mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method to increase security of a blockchain-implemented transaction, the transaction including participation from a plurality of participating nodes, each participating node having its own public key and private key, each participating node participating as at least one of a message originator, selector, or propagator, the method comprising: receiving ciphertext from a prior node; determining whether a participating node is a selector node for said ciphertext received from the prior node; when the participating node is the selector node for said ciphertext: selecting a subset of said ciphertext; decrypting using the private key of the participating node, the selected subset of said ciphertext to provide opted ciphertext for propagating to a next node; and transmitting said opted ciphertext to the next node; and when the participating node is other than the selector node for said ciphertext: decrypting using the private key of the participating node, said ciphertext received from the prior node; and transmitting the decrypted ciphertext to the next node. receiving ciphertext from a prior node; determining whether a participating node is a selector node for said ciphertext received from the prior node; when the participating node is the selector node for said ciphertext: selecting a subset of said ciphertext; decrypting using the private key of the participating node, the selected subset of said ciphertext to provide opted ciphertext for propagating to a next node; and transmitting said opted ciphertext to the next node; and when the participating node is other than the selector node for said ciphertext: decrypting using the private key of the participating node, said ciphertext received from the prior node; and transmitting the decrypted ciphertext to the next node. selecting a subset of said ciphertext; decrypting using the private key of the participating node, the selected subset of said ciphertext to provide opted ciphertext for propagating to a next node; and transmitting said opted ciphertext to the next node; and when the participating node is other than the selector node for said ciphertext: decrypting using the private key of the participating node, said ciphertext received from the prior node; and transmitting the decrypted ciphertext to the next node.
A method for indicating an operating environment of a mobile device comprising the following steps: generating personalized information when the mobile device is started for the first time and storing the personalized information in a storage area that can be only accessed by a secure operating system; and displaying the personalized information on a display area of the mobile device when the mobile device enters the secure operating system so as to inform the user of the currently running operating system and displaying a final credibility level of the currently operating application on the display area of the mobile device when the mobile device is running in the secure operating system so as to inform the user of the security of the currently operating application; wherein the final credibility level of application is generated based on the credibility level of application and the credibility level of a carrier of the application; the credibility level of application is based on whether the application has been verified by the secure operating system and/or based on the carrier of the application, and wherein the carrier is a physical secure element or a virtual secure element, and the credibility level of the carrier of the application is based on whether the carrier has been verified by the secure operating system. generating personalized information when the mobile device is started for the first time and storing the personalized information in a storage area that can be only accessed by a secure operating system; and displaying the personalized information on a display area of the mobile device when the mobile device enters the secure operating system so as to inform the user of the currently running operating system and displaying a final credibility level of the currently operating application on the display area of the mobile device when the mobile device is running in the secure operating system so as to inform the user of the security of the currently operating application; wherein the final credibility level of application is generated based on the credibility level of application and the credibility level of a carrier of the application; the credibility level of application is based on whether the application has been verified by the secure operating system and/or based on the carrier of the application, and wherein the carrier is a physical secure element or a virtual secure element, and the credibility level of the carrier of the application is based on whether the carrier has been verified by the secure operating system.
A composite material having the Formula 2: M x 1 M a 2 M 1 − x − a 3 y / C, (a) wherein y represents the total weight percent (wt%) of an alloy of Formula 1: M x 1 M a 2 M 1 − x − a 3, (i) wherein M x 1 M a 2 M 1 − x − a 3 represents the nominal composition of the alloy; (ii) M x 1 comprises platinum (Pt); (iii) M a 2 comprises copper (Cu); (iv) M 1 − x − a 3 comprises ruthenium (Ru); (v) the total atomic percent of platinum (Pt) and ruthenium (Ru) in the alloy is from 10 to 50 defined as (1-a) = from 0.1 to 0.5; (vi) the composition comprises nanoparticles; (vii) a structure of the alloy at a surface of the nanoparticles comprises a non-structured portion having the structure of the Fm 3 m space group; and (b) wherein C comprises activated carbon. (a) wherein y represents the total weight percent (wt%) of an alloy of Formula 1: M x 1 M a 2 M 1 − x − a 3, (i) wherein M x 1 M a 2 M 1 − x − a 3 represents the nominal composition of the alloy; (ii) M x 1 comprises platinum (Pt); (iii) M a 2 comprises copper (Cu); (iv) M 1 − x − a 3 comprises ruthenium (Ru); (v) the total atomic percent of platinum (Pt) and ruthenium (Ru) in the alloy is from 10 to 50 defined as (1-a) = from 0.1 to 0.5; (vi) the composition comprises nanoparticles; (vii) a structure of the alloy at a surface of the nanoparticles comprises a non-structured portion having the structure of the Fm 3 m space group; and (i) wherein M x 1 M a 2 M 1 − x − a 3 represents the nominal composition of the alloy; (ii) M x 1 comprises platinum (Pt); (iii) M a 2 comprises copper (Cu); (iv) M 1 − x − a 3 comprises ruthenium (Ru); (v) the total atomic percent of platinum (Pt) and ruthenium (Ru) in the alloy is from 10 to 50 defined as (1-a) = from 0.1 to 0.5; (vi) the composition comprises nanoparticles; (vii) a structure of the alloy at a surface of the nanoparticles comprises a non-structured portion having the structure of the Fm 3 m space group; and (b) wherein C comprises activated carbon.
System for anchoring a cable to the container of an optical splice enclosure, having: - a plinth that can be fastened to the port for entry of the cables into the container, having an axial passage for the cables, having a cylindrical perimeter having a plurality of arches, which are distributed over said cylindrical perimeter and of axis parallel to the axis of the plinth; - and at least one cable anchoring device, independent of the plinth, and able to be fastened to the plinth by mechanical cooperation with at least one arch of the plinth, characterized in that the anchoring device is constituted of a flat U-shaped anchoring support and a crossmember substantially parallel to the base of the U, this crossmember having two bent ends guided by slots in the anchoring support; and a screw for fastening the crossmember to the base of the U, so as to ensure the anchoring, each of the branches of the U bearing on the outside a catch for snap-fastening to an arch of the plinth, the anchoring support being dimensioned so as to be snap-fastened onto two diametrically opposite arches of the plinth. - a plinth that can be fastened to the port for entry of the cables into the container, having an axial passage for the cables, having a cylindrical perimeter having a plurality of arches, which are distributed over said cylindrical perimeter and of axis parallel to the axis of the plinth; - and at least one cable anchoring device, independent of the plinth, and able to be fastened to the plinth by mechanical cooperation with at least one arch of the plinth, characterized in that the anchoring device is constituted of a flat U-shaped anchoring support and a crossmember substantially parallel to the base of the U, this crossmember having two bent ends guided by slots in the anchoring support; and a screw for fastening the crossmember to the base of the U, so as to ensure the anchoring, each of the branches of the U bearing on the outside a catch for snap-fastening to an arch of the plinth, the anchoring support being dimensioned so as to be snap-fastened onto two diametrically opposite arches of the plinth.
A composition suitable for use in extrusion coating applications, comprising: a. from 40 to 80 % by weight of the composition of a first polyethylene composition, said first polyethylene composition comprising a linear low density polyethylene having a density in the range of from 0.90 to 0.96 g/cm 3 (measured with ASTM D792), and a melt index (I 2) of from 5 to 15 g/10 min (measured with ASTM D 1238); b. from 1 to 10% by weight of the composition of a second polyethylene composition, said second polyethylene composition comprising a high pressure low density polyethylene having a density in the range of from 0.915 to 0.930 g/cm 3, and a melt index of from 0.1 to 3 g/10 min; and c. from 10 to 50% by weight of the composition of a third polyethylene composition, said third polyethylene composition comprising a high pressure low density polyethylene having a density in the range of from 0.915 to 0.930 g/cm 3, and a melt index of from 5 to 15 g/10 min. a. from 40 to 80 % by weight of the composition of a first polyethylene composition, said first polyethylene composition comprising a linear low density polyethylene having a density in the range of from 0.90 to 0.96 g/cm 3 (measured with ASTM D792), and a melt index (I 2) of from 5 to 15 g/10 min (measured with ASTM D 1238); b. from 1 to 10% by weight of the composition of a second polyethylene composition, said second polyethylene composition comprising a high pressure low density polyethylene having a density in the range of from 0.915 to 0.930 g/cm 3, and a melt index of from 0.1 to 3 g/10 min; and c. from 10 to 50% by weight of the composition of a third polyethylene composition, said third polyethylene composition comprising a high pressure low density polyethylene having a density in the range of from 0.915 to 0.930 g/cm 3, and a melt index of from 5 to 15 g/10 min.
Device for generating a high voltage or high field strength, comprising a piezoelectric transformer having an input region and an output region, a drive electronics for supplying the piezoelectric transformer with alternating voltage, connected to a contact of a first side surface of the input region and to a contact of a second side surface of the input region via electrical lines, characterized by a cylindrical dielectric sleeve having an output-side end and an input-side end, which surrounds the piezoelectric transformer along its longitudinal direction, and a means provided in a region of the cylindrical and dielectric sleeve starting from an output-side end face of the piezoelectric transformer and extending at least partially in the longitudinal direction along the output region, wherein the means covers the output-side end face of the piezoelectric transformer and the output-side end of the cylindrical dielectric sleeve, and maintains a substantially symmetrical field distribution in a space of the region between the piezoelectric transformer and an inner wall of the dielectric sleeve, even under an external influence, and influences a field distribution such that an ignition field strength in the space of the region is avoided. a cylindrical dielectric sleeve having an output-side end and an input-side end, which surrounds the piezoelectric transformer along its longitudinal direction, and a means provided in a region of the cylindrical and dielectric sleeve starting from an output-side end face of the piezoelectric transformer and extending at least partially in the longitudinal direction along the output region, wherein the means covers the output-side end face of the piezoelectric transformer and the output-side end of the cylindrical dielectric sleeve, and maintains a substantially symmetrical field distribution in a space of the region between the piezoelectric transformer and an inner wall of the dielectric sleeve, even under an external influence, and influences a field distribution such that an ignition field strength in the space of the region is avoided.
A method comprising: assigning a first protocol stack of a device to network communications; assigning a second protocol stack of the device to sidelink communications; generating, at the second protocol stack, first information based on arrival of data in a sidelink logical channel; transmitting the first information from the second protocol stack to a network device via the first protocol stack; receiving, at the first protocol stack, second information from the network device; and transmitting the second information from the first protocol stack to the second protocol stack, wherein the second information comprises a sidelink grant indicated by a radio network temporary identifier, downlink control information, or a combination thereof; and wherein the first protocol stack conveys the sidelink grant directly to a medium access control layer of the second protocol stack. assigning a first protocol stack of a device to network communications; assigning a second protocol stack of the device to sidelink communications; generating, at the second protocol stack, first information based on arrival of data in a sidelink logical channel; transmitting the first information from the second protocol stack to a network device via the first protocol stack; receiving, at the first protocol stack, second information from the network device; and transmitting the second information from the first protocol stack to the second protocol stack, wherein the second information comprises a sidelink grant indicated by a radio network temporary identifier, downlink control information, or a combination thereof; and wherein the first protocol stack conveys the sidelink grant directly to a medium access control layer of the second protocol stack.
A microporous crystalline material of zeolitic nature ITQ-55 characterized because it has, in calcined state and in absence of defects in its crystalline matrix manifested by the presence of silanols, the empiric formula x (M 1/n XO 2): y YO 2: g GeO 2: (1-g)SiO 2 in which M is selected between H+, at least one inorganic cation of charge +n, and a mixture of both, X is at least one chemical element of oxidation state +3, Y is at least one chemical element with oxidation state +4 different from Si, x takes a value between 0 and 0.2, both included, y takes a value between 0 and 0.1, both included, g takes a value between 0 and 0.5, both included, and because the material, as synthesized, has an X-ray diffraction pattern with, at least, the angle values 2θ (degrees) and relative intensities (I/I 0): 2θ (degrees) ±0.5 Intensity (I/I 0) 5.8 w 7.7 w 8.9 w 9.3 mf 9.9 w 10.1 w 13.2 m 13.4 w 14.7 w 15.1 m 15.4 w 15.5 w 17.4 m 17.7 m 19.9 m 20.6 m 21.2 f 21.6 f 22.0 f 23.1 mf 24.4 m 27.0 m where I 0 is the intensity from the most intense pick to which is assigned a value of 100 w is a weak relative intensity between 0 and 20%, m is an average relative intensity between 20 and 40%, f is a strong relative intensity between 40 and 60%, and mf is a very strong relative intensity between 60 and 100%. M is selected between H+, at least one inorganic cation of charge +n, and a mixture of both, X is at least one chemical element of oxidation state +3, Y is at least one chemical element with oxidation state +4 different from Si, x takes a value between 0 and 0.2, both included, y takes a value between 0 and 0.1, both included, g takes a value between 0 and 0.5, both included, and because the material, as synthesized, has an X-ray diffraction pattern with, at least, the angle values 2θ (degrees) and relative intensities (I/I 0): 2θ (degrees) ±0.5 Intensity (I/I 0) 5.8 w 7.7 w 8.9 w 9.3 mf 9.9 w 10.1 w 13.2 m 13.4 w 14.7 w 15.1 m 15.4 w 15.5 w 17.4 m 17.7 m 19.9 m 20.6 m 21.2 f 21.6 f 22.0 f 23.1 mf 24.4 m 27.0 m where I 0 is the intensity from the most intense pick to which is assigned a value of 100 w is a weak relative intensity between 0 and 20%, m is an average relative intensity between 20 and 40%, f is a strong relative intensity between 40 and 60%, and mf is a very strong relative intensity between 60 and 100%. where I 0 is the intensity from the most intense pick to which is assigned a value of 100 w is a weak relative intensity between 0 and 20%, m is an average relative intensity between 20 and 40%, f is a strong relative intensity between 40 and 60%, and mf is a very strong relative intensity between 60 and 100%.
A method for the feedback control of a procedure for wrapping a round bale rotating in a bale chamber of a round baler with an elastic, web-shaped wrapping material which is withdrawn from at least one supply roll by means of a tensioning device controlled by a control unit and guided during the wrapping procedure through at least one guide roller (24A, 24B), wherein the round bales are wrapped with the wrapping material which has been pre-tensioned by the tensioning device with an adjustable wrapping tension set by the control unit, characterized in that an actual value (F_Ist) for a force (F_W) resulting from the wrapping tension is determined by a sensor assembly comprising at least one sensor, in that the actual value (F_Ist) is compared with a target value (F_Soll) for the force (F_W) resulting from the wrapping tension which is derived from a tension-elongation diagram determined during the implementation of at least one preceding wrapping procedure and which is specific to the wrapping material, wherein the tensioning device is controlled as a function of a deviation determined from the comparison of the actual value (F_Ist) and the target value (F_Soll).
Method for operating a hybrid drive system of a motor vehicle, wherein the hybrid drive system comprises an internal combustion engine having a belt starter generator coupled thereto, a transmission, a powertrain generator, an exhaust gas tract for the internal combustion engine, a control device and an output, wherein a first clutch is arranged between the internal combustion engine and the transmission, the method comprising: - bringing the motor vehicle to a first speed by controlling the hybrid drive system by means of the control device, - bringing about an operating state of the hybrid drive system, in which the first clutch is opened, by means of the control device, - switching off the internal combustion engine by means of the control device, - detecting, by means of the control device, a braking request for braking the motor vehicle, - closing the first clutch by means of the control device for overrunning the internal combustion engine and for operating the belt starter generator in a recuperation mode, and - configuring the internal combustion engine by means of the control device such that only inlet valves of the internal combustion engine remain closed during a rotation of a crankshaft of the internal combustion engine. - bringing the motor vehicle to a first speed by controlling the hybrid drive system by means of the control device, - bringing about an operating state of the hybrid drive system, in which the first clutch is opened, by means of the control device, - switching off the internal combustion engine by means of the control device, - detecting, by means of the control device, a braking request for braking the motor vehicle, - closing the first clutch by means of the control device for overrunning the internal combustion engine and for operating the belt starter generator in a recuperation mode, and - configuring the internal combustion engine by means of the control device such that only inlet valves of the internal combustion engine remain closed during a rotation of a crankshaft of the internal combustion engine.
A pair of sliding parts (4, 7) having sliding faces that slide with respect to each other, at least the sliding face on one side includes: dynamic pressure generation grooves (11; 61) each of which has one end (11a, 61a) communicating with the other-side peripheral edge (4b; 64b) of the sliding face and the other end (11b; 61b) being surrounded by a land portion; a release groove (13; 25c; 63) provided in the land portion between the other ends (11b; 61b) of the dynamic pressure generation grooves (11; 61) and a one-side peripheral edge of the sliding face (4a; 64a); fluid introduction grooves (12; 25b, 25d; 62) each of which has one end (12a; 25a, 25e; 62a) communicating with an other-side peripheral edge (4b; 64b) of the sliding face and one end communicating with the release groove (13; 25c; 63); and regions surrounded by the fluid introduction grooves (12; 25b, 25d; 62) and the release groove (13; 25c; 63), characterized in that a predetermined number of the dynamic pressure generation grooves (11; 61) is arranged in the regions; and in that a flow passage sectional area of the release groove (13; 25c; 63) and flow passage sectional areas of the fluid introduction grooves (12; 25b, 25d; 62) are respectively formed to be larger than the sum of flow passage sectional areas of the dynamic pressure generation grooves (11; 61). dynamic pressure generation grooves (11; 61) each of which has one end (11a, 61a) communicating with the other-side peripheral edge (4b; 64b) of the sliding face and the other end (11b; 61b) being surrounded by a land portion; a release groove (13; 25c; 63) provided in the land portion between the other ends (11b; 61b) of the dynamic pressure generation grooves (11; 61) and a one-side peripheral edge of the sliding face (4a; 64a); fluid introduction grooves (12; 25b, 25d; 62) each of which has one end (12a; 25a, 25e; 62a) communicating with an other-side peripheral edge (4b; 64b) of the sliding face and one end communicating with the release groove (13; 25c; 63); and regions surrounded by the fluid introduction grooves (12; 25b, 25d; 62) and the release groove (13; 25c; 63), characterized in that a predetermined number of the dynamic pressure generation grooves (11; 61) is arranged in the regions; and in that a flow passage sectional area of the release groove (13; 25c; 63) and flow passage sectional areas of the fluid introduction grooves (12; 25b, 25d; 62) are respectively formed to be larger than the sum of flow passage sectional areas of the dynamic pressure generation grooves (11; 61).