mhurhangee/ep-ind-claims huggingface dataset:
A method of drilling mud analysis and control, the method comprising: diverting a sample of drilling mud obtained from a well during drilling of the well from a mud line through a diverter to a mud analysis system enabled to analyze the sample using a plurality of sensors; generating, by the mud analysis system, a first signal indicative of at least a first property of the sample, wherein the first property is determined by at least one of the plurality of sensors; transmitting the first signal to a steering control system enabled to control at least one drilling parameter used for drilling the well; and interpreting the first signal by the steering control system to identify at least the first property of the sample and a first value therefore, wherein the steering control system is enabled to correlate the sample with a measured depth of the well, wherein the method further comprises; generating a mud log by logging information indicative of the first signal from the mud analysis system, wherein the mud log indexes the first property of the sample with the measured depth of the sample; generating a comparison of the first value associated with the first property with a first threshold value for the first property; and based on at least the comparison, adjusting, by the steering control system, the at least one drilling parameter for drilling the well. diverting a sample of drilling mud obtained from a well during drilling of the well from a mud line through a diverter to a mud analysis system enabled to analyze the sample using a plurality of sensors; generating, by the mud analysis system, a first signal indicative of at least a first property of the sample, wherein the first property is determined by at least one of the plurality of sensors; transmitting the first signal to a steering control system enabled to control at least one drilling parameter used for drilling the well; and interpreting the first signal by the steering control system to identify at least the first property of the sample and a first value therefore, wherein the steering control system is enabled to correlate the sample with a measured depth of the well, wherein the method further comprises; generating a mud log by logging information indicative of the first signal from the mud analysis system, wherein the mud log indexes the first property of the sample with the measured depth of the sample; generating a comparison of the first value associated with the first property with a first threshold value for the first property; and based on at least the comparison, adjusting, by the steering control system, the at least one drilling parameter for drilling the well.
A method for mobility management, comprising: obtaining, by a source cell set, cell set information sent by a cell set in an access network, wherein the cell set includes at least two cells which are capable of simultaneously communicating with a user equipment; by the source cell set, selecting, for the user equipment, a target cell set to which the user equipment may hand over according to the cell set information, and sending information about selection of the target cell set to the target cell set, wherein the information sent by the source cell set to the target cell set comprises identifiers of all or part of cells in the target cell set; receiving, by the source cell set, information about at least two target cells in the target cell set which are decided by the target cell set according to the information received by the target cell set from the source cell set; and providing, by the source cell set, the information about the at least two target cells to the user equipment for handover, wherein the at least two target cells simultaneously communicate with the user equipment after the handover. obtaining, by a source cell set, cell set information sent by a cell set in an access network, wherein the cell set includes at least two cells which are capable of simultaneously communicating with a user equipment; by the source cell set, selecting, for the user equipment, a target cell set to which the user equipment may hand over according to the cell set information, and sending information about selection of the target cell set to the target cell set, wherein the information sent by the source cell set to the target cell set comprises identifiers of all or part of cells in the target cell set; receiving, by the source cell set, information about at least two target cells in the target cell set which are decided by the target cell set according to the information received by the target cell set from the source cell set; and providing, by the source cell set, the information about the at least two target cells to the user equipment for handover, wherein the at least two target cells simultaneously communicate with the user equipment after the handover.
Validation and certification method for a rail vehicle having a brake system and a brake control system for the brake system, wherein the brake system comprises at least as a component a friction brake, said method having at least the following steps: - At least one characteristic correlating at least one control variable for maintaining at least one performance variable is determined by means of at least one virtual and/or at least one real reference braking journey of the rail vehicle; - The characteristic is stored in the brake control system; and - The characteristic is used as a basis for actuating the brake system of the rail vehicle. - At least one characteristic correlating at least one control variable for maintaining at least one performance variable is determined by means of at least one virtual and/or at least one real reference braking journey of the rail vehicle; - The characteristic is stored in the brake control system; and - The characteristic is used as a basis for actuating the brake system of the rail vehicle.
Alight detection apparatus comprising: a first semiconductor region having a first conductivity type in which carriers having a first polarity that is the same polarity as that of the signal charge are set as majority carriers; a second semiconductor region having a second conductivity type opposite to the first conductivity type in which carriers having a second polarity are set as majority carriers; and a third semiconductor region having the first conductivity type where the signal charge is transferred from the first semiconductor region, wherein the first semiconductor region and the second semiconductor region constitute a photodiode configured to convert incident light into a signal charge and accumulate the signal charge, wherein a reverse bias voltage for causing avalanche multiplication of the signal charge is applied between the second semiconductor region and the third semiconductor region, such that a potential barrier having a height lower than the reverse bias voltage with respect to the signal charge in the first semiconductor region is formed between the first semiconductor region and the third semiconductor region, such that the signal charge is accumulated in the first semiconductor region, wherein the light detection apparatus comprises control means (2, 6) configured to transfer the signal charge in the first semiconductor region to the third semiconductor region in a manner that the height of the potential barrier is controlled; and circuit means configured to count a number of times of the avalanche multiplication of the signal charge is caused. a first semiconductor region having a first conductivity type in which carriers having a first polarity that is the same polarity as that of the signal charge are set as majority carriers; a second semiconductor region having a second conductivity type opposite to the first conductivity type in which carriers having a second polarity are set as majority carriers; and a third semiconductor region having the first conductivity type where the signal charge is transferred from the first semiconductor region, wherein the first semiconductor region and the second semiconductor region constitute a photodiode configured to convert incident light into a signal charge and accumulate the signal charge, wherein a reverse bias voltage for causing avalanche multiplication of the signal charge is applied between the second semiconductor region and the third semiconductor region, such that a potential barrier having a height lower than the reverse bias voltage with respect to the signal charge in the first semiconductor region is formed between the first semiconductor region and the third semiconductor region, such that the signal charge is accumulated in the first semiconductor region, wherein the light detection apparatus comprises control means (2, 6) configured to transfer the signal charge in the first semiconductor region to the third semiconductor region in a manner that the height of the potential barrier is controlled; and circuit means configured to count a number of times of the avalanche multiplication of the signal charge is caused.
A hybrid automatic repeat request, HARQ, feedback method, applied to a Narrow Band Internet of Things, NB-IoT, device, comprising: determining a plurality of target HARQ results, wherein the plurality of target HARQ results are HARQ results corresponding to a plurality of target physical downlink shared channels, PDSCHs, and the plurality of target PDSCHs are PDSCHs scheduled by a current physical downlink control channel, PDCCH; determining a combined HARQ result based on the plurality of target HARQ results, wherein the combined HARQ result is used for representing the plurality of target HARQ results; determining a target narrowband physical uplink shared channel, NPUSCH,, wherein the target NPUSCH is a NPUSCH with a target resource carrying the combined HARQ result; and carrying the combined HARQ result by the target resource and sending the target NPUSCH to a base station, being characterized in that determining the target NPUSCH comprises: determining a target index value of the target resource; and determining a NPUSCH indicated by the target index value as the target NPUSCH. determining a plurality of target HARQ results, wherein the plurality of target HARQ results are HARQ results corresponding to a plurality of target physical downlink shared channels, PDSCHs, and the plurality of target PDSCHs are PDSCHs scheduled by a current physical downlink control channel, PDCCH; determining a combined HARQ result based on the plurality of target HARQ results, wherein the combined HARQ result is used for representing the plurality of target HARQ results; determining a target narrowband physical uplink shared channel, NPUSCH,, wherein the target NPUSCH is a NPUSCH with a target resource carrying the combined HARQ result; and carrying the combined HARQ result by the target resource and sending the target NPUSCH to a base station, being characterized in that determining the target NPUSCH comprises: determining a target index value of the target resource; and determining a NPUSCH indicated by the target index value as the target NPUSCH. determining a target index value of the target resource; and determining a NPUSCH indicated by the target index value as the target NPUSCH.
Potential equalization system for a modular multilevel power converter that has a plurality of power converter modules, each having a DC voltage source, the potential equalization system comprising: - pole contacts, each of which is electrically connected to one pole of a DC voltage source, and - at least one electrically conductive contacting element, which can be moved between a first end position, in which it is electrically disconnected from the power converter modules, and a second end position, in which it contacts pole contacts of different DC voltage sources and can be connected to an earth potential, characterized in that at least one of the contacting elements is an electrical screen for screening a plurality of power converter modules that can be rotated about an axis of rotation between the first end position and the second end position. - pole contacts, each of which is electrically connected to one pole of a DC voltage source, and - at least one electrically conductive contacting element, which can be moved between a first end position, in which it is electrically disconnected from the power converter modules, and a second end position, in which it contacts pole contacts of different DC voltage sources and can be connected to an earth potential,
A device for inserting a spacer between adjacent spinous processes of adjacent vertebrae comprising a screw and a cylindrical spacer, the screw having a body that tapers from a first end to a second end, with at least one thread formed on an exterior surface of the body to enable the screw to pass through an anatomy, a rod having a threaded end, wherein the rod comprises a first portion for engaging with the spacer and a second portion for engaging with the screw and wherein said first and said second portion of the rod have different cross-sectional dimensions so as to provide for separate rotation of the different portions, a cap opposite the threaded end, and an intermediate section separating the threaded end from the cap, wherein the taper of the screw can progressively separate the adjacent spinous processed, wherein the spacer defines a bore that receives the first portion of the intermediate section of the rod to removably couple the spacer to the screw, wherein the spacer can support the adjacent spinous processes, wherein the screw can be uncoupled from the spacer after the spacer is positioned between the adjacent spinous processes by removing the rod from the screw and the spacer such that the spacer can remain in position between the adjacent spinous processes after removal of the screw, wherein the body of the screw defines a bore that receives the second portion of the intermediate section of the rod to position the screw adjacent to the spacer along a length of the intermediate section of the rod, with the screw sized so that the threaded end of the rod extends beyond an end of the screw.
Clockwork movement of a watch, characterized by - a first driving means for driving a first indicator so that the first indicator indicates the direction of one of the cardinal points when said watch is in the southern hemisphere and an hour hand of the watch indicates the civil time or a solar time indicator of the watch turning at the same speed as the hour hand points towards the sun, and - a second driving means for driving a second indicator distinct from the first indicator so that the second indicator indicates the direction of said one cardinal point when the watch is in the northern hemisphere and the hour hand or the solar time indicator of the watch points towards the sun. - a first driving means for driving a first indicator so that the first indicator indicates the direction of one of the cardinal points when said watch is in the southern hemisphere and an hour hand of the watch indicates the civil time or a solar time indicator of the watch turning at the same speed as the hour hand points towards the sun, and - a second driving means for driving a second indicator distinct from the first indicator so that the second indicator indicates the direction of said one cardinal point when the watch is in the northern hemisphere and the hour hand or the solar time indicator of the watch points towards the sun.
A method for authenticating a closure assembly (12, 13) of a container, said assembly comprising a closure (12, 13) closing an opening of said container for the passage of a fluid or of at least one object contained in said container, and an overpack covering at least said closure (12, 13), characterized in that: - said overpack comprises a first radiofrequency identification tag having a unique identifier of said overpack, - said closure (12, 13) comprises a second radiofrequency identification tag having a unique identifier of said closure (12, 13) and a processor comprising a storage unit, said storage unit comprising a data set comprising at least data relating to an overpack/closure pair which comprises the unique identifiers of a closure (12, 13) and an overpack associated with this closure (12, 13), and in that the following steps are carried out: - reading the unique identifier of said overpack, and reading the unique identifier of said closure (12, 13) with a mobile management unit comprising a NFC/RFID reader; - comparing, with the processor, the identifiers of said overpack and said closure (12, 13) so read with the data stored in the storage unit of said processor and relating to said overpack/closure pair of said data set in order to verify that the overpack/closure pair being authenticated coincides with the overpack/closure pair defined in said data set, - emitting with the processor a communication signal corresponding to the result of this verification, and in that - said closure assembly (12, 13) comprises means for destroying the first identification tag upon the first opening of said container. - said overpack comprises a first radiofrequency identification tag having a unique identifier of said overpack, - said closure (12, 13) comprises a second radiofrequency identification tag having a unique identifier of said closure (12, 13) and a processor comprising a storage unit, said storage unit comprising a data set comprising at least data relating to an overpack/closure pair which comprises the unique identifiers of a closure (12, 13) and an overpack associated with this closure (12, 13), and in that the following steps are carried out: - reading the unique identifier of said overpack, and reading the unique identifier of said closure (12, 13) with a mobile management unit comprising a NFC/RFID reader; - comparing, with the processor, the identifiers of said overpack and said closure (12, 13) so read with the data stored in the storage unit of said processor and relating to said overpack/closure pair of said data set in order to verify that the overpack/closure pair being authenticated coincides with the overpack/closure pair defined in said data set, - emitting with the processor a communication signal corresponding to the result of this verification, and in that - said closure assembly (12, 13) comprises means for destroying the first identification tag upon the first opening of said container.
An in-vitro method of modifying a protein distribution in a fluid wherein the protein distribution has a first state, the first state having alpha high density lipoproteins and pre-beta high density lipoproteins, comprising the steps of: exposing the fluid to a solvent wherein the exposure modifies the protein distribution from the first state into a second state, the second state having an increased concentration of pre-beta high density lipoproteins relative to the first state; and, removing the solvent from the fluid, wherein the solvent comprises sevoflurane, trifluoroethane or isoflurane. exposing the fluid to a solvent wherein the exposure modifies the protein distribution from the first state into a second state, the second state having an increased concentration of pre-beta high density lipoproteins relative to the first state; and, removing the solvent from the fluid, wherein the solvent comprises sevoflurane, trifluoroethane or isoflurane.
A sample cell for performing DNP-NMR measurements, for interchangeable use in an EPR microwave resonator, with the sample cell comprising - a flat sample cavity for holding a liquid sample to be measured, wherein the flat sample cavity extends with a maximum length L and a maximum width W in a sample cavity plane, and extends with a maximum height H perpendicular to the sample cavity plane, with H ≤ 1/15*L and H ≤ 1/15*W, and - an NMR coil wound around the flat sample cavity for generating an RF magnetic field B 2, wherein a coil axis of the NMR coil about which the NMR coil is wound is oriented perpendicular to the sample cavity plane, wherein the sample cell comprises a first plate and a second plate, wherein the flat sample cavity is formed by a cavity recess in the first plate and/or a cavity recess in the second plate, and wherein the first plate and second plate are joined to each other, with the flat sample cavity enclosed between them. for interchangeable use in an EPR microwave resonator, with the sample cell comprising - a flat sample cavity for holding a liquid sample to be measured, wherein the flat sample cavity extends with a maximum length L and a maximum width W in a sample cavity plane, and extends with a maximum height H perpendicular to the sample cavity plane, with H ≤ 1/15*L and H ≤ 1/15*W, and - an NMR coil wound around the flat sample cavity for generating an RF magnetic field B 2, wherein a coil axis of the NMR coil about which the NMR coil is wound is oriented perpendicular to the sample cavity plane, - a flat sample cavity for holding a liquid sample to be measured, wherein the flat sample cavity extends with a maximum length L and a maximum width W in a sample cavity plane, and extends with a maximum height H perpendicular to the sample cavity plane, with H ≤ 1/15*L and H ≤ 1/15*W, and - an NMR coil wound around the flat sample cavity for generating an RF magnetic field B 2, wherein a coil axis of the NMR coil about which the NMR coil is wound is oriented perpendicular to the sample cavity plane, wherein the sample cell comprises a first plate and a second plate, wherein the flat sample cavity is formed by a cavity recess in the first plate and/or a cavity recess in the second plate, and wherein the first plate and second plate are joined to each other, with the flat sample cavity enclosed between them.
A manufacturing method of a touch sensitive element, the method comprising: forming (S220, S320) an electroactive polymer coating layer by applying an electroactive polymer solution on a substrate; forming (S230, S340) an electroactive layer (222, 322) by simultaneously heating and pressurizing the electroactive polymer coating layer and applying a voltage thereto using a hot press roller (231, 232); and forming (S240, S350) an electrode on the electroactive layer (222, 322). forming (S220, S320) an electroactive polymer coating layer by applying an electroactive polymer solution on a substrate; forming (S230, S340) an electroactive layer (222, 322) by simultaneously heating and pressurizing the electroactive polymer coating layer and applying a voltage thereto using a hot press roller (231, 232); and forming (S240, S350) an electrode on the electroactive layer (222, 322).
A lock mechanism for aircraft passenger seat comprising an upright position in which a backrest is positioned upright, and a bed mode position in which the backrest is folded forward, wherein the lock mechanism comprises lock pins configured to be provided on both sides of the backrest locking the backrest at positions corresponding to the upright position and the bed mode position, a handle unit configured to be provided on a rear face of the backrest, and two wires connecting the handle unit and the lock pins; the lock mechanism being characterized in that a bracket of the handle unit comprises a center hole provided at a center of the bracket, a pair of wire mounting holes to which each of the wires provided in the center hole are mounted, and a pair of slits communicating the wire mounting holes with the center hole.