 16) of the second and fifth parallel circuits are placed in the 2nd, 5th, 8th, 11th, and 14th positions from the pole center, and the upper and lower coil pieces (15, 16) of the third and sixth parallel circuits are placed in the 3rd, 4th, 7th, 10th, and 13th positions from the pole center.
A polypeptide having DNase activity, selected from the group consisting of: a. a polypeptide having at least 60% sequence identity to the mature polypeptide of SEQ ID NO: 2; b. a polypeptide encoded by a polynucleotide having at least 60% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 1 or the cDNA sequence thereof; and c. a fragment of the polypeptide of (a) or (b) that has DNase activity. a. a polypeptide having at least 60% sequence identity to the mature polypeptide of SEQ ID NO: 2; b. a polypeptide encoded by a polynucleotide having at least 60% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 1 or the cDNA sequence thereof; and c. a fragment of the polypeptide of (a) or (b) that has DNase activity.
A method for audio signal decoding in which one or more input audio signals have been encoded into a bitstream comprising audio information and side information relating to the audio information and useful in decoding the bitstream, wherein each of the one or more input audio signals has been divided into time blocks and at least some of the side information has been updated no more frequently than a block rate, such that the audio information, when decoded using the side information, has a temporal envelope resolution limited by the block rate, wherein the bitstream further includes temporal envelope re-shaping information indicative of a comparison between the temporal envelope of at least one input audio signal and the temporal envelope of an estimated decoded reconstruction of each such at least one input audio signal, which estimated reconstruction employs at least some of the audio information and at least some of the side information,, the method comprising receiving the bitstream, and decoding the bitstream into one or more decoded reconstructions of the one or more input audio signals, the decoding employing the audio information and the side information; and re-shaping (36-1, 36-n) the one or more decoded reconstructions of the one or more input audio signals using said temporal envelope re-shaping information. receiving the bitstream, and decoding the bitstream into one or more decoded reconstructions of the one or more input audio signals, the decoding employing the audio information and the side information; and re-shaping (36-1, 36-n) the one or more decoded reconstructions of the one or more input audio signals using said temporal envelope re-shaping information.
An augmented reality, "AR", generating device comprising: a modulator configured to modulate a first phase of at least one data signal comprising information about an AR object; a phase detector configured to detect a second phase of at least one location notification signal received from an AR display device; a processor configured to control the modulator to time-reverse the first phase of the at least one data signal based on the second phase of the at least one location notification signal; and a plurality of antennas (142a-c, 730) configured to receive the at least one location notification signal in a first frequency band from the AR display device and transmit the time-reversed at least one data signal to the AR display device in a second frequency band different from the first frequency band. a modulator configured to modulate a first phase of at least one data signal comprising information about an AR object; a phase detector configured to detect a second phase of at least one location notification signal received from an AR display device; a processor configured to control the modulator to time-reverse the first phase of the at least one data signal based on the second phase of the at least one location notification signal; and a plurality of antennas (142a-c, 730) configured to receive the at least one location notification signal in a first frequency band from the AR display device and transmit the time-reversed at least one data signal to the AR display device in a second frequency band different from the first frequency band.