mhurhangee/ep-ind-claims huggingface dataset:
A method for managing a plurality of operating systems for a secure element by an update agent within the secure element, the method comprising: - identifying a first operating system, OS1, being actively used by the secure element; - identifying inactive operating systems within the secure element, which are operating systems which have been loaded onto the secure element and are not actively used by the secure element; and - allocating the inactive operating systems to a storage provider, which is a memory external of the secure element, - wherein the inactive operating systems are kept externally in the storage provider and ready for being loaded onto the secure element on demand. - identifying a first operating system, OS1, being actively used by the secure element; - identifying inactive operating systems within the secure element, which are operating systems which have been loaded onto the secure element and are not actively used by the secure element; and - allocating the inactive operating systems to a storage provider, which is a memory external of the secure element, - wherein the inactive operating systems are kept externally in the storage provider and ready for being loaded onto the secure element on demand.
A method of a node (20, 40) in a variable bandwidth wireless communication system for transmitting data between a mobile node and a network node efficiently in terms of the power consumed by a receiver of the mobile node relative to the data rate, the method comprising: determining a value of a control setting, different values of the control setting corresponding to different pre-defined power efficiency configurations for the mobile node, each power efficiency configuration representing a different tradeoff between power efficiency of the mobile node and data rate; in which the value corresponds to a power efficiency configuration whereby the mobile node operates at the maximum power efficiency possible without the data rate falling below a minimum data rate or a current data rate wherein the current data rate is greater than a minimum data rate which is required by a quality of service associated with the data transmission; and selecting from different possible bandwidths of the data transmission a bandwidth that supports a given data rate and that, according to a power efficiency model that models power efficiency of the mobile node for the different possible bandwidths, yields a tradeoff between power efficiency and data rate comporting with the power efficiency configuration corresponding to the determined value; and wherein the given data rate comprises any of the minimum data rate or the current data rate. determining a value of a control setting, different values of the control setting corresponding to different pre-defined power efficiency configurations for the mobile node, each power efficiency configuration representing a different tradeoff between power efficiency of the mobile node and data rate; in which the value corresponds to a power efficiency configuration whereby the mobile node operates at the maximum power efficiency possible without the data rate falling below a minimum data rate or a current data rate wherein the current data rate is greater than a minimum data rate which is required by a quality of service associated with the data transmission; and selecting from different possible bandwidths of the data transmission a bandwidth that supports a given data rate and that, according to a power efficiency model that models power efficiency of the mobile node for the different possible bandwidths, yields a tradeoff between power efficiency and data rate comporting with the power efficiency configuration corresponding to the determined value; and wherein the given data rate comprises any of the minimum data rate or the current data rate.
A method of transforming acceleration data to drill-string motions related to drilling dysfunctions comprising: (a) determining gravitational and centripetal accelerations; (b) characterised by performing a local running mean of acceleration measurements from a drill pipe to determine the said gravitational and centripetal accelerations; (c) removing the local running mean to yield corrected acceleration data due to vibration only; (d) transforming the corrected acceleration data from a local rotating coordinate frame to a global stationary coordinate frame; (e) mapping in real time, the acceleration data in the global stationary coordinate frame into continuous drill-string positions: (f) further comprising determining, via a computing device, dysfunctions for detecting drilling equipment failure by using the data of step (e) to produce various attributes quantifying the drilling dysfunction. (a) determining gravitational and centripetal accelerations; (b) characterised by performing a local running mean of acceleration measurements from a drill pipe to determine the said gravitational and centripetal accelerations; (c) removing the local running mean to yield corrected acceleration data due to vibration only; (d) transforming the corrected acceleration data from a local rotating coordinate frame to a global stationary coordinate frame; (e) mapping in real time, the acceleration data in the global stationary coordinate frame into continuous drill-string positions: (f) further comprising determining, via a computing device, dysfunctions for detecting drilling equipment failure by using the data of step (e) to produce various attributes quantifying the drilling dysfunction.
Tyre having a radial carcass reinforcement, composed of at least one layer of metal reinforcing elements (27, 37, 47), the said tyre comprising a crown reinforcement, itself topped radially by a tread, the said tread being joined to two beads via two sidewalls, the metal reinforcing elements (27, 37, 47) of at least one layer of the carcass reinforcement being cords exhibiting, in the "permeability" test, a flow rate of less than 20 cm 3 /min, characterized in that at least one layer of the carcass reinforcement is provided, on at least one face, with textile threads (20, 30, 40) exhibiting, in the "permeability" test, a flow rate of between 1 and 3 cm 3 /min.
Locking device for locking to a mobile stand, comprising a base, a snap-in hook that is pivotable relative to the base between a locking position and an unlocking position about a pivot axis running in a transverse direction, and a snap-in device for blocking the snap-in hook in the locking position on the base, the snap-in hook having a snap-in portion and a control portion, the snap-in portion having a detent contour for receiving a profile of a stand in the locking position, the snap-in hook being arranged such that when a locking force is exerted on the control portion, the snap-in hook is pivoted from the unlocking position into the locking position, and the snap-in device being configured and arranged such that when the locking position is reached, the snap-in hook is automatically blocked by the snap-in device, the snap-in device reaching a blocking position in the process, characterised in that the snap-in portion has a ramp surface, which is arranged on a side of the detent contour facing away from the control portion and which runs in a sloped manner with respect to a longitudinal direction and in a sloped manner with respect to a vertical direction. the snap-in hook having a snap-in portion and a control portion, the snap-in portion having a detent contour for receiving a profile of a stand in the locking position, the snap-in hook being arranged such that when a locking force is exerted on the control portion, the snap-in hook is pivoted from the unlocking position into the locking position, and the snap-in device being configured and arranged such that when the locking position is reached, the snap-in hook is automatically blocked by the snap-in device, the snap-in device reaching a blocking position in the process, characterised in that the snap-in portion has a ramp surface, which is arranged on a side of the detent contour facing away from the control portion and which runs in a sloped manner with respect to a longitudinal direction and in a sloped manner with respect to a vertical direction.
A brazing rod for forming a wear resistant coating on a substrate by a brazing process, the brazing rod comprising a composite material comprising a plurality of round particles bound together by a binding material, each of the plurality of round particles comprising a round outer layer encapsulating a wear resistant element, wherein the wear resistant element of each of the plurality of round particles has a coating metallurgically bonded thereto, the coating being intermediate of the elements and the encapsulating material and being metallurgically bondable to the binding material.
A method of producing intestinal cells, comprising the steps of: inducing differentiation of pluripotent stem cells into definitive endoderm cells; and culturing the definitive endoderm cells in the presence of (2'Z,3'E)-6-bromoindirubin-3'-oxime and N-[(3,5-difluorophenyl)acetyl]-L-Ala-2-Phenyl-L-Gly-tert-butyl-OH (DAPT) to thereby induce differentiation of the definitive endoderm cells into intestinal cells. inducing differentiation of pluripotent stem cells into definitive endoderm cells; and culturing the definitive endoderm cells in the presence of (2'Z,3'E)-6-bromoindirubin-3'-oxime and N-[(3,5-difluorophenyl)acetyl]-L-Ala-2-Phenyl-L-Gly-tert-butyl-OH (DAPT) to thereby induce differentiation of the definitive endoderm cells into intestinal cells.
Method for controlling the yarn consumption of a knitted fabric manufactured on a flatbed knitting machine by measuring an actual value for the yarn consumption and controlling to a target value by matching of the loop length, wherein the knitted fabric is manufactured with yarns which are each supplied via a yarn-length measuring device and a yarn guide to the needles of a front and/or rear needle bed of the flatbed knitting machine, wherein, in order to determine a correction value for the control of the take-off elements of the flatbed knitting machine influencing the loop length, the position of the take-off element specified in the case of preparing the pattern for the knitted fabric for every stitch type of the knitted fabric is taken into consideration and, at the start of production, a first knitted-fabric piece is manufactured with the same pattern data as for the other knitted fabrics to be produced and, through continuous measurement of the actual value of the yarn consumption and comparison with the target value, the correction value for every stitch type occurring in the knitted fabric is calculated and further improved and stored, characterised in that, following this, the production of the further knitted fabrics is implemented with the use of the determined correction values for the control of the take-off elements, wherein, in order to determine the correction values for each stitch type, the length of the loop rows is not taken into consideration.
A detection device intended to be installed in a piece of wireless communication equipment of a person able to sit in a driving position of a vehicle including a communication module and an electric power network to which said communication equipment is capable of being connected, characterized in that it includes i) detection means arranged to detect a disconnection of said communication equipment from said communication module and/or from said electric power network and a start of the departure of said person from said driving position, and ii) control means arranged to provide information concerning the movement of said communication equipment and to trigger the generation of at least one warning message by said communication equipment when the latter is not moved for a predefined period following said detection.
Container for storing and transporting a dental titanium implant, comprising a first sleeve body and a second sleeve body, wherein the longitudinal extension of the second sleeve body exceeds the longitudinal extension of the first sleeve body, characterized in that the two sleeve bodies (2, 3) are each deep-drawn and combined with each other according to the modular principle, and in that the first sleeve body is at least partially received by the second sleeve body and pressed together with the latter. comprising a first sleeve body and a second sleeve body, wherein the longitudinal extension of the second sleeve body exceeds the longitudinal extension of the first sleeve body, characterized in that the two sleeve bodies (2, 3) are each deep-drawn and combined with each other according to the modular principle, and in that the first sleeve body is at least partially received by the second sleeve body and pressed together with the latter.
A radiation detector comprising: a scintillator crystal; a rotary mounting supporting the scintillator crystal allowing rotation of the scintillator crystal about a rotation axis; a drive means arranged to rotate the scintillator crystal about the rotation axis to controllable angles; and a photon detector arranged to measure photons emitted by the scintillator crystal in response to radiation; wherein the scintillator crystal is shaped to present a cross-section to radiation from a radiation source that varies as a function of angle as the scintillator crystal rotates about the rotation axis; further comprising a processing means arranged to cause the drive means to rotate the radiation sensor to a plurality of measurement angles, to measure the response of the radiation sensor at the plurality of angles, and to determine the direction of a radiation source from the measurements of photons at the plurality of measurement angles. characterised by further comprising a housing surrounding the scintillator crystal and photon detector, wherein the interior of the housing is reflective or white to reflect photons emitted by the scintillator crystal so that they can be detected by the photon detector. a scintillator crystal; a rotary mounting supporting the scintillator crystal allowing rotation of the scintillator crystal about a rotation axis; a drive means arranged to rotate the scintillator crystal about the rotation axis to controllable angles; and a photon detector arranged to measure photons emitted by the scintillator crystal in response to radiation; wherein the scintillator crystal is shaped to present a cross-section to radiation from a radiation source that varies as a function of angle as the scintillator crystal rotates about the rotation axis; further comprising a processing means arranged to cause the drive means to rotate the radiation sensor to a plurality of measurement angles, to measure the response of the radiation sensor at the plurality of angles, and to determine the direction of a radiation source from the measurements of photons at the plurality of measurement angles. characterised by further comprising a housing surrounding the scintillator crystal and photon detector, wherein the interior of the housing is reflective or white to reflect photons emitted by the scintillator crystal so that they can be detected by the photon detector.
A method for producing neopentyl glycol, the method comprising a step of performing a hydrogenation reaction by injecting a hydroxypivaldehyde solution and hydrogen into a hydrogenation reactor, and comprising a step of adjusting the content of H 2 O contained in the hydroxypivaldehyde solution to 6.0% by weight or less before the hydroxypivaldehyde solution is injected into the hydrogenation reactor, wherein the hydrogenation reactor is a reactor comprising a catalyst in which copper is supported on a silicon oxide support as a fixed bed.
A liquid vancomycin-containing composition, comprising from about 50 mg/mL to about 250 mg/mL of vancomycin or a pharmaceutically acceptable salt thereof, glycerol, a member of the group consisting of lactic acid, lactate or mixtures thereof, and a pharmaceutically acceptable fluid which includes water, said vancomycin-containing composition having a pH of from about 5.5 to about 6.5 and being suitable for parenteral administration wherein the amount of glycerol is from about 15 % (v/v) to about 30 % (v/v).
A method for forming a radiation-hardened chip package (24, 26) for a circuit chip, comprising: providing a circuit chip; coating the circuit chip with an alpha particle shielding material; coating the alpha particle shielding material with a high energy particle shielding composite material, the high energy particle shielding composite material being a gadolinium/polyimide composite with 5 wt% Gd; coating the high energy particle shielding composite material with a high energy electromagnetic, EM, wave shielding composite material, wherein the high energy EM wave shielding composite material includes a rare earth element, wherein a coated circuit chip is formed; and encapsulating the coated circuit chip, the alpha particle shielding material, the high energy particle shielding composite material and the high energy EM wave shielding composite material with a molding compound. providing a circuit chip; coating the circuit chip with an alpha particle shielding material; coating the alpha particle shielding material with a high energy particle shielding composite material, the high energy particle shielding composite material being a gadolinium/polyimide composite with 5 wt% Gd; coating the high energy particle shielding composite material with a high energy electromagnetic, EM, wave shielding composite material, wherein the high energy EM wave shielding composite material includes a rare earth element, wherein a coated circuit chip is formed; and encapsulating the coated circuit chip, the alpha particle shielding material, the high energy particle shielding composite material and the high energy EM wave shielding composite material with a molding compound.
Method for producing a wave gear drive, in which method a radially flexible roller bearing is disposed on the bearing seat of a wave generator, characterized in that at least a sub-region of the wave generator is plastically deformed after, or temporally parallel with, the disposal of the radially flexible roller bearing.
A display device, comprising: a substrate; a transistor disposed on the substrate; a planarization insulating layer (P_IS) disposed on the transistor and the substrate; a pixel definition layer disposed on the planarization insulating layer (P_IS), the pixel definition layer comprising a pixel opening (PX_OP); and an emission element (OLED) in the pixel opening (PX_OP) and connected to the transistor, wherein, the planarization insulating layer (P_IS) comprises a protruding portion, characterised in that the protruding portion extends through the pixel definition layer to extend further from the substrate than the pixel definition layer. a substrate; a transistor disposed on the substrate; a planarization insulating layer (P_IS) disposed on the transistor and the substrate; a pixel definition layer disposed on the planarization insulating layer (P_IS), the pixel definition layer comprising a pixel opening (PX_OP); and an emission element (OLED) in the pixel opening (PX_OP) and connected to the transistor, wherein, the planarization insulating layer (P_IS) comprises a protruding portion, characterised in that the protruding portion extends through the pixel definition layer to extend further from the substrate than the pixel definition layer.
A device for detection of falsified signals in a satellite navigation system, comprising: - at least two antennas (12, 14) having one or more receivers for receiving navigation signals (240, 260, 280, 300, 320, 340), - a phase difference measuring unit configured to determine phase differences of the received navigation signals for each antenna, and - a detection unit configured to detect falsified navigation signals (320, 340) among the received navigation signals based on the determined phase differences, wherein - the phase difference measuring unit is configured to determine, for each pair of the navigation signals (240, 260, 280, 300, 320, 340) received by one of the two antennas (12, 14), a phase difference Δ φ based on measurements of the phase differences between the carrier phases of individual navigation signals and the phase of a reference wave, and - the detection unit is configured to detect navigation signals as falsified navigation signals when the phase differences of these navigation signals are nearly identical, - wherein a reference wave unit is provided for generating the reference wave having the same frequency as the carrier wave of the received navigation signals. - at least two antennas (12, 14) having one or more receivers for receiving navigation signals (240, 260, 280, 300, 320, 340), - a phase difference measuring unit configured to determine phase differences of the received navigation signals for each antenna, and - a detection unit configured to detect falsified navigation signals (320, 340) among the received navigation signals based on the determined phase differences, - the phase difference measuring unit is configured to determine, for each pair of the navigation signals (240, 260, 280, 300, 320, 340) received by one of the two antennas (12, 14), a phase difference Δ φ based on measurements of the phase differences between the carrier phases of individual navigation signals and the phase of a reference wave, and - the detection unit is configured to detect navigation signals as falsified navigation signals when the phase differences of these navigation signals are nearly identical, - wherein a reference wave unit is provided for generating the reference wave having the same frequency as the carrier wave of the received navigation signals.