mhurhangee/ep-ind-claims huggingface dataset:
A method of repairing an acoustic panel comprising: removing a damaged section of an acoustic panel; laying up a plurality of composite plies into a replacement patch on a bond tool; coupling a maskant to the replacement patch; blasting first perforations in a core portion of the replacement patch; placing a fiberglass ply on the acoustic panel; creating dimples in the fiberglass ply corresponding to second perforations in a top skin of the acoustic panel; transferring the fiberglass ply to the replacement patch; sanding off the dimples; drilling third perforations in a ramp section of the replacement patch; and coupling the replacement patch to the acoustic panel. removing a damaged section of an acoustic panel; laying up a plurality of composite plies into a replacement patch on a bond tool; coupling a maskant to the replacement patch; blasting first perforations in a core portion of the replacement patch; placing a fiberglass ply on the acoustic panel; creating dimples in the fiberglass ply corresponding to second perforations in a top skin of the acoustic panel; transferring the fiberglass ply to the replacement patch; sanding off the dimples; drilling third perforations in a ramp section of the replacement patch; and coupling the replacement patch to the acoustic panel.
A method that facilitates performing measurements in multicarrier operation, the method comprising: selecting a subset of cells from a plurality of cells, wherein the subset of cells includes at least one serving cell and at least one non-serving cell, wherein the at least one serving cell is selected from any of a set of serving cells associated with a wireless terminal, and wherein the at least one non-serving cell is selected from any of a set of non-serving cells associated with a non-serving frequency; evaluating the subset of cells, wherein the evaluating comprises obtaining a first measurement associated with the at least one serving cell and a second measurement associated with the at least one non-serving cell; monitoring an occurrence of a measurement event, wherein the measurement event is based on a comparison between the first measurement and the second measurement, wherein the monitoring comprises detecting a subsequent occurrence of a first performance parameter associated with the at least one non-serving cell exceeding a second performance parameter associated with any of the set of serving cells; and transmitting a measurement report, wherein the transmitting is triggered by the occurrence of the measurement event, wherein the transmitting further comprises suppressing a subsequent measurement report transmission associated with the subsequent occurrence. selecting a subset of cells from a plurality of cells, wherein the subset of cells includes at least one serving cell and at least one non-serving cell, wherein the at least one serving cell is selected from any of a set of serving cells associated with a wireless terminal, and wherein the at least one non-serving cell is selected from any of a set of non-serving cells associated with a non-serving frequency; evaluating the subset of cells, wherein the evaluating comprises obtaining a first measurement associated with the at least one serving cell and a second measurement associated with the at least one non-serving cell; monitoring an occurrence of a measurement event, wherein the measurement event is based on a comparison between the first measurement and the second measurement, wherein the monitoring comprises detecting a subsequent occurrence of a first performance parameter associated with the at least one non-serving cell exceeding a second performance parameter associated with any of the set of serving cells; and transmitting a measurement report, wherein the transmitting is triggered by the occurrence of the measurement event, wherein the transmitting further comprises suppressing a subsequent measurement report transmission associated with the subsequent occurrence.
A device for detecting a contaminant on a scaffolding pole, wherein the device comprises: an outer detector for detecting a contaminant on an outer surface of a scaffolding pole; an inner detector for detecting a contaminant on an inner surface of a scaffolding pole; and a mechanism (8, 9, 10) for transporting a scaffolding pole longitudinally through the device past the outer detector and past the inner detector; wherein the outer detector is arranged to extend substantially around the circumference of a scaffolding pole, such that the whole of the outer surface of the scaffolding pole is surveyed as it is transported through the device. an outer detector for detecting a contaminant on an outer surface of a scaffolding pole; an inner detector for detecting a contaminant on an inner surface of a scaffolding pole; and a mechanism (8, 9, 10) for transporting a scaffolding pole longitudinally through the device past the outer detector and past the inner detector; wherein the outer detector is arranged to extend substantially around the circumference of a scaffolding pole, such that the whole of the outer surface of the scaffolding pole is surveyed as it is transported through the device.
A process for producing aluminium alloy sheet having a roughened surface which process comprises the steps of providing an aluminium alloy sheet the surface of which has been subjected to anodising conditions to form on the said surface an aluminium oxide barrier layer having a barrier layer thickness in the range of from 10 to 50nm, and treating the aluminium oxide barrier layer with an aqueous solution of alkali at temperature of 35°C to 80°C for a period of time sufficient to remove entirely said barrier layer from the alloy surface thereby leaving a roughened surface on the alloy sheet.
A simulation system for simulating a performance of at least one storage unit of an energy storage, wherein the simulation system comprises: at least a respective model for a respective storage unit of the energy storage, the storage unit being assigned to the model, wherein the model includes an encoder-decoder model having an encoder (330, 332) and a decoder (336, 338), wherein the encoder-decoder model includes at least one recurrent neural network or at least one neural network having a transformer architecture, wherein the encoder (330, 332) is configured for processing an encoder input sequence that describes a measured temporal course of current and voltage, or of power and voltage of the storage unit that is assigned to the model, wherein the processing of the encoder input sequence includes generating an initial state of the model from the encoder input sequence, and wherein the decoder (336, 338) is configured for processing a decoder input sequence while starting from the initial state of the model, the decoder input sequence describing a temporal course that is to be simulated of the current or of the power of the storage unit that is assigned to the model, wherein the processing of the decoder input sequence includes generating a decoder output sequence from the decoder input sequence while starting from the initial state of the model, the decoder output sequence describing a simulated temporal course of the voltage of the storage unit that is assigned to the model. at least a respective model for a respective storage unit of the energy storage, the storage unit being assigned to the model, wherein the model includes an encoder-decoder model having an encoder (330, 332) and a decoder (336, 338), wherein the encoder-decoder model includes at least one recurrent neural network or at least one neural network having a transformer architecture, wherein the encoder (330, 332) is configured for processing an encoder input sequence that describes a measured temporal course of current and voltage, or of power and voltage of the storage unit that is assigned to the model, wherein the processing of the encoder input sequence includes generating an initial state of the model from the encoder input sequence, and wherein the decoder (336, 338) is configured for processing a decoder input sequence while starting from the initial state of the model, the decoder input sequence describing a temporal course that is to be simulated of the current or of the power of the storage unit that is assigned to the model, wherein the processing of the decoder input sequence includes generating a decoder output sequence from the decoder input sequence while starting from the initial state of the model, the decoder output sequence describing a simulated temporal course of the voltage of the storage unit that is assigned to the model.
A hearing instrument (110, 150, 160, 170) comprising: a microphone for reception of sound and conversion of the received sound into a corresponding first audio signal, a signal processor for processing the first audio signal into a second audio signal compensating a hearing loss of a user of the hearing instrument (110, 150, 160, 170), a speaker connected to an output of the signal processor for converting the second audio signal into an output sound signal, a wireless communication unit (8, 20) connected to the signal processor for wireless communication, the wireless communication unit (8, 20) being interconnected with an antenna structure for emission and reception of an electromagnetic field, the antenna structure comprising: an antenna element (24, 44, 64, 74) having a first end (21, 41, 61, 71) and a second end (23, 43, 63, 73), wherein the first end (21, 41, 61, 71) is connected to a feed of the antenna structure, a controllable component (36, 46, 56, 76) being configured to change one or more characteristica of the antenna structure, CHRACTARISED in that the controllable component (36, 46, 56, 76) is provided between the first end (21, 41, 61, 71) of the antenna element (24, 44, 64, 74) and the second end (23, 43, 63, 73) of the antenna element (24, 44, 64, 74). a microphone for reception of sound and conversion of the received sound into a corresponding first audio signal, a signal processor for processing the first audio signal into a second audio signal compensating a hearing loss of a user of the hearing instrument (110, 150, 160, 170), a speaker connected to an output of the signal processor for converting the second audio signal into an output sound signal, a wireless communication unit (8, 20) connected to the signal processor for wireless communication, the wireless communication unit (8, 20) being interconnected with an antenna structure for emission and reception of an electromagnetic field, the antenna structure comprising: an antenna element (24, 44, 64, 74) having a first end (21, 41, 61, 71) and a second end (23, 43, 63, 73), wherein the first end (21, 41, 61, 71) is connected to a feed of the antenna structure, a controllable component (36, 46, 56, 76) being configured to change one or more characteristica of the antenna structure, CHRACTARISED in that the controllable component (36, 46, 56, 76) is provided between the first end (21, 41, 61, 71) of the antenna element (24, 44, 64, 74) and the second end (23, 43, 63, 73) of the antenna element (24, 44, 64, 74). an antenna element (24, 44, 64, 74) having a first end (21, 41, 61, 71) and a second end (23, 43, 63, 73), wherein the first end (21, 41, 61, 71) is connected to a feed of the antenna structure, a controllable component (36, 46, 56, 76) being configured to change one or more characteristica of the antenna structure, CHRACTARISED in that the controllable component (36, 46, 56, 76) is provided between the first end (21, 41, 61, 71) of the antenna element (24, 44, 64, 74) and the second end (23, 43, 63, 73) of the antenna element (24, 44, 64, 74).
10H-benzo(g)pteridine-2,4-dione derivate, wherein the 10H-benzo(g)pteridine-2,4-dione derivate is selected from the group which consists of compounds with the formulas and to and to:
Sensor unit, comprising sensor constituent parts of various sensor devices and also at least one printed circuit board which has voltage supply and signal transmission components for the sensor constituent parts, wherein the sensor constituent parts are connected to the printed circuit board, wherein the sensor unit has an annular base body which receives the sensor constituent parts and also the at least one printed circuit board, characterized in that the various sensor devices have at least one torque sensor device, wherein, as a sensor constituent part of the torque sensor device, an annular signal receiver is positioned on the inner periphery of the base body.
A key lock device for a circuit breaker adapted to be fixed onto a panel of a switching mechanism of the circuit breaker, characterized in that said key lock device comprises: a plurality of key bodies (361, 362) respectively provided with a key insertion hole into which a key is insertable; a plurality of hooks (380a, 380b) connected to the plurality of key bodies (361, 362), respectively, to be rotated by a rotation of a key; a lock member connected to the plurality of hooks (380a, 380b), respectively, to be linearly moved by their rotation for locking or releasing the locked state of the circuit breaker; and a spring elastically supporting the lock member, wherein the lock member comprises: a body; a plurality of contact portions (392, 393) sequentially formed in a direction extended from the body and contacted with the plurality of hooks (380a, 380b) to cooperate with the plurality of hooks (380a, 380b); a spring portion to support the spring; and a lock portion extended to the lower side of the spring sheet by being inserted into the spring and moved by the rotation of the plurality of hooks (380a, 380b) for switching off the circuit breaker. a plurality of key bodies (361, 362) respectively provided with a key insertion hole into which a key is insertable; a plurality of hooks (380a, 380b) connected to the plurality of key bodies (361, 362), respectively, to be rotated by a rotation of a key; a lock member connected to the plurality of hooks (380a, 380b), respectively, to be linearly moved by their rotation for locking or releasing the locked state of the circuit breaker; and a spring elastically supporting the lock member, a body; a plurality of contact portions (392, 393) sequentially formed in a direction extended from the body and contacted with the plurality of hooks (380a, 380b) to cooperate with the plurality of hooks (380a, 380b); a spring portion to support the spring; and a lock portion extended to the lower side of the spring sheet by being inserted into the spring and moved by the rotation of the plurality of hooks (380a, 380b) for switching off the circuit breaker.
A method for controlling a computer based system by using gestures, the computer based system comprising a controller, at least one computer based target application (6, 8, 9), means for recognising performed gestures, and a gesture sensor controlled by a computer based gesture sensor application that is configured to adopt different modes, the controller being connected with or co-operating with the at least one computer based target application and the computer based gesture sensor application, the method comprising the steps of: the computer based gesture sensor application being in an idle mode and being brought into an activation mode in response to the gesture sensor receiving an activation gesture, the idle mode being a mode in which only the activation gesture is recognised and the activation mode allowing the gesture sensor to receive a predefined number of arbitrary input gestures, the gesture sensor receiving the predefined number of arbitrary input gestures, the computer based gesture sensor application forwarding the predefined number of arbitrary input gestures to the controller, the controller instructing the at least one computer based target application to adapt according to the predefined number of arbitrary input gestures, and the controller then automatically assigning the idle mode to the computer based gesture sensor application, characterised in that the predefined number is greater than one. the computer based gesture sensor application being in an idle mode and being brought into an activation mode in response to the gesture sensor receiving an activation gesture, the idle mode being a mode in which only the activation gesture is recognised and the activation mode allowing the gesture sensor to receive a predefined number of arbitrary input gestures, the gesture sensor receiving the predefined number of arbitrary input gestures, the computer based gesture sensor application forwarding the predefined number of arbitrary input gestures to the controller, the controller instructing the at least one computer based target application to adapt according to the predefined number of arbitrary input gestures, and the controller then automatically assigning the idle mode to the computer based gesture sensor application, characterised in that the predefined number is greater than one.
A method of inspecting and/or repairing a component (38,42) in an assembled apparatus, the method comprising the steps of (a) inserting a boroscope and a conduit through an aperture (52,56) in a casing (50,54) of the apparatus, the conduit having an applicator tip, (b) directing the boroscope and the conduit to a component (38,42) to be inspected and/or repaired, (c) supplying a liquid through the conduit to the applicator tip, (d) supplying the liquid onto a surface of the component (38,42), characterised in that step (d) comprises contacting the surface of the component (38,42) with the applicator tip, the applicator tip comprising a porous and malleable member and providing a restriction (71, 70A) in the conduit or the applicator tip to restrict the flow of liquid.
A station, STA, for transmitting in a wireless local area network, WLAN, the STA comprising: a controller; and a transceiver configured to: receive, from an access point, AP (101, 103), a channel sounding sequence including a null data packet announcement frame, NDPA, including information indicating STAs to transmit a feedback report and information indicating that the feedback report should include an index of a selected resource unit and a signal to noise ratio, SNR, value averaged over data subcarriers in the selected resource unit for each spatial stream, a null data packet, NDP, containing pilots to compute the feedback, and a trigger frame, TF, to trigger transmission of the feedback report, and transmit the feedback report to the AP (101, 103) in response to receipt of the TF. a controller; and a transceiver configured to: receive, from an access point, AP (101, 103), a channel sounding sequence including a null data packet announcement frame, NDPA, including information indicating STAs to transmit a feedback report and information indicating that the feedback report should include an index of a selected resource unit and a signal to noise ratio, SNR, value averaged over data subcarriers in the selected resource unit for each spatial stream, a null data packet, NDP, containing pilots to compute the feedback, and a trigger frame, TF, to trigger transmission of the feedback report, and transmit the feedback report to the AP (101, 103) in response to receipt of the TF. receive, from an access point, AP (101, 103), a channel sounding sequence including a null data packet announcement frame, NDPA, including information indicating STAs to transmit a feedback report and information indicating that the feedback report should include an index of a selected resource unit and a signal to noise ratio, SNR, value averaged over data subcarriers in the selected resource unit for each spatial stream, a null data packet, NDP, containing pilots to compute the feedback, and a trigger frame, TF, to trigger transmission of the feedback report, and transmit the feedback report to the AP (101, 103) in response to receipt of the TF.
A device comprising: a micronozzle array including: a linear array having a plurality of depositors connected in series, wherein a first depositor of the plurality of depositors borders a second depositor on a least one side boundary; and characterized in that the micronozzle array includes a plurality of orifice arrays, wherein a width of each orifice in the plurality of orifice arrays is 20 μm or less in a minor axis of its cross section to flow, to regulate flow through a delivery gas distribution channel and a plurality of exhaust distribution channels, wherein the delivery gas distribution channel and at least one of the plurality of exhaust distribution channels have separate fluid communication with each of the plurality of depositors. a micronozzle array including: a linear array having a plurality of depositors connected in series, wherein a first depositor of the plurality of depositors borders a second depositor on a least one side boundary; and characterized in that the micronozzle array includes a plurality of orifice arrays, wherein a width of each orifice in the plurality of orifice arrays is 20 μm or less in a minor axis of its cross section to flow, to regulate flow through a delivery gas distribution channel and a plurality of exhaust distribution channels, wherein the delivery gas distribution channel and at least one of the plurality of exhaust distribution channels have separate fluid communication with each of the plurality of depositors.
A device (100, 200', 200", 300, 400) for detecting the contact between a user and a steering wheel of a vehicle, the device (100, 200', 200", 300, 400) comprising: - an electrically insulating support; - a first electrically conductive track (101, 201, 301, 401) fastened to the support and comprising a plurality of first peaks alternated with a plurality of first troughs along a direction, characterized in that the first track (101, 201, 301, 401) is distributed over the support so that the surface of the first track (101, 201, 301, 401) adapted to come into contact with a user's hand decreases along said direction. - an electrically insulating support; - a first electrically conductive track (101, 201, 301, 401) fastened to the support and comprising a plurality of first peaks alternated with a plurality of first troughs along a direction,
Use of an access control gate with mechanical guidance to form one or more access lanes for patrons at an entrance of a ski lift, said access control gate comprising first electronic means including a contactless access reader which is connected to a software controlled verification system to identify the access right of patrons, second means comprising two motor driven flaps which protrude from left and right of the lateral lane boundaries into the access lane thereby forming the closed gate threshold, wherein the contactless access reader is arranged to capture the access right of the approaching patron short before he approaches the gate threshold, that verification system activates the flaps (7 and 7') when an access right has been approved to swing out of the lane in the approach direction to indicate to the approaching patron the granted access right, and third means to detect the passage of patrons through the gate threshold comprising two or more photoelectric barriers (10 and 10'), whose detecting beams are distant from each other, and directed to the lane zone behind the gate threshold, thereby initiating the flaps (7, 7') to close the lane, wherein the flaps (7, 7') are pivotally mounted on upright supports (2, 2') and each of the flaps (7, 7') extend in the closed position about half of the lane width into the lane, said access control gate further comprising bearings mounted on the upright support to pivot each flap (7, 7') on a upright axis, a gearbox to turn the flaps (7, 7') from the closed to the open position and vice versa, a position sensor to detect the open and the closed position of the flaps (7, 7'), and two or more photoelectric barriers (10, 10') to detect the passage of the patron but to blank out the unintentional screening of only one of the photoelectric barriers.