mhurhangee/ep-ind-claims huggingface dataset:
A macromolecule sequencing device comprising: a measurement module suitable for receiving a nanopore-containing bilayer membrane to separate a first volume from a second volume within the measurement module; a first module inlet fluidly coupled to the first volume; a second module inlet fluidly coupled to the second volume; a first channel fluidly coupled to the first module inlet, wherein the first channel comprises a first channel inlet and a second channel inlet; a second channel fluidly coupled to the second module inlet, wherein the second channel comprises a third channel inlet and a fourth channel inlet; a first valve assembly configured to control bidirectional flow of a first solution in the first channel; and a second valve assembly configured to control bidirectional flow of a second solution in the second channel, the macromolecule sequencing device being characterised in that the first channel is configured to be fluidly coupled to the second channel such that a sequenced macromolecule in the second volume can enter the second channel, be directed into the first channel and reintroduced into the first volume of the same measurement module or introduced into a first volume of a different measurement module of the same macromolecule sequencing device. a measurement module suitable for receiving a nanopore-containing bilayer membrane to separate a first volume from a second volume within the measurement module; a first module inlet fluidly coupled to the first volume; a second module inlet fluidly coupled to the second volume; a first channel fluidly coupled to the first module inlet, wherein the first channel comprises a first channel inlet and a second channel inlet; a second channel fluidly coupled to the second module inlet, wherein the second channel comprises a third channel inlet and a fourth channel inlet; a first valve assembly configured to control bidirectional flow of a first solution in the first channel; and a second valve assembly configured to control bidirectional flow of a second solution in the second channel, the macromolecule sequencing device being characterised in that the first channel is configured to be fluidly coupled to the second channel such that a sequenced macromolecule in the second volume can enter the second channel, be directed into the first channel and reintroduced into the first volume of the same measurement module or introduced into a first volume of a different measurement module of the same macromolecule sequencing device.
A placeholder for implantation in a human or animal body, the placeholder comprising: a first tubular body having a jacket surface with a plurality of openings for in-growth of adjacent tissue; at least a second tubular body having a jacket surface with a plurality of openings, the second tubular body being disposed inside the first tubular body, with the ends of the tubular bodies being aligned to form a multi-walled placeholder, characterized in that the second body is arranged directly or via one or more connecting elements in the first body by means of press fit or force fit, wherein the outer circumference of the second body or second bodies is larger than the inner dimension of the first body or of a connecting element in which the second body or second bodies are received by means of press fit or force fit. a first tubular body having a jacket surface with a plurality of openings for in-growth of adjacent tissue; at least a second tubular body having a jacket surface with a plurality of openings, the second tubular body being disposed inside the first tubular body, with the ends of the tubular bodies being aligned to form a multi-walled placeholder, characterized in that the second body is arranged directly or via one or more connecting elements in the first body by means of press fit or force fit, wherein the outer circumference of the second body or second bodies is larger than the inner dimension of the first body or of a connecting element in which the second body or second bodies are received by means of press fit or force fit.
An optical fiber connecting housing, comprising a housing body provided with at least one fastening opening allowing the fastening of the housing body to a fastening support using a fastening means, as well as a lid able to cover the housing body, characterized in that the lid comprises at least one passage opening associated with a fastening opening of the housing body, each passage opening of the lid allowing the passage of said fastening means from the outside of the housing toward its associated fastening opening of the housing body, and in that the lid removably covers the housing body, such that it is possible to remove the lid when the housing body is fastened to the fastening support.
A receptacle configured to be positioned in a wall of an electrical device, the receptacle comprising: a first set of electrical contacts; and a channel comprising a first angled surface, the first angled surface being at a non-parallel and non-perpendicular or an acute angle with respect to a coupling or longitudinal axis of the receptacle, wherein the channel surrounds the first set of electrical contacts; the receptacle further being configured to removably engage with a connector along the coupling axis, the connector comprising a second set of electrical contacts and a boss having a second angled surface; and the first angled surface of the receptacle being configured to interface with the second angled surface of the connector as the connector is moved into engagement with the receptacle, thereby guiding the connector into the receptacle such that the first and second sets of electrical contacts are in electrical communication with each other.
A kit of parts for assembling an aircraft seat unit, the kit of parts comprising: - a frame provided with a slot (131, 132), - a panel (111, 121) configured to form at least part of a shell (110, 120) of the aircraft seat unit once assembled and at least partially defining a footprint of the aircraft seat unit once assembled, the panel having a first end (111a, 121a) and a second opposite end (112b, 122b), characterised in that the first end is configured to be slid in and out of the frame slot so as to provide a variable dimension from the frame to the second opposite end of the panel, such that the aircraft seat unit once assembled has a variable dimension, and wherein the kit of parts further comprises a fixing mechanism for fixing the panel within the frame slot, in a configuration providing a desired value of the aircraft seat unit variable dimension once assembled. - a frame provided with a slot (131, 132), - a panel (111, 121) configured to form at least part of a shell (110, 120) of the aircraft seat unit once assembled and at least partially defining a footprint of the aircraft seat unit once assembled, the panel having a first end (111a, 121a) and a second opposite end (112b, 122b),
Method for controlling at least one measurements by a base node of a cellular network, the base node serving at least one low-capability wireless terminal in an open connection in coverage enhancement mode, the low-capability wireless terminal being an NB-IoT or eMTC device, and the coverage enhancement mode being the repeated reception or transmission of information to overcome high coupling loss between transmitter and receiver accumulation, the method comprising the steps of: - determining the coverage enhancement level of said wireless terminal, the coverage enhancement level being directly related to a repetition number or class of repetitions needed to decode a data packet from the low capability wireless terminal, - estimating a measurement time for carrying out said at least one measurement taking into account said coverage enhancement level, - sending a measurement request message in conjunction with a suspend connection message to the wireless terminal, - providing a resume indication to the wireless terminal considering said estimated measurement time, - retrieving at least one measurement response message from the wireless terminal comprising the at least one requested measurement. - determining the coverage enhancement level of said wireless terminal, the coverage enhancement level being directly related to a repetition number or class of repetitions needed to decode a data packet from the low capability wireless terminal, - estimating a measurement time for carrying out said at least one measurement taking into account said coverage enhancement level, - sending a measurement request message in conjunction with a suspend connection message to the wireless terminal, - providing a resume indication to the wireless terminal considering said estimated measurement time, - retrieving at least one measurement response message from the wireless terminal comprising the at least one requested measurement.
A current protection system for an energy storage system, comprising: a plurality of batteries connected in parallel; a plurality of battery control units, each battery control unit being electrically connected to a respective one of the plurality of batteries, wherein each battery control unit comprises a battery current measurement unit; a battery connection panel connecting the battery control units to one connection point, the battery connection panel having a contact point current measurement unit; a power conditioning system connected to the battery connection panel, the power conditioning system being configured to convert electrical characteristics so as to receive electrical energy from an electricity generation device to charge the battery, or to emit energy stored in the battery to an electric power system; and a control unit configured to sum current values respectively measured by the battery current measurement units and a current value measured by the contact point current measurement unit, 131) and to detect a presence of an internal short circuit based on the sum, wherein an internal short circuit is a short circuit between the plurality of battery control units and the battery connection panel, and wherein the contact point measurement unit is configured to measure a current between the connection point and the power conditioning system. a plurality of batteries connected in parallel; a plurality of battery control units, each battery control unit being electrically connected to a respective one of the plurality of batteries, wherein each battery control unit comprises a battery current measurement unit; a battery connection panel connecting the battery control units to one connection point, the battery connection panel having a contact point current measurement unit; a power conditioning system connected to the battery connection panel, the power conditioning system being configured to convert electrical characteristics so as to receive electrical energy from an electricity generation device to charge the battery, or to emit energy stored in the battery to an electric power system; and a control unit configured to sum current values respectively measured by the battery current measurement units and a current value measured by the contact point current measurement unit, 131) and to detect a presence of an internal short circuit based on the sum, wherein an internal short circuit is a short circuit between the plurality of battery control units and the battery connection panel, and
Method for wirelessly transmitting energy, in which case energy is wirelessly transmitted from a primary device to an implantable secondary device, wherein the secondary device is behind a physical boundary surface as viewed from the primary device and comprises a load, wherein the load is a drive for an actuator, which is designed to be implantable, or wherein the load is an actuator, which is designed to be implantable, and in which case the primary device comprises a primary coil and the secondary device comprises a secondary coil for electromagnetic interaction with the primary coil, with a control process which comprises: - measuring a primary current flowing through the primary coil and a primary voltage applied to the primary coil, - calculating a secondary current of the secondary coil and a secondary voltage of the secondary coil on the basis of the measured primary current and the measured primary voltage, - comparing the calculated secondary current with a desired secondary current and/or the calculated secondary voltage with a desired secondary voltage, - predefining a desired primary current and a desired primary voltage on the basis of the comparison, and - operating the primary coil with the desired primary voltage and the desired primary current in order to transmit energy to the secondary coil. - measuring a primary current flowing through the primary coil and a primary voltage applied to the primary coil, - calculating a secondary current of the secondary coil and a secondary voltage of the secondary coil on the basis of the measured primary current and the measured primary voltage, - comparing the calculated secondary current with a desired secondary current and/or the calculated secondary voltage with a desired secondary voltage, - predefining a desired primary current and a desired primary voltage on the basis of the comparison, and - operating the primary coil with the desired primary voltage and the desired primary current in order to transmit energy to the secondary coil.
A method for applying configuration, comprising: receiving configuration commands sent by an Auto-Configuration Server, ACS; performing configuration according to the configuration commands; and applying the configuration according to a configuration application policy, characterized in that the configuration application policy comprises at least one time window according to an urgency degree of the configuration to be applied and further comprises an application scope of the configuration application policy, wherein the application scope defines, to which of the configuration commands the configuration application policy is directed, and covers one of: applying configuration in a single Remote Procedure Call, RPC; applying all configurations in a single session; applying all unapplied configurations in a Customer Premises Equipment, CPE; and applying configuration generated by the ACS. receiving configuration commands sent by an Auto-Configuration Server, ACS; performing configuration according to the configuration commands; and applying the configuration according to a configuration application policy, characterized in that the configuration application policy comprises at least one time window according to an urgency degree of the configuration to be applied and further comprises an application scope of the configuration application policy, wherein the application scope defines, to which of the configuration commands the configuration application policy is directed, and covers one of: applying configuration in a single Remote Procedure Call, RPC; applying all configurations in a single session; applying all unapplied configurations in a Customer Premises Equipment, CPE; and applying configuration generated by the ACS. applying configuration in a single Remote Procedure Call, RPC; applying all configurations in a single session; applying all unapplied configurations in a Customer Premises Equipment, CPE; and applying configuration generated by the ACS.
A system for enhancing an engine wash routine by selecting an engine wash type, the system comprising: one or more memory devices; and one or more processors configured to: receive first engine history data; compare the first engine history data to expected engine history data; determine an expected effectiveness of a plurality of engine wash types, wherein each of the plurality of engine wash types comprises a cleaning medium, based on comparing the first engine history data to the expected engine history data by: determining when a number of engine cycles exceeds a predetermined threshold; and when the number of engine cycles exceeds the predetermined threshold, determining that the engine wash type comprises a foam clean; select one of the plurality of engine wash types based on the expected effectiveness of the plurality of engine wash types and the result of the determination; and transmit a signal indicative of a notification of the selected engine wash type. one or more memory devices; and one or more processors configured to: receive first engine history data; compare the first engine history data to expected engine history data; determine an expected effectiveness of a plurality of engine wash types, wherein each of the plurality of engine wash types comprises a cleaning medium, based on comparing the first engine history data to the expected engine history data by: determining when a number of engine cycles exceeds a predetermined threshold; and when the number of engine cycles exceeds the predetermined threshold, determining that the engine wash type comprises a foam clean; select one of the plurality of engine wash types based on the expected effectiveness of the plurality of engine wash types and the result of the determination; and transmit a signal indicative of a notification of the selected engine wash type. receive first engine history data; compare the first engine history data to expected engine history data; determine an expected effectiveness of a plurality of engine wash types, wherein each of the plurality of engine wash types comprises a cleaning medium, based on comparing the first engine history data to the expected engine history data by: determining when a number of engine cycles exceeds a predetermined threshold; and when the number of engine cycles exceeds the predetermined threshold, determining that the engine wash type comprises a foam clean; determining when a number of engine cycles exceeds a predetermined threshold; and when the number of engine cycles exceeds the predetermined threshold, determining that the engine wash type comprises a foam clean; select one of the plurality of engine wash types based on the expected effectiveness of the plurality of engine wash types and the result of the determination; and transmit a signal indicative of a notification of the selected engine wash type.
A monitoring system, comprising: an output module adapted to generate a control signal in response to an input signal; a monitoring module adapted to generate the input signal for the output module, the monitoring module and the output module being separate modules; an output device adapted to output an output signal in response to the control signal; and a crack-down device for inhibiting the output of the output signal; wherein the output module is adapted to transmit the control signal to the monitoring module, and the monitoring module is adapted to receive the control signal; wherein the monitoring module is adapted to compare the control signal with a control signal to be expected on the basis of the input signal in order to check the control signal for the presence of a discrepancy; characterized in that in the presence of a discrepancy between the control signal and the expected control signal, the monitoring module is adapted to instruct the crack-down device to inhibit the output of the output signal, by sending a crack-down signal to the crack-down device; wherein the crack-down device is adapted to interrupt a control or data path of the output device to inhibit the output of the output signal; and if the control signal corresponds to the expected control signal, the monitoring module is adapted to generate an release signal and to transmit it to the output module, wherein the release signal indicates the release of the output signal. an output module adapted to generate a control signal in response to an input signal; a monitoring module adapted to generate the input signal for the output module, the monitoring module and the output module being separate modules; an output device adapted to output an output signal in response to the control signal; and a crack-down device for inhibiting the output of the output signal; wherein the output module is adapted to transmit the control signal to the monitoring module, and the monitoring module is adapted to receive the control signal; wherein the monitoring module is adapted to compare the control signal with a control signal to be expected on the basis of the input signal in order to check the control signal for the presence of a discrepancy; characterized in that in the presence of a discrepancy between the control signal and the expected control signal, the monitoring module is adapted to instruct the crack-down device to inhibit the output of the output signal, by sending a crack-down signal to the crack-down device; wherein the crack-down device is adapted to interrupt a control or data path of the output device to inhibit the output of the output signal; and if the control signal corresponds to the expected control signal, the monitoring module is adapted to generate an release signal and to transmit it to the output module, wherein the release signal indicates the release of the output signal.
A method for vehicle-to-everything wireless communication, the method comprising: identifying, by a first device configured to communicate using a first radio access technology, RAT, a shared radio frequency spectrum band that is shared between the first device and a second device that is configured to communicate using a second RAT different from the first RAT; generating a preamble for transmission on the shared radio frequency spectrum band, the preamble configured to be decodable by the second device of the second RAT and conveying an indication of a transmission by the first device using the first RAT; and transmitting the preamble prior to the transmission using the first RAT. identifying, by a first device configured to communicate using a first radio access technology, RAT, a shared radio frequency spectrum band that is shared between the first device and a second device that is configured to communicate using a second RAT different from the first RAT; generating a preamble for transmission on the shared radio frequency spectrum band, the preamble configured to be decodable by the second device of the second RAT and conveying an indication of a transmission by the first device using the first RAT; and transmitting the preamble prior to the transmission using the first RAT.