mhurhangee/ep-ind-claims huggingface dataset:
A roll-to-roll deposition apparatus, comprising: a vacuum chamber capable of maintaining a reduced-pressure state; a film travel mechanism capable of causing a film to travel inside the vacuum chamber; a lithium source capable of evaporating lithium inside the vacuum chamber; a first roller that is disposed between a deposition surface of the film and the lithium source, has a transfer pattern that receives the lithium evaporated from the lithium source, and transfers a pattern of a lithium layer corresponding to the transfer pattern to the deposition surface while rotating; and a second roller that faces the first roller with the film provided between the second roller and the first roller, wherein the lithium source includes a vapor deposition container that stores the lithium, and a third roller that faces the first roller and is disposed such that the lithium is vapor-deposited on the first roller ( and that the lithium evaporated from the vapor deposition container adheres to a part of a roller surface of the third roller, and a temperature control mechanism that adjusts a temperature of the roller surface of the third roller to a lithium melting point or more such that the lithium vapor-deposited on the third roller is supplied to the first roller with the lithium molten on the roller surface. a vacuum chamber capable of maintaining a reduced-pressure state; a film travel mechanism capable of causing a film to travel inside the vacuum chamber; a lithium source capable of evaporating lithium inside the vacuum chamber; a first roller that is disposed between a deposition surface of the film and the lithium source, has a transfer pattern that receives the lithium evaporated from the lithium source, and transfers a pattern of a lithium layer corresponding to the transfer pattern to the deposition surface while rotating; and a second roller that faces the first roller with the film provided between the second roller and the first roller, wherein the lithium source includes a vapor deposition container that stores the lithium, and a third roller that faces the first roller and is disposed such that the lithium is vapor-deposited on the first roller ( and that the lithium evaporated from the vapor deposition container adheres to a part of a roller surface of the third roller, and a temperature control mechanism that adjusts a temperature of the roller surface of the third roller to a lithium melting point or more such that the lithium vapor-deposited on the third roller is supplied to the first roller with the lithium molten on the roller surface. a vapor deposition container that stores the lithium, and a third roller that faces the first roller and is disposed such that the lithium is vapor-deposited on the first roller ( and that the lithium evaporated from the vapor deposition container adheres to a part of a roller surface of the third roller, and a temperature control mechanism that adjusts a temperature of the roller surface of the third roller to a lithium melting point or more such that the lithium vapor-deposited on the third roller is supplied to the first roller with the lithium molten on the roller surface.
Tyre comprising a crown, two sidewalls and two beads with an axis of revolution and a carcass reinforcement with two carcass plies (37, 38) each anchored in each bead, each bead comprising: - a bead wire; - a part of the first carcass ply extended by a turn-up around said bead wire of said first carcass ply such that the end of said turn-up is situated axially and radially on the outside relative to said bead wire; - a filler arranged radially on the outside relative to said bead wire and axially between said first carcass ply and said turn-up; - a part of the second carcass ply arranged axially on the outside relative to said first carcass ply, to said filler and to said turn-up; - a protective rubber ( cushion gum) and a sidewall rubber axially furthest towards the outside; and - a communication module (2, 20) comprising a radiofrequency transponder (1, 100) with an electronic chip (22, 120) and a helical radiating antenna (10, 110, 112); characterized in that an additional filler is positioned axially between the second carcass ply on the one hand, and the cushion gum and the sidewall rubber on the other, and in that the communication module is positioned at the interface between the second carcass ply and said additional filler. - a bead wire; - a part of the first carcass ply extended by a turn-up around said bead wire of said first carcass ply such that the end of said turn-up is situated axially and radially on the outside relative to said bead wire; - a filler arranged radially on the outside relative to said bead wire and axially between said first carcass ply and said turn-up; - a part of the second carcass ply arranged axially on the outside relative to said first carcass ply, to said filler and to said turn-up; - a protective rubber ( cushion gum) and a sidewall rubber axially furthest towards the outside; and - a communication module (2, 20) comprising a radiofrequency transponder (1, 100) with an electronic chip (22, 120) and a helical radiating antenna (10, 110, 112);
A method for localizing an insulation fault in an operating means connected to a power supply system, comprising the method steps: continually capturing at least one electric measure in the power supply system, identifying an instance of turning on/off in a temporal progress of the captured electric measure, and assigning the instance of turning on/off to an operating means effecting the instance of turning on/off via correlation calculations based on the captured electric measure and a stored signal progress characteristic to the operating means, recording all instances of turning on/off with turning-on/-off times and respective operating means, identifying the insulation fault with a respective fault time, examining whether the fault time coincides with a recorded turning-on time, should the fault time coincide with a recorded turning-on time, signaling that the fault occurred in the operating means turned on at this turning-on time. continually capturing at least one electric measure in the power supply system, identifying an instance of turning on/off in a temporal progress of the captured electric measure, and assigning the instance of turning on/off to an operating means effecting the instance of turning on/off via correlation calculations based on the captured electric measure and a stored signal progress characteristic to the operating means, recording all instances of turning on/off with turning-on/-off times and respective operating means, identifying the insulation fault with a respective fault time, examining whether the fault time coincides with a recorded turning-on time, should the fault time coincide with a recorded turning-on time, signaling that the fault occurred in the operating means turned on at this turning-on time.
An apparatus comprising: a double-slotted flap configured to be movably coupled to an aircraft wing, the double-slotted flap comprising a first panel and a second panel movable relative to the first panel; an actuator configured to actuate the first panel of the double-slotted flap relative to a structure of the aircraft wing; and a slave-drive assembly comprising: a slave screw; and a drive screw drivingly coupled to the slave screw and configured to actuate the second panel relative to the first panel; wherein the slave screw is configured to be induced to rotate by motion of the first panel; and characterised in that the drive screw is coupled to the second panel via a link comprising a primary connection and a secondary connection, wherein the primary connection comprises a shear pin; further characterised in that the secondary connection is configured to allow a certain play with respect to the first connection so as to permit backlash between the drive screw and the second panel. a double-slotted flap configured to be movably coupled to an aircraft wing, the double-slotted flap comprising a first panel and a second panel movable relative to the first panel; an actuator configured to actuate the first panel of the double-slotted flap relative to a structure of the aircraft wing; and a slave-drive assembly comprising: a slave screw; and a drive screw drivingly coupled to the slave screw and configured to actuate the second panel relative to the first panel; a slave screw; and a drive screw drivingly coupled to the slave screw and configured to actuate the second panel relative to the first panel; wherein the slave screw is configured to be induced to rotate by motion of the first panel; and characterised in that the drive screw is coupled to the second panel via a link comprising a primary connection and a secondary connection, wherein the primary connection comprises a shear pin; further characterised in that the secondary connection is configured to allow a certain play with respect to the first connection so as to permit backlash between the drive screw and the second panel.
A method of forming a nucleic acid conjugate, wherein the method comprises: a) incorporating an ethynyl-dUTP (E-dUTP) modified nucleotide into a nucleic acid polymer by contacting the E-dUTP modified nucleotide with at least one other nucleotide in the presence of a terminal deoxynucleotidyltransferase enzyme to form a terminal alkyne-modified nucleic acid polymer; and b) contacting the terminal alkyne-modified nucleic acid polymer with a dye-labeled azide to form a nucleic acid conjugate; wherein the method utilizes a "click" chemistry, and wherein copper is used as a catalyst for the "click" chemistry reaction to conjugate the dye-labeled azide to the modified nucleic acid molecule and the copper is in the Cu state; wherein copper is chelated to a chelator which binds copper in the Cu state; and wherein the copper is provided in the Cu state in the presence of a reducing agent, wherein Cu is formed in situ by the reduction of Cu. a) incorporating an ethynyl-dUTP (E-dUTP) modified nucleotide into a nucleic acid polymer by contacting the E-dUTP modified nucleotide with at least one other nucleotide in the presence of a terminal deoxynucleotidyltransferase enzyme to form a terminal alkyne-modified nucleic acid polymer; and b) contacting the terminal alkyne-modified nucleic acid polymer with a dye-labeled azide to form a nucleic acid conjugate;
An apparatus, comprising: (a) an surgical instrument, wherein the surgical instrument includes one or more variable voltage drop features configured to provide a variable voltage drop during operation of the surgical instrument; (b) a power source in communication with the surgical instrument, wherein the power source is operable to provide power to the surgical instrument; and (c) a reference circuit in communication with the surgical instrument, wherein the reference circuit is further in communication with the power source, wherein the reference circuit includes one or more predetermined voltage drop features configured to provide a predetermined voltage drop during operation of the surgical instrument; characterized in that the power source is operable to subtract out a voltage drop from the one or more variable voltage drop features based on a voltage drop from the one or more predetermined voltage drop features during operation of the surgical instrument. (a) an surgical instrument, wherein the surgical instrument includes one or more variable voltage drop features configured to provide a variable voltage drop during operation of the surgical instrument; (b) a power source in communication with the surgical instrument, wherein the power source is operable to provide power to the surgical instrument; and (c) a reference circuit in communication with the surgical instrument, wherein the reference circuit is further in communication with the power source, wherein the reference circuit includes one or more predetermined voltage drop features configured to provide a predetermined voltage drop during operation of the surgical instrument;
A wireless communication improving sheet for improving wireless communication properties of a wireless IC tag by arranging the wireless IC tag, comprising: a first spacer having an arrangement surface on which the wireless IC tag can be arranged without connecting with a wire, i.e. without DC coupling between, the wireless IC tag and the sheet; an auxiliary antenna provided on a surface opposite to the arrangement surface of the first spacer; and a second spacer provided on an opposite side to the first spacer with the auxiliary antenna interposed therebetween, they being laminated one on top of another, characterised by the auxiliary antenna being formed with a hole or notch, wherein the hole or notch electromagnetically couples to the wireless IC tag by means of a region where an electric field is low and a magnetic field is strong. a first spacer having an arrangement surface on which the wireless IC tag can be arranged without connecting with a wire, i.e. without DC coupling between, the wireless IC tag and the sheet; an auxiliary antenna provided on a surface opposite to the arrangement surface of the first spacer; and a second spacer provided on an opposite side to the first spacer with the auxiliary antenna interposed therebetween, they being laminated one on top of another, characterised by the auxiliary antenna being formed with a hole or notch, wherein the hole or notch electromagnetically couples to the wireless IC tag by means of a region where an electric field is low and a magnetic field is strong.
A composition comprising: a) a first component comprising a poly(methyl methacrylate) (PMMA), a contrast agent, a radical donor and calcium based particles, wherein the PMMA has a molecular weight of 200,000 grams/mole to 500,000 grams/mole, and wherein the calcium based particles comprise hydroxyapatite particles having an average particle size of 5 microns to 100 microns; and b) a second component comprising methyl methacrylate, a radical scavenger, and a polymerization accelerator; wherein the composition has an average setting time of about 13 minutes and a stiffness of between 50 MPa and 930 MPa. a) a first component comprising a poly(methyl methacrylate) (PMMA), a contrast agent, a radical donor and calcium based particles, wherein the PMMA has a molecular weight of 200,000 grams/mole to 500,000 grams/mole, and wherein the calcium based particles comprise hydroxyapatite particles having an average particle size of 5 microns to 100 microns; and b) a second component comprising methyl methacrylate, a radical scavenger, and a polymerization accelerator;
Gas-operated fixing tool, comprising: - a working chamber, - a piston mounted slideably in the working chamber and comprising a driving rod of which a first longitudinal end is configured to drive a fixing element and of which a second longitudinal end is connected to a head which separates the said working chamber into a first portion and into a second portion which is traversed by the said driving rod, and - at least one combustion chamber in which a mixture of air and fuel is intended to be burnt in order that combustion oases generate a rise in pressure which causes a movement of the piston in the working chamber, wherein the said at least one combustion chamber is in fluid communication with the said second portion in such a way that the rise in pressure causes the movement and the return of the piston into a rest position ready for firing a fixing element; in which it is devoid of direct fluid communication between the said at least one combustion chamber and the said first portion; in which the said first portion is in fluid communication with a pressurized gas source in order to ensure the movement of the piston from its rest position to a working position, characterised in that said gas source is a non-flammable gas source. - a working chamber, - a piston mounted slideably in the working chamber and comprising a driving rod of which a first longitudinal end is configured to drive a fixing element and of which a second longitudinal end is connected to a head which separates the said working chamber into a first portion and into a second portion which is traversed by the said driving rod, and - at least one combustion chamber in which a mixture of air and fuel is intended to be burnt in order that combustion oases generate a rise in pressure which causes a movement of the piston in the working chamber, wherein the said at least one combustion chamber is in fluid communication with the said second portion in such a way that the rise in pressure causes the movement and the return of the piston into a rest position ready for firing a fixing element; in which it is devoid of direct fluid communication between the said at least one combustion chamber and the said first portion; in which the said first portion is in fluid communication with a pressurized gas source in order to ensure the movement of the piston from its rest position to a working position, characterised in that said gas source is a non-flammable gas source. in which it is devoid of direct fluid communication between the said at least one combustion chamber and the said first portion; in which the said first portion is in fluid communication with a pressurized gas source in order to ensure the movement of the piston from its rest position to a working position, characterised in that said gas source is a non-flammable gas source.
A method, comprising: (a) determining channel state information of a multiple-input multiple-output (MIMO) channel by a receiver in a Orthogonal Frequency Division Multiplexing (OFDM) communication system, wherein the MIMO channel comprises L frequency tones, and wherein the CSI comprises L channel response matrices, each matrix corresponds to an OFDM tone; (b) decomposing each channel response matrix into a first CSI component and a second CSI component, and applying Singular Value decomposition to each channel response matrix into L unitary right eigenvector matrices V 1 - V L, and L diagonal singular value matrices ∑ 1 - ∑ L; (c) determining a first subset of the first CSI component based on a first tone group size N G1 and a second subset of the second CSI component based on a second tone group size N G2; and (d) transmitting the determined subsets of the first and the second CSI components to a transmitter; wherein the first CSI component comprises the unitary right eigenvector matrices V, V 1 - V L, the second CSI component comprises the diagonal singular value matrices ∑, ∑ 1 - ∑ L, and the determining in (c) involves determining one ∑ matrix for every N G2 OFDM tones, wherein each V matrix is represented by a series of angles, wherein the first CSI component comprises a first angle of each V matrix, and wherein the second CSI component comprises a second angle of each V matrix, wherein each ∑ matrix is represented by a series of real numbers, wherein the first CSI component comprises a first real number of each ∑ matrix, and wherein the second CSI component comprises a second real number of each ∑ matrix. (a) determining channel state information of a multiple-input multiple-output (MIMO) channel by a receiver in a Orthogonal Frequency Division Multiplexing (OFDM) communication system, wherein the MIMO channel comprises L frequency tones, and wherein the CSI comprises L channel response matrices, each matrix corresponds to an OFDM tone; (b) decomposing each channel response matrix into a first CSI component and a second CSI component, and applying Singular Value decomposition to each channel response matrix into L unitary right eigenvector matrices V 1 - V L, and L diagonal singular value matrices ∑ 1 - ∑ L; (c) determining a first subset of the first CSI component based on a first tone group size N G1 and a second subset of the second CSI component based on a second tone group size N G2; and (d) transmitting the determined subsets of the first and the second CSI components to a transmitter;
A method to be performed by an integration reference point, IRP, manager module of a management apparatus, the method comprising: identifying (404, 406, 410) a value for an energy-saving-coverage attribute corresponding to a target cell (110, 112), the energy-saving-coverage attribute designated as IsESCoveredBy, wherein the IsESCoveredBy includes at least one of "yes", "no" or "partial"; storing (410, 412) the "partial" value for the IsEScoveredBy attribute corresponding to the target cell (110, 112) if the target cell (110, 112) is recommended along with at least one other target cell (110, 112) to be considered as an entirety of candidate cells to take over coverage when a source cell (102, 104, 106, 108) is about to be transferred to an energy saving state, wherein the source cell (102, 104, 106, 108) is of a network of a first radio access technology, RAT, the network of the first RAT is an evolved universal terrestrial radio access network, E-UTRAN, and the target cell (110, 112) is of a network of a second RAT different from the first RAT; and storing the "yes" value for the IsEScoveredBy attribute corresponding to the target cell if the target cell (110, 112) is recommended to be considered as a candidate cell to take over an entirety of coverage when the source cell (102, 104, 106, 108) is about to be transferred to an energy saving state, wherein the "no" value is to indicate that the target cell (110, 112) is not recommended to be considered as candidate cell to take over coverage when the source cell (102, 104, 106, 108) is about to be transferred to energy saving state. identifying (404, 406, 410) a value for an energy-saving-coverage attribute corresponding to a target cell (110, 112), the energy-saving-coverage attribute designated as IsESCoveredBy, wherein the IsESCoveredBy includes at least one of "yes", "no" or "partial"; storing (410, 412) the "partial" value for the IsEScoveredBy attribute corresponding to the target cell (110, 112) if the target cell (110, 112) is recommended along with at least one other target cell (110, 112) to be considered as an entirety of candidate cells to take over coverage when a source cell (102, 104, 106, 108) is about to be transferred to an energy saving state, wherein the source cell (102, 104, 106, 108) is of a network of a first radio access technology, RAT, the network of the first RAT is an evolved universal terrestrial radio access network, E-UTRAN, and the target cell (110, 112) is of a network of a second RAT different from the first RAT; and storing the "yes" value for the IsEScoveredBy attribute corresponding to the target cell if the target cell (110, 112) is recommended to be considered as a candidate cell to take over an entirety of coverage when the source cell (102, 104, 106, 108) is about to be transferred to an energy saving state, wherein the "no" value is to indicate that the target cell (110, 112) is not recommended to be considered as candidate cell to take over coverage when the source cell (102, 104, 106, 108) is about to be transferred to energy saving state.