mhurhangee/patent-ind-claim-en huggingface dataset:
A high voltage circuit breaker comprising: a housing defining an internal space ; a first electrical line terminal at least partially positioned within the internal space ; a second electrical line terminal at least partially positioned within the internal space ; each of the first and second electrical terminals including insulating bushings positioned externally around conductors; a first electrical contact element in electrical communication with the first electrical line terminal ; a second electrical contact element in electrical communication with the second electrical line terminal ; an actuator operable to move at least one of the first and second electrical contact elements between a connected position and a disconnected position, wherein the connected position permits electrical communication between the first and second electrical line terminals and the disconnected position restricts electrical communication between the first and second electrical line terminals ; and a voltage limiter positioned within the housing , wherein the voltage limiter and the first and second electrical contact elements are located in parallel; the housing including one or more seals to fluidly isolate the internal space from an external ambient space. a housing defining an internal space ; a first electrical line terminal at least partially positioned within the internal space ; a second electrical line terminal at least partially positioned within the internal space ; each of the first and second electrical terminals including insulating bushings positioned externally around conductors; a first electrical contact element in electrical communication with the first electrical line terminal ; a second electrical contact element in electrical communication with the second electrical line terminal ; an actuator operable to move at least one of the first and second electrical contact elements between a connected position and a disconnected position, wherein the connected position permits electrical communication between the first and second electrical line terminals and the disconnected position restricts electrical communication between the first and second electrical line terminals ; and a voltage limiter positioned within the housing , wherein the voltage limiter and the first and second electrical contact elements are located in parallel; the housing including one or more seals to fluidly isolate the internal space from an external ambient space.
An agricultural harvesting machine , in particular a combine harvester or a forage harvester, comprising - a supporting frame , - a cutting assembly , - an inclined conveyor , as well as - a driver's cab , wherein the cutting assembly is disposed on the support frame via the inclined conveyor , wherein the driver's cab is disposed on the supporting frame through the intermediary of at least one damper unit , characterized in that at least one camera is disposed in an interior of the driver's cab , wherein the camera is directed on the cutting assembly and/or the inclined conveyor through a front windscreen of the driver's cab , wherein the camera is disposed in a zone of action of a cleaning device of the front windscreen so that a detection zone of the camera can be optically acquired through at least a portion of the zone of action of the cleaning device , wherein the driver's cab has at least one sun shield at an upper front edge , which is preferably external, by means of which the camera can be at least partially shaded. - a supporting frame , - a cutting assembly , - an inclined conveyor , as well as - a driver's cab , wherein the cutting assembly is disposed on the support frame via the inclined conveyor , wherein the driver's cab is disposed on the supporting frame through the intermediary of at least one damper unit , characterized in that at least one camera is disposed in an interior of the driver's cab , wherein the camera is directed on the cutting assembly and/or the inclined conveyor through a front windscreen of the driver's cab , wherein the camera is disposed in a zone of action of a cleaning device of the front windscreen so that a detection zone of the camera can be optically acquired through at least a portion of the zone of action of the cleaning device , wherein the driver's cab has at least one sun shield at an upper front edge , which is preferably external, by means of which the camera can be at least partially shaded. wherein the cutting assembly is disposed on the support frame via the inclined conveyor , wherein the driver's cab is disposed on the supporting frame through the intermediary of at least one damper unit , characterized in that at least one camera is disposed in an interior of the driver's cab , wherein the camera is directed on the cutting assembly and/or the inclined conveyor through a front windscreen of the driver's cab , wherein the camera is disposed in a zone of action of a cleaning device of the front windscreen so that a detection zone of the camera can be optically acquired through at least a portion of the zone of action of the cleaning device , wherein the driver's cab has at least one sun shield at an upper front edge , which is preferably external, by means of which the camera can be at least partially shaded.
A data authorization controlling and matching system , comprising a receiver (RX1) configured to receive an image signal; a plurality of display devices (D1,D2) coupled to the receiver (RX1) and configured to display the image signal; at least one transmitter (TX11,TX12,TX13,TX14) coupled to the receiver (RX1) and configured to output the image signal; and at least one image signal source (NB11, NB12, NB13,NB14), wherein each transmitter of the at least one transmitter (TX11,TX12,TX13,TX14) is coupled to the corresponding at least one image signal source; wherein after a member list saved in the receiver (RX1) is configured, a data link between the receiver (RX1) and the at least one transmitter (TX11,TX12,TX13,TX14) is established, the receiver (RX1) acquires identification data of the at least one transmitter (TX11,TX12,TX13,TX14) after the data link between the receiver (RX1) and the at least one transmitter (TX11,TX12,TX13,TX14) is established, the receiver identifies the at least one transmitter (TX11,TX12,TX13,TX14) by mapping the at least one transmitter (TX11,TX12,TX13,TX14) to the member list according to the identification data, the image signal is transmitted from an image signal source (NB11) coupled to a transmitter (TX11) of the at least one transmitter (TX11,TX12,TX13,TX14) to the transmitter (TX11) after the transmitter (TX11) is triggered, the transmitter (TX11) processes the image signal and transmits the image signal to the receiver (RX1), and the receiver (RX1) controls a display device (D1) for displaying the image signal according to a plurality of authorization parameters included in the member list. a plurality of display devices (D1,D2) coupled to the receiver (RX1) and configured to display the image signal; at least one transmitter (TX11,TX12,TX13,TX14) coupled to the receiver (RX1) and configured to output the image signal; and at least one image signal source (NB11, NB12, NB13,NB14), wherein each transmitter of the at least one transmitter (TX11,TX12,TX13,TX14) is coupled to the corresponding at least one image signal source; wherein after a member list saved in the receiver (RX1) is configured, a data link between the receiver (RX1) and the at least one transmitter (TX11,TX12,TX13,TX14) is established, the receiver (RX1) acquires identification data of the at least one transmitter (TX11,TX12,TX13,TX14) after the data link between the receiver (RX1) and the at least one transmitter (TX11,TX12,TX13,TX14) is established, the receiver identifies the at least one transmitter (TX11,TX12,TX13,TX14) by mapping the at least one transmitter (TX11,TX12,TX13,TX14) to the member list according to the identification data, the image signal is transmitted from an image signal source (NB11) coupled to a transmitter (TX11) of the at least one transmitter (TX11,TX12,TX13,TX14) to the transmitter (TX11) after the transmitter (TX11) is triggered, the transmitter (TX11) processes the image signal and transmits the image signal to the receiver (RX1), and the receiver (RX1) controls a display device (D1) for displaying the image signal according to a plurality of authorization parameters included in the member list.
An information processing apparatus comprising: a first computing unit adapted to compute a first score representing a degree of similarity between input sound data and registrant sound data which is sound data of a registrant; a second computing unit adapted to segment the input sound data in a time direction so as to divide the input sound data into a plurality of pieces of segmented sound data and to compute a second score representing a degree of similarity between the segmented sound data and the registrant sound data for each of the plurality of pieces of segmented sound data; the apparatus being characterized by a first determination unit adapted to determine whether a number of speakers of sound included in the input sound data is one or multiple, using at least the second scores; and a second determination unit adapted to determine whether the input sound data includes sound of the registrant, based on the first score, the second scores, and a determination result obtained by the first determination unit. a first computing unit adapted to compute a first score representing a degree of similarity between input sound data and registrant sound data which is sound data of a registrant; a second computing unit adapted to segment the input sound data in a time direction so as to divide the input sound data into a plurality of pieces of segmented sound data and to compute a second score representing a degree of similarity between the segmented sound data and the registrant sound data for each of the plurality of pieces of segmented sound data; the apparatus being characterized by a first determination unit adapted to determine whether a number of speakers of sound included in the input sound data is one or multiple, using at least the second scores; and a second determination unit adapted to determine whether the input sound data includes sound of the registrant, based on the first score, the second scores, and a determination result obtained by the first determination unit.
A method performed by a wireless device , the method comprising: receiving, from a network , a Physical Random Access Channel, PRACH, configuration index; receiving , from the network, radio resource control signaling including a bitmap that provides an indication of synchronization signal, SS, blocks of an SS burst set being transmitted by the network; restricting random access preamble transmission in response to determining that the wireless device is operating in an unpaired spectrum, the restricting including: determining based on the PRACH configuration index and the bitmap, a time slot between transmitted SS blocks of the SS burst set that does not overlap with the transmission of the indicated SS blocks; and transmitting a random access preamble during the determined time slot. receiving, from a network , a Physical Random Access Channel, PRACH, configuration index; receiving , from the network, radio resource control signaling including a bitmap that provides an indication of synchronization signal, SS, blocks of an SS burst set being transmitted by the network; restricting random access preamble transmission in response to determining that the wireless device is operating in an unpaired spectrum, the restricting including: determining based on the PRACH configuration index and the bitmap, a time slot between transmitted SS blocks of the SS burst set that does not overlap with the transmission of the indicated SS blocks; and transmitting a random access preamble during the determined time slot.
A receiving apparatus comprising: a first wireless receiving unit that is configured to receive a first wireless signal including a waveform of vibration; a second wireless receiving unit that is configured to receive a second wireless signal in a predetermined area , the second wireless signal including control information for controlling ON/OFF of the vibration; a waveform generating unit that is configured to generate, on the basis of the control information included in the second wireless signal received by the second wireless receiving unit , the waveform of the vibration from the first wireless signal received by the first wireless receiving unit ; and a vibrating unit that is configured to produce the vibration according to the waveform generated by the waveform generating unit . a first wireless receiving unit that is configured to receive a first wireless signal including a waveform of vibration; a second wireless receiving unit that is configured to receive a second wireless signal in a predetermined area , the second wireless signal including control information for controlling ON/OFF of the vibration; a waveform generating unit that is configured to generate, on the basis of the control information included in the second wireless signal received by the second wireless receiving unit , the waveform of the vibration from the first wireless signal received by the first wireless receiving unit ; and a vibrating unit that is configured to produce the vibration according to the waveform generated by the waveform generating unit .
Subscriber station (20; 30) for a bus system , with a communication control device (21; 31) for creating a message (4; 5; 50; 500) for at least one other subscriber station (20; 30) of the bus system , in which exclusive, collision-free access by a subscriber station to a bus line of the bus system is guaranteed at least temporarily, wherein the communication control device (21; 31) is configured to provide in the message (4; 5; 50; 500) a first phase (451; 452) to be sent at a first bit rate and a second phase (452; 453) to be sent at a second bit rate, which is faster or slower than the first bit rate, wherein the communication control device (21; 31) is configured to provide in the message (5; 50; 500), between the first and second phases (451, 452; 452, 453), a predetermined bit pattern (46, 47; 46, 47, 48; 46, 47, 480) for a bit rate changeover between the first and second bit rates, characterized in that the predetermined bit pattern (46, 47; 46, 47, 48; 46, 47, 480) has an edge for synchronization both before and after the bit rate changeover, with the aid of which edge the at least one other subscriber station (20; 30), as receiver, can synchronize to the subscriber station (20; 30) as sender. wherein the communication control device (21; 31) is configured to provide in the message (4; 5; 50; 500) a first phase (451; 452) to be sent at a first bit rate and a second phase (452; 453) to be sent at a second bit rate, which is faster or slower than the first bit rate, wherein the communication control device (21; 31) is configured to provide in the message (5; 50; 500), between the first and second phases (451, 452; 452, 453), a predetermined bit pattern (46, 47; 46, 47, 48; 46, 47, 480) for a bit rate changeover between the first and second bit rates, characterized in that the predetermined bit pattern (46, 47; 46, 47, 48; 46, 47, 480) has an edge for synchronization both before and after the bit rate changeover, with the aid of which edge the at least one other subscriber station (20; 30), as receiver, can synchronize to the subscriber station (20; 30) as sender.
A magnet assembly for use in a tokamak , the magnet assembly comprising: a poloidal field coil assembly ; a toroidal field coil comprising high temperature superconductor; and a controller; wherein: the inner poloidal field coil is installed inside the toroidal field coil; and the outer poloidal field coil is installed outside the toroidal field coil; characterized in that the controller is configured to cause current to be supplied to the inner and outer poloidal field coils such that the combined magnetic field produced by the inner and outer poloidal field coils has a null at the toroidal field coil. a poloidal field coil assembly ; a toroidal field coil comprising high temperature superconductor; and a controller; wherein: the inner poloidal field coil is installed inside the toroidal field coil; and the outer poloidal field coil is installed outside the toroidal field coil; the inner poloidal field coil is installed inside the toroidal field coil; and the outer poloidal field coil is installed outside the toroidal field coil;
An agent entity for load balancing in a network , wherein the network is an Internet protocol network and comprises a plurality of network nodes , a network controller , and a manager entity hosted on the network controller , wherein the agent entity is associated with a network node of the plurality of network nodes , and the agent entity is configured to: collect one or more experience samples related to the network , wherein each of the one or more experience samples comprises one or more of a state, an action, a reward, and a next state, wherein the state and the next state each comprise one or more of a number of flows per path, a throughput per path, and a measurement from telemetry, the action comprises a change of load balancing weights of the flows, and the reward comprises one or more of a flow level key performance indicator, a flow level key quality indicator, and a network level indicator; obtain reinforcement learning, RL, policy information from the manager entity ; execute the RL policy information to make a load balancing decision and a decision about a content of a message to one or more other agent entities associated with one or more other network nodes of the plurality of network nodes , wherein the load balancing decision comprises deriving load balancing weights from the RL policy information and selecting a path through the network based on the derived load balancing weights, wherein the content of the message comprises information about the selected path for the incoming flow; and send the message to the one or more other agent entities . collect one or more experience samples related to the network , wherein each of the one or more experience samples comprises one or more of a state, an action, a reward, and a next state, wherein the state and the next state each comprise one or more of a number of flows per path, a throughput per path, and a measurement from telemetry, the action comprises a change of load balancing weights of the flows, and the reward comprises one or more of a flow level key performance indicator, a flow level key quality indicator, and a network level indicator; obtain reinforcement learning, RL, policy information from the manager entity ; execute the RL policy information to make a load balancing decision and a decision about a content of a message to one or more other agent entities associated with one or more other network nodes of the plurality of network nodes , wherein the load balancing decision comprises deriving load balancing weights from the RL policy information and selecting a path through the network based on the derived load balancing weights, wherein the content of the message comprises information about the selected path for the incoming flow; and send the message to the one or more other agent entities .
A method for increasing an accuracy of phase measurement, wherein the method comprises: receiving a measurement signal, wherein the measurement signal is generated according to a frequency-domain calibration sequence, the frequency-domain calibration sequence comprises N frequency-domain calibration signals, each of the frequency-domain calibration signals corresponds to one specified frequency point, the specified frequency points are within a specified frequency band, and N is an integer greater than 1 ; performing frequency-domain transformation to the measurement signal to obtain a frequency-domain measurement sequence, wherein the frequency-domain measurement sequence comprises N frequency-domain measurement signals, and each of the frequency-domain measurement signals corresponds to one specified frequency point ; determining phases that correspond to the frequency-domain measurement signals, and determining a phase difference between frequency-domain measurement signals that correspond to two neighboring specified frequency points ; according to the phases, the phase difference and a window function, performing sliding-window-type phase fitting to the frequency-domain measurement sequence, to obtain phase-fitting data that correspond to sliding windows ; and according to the phase-fitting data of the sliding windows, determining phase-calibration data that correspond to the sliding windows, and, by using the phase-calibration data of the sliding windows, forming phase-calibration data within the specified frequency band . receiving a measurement signal, wherein the measurement signal is generated according to a frequency-domain calibration sequence, the frequency-domain calibration sequence comprises N frequency-domain calibration signals, each of the frequency-domain calibration signals corresponds to one specified frequency point, the specified frequency points are within a specified frequency band, and N is an integer greater than 1 ; performing frequency-domain transformation to the measurement signal to obtain a frequency-domain measurement sequence, wherein the frequency-domain measurement sequence comprises N frequency-domain measurement signals, and each of the frequency-domain measurement signals corresponds to one specified frequency point ; determining phases that correspond to the frequency-domain measurement signals, and determining a phase difference between frequency-domain measurement signals that correspond to two neighboring specified frequency points ; according to the phases, the phase difference and a window function, performing sliding-window-type phase fitting to the frequency-domain measurement sequence, to obtain phase-fitting data that correspond to sliding windows ; and according to the phase-fitting data of the sliding windows, determining phase-calibration data that correspond to the sliding windows, and, by using the phase-calibration data of the sliding windows, forming phase-calibration data within the specified frequency band .
A method of producing a mung bean protein composition having a measurement value according to the Folin-Denis method of 1.39% by weight or less in terms of gallic acid on a dry matter basis and a crude protein content of 60% by weight or more on a dry matter basis, the method comprising heat-treating a solution containing mung bean protein at 80°C to 160°C for 2 seconds to 60 minutes, wherein the mung bean protein has been extracted from mung beans which have been dehusked to remove 90% or more of the husks.
Compound according to the following formula 1: or a pharmaceutically acceptable salt thereof, wherein n=7- 12; m = 1 or 2; R 1 = H, C1-C3 alkyl or void, and in case R 1 is void the nitrogen is integrated in the N-heterocycle via a double bond and in case R 1 is H or C1-C3 alkyl the nitrogen is integrated in the N-heterocycle via a single bond; R 2 = C1-C3 alkyl; R 3 = H or -CO-R 5 and R 5 is C1-C3 alkyl; R 4 = H or -CO-R 6 and R 6 is C1-C3 alkyl; Gly = mono- or disaccharide; for use as a medicament. or a pharmaceutically acceptable salt thereof, wherein n=7- 12; m = 1 or 2; R 1 = H, C1-C3 alkyl or void, and in case R 1 is void the nitrogen is integrated in the N-heterocycle via a double bond and in case R 1 is H or C1-C3 alkyl the nitrogen is integrated in the N-heterocycle via a single bond; R 2 = C1-C3 alkyl; R 3 = H or -CO-R 5 and R 5 is C1-C3 alkyl; R 4 = H or -CO-R 6 and R 6 is C1-C3 alkyl; Gly = mono- or disaccharide; for use as a medicament.