mhurhangee/ep-ind-claims huggingface dataset:
A conformable device system for spatio-temporally electrically interfacing with a brain in a biological environment, the device comprising: a conformable device for spatio-temporally electrically interfacing with a brain tissue, said conformable device comprising: a conformable substrate; a conformable electronic circuit comprising a deformable array of electrodes in electrical communication with a plurality of deformable electrical interconnects, the deformable array of electrodes supported by the conformable substrate; a barrier layer encapsulating at least a portion of the deformable electrical interconnects, wherein the conformable substrate, conformable electronic circuit and the barrier layer provide a net bending stiffness of the device low enough that the device establishes conformal contact with brain tissue in the biological environment; and a controller connected to the conformable electrical circuit to monitor or actuate a spatio-temporal profile over the surface of the brain in electrical contact with the plurality of electrodes, a support material, having a first surface and a second surface opposed to the first surface, wherein the conformable device is bendable and is folded over the support material to provide a two-sided interfacing capability. a conformable device for spatio-temporally electrically interfacing with a brain tissue, said conformable device comprising: a conformable substrate; a conformable electronic circuit comprising a deformable array of electrodes in electrical communication with a plurality of deformable electrical interconnects, the deformable array of electrodes supported by the conformable substrate; a barrier layer encapsulating at least a portion of the deformable electrical interconnects, wherein the conformable substrate, conformable electronic circuit and the barrier layer provide a net bending stiffness of the device low enough that the device establishes conformal contact with brain tissue in the biological environment; and a conformable substrate; a conformable electronic circuit comprising a deformable array of electrodes in electrical communication with a plurality of deformable electrical interconnects, the deformable array of electrodes supported by the conformable substrate; a barrier layer encapsulating at least a portion of the deformable electrical interconnects, wherein the conformable substrate, conformable electronic circuit and the barrier layer provide a net bending stiffness of the device low enough that the device establishes conformal contact with brain tissue in the biological environment; and a controller connected to the conformable electrical circuit to monitor or actuate a spatio-temporal profile over the surface of the brain in electrical contact with the plurality of electrodes, a support material, having a first surface and a second surface opposed to the first surface, wherein the conformable device is bendable and is folded over the support material to provide a two-sided interfacing capability.
A positioning apparatus comprising: a carriage; a rail, for receiving the carriage, having a generally triangular cross section and including a first bearing surface, a second bearing surface and a third bearing surface; a fixed bearing assembly for acting against the third bearing surface; a see-saw bearing assembly, for engaging the first bearing surface, comprising a chassis and an arrangement of cross members and adjusters for centralising the carriage on the rail; and a leaf bearing assembly, for engaging the second bearing surface, comprising a chassis, a leaf spring and adjusters, the leaf spring being arranged between the adjusters; wherein each chassis (103, 110) comprises a plurality of bearing seats (9, 111) at spaced locations and each adjuster (6, 16) includes a set screw and a fixing hole for receiving the set screw which acts upon a ball bearing, which sits at the end of the adjuster (6,16), that is arranged, when the positioning apparatus is locked, to engage with a bearing seat in the chassis (103, 110) in order to lock the carriage, the rail, the fixed bearing assembly, the see-saw bearing assembly and the leaf bearing assembly together. a carriage; a rail, for receiving the carriage, having a generally triangular cross section and including a first bearing surface, a second bearing surface and a third bearing surface; a fixed bearing assembly for acting against the third bearing surface; a see-saw bearing assembly, for engaging the first bearing surface, comprising a chassis and an arrangement of cross members and adjusters for centralising the carriage on the rail; and a leaf bearing assembly, for engaging the second bearing surface, comprising a chassis, a leaf spring and adjusters, the leaf spring being arranged between the adjusters; wherein each chassis (103, 110) comprises a plurality of bearing seats (9, 111) at spaced locations and each adjuster (6, 16) includes a set screw and a fixing hole for receiving the set screw which acts upon a ball bearing, which sits at the end of the adjuster (6,16), that is arranged, when the positioning apparatus is locked, to engage with a bearing seat in the chassis (103, 110) in order to lock the carriage, the rail, the fixed bearing assembly, the see-saw bearing assembly and the leaf bearing assembly together.
A sound reproduction device comprising: a signal processing chain configured to render an acoustic useful signal stored on a storage medium for reproduction to a listener; simulation scenario means configured to provide auditory scenario information for a simulated auditory scenario, the simulated auditory scenario influencing perception, by the listener, of the reproduction of the useful signal and/or defining a useful signal type; a user interface configured to detect reproduction parameter settings from a user which represent an individual preference of the listener in view of the simulated auditory scenario; a signal modifier configured to receive reproduction parameter settings and modify reproduction of the useful signal in dependence on the reproduction parameter settings; and a storage for storing the reproduction parameter setting and the auditory scenario information relative to one another; characterized in that the signal modifier merely influences the reproduction of the useful signal, not the reproduction of an interference noise that is reproduced together with the useful signal within the simulated auditory scenario. a signal processing chain configured to render an acoustic useful signal stored on a storage medium for reproduction to a listener; simulation scenario means configured to provide auditory scenario information for a simulated auditory scenario, the simulated auditory scenario influencing perception, by the listener, of the reproduction of the useful signal and/or defining a useful signal type; a user interface configured to detect reproduction parameter settings from a user which represent an individual preference of the listener in view of the simulated auditory scenario; a signal modifier configured to receive reproduction parameter settings and modify reproduction of the useful signal in dependence on the reproduction parameter settings; and a storage for storing the reproduction parameter setting and the auditory scenario information relative to one another; characterized in that the signal modifier merely influences the reproduction of the useful signal, not the reproduction of an interference noise that is reproduced together with the useful signal within the simulated auditory scenario.
Optical device, in particular a lighting and/or signalling device for a motor vehicle, having an optical axis (y-y) and comprising: - a light source, - a reflector associated with the light source in order to form a light beam, - a rotary assembly arranged to intercept said light beam and able to be rotated, about a rotation axis, between first and second remarkable lighting positions, this rotation axis (z) being in particular substantially perpendicular to the optical axis, this assembly comprising at least first and second shields associated respectively with the first and second lighting positions in order to create a cutoff of the light beam, these shields each comprising at least one edge, these edges being in particular distant from one another by a predetermined angular separation, this assembly furthermore being arranged so as to allow a progressive transition of the lighting between the first and second remarkable lighting positions, - in particular a lens disposed on the path of the light beam that has been intercepted by the rotary assembly, the first shield comprising two edges and the second shield also comprising two edges and, during the rotation from the first lighting position to the second, first of all, in the first remarkable lighting position, the two edges (11, 11a) of the first shield being optically active, then, during the progressive transition, the second edge of the first shield and the first edge of the second shield, and finally, in the second remarkable lighting position, the two edges (12, 12a) of the second shield being optically active; characterised in that the second shield, corresponding for example to an increased-range beam, has a maximum height, measured from the rotation axis, less than the maximum height of the first shield. - a light source, - a reflector associated with the light source in order to form a light beam, - a rotary assembly arranged to intercept said light beam and able to be rotated, about a rotation axis, between first and second remarkable lighting positions, this rotation axis (z) being in particular substantially perpendicular to the optical axis, this assembly comprising at least first and second shields associated respectively with the first and second lighting positions in order to create a cutoff of the light beam, these shields each comprising at least one edge, these edges being in particular distant from one another by a predetermined angular separation, this assembly furthermore being arranged so as to allow a progressive transition of the lighting between the first and second remarkable lighting positions, - in particular a lens disposed on the path of the light beam that has been intercepted by the rotary assembly,
A method, comprising: sensing one or more fiducials disposed along a longitudinal axis of a substrate; generating one or more continuous, periodic fiducial sensor signals based on the sensed fiducials; generating, by an encoder coupled to a substrate transport roller, one or more continuous, periodic movement signals based on movement of the substrate, the movement signals representing an estimated position of the substrate; determining a phase difference between the fiducial sensor signals and the movement signals; and generating an error signal based on the phase difference, the error signal representing a substrate position error of the estimated position of the substrate. sensing one or more fiducials disposed along a longitudinal axis of a substrate; generating one or more continuous, periodic fiducial sensor signals based on the sensed fiducials; generating, by an encoder coupled to a substrate transport roller, one or more continuous, periodic movement signals based on movement of the substrate, the movement signals representing an estimated position of the substrate; determining a phase difference between the fiducial sensor signals and the movement signals; and generating an error signal based on the phase difference, the error signal representing a substrate position error of the estimated position of the substrate.
A localization apparatus, whose position in a localization space can be determined, comprising a movement sensor system with at least one translation sensor and at least one rotation sensor for detecting movement quantities acting on the localization apparatus, in particular linear accelerations and rotational accelerations, and at least one magnetometer device for detecting magnetic field data in the localization space, wherein rotation-invariant magnetic features can be determined from the detected rotation-dependent magnetic field data by means of an internal or external data processing device, a means for determining an absolute position of the localization apparatus in the localization space, and the internal or external data processing device for calculating a position by processing the measurement data of the movement sensor system by using a prestored magnetic field map including magnetic parameters, by using the rotation-invariant magnetic features, of at least parts of the localization space and for processing the determined absolute position, characterized in that for processing the rotation-invariant magnetic features a probabilistic grid-based Bayesian filter can be used for estimating the conditional probability P ( s | m) of the system variables s, namely the position r and/or the orientation o, with respect to the current given magnetic field measurement values m of the magnetometer device. a movement sensor system with at least one translation sensor and at least one rotation sensor for detecting movement quantities acting on the localization apparatus, in particular linear accelerations and rotational accelerations, and at least one magnetometer device for detecting magnetic field data in the localization space, wherein rotation-invariant magnetic features can be determined from the detected rotation-dependent magnetic field data by means of an internal or external data processing device, a means for determining an absolute position of the localization apparatus in the localization space, and the internal or external data processing device for calculating a position by processing the measurement data of the movement sensor system by using a prestored magnetic field map including magnetic parameters, by using the rotation-invariant magnetic features, of at least parts of the localization space and for processing the determined absolute position, characterized in that for processing the rotation-invariant magnetic features a probabilistic grid-based Bayesian filter can be used for estimating the conditional probability P ( s | m) of the system variables s, namely the position r and/or the orientation o, with respect to the current given magnetic field measurement values m of the magnetometer device.
A process of extracting polyester from clothing or plastic bottles using a solvent system comprising a compound according to any of general Formula I, IV, V or VI wherein R 1 and R 2 are each independently selected from: hydrogen, alkyl, alkenyl, alkynyl, aryl or alkoxy groups; R 3 to R 12 are each independently selected from: hydrogen, alkyl, alkenyl, alkynyl, aryl or alkoxy groups; and each of a to e is a carbon atom, wherein the total linear chain length of a-b-c-d-e is in the range of 2 to 5 carbons; R 15 is an aryl group; R 14, R 16, R 17, R 18 and R 19 are each independently selected from hydrogen, alkyl, alkenyl, alkynyl or aryl groups; n is an integer in the range of 1 to 8; m is 3; and I is an integer in the range of 1 to 3; or combination thereof. wherein R 1 and R 2 are each independently selected from: hydrogen, alkyl, alkenyl, alkynyl, aryl or alkoxy groups; R 3 to R 12 are each independently selected from: hydrogen, alkyl, alkenyl, alkynyl, aryl or alkoxy groups; and each of a to e is a carbon atom, wherein the total linear chain length of a-b-c-d-e is in the range of 2 to 5 carbons; R 15 is an aryl group; R 14, R 16, R 17, R 18 and R 19 are each independently selected from hydrogen, alkyl, alkenyl, alkynyl or aryl groups; n is an integer in the range of 1 to 8; m is 3; and I is an integer in the range of 1 to 3; or combination thereof.
An all-laser hybrid additive manufacturing method, wherein after a matrix is obtained by means of selective laser melting forming, a subtractive forming is carried out on the matrix by means of a pulse laser to form a cavity, and the cavity is then packaged to obtain a forming material with an internal cavity structure; wherein, the method comprises the steps of: a) performing selective laser melting by a laser I to obtain a matrix of a metal material; b) etching the matrix obtained in step a) by a laser II to form a groove structure, wherein the laser II is a pulse laser; c) covering the groove structure obtained in step b) with a prefabricated plate, and welding and packaging the prefabricated plate by the laser I to form a microchannel; d) performing selective laser melting forming on the microchannel structure obtained in step c) to obtain a forming material having the microchannel structure; wherein the laser I is a continuous wave infrared laser or a pulse infrared laser, and the laser II comprises a solid pulse laser, a semiconductor pulse laser, a gas pulse laser, and the pulse width of the pulse laser is in a range from 1 femtosecond to 100 milliseconds. wherein, the method comprises the steps of: a) performing selective laser melting by a laser I to obtain a matrix of a metal material; b) etching the matrix obtained in step a) by a laser II to form a groove structure, wherein the laser II is a pulse laser; c) covering the groove structure obtained in step b) with a prefabricated plate, and welding and packaging the prefabricated plate by the laser I to form a microchannel; d) performing selective laser melting forming on the microchannel structure obtained in step c) to obtain a forming material having the microchannel structure; a) performing selective laser melting by a laser I to obtain a matrix of a metal material; b) etching the matrix obtained in step a) by a laser II to form a groove structure, wherein the laser II is a pulse laser; c) covering the groove structure obtained in step b) with a prefabricated plate, and welding and packaging the prefabricated plate by the laser I to form a microchannel; d) performing selective laser melting forming on the microchannel structure obtained in step c) to obtain a forming material having the microchannel structure; wherein the laser I is a continuous wave infrared laser or a pulse infrared laser, and the laser II comprises a solid pulse laser, a semiconductor pulse laser, a gas pulse laser, and the pulse width of the pulse laser is in a range from 1 femtosecond to 100 milliseconds.
Method for providing a user with an authenticated remote access to a remote secure device, said remote access being initiated from a local accessing device, said remote secure device embedding data related to a specific service, said method comprising the steps of: - establishing a secure communication channel between the local accessing device and the remote secure device so as to provide a one way authentication, said local accessing device authenticating the remote secure device; - using a peer application in the remote secure device and a peer application in a local secure device inserted in a user's handset so as the two peer applications negotiate a setup of a mutually authenticated data session between the remote secure device and the local secure device; - transferring by the remote secure device a user interface to the local secure device after the setup of the mutually authenticated data session between the remote secure device and the local secure device; - using said user interface for capturing a PIN code entered by the user on the user's handset and sending back said PIN code to the remote secure device for verification; - granting access by the remote secure device to its secure data to the local accessing device after checking the entered PIN code. - establishing a secure communication channel between the local accessing device and the remote secure device so as to provide a one way authentication, said local accessing device authenticating the remote secure device; - using a peer application in the remote secure device and a peer application in a local secure device inserted in a user's handset so as the two peer applications negotiate a setup of a mutually authenticated data session between the remote secure device and the local secure device; - transferring by the remote secure device a user interface to the local secure device after the setup of the mutually authenticated data session between the remote secure device and the local secure device; - using said user interface for capturing a PIN code entered by the user on the user's handset and sending back said PIN code to the remote secure device for verification; - granting access by the remote secure device to its secure data to the local accessing device after checking the entered PIN code.
A method, comprising: - communicating, on a wireless link between a network node and a communication device, first data at a first data rate (210, 210-1, 210-2), - communicating, on the wireless link, at least one uplink control signal associated with an overheating event at the communication device, and - in response to said communicating of the at least one uplink control signal: communicating, on the wireless link, second data at a second data rate (210, 210-1, 210-2), wherein the second data rate (210, 210-1, 210-2) is different from the first data rate (210, 210-1, 210-2), wherein the uplink control signal is native to the Layer 1 or the Layer 2 of a communication protocol stack of the wireless link, wherein the at least one uplink control signal comprises a sequence of uplink control signals, wherein the method further comprises: - communicating an uplink control message indicative of the overheating event, - triggering said communicating of the sequence of uplink control signals in response to said communicating of the uplink control message; wherein the uplink control message is native to a higher layer of a communication protocol stack of the wireless link if compared to the native layer of the at least one uplink control signal. - communicating, on a wireless link between a network node and a communication device, first data at a first data rate (210, 210-1, 210-2), - communicating, on the wireless link, at least one uplink control signal associated with an overheating event at the communication device, and - in response to said communicating of the at least one uplink control signal: communicating, on the wireless link, second data at a second data rate (210, 210-1, 210-2), wherein the second data rate (210, 210-1, 210-2) is different from the first data rate (210, 210-1, 210-2), wherein the uplink control signal is native to the Layer 1 or the Layer 2 of a communication protocol stack of the wireless link, wherein the at least one uplink control signal comprises a sequence of uplink control signals, wherein the method further comprises: - communicating an uplink control message indicative of the overheating event, - triggering said communicating of the sequence of uplink control signals in response to said communicating of the uplink control message; - communicating an uplink control message indicative of the overheating event, - triggering said communicating of the sequence of uplink control signals in response to said communicating of the uplink control message; wherein the uplink control message is native to a higher layer of a communication protocol stack of the wireless link if compared to the native layer of the at least one uplink control signal.