mhurhangee/ep-ind-claims huggingface dataset:
A method for directly exchanging electronic coin data sets between security elements (SE1, SE2, SE3) of terminals (M1, M2; M3), comprising the steps of: - receiving a coin data set (C root) in a first security element, wherein the coin data set (C root) is represented by a random number (r) and a number (n) of elements (C x) of the received coin data set (C root) can be calculated, wherein each element (C x) of the received coin data set (C root) can be calculated as a result of a cryptographic function (f(r) x) from the random number (r) and the respective position (x) of the element (C x) in the number of elements of the coin data set (C root); - calculating, in the first security element, at least one element (C k) of the received coin data set (C root) from the random number (r) and the position (k) of the element (C k) in the coin data set (C root) by means of the cryptographic function (f(r) k), - transmitting a coin record (C 1) derived from the received coin record (C root) from the first security element to a second security element, the derived coin record (C 1) comprising at least the calculated element (C k) of the received coin record (C root) and the position of the calculated element (k) in the received coin record (C root); and - indicating the possession of the derived coin data set (C 1) from the second security element to a verification unit, whereupon the derived coin data set (C 1) is only redeemable. - receiving a coin data set (C root) in a first security element, wherein the coin data set (C root) is represented by a random number (r) and a number (n) of elements (C x) of the received coin data set (C root) can be calculated, wherein each element (C x) of the received coin data set (C root) can be calculated as a result of a cryptographic function (f(r) x) from the random number (r) and the respective position (x) of the element (C x) in the number of elements of the coin data set (C root); - calculating, in the first security element, at least one element (C k) of the received coin data set (C root) from the random number (r) and the position (k) of the element (C k) in the coin data set (C root) by means of the cryptographic function (f(r) k), - transmitting a coin record (C 1) derived from the received coin record (C root) from the first security element to a second security element, the derived coin record (C 1) comprising at least the calculated element (C k) of the received coin record (C root) and the position of the calculated element (k) in the received coin record (C root); and - indicating the possession of the derived coin data set (C 1) from the second security element to a verification unit, whereupon the derived coin data set (C 1) is only redeemable.
A pet excreta treating material comprising a ground material of plant origin as a main component and having a higher water absorbency in the third measurement than in the first measurement, a water absorbency of 3% to 30% by weight in the third measurement, and a specific gravity of 0.8 to 1.2 as measured before the first measurement of water absorbency, wherein the measurement of water absorbency being carried out as follows: an excreta treating material having been dried in a thermostat at 40°C for 2 hours is immersed in 25°C water for 3 seconds, and the resulting weight increase as represented by the following equation is taken as a water absorbency (%); The second and following measurements are carried out by drying the excreta treating material immediately after the preceding measurement in a thermostat at 40°C for 2 hours, immersing the dried material in 25°C water for 3 seconds, and calculating the water absorbency (%) in the same manner as in the first measurement; wherein the water absorbency (%)=[(weight of excreta treating material after immersion - weight of excreta treating material before immersion)/(weight of excreta treating material before immersion)] x 100. an excreta treating material having been dried in a thermostat at 40°C for 2 hours is immersed in 25°C water for 3 seconds, and the resulting weight increase as represented by the following equation is taken as a water absorbency (%); The second and following measurements are carried out by drying the excreta treating material immediately after the preceding measurement in a thermostat at 40°C for 2 hours, immersing the dried material in 25°C water for 3 seconds, and calculating the water absorbency (%) in the same manner as in the first measurement; wherein the water absorbency (%)=[(weight of excreta treating material after immersion - weight of excreta treating material before immersion)/(weight of excreta treating material before immersion)] x 100.
A network name processing method in a Circuit Switched, CS, domain network sharing scenario, comprising: receiving, by a mobility management network element device, a network name sent by a mobile switching center/visitor location register, MSC/VLR; and processing, by the mobility management network element device, the received network name, and according to a processing result, sending a mobility management information message to a terminal to enable the terminal to display a network name of a registered network of the terminal. receiving, by a mobility management network element device, a network name sent by a mobile switching center/visitor location register, MSC/VLR; and processing, by the mobility management network element device, the received network name, and according to a processing result, sending a mobility management information message to a terminal to enable the terminal to display a network name of a registered network of the terminal.
A skin plaster comprising a water-vapour-permeable back layer having a water vapour permeability of at least 200 g/m 2 /24 h and an adhesive layer which comprises at least 10 % by weight of a disperse inner phase of hydrophilic, water-swellable particles in an outer phase comprising at least 10 % by weight of a styrene block copolymer and at least 20 % by weight of an ester resin of colophony, wherein the water vapour permeability of the skin plaster is below 1000 g/m 2, based on a period of 24 h.
A process for preparing a polyaryl ether having a softening temperature T s, comprising the steps of I) reacting the components at least one aromatic dihydroxyl compound and at least one aromatic sulfone compound having two halogen substituents in the presence of a carbonate compound at a first temperature T 1-I above the softening temperature T s of the polyaryl ether in a mixing kneader to obtain a salt-containing polymer comprising the polyaryl ether and a salt, II) transferring the salt-containing polymer obtained in step I) from the mixing kneader into a reactor comprising a dynamic mixer, where the salt-containing polymer has a second temperature T 2-II above the softening temperature TS of the polyaryl ether, and where the reactor comprises an extractant having a third temperature T 3-II above the softening temperature TS of the polyaryl ether, III) extracting the salt from the salt-containing polymer with the extractant in the reactor comprising a dynamic mixer at a fourth temperature T 4 - 111 above the softening temperature T s of the polyaryl ether to obtain a desalinated polymer comprising the polyaryl ether and a salt-containing extractant comprising the extractant and the salt, and wherein the reactor has a shear rate in the range from 100 to 2000 1/s. I) reacting the components at least one aromatic dihydroxyl compound and at least one aromatic sulfone compound having two halogen substituents in the presence of a carbonate compound at a first temperature T 1-I above the softening temperature T s of the polyaryl ether in a mixing kneader to obtain a salt-containing polymer comprising the polyaryl ether and a salt, at least one aromatic dihydroxyl compound and at least one aromatic sulfone compound having two halogen substituents II) transferring the salt-containing polymer obtained in step I) from the mixing kneader into a reactor comprising a dynamic mixer, where the salt-containing polymer has a second temperature T 2-II above the softening temperature TS of the polyaryl ether, and where the reactor comprises an extractant having a third temperature T 3-II above the softening temperature TS of the polyaryl ether, III) extracting the salt from the salt-containing polymer with the extractant in the reactor comprising a dynamic mixer at a fourth temperature T 4 - 111 above the softening temperature T s of the polyaryl ether to obtain a desalinated polymer comprising the polyaryl ether and a salt-containing extractant comprising the extractant and the salt, and wherein the reactor has a shear rate in the range from 100 to 2000 1/s.
A process for the separation of fatty acid alkyl esters comprising: a) forming a mixture of at least two fatty acid alkyl esters, glycerol, and a catalytically effective amount of a lipase; b) treating the mixture at a reduced pressure in the presence of water vapour under conditions such that the at least two fatty acid esters esterify at different rates and c) separating the at least two fatty acid alkyl esters to obtain a composition enriched for a fatty acid alkyl ester; further comprising a step of terminating the esterification reaction before all the fatty acid alkyl esters are esterified. a) forming a mixture of at least two fatty acid alkyl esters, glycerol, and a catalytically effective amount of a lipase; b) treating the mixture at a reduced pressure in the presence of water vapour under conditions such that the at least two fatty acid esters esterify at different rates and c) separating the at least two fatty acid alkyl esters to obtain a composition enriched for a fatty acid alkyl ester;
A control unit of a motor for an injection molding machine, which controls an AC motor (51, 61) having a plurality of sets of three-phase windings, used for the injection molding machine, comprising: a plurality of three-phase inverters (52, 53) connected to said plurality of sets of three-phase windings, respectively; and a plurality of servo controllers (54, 55, 64, 65) connected to said plurality of three-phase inverters, respectively, characterized in that said plurality of servo controllers (54, 55, 64, 65) are mutually connected and that one of the plurality of servo controllers (54, 64) set as a master controller supplies a control signal (S54, S56) to other of the plurality of servo controllers set as one or more slave controllers (55, 65) so that the drive current phase fed from said plurality of three-phase inverters (52, 53) to said plurality of sets of three-phase windings coincides with each other. a plurality of three-phase inverters (52, 53) connected to said plurality of sets of three-phase windings, respectively; and a plurality of servo controllers (54, 55, 64, 65) connected to said plurality of three-phase inverters, respectively, said plurality of servo controllers (54, 55, 64, 65) are mutually connected and that one of the plurality of servo controllers (54, 64) set as a master controller supplies a control signal (S54, S56) to other of the plurality of servo controllers set as one or more slave controllers (55, 65) so that the drive current phase fed from said plurality of three-phase inverters (52, 53) to said plurality of sets of three-phase windings coincides with each other.
Cooking device with a cooking space, a fan for transporting gas from an intake area outside the cooking space into a pressure space outside the cooking space, a first opening in the cooking space, a sensor for detecting vapour exiting the first opening, a second opening in the cooking space, which is arranged at a distance from the first opening and a seal for sealing the second opening, wherein the fan is adapted to generate an overpressure in the pressure space, characterized in that the first opening opens into the pressure space, wherein the pressure space has an outlet opening for releasing air transported through the fan into the environment and tapers towards the outlet opening, and wherein the cooking device has a seal controller for sealing the seal depending on a signal of the sensor.
A drill in which a negative land is provided on a rake face, wherein a first ridge line at an intersecting position of the negative land and a flank face, a second ridge line at an intersecting position of the flank face and a margin, and a third ridge line at an intersecting position of the negative land and the margin are convex faces in respective longitudinal rectangular cross sections, wherein, when a curvature radius of the convex face of the first ridge line at the intersecting position of the flank face and the negative land is 1, a curvature radius of the convex face of the second ridge line at the intersecting position of the flank face and the margin is 0.8 to 1.5 times the curvature radius of the first ridge line, and a curvature radius of the convex face of the third ridge line at the intersecting position of the negative land and the margin is 1.5 to 3.0 times the curvature radius of the first ridge line.
An aqueous coating liquid comprising a polyvinyl alcohol resin, a polyethyleneimine, a nonionic surfactant, and an aqueous solvent, wherein the nonionic surfactant is a mixture of an ethylene oxide adduct of acetylene glycol and an ethylene oxide-propylene oxide block copolymer.
A fluid treatment arrangement comprising: a fluid treatment unit having a multilayer structure which includes a feed layer, a permeate layer, and a layer of permeable medium positioned between the feed layer and the permeate layer, wherein the permeable medium has a feed side fluidly communicating with the feed layer and a permeate side fluidly communicating with the permeate layer, the fluid treatment unit further including first and second opposite end surfaces (22, 23) and a thermoset which holds the layers (14, 15, 16) of the multilayer structure together and which forms at least a first portion of the first end surface, wherein one of the feed layer and the permeate layer forms a second portion of the first end surface, and an impermeable thermoplastic sheet which overlies the first end surface of the fluid treatment unit and has first and second opposite surfaces, wherein the thermoset is directly bonded to the first surface of the thermoplastic sheet on the first end surface of the fluid treatment unit, the first surface of the thermoplastic sheet is textured so as to provide an enlarged surface area to which the thermoset is bonded and is modified to alter the surface energy and enhance the bond between the thermoset and the first surface of the thermoplastic sheet, and the first surface of the thermoplastic sheet is not bonded to the feed layer or the permeate layer at the second portion of the first end surface. a fluid treatment unit having a multilayer structure which includes a feed layer, a permeate layer, and a layer of permeable medium positioned between the feed layer and the permeate layer, wherein the permeable medium has a feed side fluidly communicating with the feed layer and a permeate side fluidly communicating with the permeate layer, the fluid treatment unit further including first and second opposite end surfaces (22, 23) and a thermoset which holds the layers (14, 15, 16) of the multilayer structure together and which forms at least a first portion of the first end surface, wherein one of the feed layer and the permeate layer forms a second portion of the first end surface, and an impermeable thermoplastic sheet which overlies the first end surface of the fluid treatment unit and has first and second opposite surfaces, wherein
Method for monitoring the run of a roping interconnecting a car and a counterweight of an elevator and for detecting an abnormal operation condition during the drive of a drive pulley intending therewith the car and the counterweight to be moved by said roping, wherein the roping is running on its way from the car to the drive pulley via at least one diverting pulley (16, 17) and on its way from the counterweight to the traction drive pulley via at least one diverting pulley, wherein for the counterweight side terminal a slack rope detection system being present using a detector that senses a tensile stress in the rope for the detection of a counterweight stuck, characterized in that the rotation of at least two of said pulleys (14, 16, 17; 18) is monitored by sensing their rotation, wherein the rotation data are analysed in view of a mutual correlation indicating unobstructed advancing of the car and detecting therewith an abnormal situation when detecting an absence of such correlation. wherein for the counterweight side terminal a slack rope detection system being present using a detector that senses a tensile stress in the rope for the detection of a counterweight stuck, characterized in that the rotation of at least two of said pulleys (14, 16, 17; 18) is monitored by sensing their rotation, wherein the rotation data are analysed in view of a mutual correlation indicating unobstructed advancing of the car and detecting therewith an abnormal situation when detecting an absence of such correlation.
A process of isolating or enriching a heavy metal present in a liquid medium, comprising a step of incubating a suspension containing (i) particulate scrap metal, household waste and/or industrial waste containing a heavy metal in elemental form and (ii) biomass comprising a bacterium capable of binding the heavy metal, wherein said bacterium is selected from the following genera and species: Pseudochrobactrum, Bacillus subtilis, Bacillus pumilus, Pseudomonas fluorescens, Stenotrophomonas, Bacillus cereus, and Pseudomonas aeruginosa, or from combinations thereof, wherein the biomass comprises at least 70 % (w/w) of dead bacterial cells; a step of separating the biomass having bound heavy metal from the suspension of the previous step; and a step of isolating the heavy metal from the biomass separated in the previous step; wherein said heavy metal is a precious metal selected from ruthenium, rhodium, palladium, silver, osmium, iridium, platinum, and/or gold. a step of incubating a suspension containing (i) particulate scrap metal, household waste and/or industrial waste containing a heavy metal in elemental form and (ii) biomass comprising a bacterium capable of binding the heavy metal, wherein said bacterium is selected from the following genera and species: Pseudochrobactrum, Bacillus subtilis, Bacillus pumilus, Pseudomonas fluorescens, Stenotrophomonas, Bacillus cereus, and Pseudomonas aeruginosa, or from combinations thereof, wherein the biomass comprises at least 70 % (w/w) of dead bacterial cells; a step of separating the biomass having bound heavy metal from the suspension of the previous step; and a step of isolating the heavy metal from the biomass separated in the previous step; wherein said heavy metal is a precious metal selected from ruthenium, rhodium, palladium, silver, osmium, iridium, platinum, and/or gold.
A composition comprising: (a) an RNA-guided c lustered r egularly i nterspersed s hort p alindromic r epeats (CRISPR) nuclease system or nucleic acid encoding said CRISPR nuclease system, wherein the CRISPR nuclease system comprises (i) a programmable DNA modification protein which is a CRISPR protein, and (ii) a guide RNA; and (b) at least one catalytically inactive CRISPR system or nucleic acid encoding said at least one catalytically inactive CRISPR system, wherein each catalytically inactive CRISPR system comprises (i) a programmable DNA binding protein which is a catalytically inactive CRISPR protein and (ii) a guide RNA; and wherein (x) the programmable DNA modification protein is a type II CRISPR protein and the at least one programmable DNA binding protein is a type II CRISPR protein, or (y) the programmable DNA modification protein is a type V CRISPR protein and the at least one programmable DNA binding protein is a type II CRISPR protein; and wherein the composition as defined above is not one disclosed in WO2017/070598 or WO2017/096328. (a) an RNA-guided c lustered r egularly i nterspersed s hort p alindromic r epeats (CRISPR) nuclease system or nucleic acid encoding said CRISPR nuclease system, wherein the CRISPR nuclease system comprises (i) a programmable DNA modification protein which is a CRISPR protein, and (ii) a guide RNA; and (b) at least one catalytically inactive CRISPR system or nucleic acid encoding said at least one catalytically inactive CRISPR system, wherein each catalytically inactive CRISPR system comprises (i) a programmable DNA binding protein which is a catalytically inactive CRISPR protein and (ii) a guide RNA; and wherein (x) the programmable DNA modification protein is a type II CRISPR protein and the at least one programmable DNA binding protein is a type II CRISPR protein, or (y) the programmable DNA modification protein is a type V CRISPR protein and the at least one programmable DNA binding protein is a type II CRISPR protein; and wherein the composition as defined above is not one disclosed in WO2017/070598 or WO2017/096328.
A lance injector for injecting fuel oil into a gas turbine combustion chamber, the lance injector comprising: an outer tubular body and an inner tubular body, which extend along a common axis and define a first fluid line in a gap between the outer tubular body and the inner tubular body, and a second fluid line in the inner tubular body; and a nozzle connected fluidically to the first fluid line and to the second fluid line, at respective first ends (15a, 16a) of the outer tubular body and the inner tubular body; wherein the outer tubular body and the inner tubular body are constrained to each other by constraint members (17, 27, 27', 30, 33) so that the relative axial slide between the outer tubular body and the inner tubular body is prevented in a locking region at the respective first ends (15a, 16a), and is permitted on account of expansion, between the locking region and respective second ends (15b, 16b) opposite to the first ends (15a, 16a), of the outer tubular body and the inner tubular body; characterized in that the constraint members (17, 27, 27', 30, 33) comprise a lock pin (27; 27') extending through the inner tubular body, crosswise to the axis, and projecting from the inner tubular body, the lock pin (27; 27') being connected to the inner tubular body and to the outer tubular body so as to prevent the relative axial slide between the outer tubular body and the inner tubular body in the locking region. an outer tubular body and an inner tubular body, which extend along a common axis and define a first fluid line in a gap between the outer tubular body and the inner tubular body, and a second fluid line in the inner tubular body; and a nozzle connected fluidically to the first fluid line and to the second fluid line, at respective first ends (15a, 16a) of the outer tubular body and the inner tubular body; wherein the outer tubular body and the inner tubular body are constrained to each other by constraint members (17, 27, 27', 30, 33) so that the relative axial slide between the outer tubular body and the inner tubular body is prevented in a locking region at the respective first ends (15a, 16a), and is permitted on account of expansion, between the locking region and respective second ends (15b, 16b) opposite to the first ends (15a, 16a), of the outer tubular body and the inner tubular body; characterized in that the constraint members (17, 27, 27', 30, 33) comprise a lock pin (27; 27') extending through the inner tubular body, crosswise to the axis, and projecting from the inner tubular body, the lock pin (27; 27') being connected to the inner tubular body and to the outer tubular body so as to prevent the relative axial slide between the outer tubular body and the inner tubular body in the locking region.