mhurhangee/ep-ind-claims huggingface dataset:
Electrical connector assembly, comprising: a housing comprising a plurality of cavities for the reception of electrical contact terminals; a mat seal having a plurality of juxtaposed seal holes formed therethrough; which seal holes are adjacent to and aligned with at least some of said cavities of the housing, wherein the assembly further comprises a plurality of contact terminals, the contact terminals comprising protruding latching tongues adapted to latch onto a corresponding portion of said housing; wherein the housing is adapted such that the terminals can be mounted through the seal holes into said cavities; wherein said cavities comprise a portion which is inclined inwardly, to engage and deflect the protruding latching tongues of the terminals upon movement of the terminals through the cavities, characterized in that said deflection of the latching tongue being such that the free end thereof is guided into the respective seal hole, so that it is possible to remove the terminals from the housing through said mat seal. a housing comprising a plurality of cavities for the reception of electrical contact terminals; a mat seal having a plurality of juxtaposed seal holes formed therethrough; which seal holes are adjacent to and aligned with at least some of said cavities of the housing, wherein the assembly further comprises a plurality of contact terminals, the contact terminals comprising protruding latching tongues adapted to latch onto a corresponding portion of said housing; wherein the housing is adapted such that the terminals can be mounted through the seal holes into said cavities; wherein said cavities comprise a portion which is inclined inwardly, to engage and deflect the protruding latching tongues of the terminals upon movement of the terminals through the cavities, characterized in that said deflection of the latching tongue being such that the free end thereof is guided into the respective seal hole, so that it is possible to remove the terminals from the housing through said mat seal.
A method for controlling a vehicle comprising a body, a neck, a head and a vehicle control system; in which the body comprises vehicle control planes/vehicle control actuators for influencing vehicle movement; the vehicle control actuators being responsive to the vehicle control system, the method comprising a. measuring, using one or more than one sensor housed within the head, a characteristic associated with the vehicle, the vehicle control system being responsive to the one or more than one sensor, and b. controlling a first stabilisation mechanism of the neck, using a vehicle stabilisation system responsive to the one or more than one sensor, to maintain a head attitude decoupled from, or independently of, variations in body attitude. a. measuring, using one or more than one sensor housed within the head, a characteristic associated with the vehicle, the vehicle control system being responsive to the one or more than one sensor, and b. controlling a first stabilisation mechanism of the neck, using a vehicle stabilisation system responsive to the one or more than one sensor, to maintain a head attitude decoupled from, or independently of, variations in body attitude.
A pharmaceutical composition comprising: (a) a first pharmacologically active ingredient selected from the compound according to general formula and the physiologically acceptable salts thereof, and (b) a second pharmacologically active ingredient selected from paracetamol and propacetamol. (a) a first pharmacologically active ingredient selected from the compound according to general formula and the physiologically acceptable salts thereof, and (b) a second pharmacologically active ingredient selected from paracetamol and propacetamol.
A process for preparing pea protein-xyloglucan conjugated product comprising: (a) preparing a mixture comprising pea protein, xyloglucan, and an appropriate polar solvent; wherein: - the weight ratio between xyloglucan and pea protein is comprised from 20:80 to 60:40, and - the pH of the solution is comprised from 8.0 to 10.5; and (b) performing a Maillard reaction by heating the solution resulting from step (a) at an appropriate temperature comprised from 155 to 165 °C until dryness for the necessary period of time to conjugate the protein and the xyloglucan. (a) preparing a mixture comprising pea protein, xyloglucan, and an appropriate polar solvent; wherein: - the weight ratio between xyloglucan and pea protein is comprised from 20:80 to 60:40, and - the pH of the solution is comprised from 8.0 to 10.5; and - the weight ratio between xyloglucan and pea protein is comprised from 20:80 to 60:40, and - the pH of the solution is comprised from 8.0 to 10.5; and (b) performing a Maillard reaction by heating the solution resulting from step (a) at an appropriate temperature comprised from 155 to 165 °C until dryness for the necessary period of time to conjugate the protein and the xyloglucan.
A robot control system, for causing a worker to use a plurality of robots to distinguish work in a work space provided with the robots, wherein the robot control system comprises: a plurality of robots (11a, 12a, 13a, 15a, 16a, 23); and a worker terminal (30, 40) that is capable of sending operation commands to the plurality of robots (11a, 12a, 13a, 15a, 16a, 23), by using wireless communications; the worker terminal (30, 40) has: an identification part that identifies a target robot to be used for one work among a plurality of robots (11a, 12a, 13a, 15a, 16a, 23); a reception part that receives operation instructions for the robot (1 1a, 12a, 13a, 15a, 16a, 23) from a worker; and a wireless communications part (303, 403) that sends operation command to only the robot identified as the target robot by the identification part when an operation instruction is received by the reception part, the robot control system being characterized in that each of the plurality of robots (11a, 12a, 13a, 15a, 16a, 23) is a robot that cooperates with the worker in the one work, some of multiple operations required for achieving the work being performed by the worker and the rest of the operations being performed by the robot, said robot being able to operate with the timing required by the worker. a plurality of robots (11a, 12a, 13a, 15a, 16a, 23); and a worker terminal (30, 40) that is capable of sending operation commands to the plurality of robots (11a, 12a, 13a, 15a, 16a, 23), by using wireless communications; the worker terminal (30, 40) has: an identification part that identifies a target robot to be used for one work among a plurality of robots (11a, 12a, 13a, 15a, 16a, 23); a reception part that receives operation instructions for the robot (1 1a, 12a, 13a, 15a, 16a, 23) from a worker; and a wireless communications part (303, 403) that sends operation command to only the robot identified as the target robot by the identification part when an operation instruction is received by the reception part, an identification part that identifies a target robot to be used for one work among a plurality of robots (11a, 12a, 13a, 15a, 16a, 23); a reception part that receives operation instructions for the robot (1 1a, 12a, 13a, 15a, 16a, 23) from a worker; and a wireless communications part (303, 403) that sends operation command to only the robot identified as the target robot by the identification part when an operation instruction is received by the reception part, the robot control system being characterized in that each of the plurality of robots (11a, 12a, 13a, 15a, 16a, 23) is a robot that cooperates with the worker in the one work, some of multiple operations required for achieving the work being performed by the worker and the rest of the operations being performed by the robot, said robot being able to operate with the timing required by the worker.
Method for ascertaining a duration until the next maintenance operation for an electrical power converter that has a plurality of identical modules (1_1, 1_2, 1_3) that each have at least two electronic switching elements (202, 206) and an electrical energy storage unit, wherein a bypass switch is assigned to each module and is closed by a module-internal bypass switch actuation circuit if a defect occurs at the module, wherein a subset of the modules are reserve modules (1 n+1, 1 n+2) that are superfluous if a power converter is free of defects, wherein, if a defective module (1_3) occurs, this defective module is bypassed by means of the respective bypass switch and one of the reserve modules (1_n+1) is used instead of the defective module (1_3), wherein, in the method, - an occurrence of a defect at a module is registered by a control apparatus of the power converter and a message relating to the occurrence of the defect at the module is sent to a monitoring apparatus via a communication connection, - information transmitted with the message is stored in the monitoring apparatus, - the frequency of the occurrence of defective modules is determined by the monitoring apparatus ascertaining, from the information, the number of modules at which a defect has occurred during a predetermined interval of time, - a number of available reserve modules, which is stored in the monitoring apparatus, is reduced by one each time a defect occurs, and - the duration until the next maintenance operation is ascertained by the monitoring device comparing the number of reserve modules available at the ascertainment time with the frequency of the occurrence of defective modules, wherein, - in order to ascertain the duration, an empirical frequency that is based on past experiences is used instead of the determined frequency if the empirical frequency is greater than the determined frequency, wherein the empirical frequency is stored in the monitoring apparatus. - an occurrence of a defect at a module is registered by a control apparatus of the power converter and a message relating to the occurrence of the defect at the module is sent to a monitoring apparatus via a communication connection, - information transmitted with the message is stored in the monitoring apparatus, - the frequency of the occurrence of defective modules is determined by the monitoring apparatus ascertaining, from the information, the number of modules at which a defect has occurred during a predetermined interval of time, - a number of available reserve modules, which is stored in the monitoring apparatus, is reduced by one each time a defect occurs, and - the duration until the next maintenance operation is ascertained by the monitoring device comparing the number of reserve modules available at the ascertainment time with the frequency of the occurrence of defective modules, wherein, - in order to ascertain the duration, an empirical frequency that is based on past experiences is used instead of the determined frequency if the empirical frequency is greater than the determined frequency, wherein the empirical frequency is stored in the monitoring apparatus.
A method for emulation of signals by extracting a signal and an interference from communication measurements, comprising: receiving and storing a communication comprising the signal and the interference; feeding the received communication through a filter for detecting a strongest impulse response peak (3-2, 3-4, 3-6, 3-8, 3-10, 3-12) of a plurality of impulse response peaks corresponding to a plurality of respective paths in the filtered signal or in the filtered interference and for providing the strongest impulse response peak as an output from the filter; feeding the output from the filter to a regenerator for reconstructing a path of the signal or of the interference according to a reconstruction equation using the strongest impulse response peak; feeding an output from the regenerator to a subtractor for obtaining a residual signal component or a residual interference component from the communication; feeding the residual signal component or the residual interference component again through the same filter, the same regenerator, and the same subtractor for obtaining a next residual signal component or a next residual interference component from the communication until a whole signal or a whole interference is reconstructed from the reconstructed paths; and using the reconstructed whole signal and/or the reconstructed whole interference for emulation in a test environment. receiving and storing a communication comprising the signal and the interference; feeding the received communication through a filter for detecting a strongest impulse response peak (3-2, 3-4, 3-6, 3-8, 3-10, 3-12) of a plurality of impulse response peaks corresponding to a plurality of respective paths in the filtered signal or in the filtered interference and for providing the strongest impulse response peak as an output from the filter; feeding the output from the filter to a regenerator for reconstructing a path of the signal or of the interference according to a reconstruction equation using the strongest impulse response peak; feeding an output from the regenerator to a subtractor for obtaining a residual signal component or a residual interference component from the communication; feeding the residual signal component or the residual interference component again through the same filter, the same regenerator, and the same subtractor for obtaining a next residual signal component or a next residual interference component from the communication until a whole signal or a whole interference is reconstructed from the reconstructed paths; and using the reconstructed whole signal and/or the reconstructed whole interference for emulation in a test environment.
A vacuum cleaner comprising: a dust collection container (210; 710; 910) for storing dust; a compression member (270; 720) that is provided in the dust collection container to be capable of rotating in first and second directions; and a driving unit (400; 800) for rotating the compression member, wherein the compression member (270; 720) is configured for rotating in a first space corresponding to a first angle range (θ1), and a second space corresponding to a second angle range (360-θ1) is configured for storing at least a portion of the dust therein, characterized in that the dust collection container (210; 710; 910) comprises a plurality of contacting portions (218a, 219a; 712, 714; 912, 914) configured for contacting the compression member (270; 720) as the compression member rotates, the plurality of the contacting portions forming an angle corresponding to the first angle range (θ1) with respect to a rotational axis of the compression member, wherein the compression member (270; 720) is configured to change its rotational direction when the compression member contacts one of the contacting portions (218a, 219a; 712, 714; 912, 914). a dust collection container (210; 710; 910) for storing dust; a compression member (270; 720) that is provided in the dust collection container to be capable of rotating in first and second directions; and a driving unit (400; 800) for rotating the compression member,
A non-oriented electrical steel sheet having a chemical composition comprising C: not more than 0.0050 mass%, Si: more than 1.5 mass% but not more than 5.0 mass%, Mn: not more than 0.10 mass%, sol. Al: not more than 0.0050 mass%, P: more than 0.040 mass% but not more than 0.2 mass%, S: not more than 0.0050 mass%, N: not more than 0.0040 mass% and Ca: 0.001-0.01 mass% and the remainder being Fe and inevitable impurities, in which a compositional ratio of CaO in oxide-based inclusions existing in a steel sheet defined by the following equation: CaO/(SiO 2 + Al 2 O 3 + CaO) is not less than 0.4 and/or a compositional ratio of Al 2 O 3 defined by the following equation: Al 2 O 3 /(SiO 2 + Al 2 O 3 + CaO) is not less than 0.3.
Method for accessing a peripheral device via a wide area communication network, said method comprising: - receiving, by a control device, a datum indicating that the peripheral device is connected by means of a serial interface to an access device having access to the wide area communication network; - sending (E4, E44), to a host device (21, 22), by means of the control device, a command to associate with said peripheral device by means of an address associated with the access device, the execution of the association command triggering the sending, by the host device to the access device, of a command to outsource resources of the peripheral device, and said association allowing remote access by said host device via the access device in order to operate the peripheral device by means of a driver for the peripheral device, which is installed on the host device. - receiving, by a control device, a datum indicating that the peripheral device is connected by means of a serial interface to an access device having access to the wide area communication network; - sending (E4, E44), to a host device (21, 22), by means of the control device, a command to associate with said peripheral device by means of an address associated with the access device, the execution of the association command triggering the sending, by the host device to the access device, of a command to outsource resources of the peripheral device, and said association allowing remote access by said host device via the access device in order to operate the peripheral device by means of a driver for the peripheral device, which is installed on the host device.
A building wall, comprising several cuboid bar-type supporting frameworks, wherein one cuboid bar-type supporting framework has several nodes and bars connecting the nodes for forming a frame, wherein the cuboid bar-type supporting framework is filled with a filling material that is different from the material of the bar-type supporting framework, characterized in that each bar has at least one fillet (11, 12) extending in the longitudinal direction of the bar, wherein the respective fillet (11, 12) extends into the node, and that, as compared to the material of the bar-type supporting frame, the filling material is configured as a heat insulating and/or sound insulating and/or heat storing material.
A use of a microwave resonator for the online testing of LIP strips in paper, which is fed to a tobacco processing unit of a cigarette machine, wherein a shift in the resonance frequency or a broadening of the resonance curve is detected by the microwave resonator, in order to detect an LIP strip, wherein a distance between two neighboring LIP strips is compared with a predetermined distance value and a warning signal is generated when a maximum distance is exceeded or a minimum distance is fallen short of.
Main Transmission Point, TP, for wireless connection, characterized in that the main TP comprises: a sending unit, configured to send a connection indication to a User Equipment, UE, the connection indication being used to indicate the UE to establish a connection with at least one sub TP on the premise of keeping a current connection with the main TP; an acquisition unit configured to acquire related information of at least one sub TP; and a selection unit configured to acquire basic information of the at least one sub TP through the UE, wherein the sending unit is further configured to send the related information of the sub TP to the UE together with the connection indication. a sending unit, configured to send a connection indication to a User Equipment, UE, the connection indication being used to indicate the UE to establish a connection with at least one sub TP on the premise of keeping a current connection with the main TP; an acquisition unit configured to acquire related information of at least one sub TP; and a selection unit configured to acquire basic information of the at least one sub TP through the UE, wherein the sending unit is further configured to send the related information of the sub TP to the UE together with the connection indication.
A computer-implemented method for transmitting outbound data to a remote device via a meta-transceiver, the meta-transceiver comprising two or more instances of a digital transceiver, a data stream switch, and an antenna subsystem, the method comprising: determining that the outbound data should be transmitted; selecting at least one radio frequency "RF" channel for transmitting the outbound data, wherein the at least one RF channel is selected from a set of two or more RF channels based on a set of transmission requirements for the at least one RF channel, wherein each RF channel in the set of two or more RF channels is associated with an instance of the digital transceiver configured to receive and transmit data via the RF channel; and transmitting the outbound data to the remote device via the at least one RF channel; wherein the set of transmission requirements for the at least one channel includes modulation techniques. determining that the outbound data should be transmitted; selecting at least one radio frequency "RF" channel for transmitting the outbound data, wherein the at least one RF channel is selected from a set of two or more RF channels based on a set of transmission requirements for the at least one RF channel, wherein each RF channel in the set of two or more RF channels is associated with an instance of the digital transceiver configured to receive and transmit data via the RF channel; and transmitting the outbound data to the remote device via the at least one RF channel; wherein the set of transmission requirements for the at least one channel includes modulation techniques.