mhurhangee/ep-ind-claims huggingface dataset:
An implantable device for controlling electrical conditions of tissue, the device comprising: a plurality of electrodes including one or more nominal stimulus electrodes, one or more nominal sense electrodes, at least one nominal feedback sense electrode and at least one nominal compensation electrode, the electrodes being configured to be positioned proximal to the tissue to make electrical contact with the tissue; a stimulus source for providing a stimulus to be delivered from the one or more stimulus electrodes to neural tissue; measurement circuitry for amplifying a neural signal sensed at the one or more sense electrodes; a control unit configured to apply an electrical stimulus to the neural tissue from the stimulus electrode and obtain a measurement of a neural response from the measurement electrode; and a feedback amplifier configured to be referenced to a desired electrical value and to take as an input a feedback signal from the feedback sense electrode, an output of the feedback amplifier being connected to the compensation electrode such that the feedback amplifier is configured to drive the neural tissue via the compensation electrode in a feedback arrangement which seeks to drive the feedback signal to the desired electrical value. a plurality of electrodes including one or more nominal stimulus electrodes, one or more nominal sense electrodes, at least one nominal feedback sense electrode and at least one nominal compensation electrode, the electrodes being configured to be positioned proximal to the tissue to make electrical contact with the tissue; a stimulus source for providing a stimulus to be delivered from the one or more stimulus electrodes to neural tissue; measurement circuitry for amplifying a neural signal sensed at the one or more sense electrodes; a control unit configured to apply an electrical stimulus to the neural tissue from the stimulus electrode and obtain a measurement of a neural response from the measurement electrode; and a feedback amplifier configured to be referenced to a desired electrical value and to take as an input a feedback signal from the feedback sense electrode, an output of the feedback amplifier being connected to the compensation electrode such that the feedback amplifier is configured to drive the neural tissue via the compensation electrode in a feedback arrangement which seeks to drive the feedback signal to the desired electrical value.
A method for making optionally substituted diaryl alkylphosphonate comprising: heating an optionally substituted arylol; adding a phosphorus trihalide to the heated optionally substituted arylol to form a first mixture; adding optionally substituted alkanol to the first mixture to form a second mixture; to form optionally substituted diaryl alkylphosphonate. heating an optionally substituted arylol; adding a phosphorus trihalide to the heated optionally substituted arylol to form a first mixture; adding optionally substituted alkanol to the first mixture to form a second mixture; to form optionally substituted diaryl alkylphosphonate.
A method for concentrating a target analyte for nanopore sensing, comprising: delivering the target analyte to a transmembrane pore detector, the delivering comprising coupling the target analyte to a membrane containing the transmembrane pore detector by attaching the target analyte to a polypeptide present in the membrane, a hydrophobic anchor present in the membrane, a functionalised component of the membrane, or a binding group anchored to the membrane, wherein the target analyte is not coupled to the membrane via the detector, and wherein the membrane is an amphiphilic layer or a lipid bilayer.
A method for securing the power cut of a USB equipment, implemented in a USB network through which are interconnected a computer, master of the network, and at least one USB equipment, slave of the network, characterized in that, when an information of imminent power cut of the USB equipment is known by said computer, said method comprises the implementation of the following successive steps: - the sending by the computer of an information message on the USB network, containing an information of power cut of the USB equipment; - the reception of the information message by the USB equipment; - implementing by the USB device a procedure for preparing the USB device for the impending power failure, the procedure for preparing the USB device for the impending power failure comprising saving a set of parameters in a memory space of the USB device, - said information message further comprising an indication of the time interval available for the USB device before the power cut becomes effective. - the sending by the computer of an information message on the USB network, containing an information of power cut of the USB equipment; - the reception of the information message by the USB equipment; - implementing by the USB device a procedure for preparing the USB device for the impending power failure, the procedure for preparing the USB device for the impending power failure comprising saving a set of parameters in a memory space of the USB device, - said information message further comprising an indication of the time interval available for the USB device before the power cut becomes effective.
A male connector (100a, 100a', 200a) comprising: a male body (110a, 110a', 210a), a male communication antenna (121a, 122a, 221a, 222a) provided inside the male body, the male communication antenna being configured to wirelessly communicate a signal; and a first male circuit board (171a, 261a) electrically connected to the male communication antenna; and a male power-reception/transmission antenna (140a, 230a) provided inside the male body (110a, 110a', 210a); wherein the male body includes a plurality of outer surface regions (111a, 111a1', 112a1', 212a), the outer surface regions not overlapping each other; the male communication antenna (121a, 122a, 221a, 222a) is located near one of the outer surface regions of the male body; and the male communication antenna is a terminal or other conductor provided on a first male portion of the first male circuit board; the first male circuit board is provided inside the male body so as to be substantially parallel to the outer surface region located near the male communication antenna on the first male circuit board; the male power-reception/transmission antenna is a terminal or other conductor provided on a second male portion of the first male circuit board or on a second male circuit board (172a, 262a); the male power-reception/transmission antenna (140a, 230a) is located near another one of the outer surface regions (111a, 111a1', 112al', 212a) other than the outer surface region near the male communication antenna (121a, 122a, 221a, 222a). a male body (110a, 110a', 210a), a male communication antenna (121a, 122a, 221a, 222a) provided inside the male body, the male communication antenna being configured to wirelessly communicate a signal; and a first male circuit board (171a, 261a) electrically connected to the male communication antenna; and a male power-reception/transmission antenna (140a, 230a) provided inside the male body (110a, 110a', 210a); wherein the male body includes a plurality of outer surface regions (111a, 111a1', 112a1', 212a), the outer surface regions not overlapping each other; the male communication antenna (121a, 122a, 221a, 222a) is located near one of the outer surface regions of the male body; and the male communication antenna is a terminal or other conductor provided on a first male portion of the first male circuit board; the first male circuit board is provided inside the male body so as to be substantially parallel to the outer surface region located near the male communication antenna on the first male circuit board; the male power-reception/transmission antenna is a terminal or other conductor provided on a second male portion of the first male circuit board or on a second male circuit board (172a, 262a); the male power-reception/transmission antenna (140a, 230a) is located near another one of the outer surface regions (111a, 111a1', 112al', 212a) other than the outer surface region near the male communication antenna (121a, 122a, 221a, 222a).
An evaporation heat transfer tube with a hollow cavity comprises a tube main body; outer fins are arranged at intervals on the outer surface of said tube main body and inter-fin grooves are formed between two adjacent outer fins, wherein said evaporation heat transfer tube with a hollow cavity further comprises at least one hollow frustum structure; said hollow frustum structure is arranged at the bottom of said inter-fin grooves and the said hollow frustum structure is surrounded by side walls; the top of the said hollow frustum structure is provided with an opening; the area of said opening is less than the area of the bottom of said hollow frustum structure; the inner surface of said side walls and the outer surface of said side walls are intersected at said opening to form a flange, characterized in that the side walls of the two sides of the inter-fin grooves are not part of the side walls of the hollow frustum structure, the side walls surrounding the hollow frustum structure extend inwards and upwards from the bottom of said inter-fin grooves towards the top of the inter-fin groove and draw close to the middle of the inter-fin groove horizontally, and that part of said side walls extends from the edge of said bottom which is adjacent to the side walls of said inter-fin grooves.
A method for use in wireless communication at a base station, the method comprising: transmitting information to a wireless/transmit receive unit, WTRU, the information indicating time opportunities to transmit sounding signals; in response to the transmitted information, detecting (204;308) sounding signals from the WTRUin the indicated time opportunities, wherein the sounding signals from the WTRU are distinguishable from sounding signals from other WTRUs; and using (208;312) a selectively operable beamforming antenna array to direct downlink channel transmissions toward a relative location of the WTRU based on the received detected sounding signals. transmitting information to a wireless/transmit receive unit, WTRU, the information indicating time opportunities to transmit sounding signals; in response to the transmitted information, detecting (204;308) sounding signals from the WTRUin the indicated time opportunities, wherein the sounding signals from the WTRU are distinguishable from sounding signals from other WTRUs; and using (208;312) a selectively operable beamforming antenna array to direct downlink channel transmissions toward a relative location of the WTRU based on the received detected sounding signals.
A ceramic powder material comprising: a first garnet-type compound containing Li, La, and Zr; and a second garnet-type compound containing Li, La, and Zr and having a composition different from a composition of the first garnet-type compound, wherein the first garnet-type compound and the second garnet-type compound are represented by Formula below: Li 7-(3x+y) M1 x La 3 Zr 2-y M2 y O 12 where M1 is Al or Ga, and M2 is Nb or Ta, and the first garnet-type compound satisfies 0 ≤ (3x + y) ≤ 0.5, characterized in that the second garnet-type compound satisfies 0.5 < (3x + y) ≤ 1.5 with an absolute value of a difference between a value of (3x + y) of the first garnet-type compound and a value of (3x + y) of the second garnet-type compound being 0.15 or more and 1.5 or less, and a content of the first garnet-type compound being 10% by mass or more and 90% by mass or less when the ceramic powder material is taken as a whole. a first garnet-type compound containing Li, La, and Zr; and a second garnet-type compound containing Li, La, and Zr and having a composition different from a composition of the first garnet-type compound, wherein the first garnet-type compound and the second garnet-type compound are represented by Formula below: Li 7-(3x+y) M1 x La 3 Zr 2-y M2 y O 12 where M1 is Al or Ga, and M2 is Nb or Ta, and the first garnet-type compound satisfies 0 ≤ (3x + y) ≤ 0.5, characterized in that the second garnet-type compound satisfies 0.5 < (3x + y) ≤ 1.5 with an absolute value of a difference between a value of (3x + y) of the first garnet-type compound and a value of (3x + y) of the second garnet-type compound being 0.15 or more and 1.5 or less, and a content of the first garnet-type compound being 10% by mass or more and 90% by mass or less when the ceramic powder material is taken as a whole.
A method for controlling movement of entities displayed on a display apparatus with a mobile device comprising a camera and a display, the method comprising: capturing, on the mobile device, an initial boundary of the display apparatus in order to form an initial calibration gradation line with respect to a position of the display device; capturing, by the mobile device, an entity which is displayed on the display apparatus; displaying the captured entity on the display of the mobile device; calculating a gesture gradation line based on the captured entity, wherein the initial calibration gradation line is stationary and the gesture gradation line is moving with respect to the movement of the captured entity; displaying, on the display of the mobile device, the initial calibration gradation line and the gesture gradation line associated with the entity displayed on the display apparatus; determining a gesture associated with the mobile device based on a position of the gesture gradation line relative to the initial calibration gradation line; generating, by the mobile device, a control signal for controlling the entities displayed on the display apparatus based on the determined gesture; and transmitting, by the mobile device, the generated control signal to the display apparatus. capturing, on the mobile device, an initial boundary of the display apparatus in order to form an initial calibration gradation line with respect to a position of the display device; capturing, by the mobile device, an entity which is displayed on the display apparatus; displaying the captured entity on the display of the mobile device; calculating a gesture gradation line based on the captured entity, wherein the initial calibration gradation line is stationary and the gesture gradation line is moving with respect to the movement of the captured entity; displaying, on the display of the mobile device, the initial calibration gradation line and the gesture gradation line associated with the entity displayed on the display apparatus; determining a gesture associated with the mobile device based on a position of the gesture gradation line relative to the initial calibration gradation line; generating, by the mobile device, a control signal for controlling the entities displayed on the display apparatus based on the determined gesture; and transmitting, by the mobile device, the generated control signal to the display apparatus.
A method for sowing forest seeds in a forest floor with a movable sowing machine, comprising • a locating system which is an apparatus for determining the position, in particular a satellite navigation system such as GPS or Galileo or a direction-finding system, which is arranged on the sowing machine or is configured to be carried by an operator accompanying the sowing machine during sowing, • an apparatus for providing a processing plan for handling working areas, which apparatus is arranged on the sowing machine or can be carried by an operator accompanying the sowing machine, and • an electronic control apparatus for establishing control instructions, which provides control instructions for handling the working areas according to the processing plan on the basis of the position data established by the apparatus for determining the position, • wherein the processing plan is drawn up automatically, evaluating mapping materials which are available in electronic form, in which the tree population and the topography of the land are recorded and successfully tried-and-tested strategies are used for drawing up the processing plan. • a locating system which is an apparatus for determining the position, in particular a satellite navigation system such as GPS or Galileo or a direction-finding system, which is arranged on the sowing machine or is configured to be carried by an operator accompanying the sowing machine during sowing, • an apparatus for providing a processing plan for handling working areas, which apparatus is arranged on the sowing machine or can be carried by an operator accompanying the sowing machine, and • an electronic control apparatus for establishing control instructions, which provides control instructions for handling the working areas according to the processing plan on the basis of the position data established by the apparatus for determining the position, • wherein the processing plan is drawn up automatically, evaluating mapping materials which are available in electronic form, in which the tree population and the topography of the land are recorded and successfully tried-and-tested strategies are used for drawing up the processing plan.
A compound of formula III, in which: Y represents -C -Z; X represents n -butyl; Z represents phenyl substituted in the para-position by -OH, -OCH 3 or -O-benzyl; or a salt or solvate thereof. Y represents -C -Z; X represents n -butyl; Z represents phenyl substituted in the para-position by -OH, -OCH 3 or -O-benzyl;
A computer implemented method to detect a data breach in a network-connected computing system, the method comprising the steps of: generating, at a trusted secure computing device, a copy of data distributed across a network; the computing device accessing sensitive information for the network-connected computer system and searching the copy of the data to identify the sensitive information in the copy of the data, wherein the trusted secure computing device is disconnected from the network when accessing the sensitive information; in response to an identification of the sensitive information in the copy of the data identifying the sensitive information as compromised sensitive information. generating, at a trusted secure computing device, a copy of data distributed across a network; the computing device accessing sensitive information for the network-connected computer system and searching the copy of the data to identify the sensitive information in the copy of the data, wherein the trusted secure computing device is disconnected from the network when accessing the sensitive information; in response to an identification of the sensitive information in the copy of the data identifying the sensitive information as compromised sensitive information.
Artificial hair comprising an acrylic fiber for artificial hair formed from an acrylic polymer, wherein the acrylic polymer comprises 29.5 to 79.5% by weight of acrylonitrile, 20 to 70% by weight of vinyl chloride and/or vinylidene chloride, and 0.5 to 5% by weight of a sulfonic acid-containing vinyl monomer with respect to a total weight of the acrylic polymer, a content of an organic solvent that can dissolve the acrylic polymer in the acrylic fiber is 0.1 to 3% by weight, and the acrylic fiber has a single fiber fineness of 30 to 100 dtex, wherein an organic solvent is judged as "organic solvent that can dissolve the acrylic polymer", if a mixture prepared by adding 20 parts by weight of the organic solvent to 100 parts by weight of the acrylic polymer is heated at 90°C for 30 minutes and the state thereafter is transparent, and wherein the content of the organic solvent in the acrylic fiber is measured according to the description.
A method for image capture, comprising the steps of: determining an exposure range; setting at least one camera parameter of a camera to capture an underexposed image outside the exposure range; processing the underexposed image using a neural network to recover image details, characterized in that the neural network is a neural network trained using a profile of the camera as an input, the profile obtained using mathematical models with an imaging system including the camera being in a controlled lighting environment such that a photo noise floor is known. determining an exposure range; setting at least one camera parameter of a camera to capture an underexposed image outside the exposure range; processing the underexposed image using a neural network to recover image details, characterized in that the neural network is a neural network trained using a profile of the camera as an input, the profile obtained using mathematical models with an imaging system including the camera being in a controlled lighting environment such that a photo noise floor is known.
Device comprising an RF generator (16; 29) for generating an RF signal with the frequency f RF, an NMR transmission (10; 20) and reception system (11; 21) and a first control loop (15; 28) which is designed to synchronize the frequency f RF with the resonance frequency f 0 of an NMR signal with a given relaxation time, wherein the RF generator is designed to generate a train of excitation pulses of the repetition frequency f m, with which nuclear spins of the resonance frequency f 0 can be excited quasi-continuously, wherein the period time 1/f m is chosen to be much smaller than the relaxation time, and the first control loop (15; 28) is designed to use an NMR signal U D mixed down into the low-frequency range for controlling the value of the transmission frequency f RF or the value of a B 0 field in such a way that the frequency and phase of the RF generator and of the NMR signal match as precisely as possible, wherein the NMR signal U D has a saw-tooth AC component, the characteristic of which depends on the ratio between the relaxation time and the period time, characterized in that, a second control loop (27; 42), a phase shifter (12; 22) and a signal extraction stage (25, 26; 40, 41) are provided, wherein the signal extraction stage (25, 26; 40, 41) is designed to extract the saw-tooth AC component of the signal U D, and the second control loop (27; 42) whose input signal comes from the signal extraction stage (25, 26; 40, 41) is designed to control the phase shifter (12; 22) to change the phase of the RF signal by the value Δφ until this input signal is zero.