mhurhangee/ep-ind-claims huggingface dataset:
A polymerization catalyst composition comprising: a Component being a rare earth element compound represented by the following general formula (a-1): M-(AQ 1)(AQ 2)(AQ 3)... (a-1) where M is selected from lanthanoid elements; AQ 1, AQ 2 and AQ 3 are the same or different functional groups; A is nitrogen, oxygen or sulfur; and the Component has at least one M-A bond; a Component being an ionic compound; a Component being a compound containing a cyclopentadiene skeleton selected from substituted or unsubstituted cyclopentadienes, substituted or unsubstituted indenes, or substituted or unsubstituted fluorenes, and a Component being a halogen compound, wherein when the Component is a compound containing a cyclopentadiene skeleton selected from substituted or unsubstituted indenes, the Component is selected from 2-phenyl-1H-indene, 3-benzyl-1H-indene, 3-methyl-2-phenyl-1H-indene, 3-benzyl-2-phenyl-1H-indene, 1-benzyl-1H-indene, 1-methyl-3-dimethylbenzylsilyl-indene, and 1,3-(t-BuMe 2 Si) 2 -indene. a Component being a rare earth element compound represented by the following general formula (a-1): M-(AQ 1)(AQ 2)(AQ 3)... (a-1) where M is selected from lanthanoid elements; AQ 1, AQ 2 and AQ 3 are the same or different functional groups; A is nitrogen, oxygen or sulfur; and the Component has at least one M-A bond; a Component being an ionic compound; a Component being a compound containing a cyclopentadiene skeleton selected from substituted or unsubstituted cyclopentadienes, substituted or unsubstituted indenes, or substituted or unsubstituted fluorenes, and a Component being a halogen compound, wherein when the Component is a compound containing a cyclopentadiene skeleton selected from substituted or unsubstituted indenes, the Component is selected from 2-phenyl-1H-indene, 3-benzyl-1H-indene, 3-methyl-2-phenyl-1H-indene, 3-benzyl-2-phenyl-1H-indene, 1-benzyl-1H-indene, 1-methyl-3-dimethylbenzylsilyl-indene, and 1,3-(t-BuMe 2 Si) 2 -indene.
Method for loading a profile into a memory of a secure element, comprising, in a server (310, 320, 330) remote from the secure element, the following steps: receiving, from the secure element, a piece of information representative of a version of a profile-element template stored in the memory (220, 230) of the secure element, comparing the received piece of information with pieces of information associated with the same template stored in the memory of the remote server in order to generate a new profile, so as to determine a difference in version of the template, in case of determination of a difference, transmitting to the secured element a command to update the template stored in the memory of the secure element or updating the template stored by the remote server, in order to align their versions, generating (E10, E65) a profile including a profile element formatted using the template stored by the remote server, in its aligned version, and subsequently to the updating step, transmitting (E100, E110), to the secure element, the generated profile. receiving, from the secure element, a piece of information representative of a version of a profile-element template stored in the memory (220, 230) of the secure element, comparing the received piece of information with pieces of information associated with the same template stored in the memory of the remote server in order to generate a new profile, so as to determine a difference in version of the template, in case of determination of a difference, transmitting to the secured element a command to update the template stored in the memory of the secure element or updating the template stored by the remote server, in order to align their versions, generating (E10, E65) a profile including a profile element formatted using the template stored by the remote server, in its aligned version, and subsequently to the updating step, transmitting (E100, E110), to the secure element, the generated profile.
Gel-forming system comprising a composition, comprising one or several cationically crosslinkable polymer(s), and a composition, comprising one or several crosslinking agent(s) for crosslinking the cationically crosslinkable polymer(s), for use in a method for embedding or removing kidney stones and/or fragments thereof from a region of a kidney that contains kidney stones and/or fragments thereof, that are to be removed, with the following steps: (i) providing the compositions and, (ii) introducing the compositions and into a region of the kidney that contains kidney stones and/or fragments thereof that are to be removed, under conditions enabling crosslinking of the cationically crosslinkable polymer(s) upon contact of composition with composition, so that a crosslinked gel is formed that partly or fully surrounds the kidney stones and/or fragments thereof, that are to be removed, by which the removal of the embedded kidney stones and/or fragments thereof, that are to be removed, is enabled, (iii) removing the crosslinked gel together with the kidney stones and/or fragments thereof that are surrounded by it from the kidney. (i) providing the compositions and, (ii) introducing the compositions and into a region of the kidney that contains kidney stones and/or fragments thereof that are to be removed, under conditions enabling crosslinking of the cationically crosslinkable polymer(s) upon contact of composition with composition, so that a crosslinked gel is formed that partly or fully surrounds the kidney stones and/or fragments thereof, that are to be removed, by which the removal of the embedded kidney stones and/or fragments thereof, that are to be removed, is enabled, (iii) removing the crosslinked gel together with the kidney stones and/or fragments thereof that are surrounded by it from the kidney.
High frequency signal combiner with a first input terminal or port for feeding in a first high frequency signal, a second input terminal or port for feeding in a second high frequency signal, an output terminal or port for outputting the third high frequency signal which is a combination of the first and the second high frequency signal, a first coaxial line between the first input terminal or port and the output terminal or port, a second coaxial line between the second input terminal or port and the output terminal or port, an annular core through the recess of which the first and second coaxial line (4, 6) are passed, a load balancing resistor for compensating for a first and second high frequency signal which is asymmetrical with regard to its signal amplitude or signal power, and a parallel capacitor for compensating for residual reactances within the high frequency signal combiner between the output-side outer conductors of the first coaxial line and the second coaxial line, and an input balancing resistor for compensating for a first and second high frequency signal which is asymmetrical with regard to its signal amplitude or signal power and a parallel capacitor for compensating for residual reactances within the high frequency signal combiner between the input-side outer conductors of the first coaxial line and the second coaxial line, characterised in that in addition a first microstrip line is formed between the outer conductor of the first coaxial line at the first input terminal or port and at the output terminal or port and a second microstrip line is formed between the outer conductor of the second high frequency line at the second input terminal or port and at the output terminal or port, and in that the physical length of the first and second coaxial line (4, 6) is different to the physical length of the first and second microstrip line (9, 11), and/or in that the surge impedance of the first and second coaxial line (4, 6) is different to the surge impedance of the first and second microstrip line (9, 11).
A latch locking mechanism comprising a stationary body, a latch slidably attached to the body and taking an extended position at which it extends from the body and a retracted position when it retracts into the body, a spring that drives the latch out of the body, a detent element having a catch at one side, and being pivotally attached to the body such that it takes either an upper position or a lower position, an at least one pin configured to engage the catch of the detent element, and a lever pivotally attached to the body for releasing the detent element, said lever having at least one arm at one side and a flat pressure section at the other side, characterised in that the latch is secured to the body with the at least one pin, wherein the catch has a sliding surface which forms an acute angle with a feed axis of the latch allowing the detent element to be turned to the upper position while the latch takes the extended position, and wherein the catch further has a locking surface preventing the latch from being moved into the retracted position when the detent element is in the lower position, wherein the detent element has a driver engaging with the at least one arm of the lever and is configured in such a way that upward movement of the least one arm lifts the detent element to the upper position thereby releasing the pin and allowing the latch to retract and the spring to be tensioned. a stationary body, a latch slidably attached to the body and taking an extended position at which it extends from the body and a retracted position when it retracts into the body, a spring that drives the latch out of the body, a detent element having a catch at one side, and being pivotally attached to the body such that it takes either an upper position or a lower position, an at least one pin configured to engage the catch of the detent element, and a lever pivotally attached to the body for releasing the detent element, said lever having at least one arm at one side and a flat pressure section at the other side, characterised in that the latch is secured to the body with the at least one pin, wherein the catch has a sliding surface which forms an acute angle with a feed axis of the latch allowing the detent element to be turned to the upper position while the latch takes the extended position, and wherein the catch further has a locking surface preventing the latch from being moved into the retracted position when the detent element is in the lower position, wherein the detent element has a driver engaging with the at least one arm of the lever and is configured in such a way that upward movement of the least one arm lifts the detent element to the upper position thereby releasing the pin and allowing the latch to retract and the spring to be tensioned.
A manufacturing facility for slaked lime, comprising: a manufacturing facility for quicklime; a slaking machine which produces slaked lime by supplying slaking water to quicklime manufactured in the manufacturing facility for quicklime; an aging machine which ages the slaked lime discharged from the slaking machine; a drying machine which dries the slaked lime containing water and aged in the aging machine; and heat exchange means configured to supply, as a heat source of the drying machine, steam generated by heat exchange between water and the combustion exhaust gas or the CO 2 gas discharged from the exhaust pipe of the manufacturing facility for quicklime, wherein the manufacturing facility for quicklime comprises: a regenerative calciner (11, 31, 41) which includes a supply port (11a, 36, 44) for supplying granular limestone into the regenerative calciner, heating means capable of maintaining the temperature of the atmosphere in the regenerative calciner at a temperature not less than the calcination temperature of the limestone, an exhaust pipe (15, 45) connected to an upper part of the regenerative calciner and configured to discharge combustion exhaust gas of the heating means and CO 2 gas generated by calcination of the limestone, and a discharge port (14, 37, 48) for taking out quicklime produced by the calcination; and a heat medium which has a particle diameter larger than the particle diameter of the limestone and is filled in the regenerative calciner.
A modular perfusion apparatus for maintenance and transport of an excised donor heart, comprising: a first module comprising a hard-shell reservoir with a removable support for positioning and mounting thereon the excised heart, said hard-shell reservoir having a pair of opposing defibrillator pads engaged with an inner surface of the hard-shell reservoir; a second module comprising a heat-exchanger in communication with an oxygenator; a support for disengagably mounting thereon the first module and the second module; a first conduit infrastructure interconnecting the first module, the second module and an aorta of the excised donor heart, said first conduit infrastructure having a first centrifugal pump for pushing a perfusion solution from the first module to the second module; a second conduit infrastructure for connecting the first module with a right atrium and a left atrium of the excised donor heart, said second conduit infrastructure having a second centrifugal pump for pushing the perfusion solution from the first module to the right atrium and the left atrium; and a third conduit infrastructure for connecting the first module with a pulmonary artery of the excised donor heart, said third conduit infrastructure having a third centrifugal pump for providing an after pressure to a flow of the perfusion solution from the pulmonary artery. a first module comprising a hard-shell reservoir with a removable support for positioning and mounting thereon the excised heart, said hard-shell reservoir having a pair of opposing defibrillator pads engaged with an inner surface of the hard-shell reservoir; a second module comprising a heat-exchanger in communication with an oxygenator; a support for disengagably mounting thereon the first module and the second module; a first conduit infrastructure interconnecting the first module, the second module and an aorta of the excised donor heart, said first conduit infrastructure having a first centrifugal pump for pushing a perfusion solution from the first module to the second module; a second conduit infrastructure for connecting the first module with a right atrium and a left atrium of the excised donor heart, said second conduit infrastructure having a second centrifugal pump for pushing the perfusion solution from the first module to the right atrium and the left atrium; and a third conduit infrastructure for connecting the first module with a pulmonary artery of the excised donor heart, said third conduit infrastructure having a third centrifugal pump for providing an after pressure to a flow of the perfusion solution from the pulmonary artery.
A method for forming an intermediate structure in the formation of an optoelectronic device, wherein the method comprises: a) obtaining a stack of layers over a substrate holder in a sputtering chamber, the stack of layers comprising: an active layer comprising an active material having a perovskite crystal structure, an n-type semiconducting layer comprising a fullerene over the active layer, and an energy alignment layer comprising a lithium halide, a magnesium halide, Al 2 O 3 or a metal fluoride on, and in contact with, the n-type semiconducting layer, wherein the energy alignment layer comprises an exposed top surface, and b) sputtering an n-type semiconducting metal oxide layer on the exposed top surface of the energy alignment layer, wherein said sputtering is performed at a sputtering power density of at most 1 W·cm -2 and at a temperature of the stack of layers of at most 100°C. a) obtaining a stack of layers over a substrate holder in a sputtering chamber, the stack of layers comprising: an active layer comprising an active material having a perovskite crystal structure, an n-type semiconducting layer comprising a fullerene over the active layer, and an energy alignment layer comprising a lithium halide, a magnesium halide, Al 2 O 3 or a metal fluoride on, and in contact with, the n-type semiconducting layer, wherein the energy alignment layer comprises an exposed top surface, and an active layer comprising an active material having a perovskite crystal structure, an n-type semiconducting layer comprising a fullerene over the active layer, and an energy alignment layer comprising a lithium halide, a magnesium halide, Al 2 O 3 or a metal fluoride on, and in contact with, the n-type semiconducting layer, wherein the energy alignment layer comprises an exposed top surface, and b) sputtering an n-type semiconducting metal oxide layer on the exposed top surface of the energy alignment layer, wherein said sputtering is performed at a sputtering power density of at most 1 W·cm -2 and at a temperature of the stack of layers of at most 100°C.
A communications method comprising the steps of: activating a plurality of signal sources (110, 120, 130); and transmitting a synchronization event to said plurality of signal sources to cause said plurality of signal sources to simultaneously transmit data in response to said synchronization event, the method being characterised in that said plurality of signal sources store identification data and transmit at least a portion of said stored identification data over a set of available transmission channels in accordance with a multiple pass transmission algorithm having at least one transmission pass, wherein said signal sources utilize portions of said stored identification data to determine said transmission channels in each pass of the multiple pass transmission algorithm. activating a plurality of signal sources (110, 120, 130); and transmitting a synchronization event to said plurality of signal sources to cause said plurality of signal sources to simultaneously transmit data in response to said synchronization event, the method being characterised in that said plurality of signal sources store identification data and transmit at least a portion of said stored identification data over a set of available transmission channels in accordance with a multiple pass transmission algorithm having at least one transmission pass, wherein said signal sources utilize portions of said stored identification data to determine said transmission channels in each pass of the multiple pass transmission algorithm.
A lubricant composition for hot metal working, the hot working being piercing-rolling of a billet, wherein the lubricant composition comprises: a plurality of glass frits respectively having different softening point from each other; and a friction coefficient controlling agent, the friction coefficient controlling agent also functioning as an antislipping agent, is a powder of alumina and/or silica for raising the friction coefficient between a workpiece and tools during metal working, the glass frits and the friction coefficient controlling agent are a solid component at room temperature, the lubricant composition further contains a liquid component at room temperature, and a dispersion-suspension agent is contained in the liquid component, by which agent the solid component is dispersively suspended in the liquid component.
A recombinant host cell comprising a transposon insertion into the yijp gene, wherein the yijp gene is flanked by a gene encoding a phosphoenolpyruvate carboxylase (ppc) polypeptide, and wherein the transposon insertion down-regulates the ppc gene, wherein said recombinant host cell produces a fatty acid derivative composition at a higher titer, yield or productivity than a corresponding wild type host cell when cultured in a medium containing a carbon source under conditions effective to express said ppc polypeptide.
A device for controlling the access of a group of people (182, 184), said device comprising - locking means (106, 102, 188) for locking and unlocking a receiving space for a group of people (120, 122, 124, 126), - sensor means for detecting the number of people in the group of people (120, 122, 124, 126) received in the receiving space, characterised by - at least one first reader for signalling a successful authentication of a person in the group of people (120, 122, 124, 126) in the receiving space to an ID token assigned to this person, and - control means for unlocking the locking means (106, 102, 188) on the condition that the detected number of people is equal to the number of signalled authentications. - locking means (106, 102, 188) for locking and unlocking a receiving space for a group of people (120, 122, 124, 126), - sensor means for detecting the number of people in the group of people (120, 122, 124, 126) received in the receiving space, - at least one first reader for signalling a successful authentication of a person in the group of people (120, 122, 124, 126) in the receiving space to an ID token assigned to this person, - control means for unlocking the locking means (106, 102, 188) on the condition that the detected number of people is equal to the number of signalled authentications.
A method for carnosic acid, carnosol and rosmarinic acid isolation, comprising the sequential steps of 1) Extraction of deoiled rosemary using ultrasonic water bath at 60°C for 20 min with a 50% ethanol:water (v:v) solution, 2) Filtration of the extract of step by vacuum filtration and the filtered liquid extract is filtered for a second time using a fine filter with 1-5 micrometer pore diameter, 3) Passing deionized water as a mobile phase through a macro-porous adsorbent-containing column and the eluent from the column goes to waste, 4) Feeding the filtered liquid extract into the conditioned column in an amount of 0.01 to 5 times of the column volume, and observing the eluent which goes to waste at 284nm wavelength, then passing deionized water as mobile phase through the column and this part goes to waste, 5) Passing a 50% ethanol-water solution through the column as mobile phase, 6) Collection of eluent corresponding to liquid extract containing rosmarinic acid, 7) Evaporation-1 of ethanol in the eluate of step 6, containing rosmarinic acid, either under vacuum in rotary evaporator, lyophilizer, vacuum dryer, vacuum oven or spray dryer, 8) Freeze drying (lyophilizing) of the remaining aqueous part and obtainment of deodorized rosmarinic acid, 9) Passing a 99% ethanol through the column as mobile phase, 10) Collection of the eluent of step 9, liquid extract containing carnosic acid and carnosol, 11) Evaporation-2 of ethanol in the eluate of step 10, containing carnosic acid and carnosol either under vacuum in rotary evaporator at 40 °C, until it dries completely and obtainment of deodorized carnosic acid and carnosol, 1) Extraction of deoiled rosemary using ultrasonic water bath at 60°C for 20 min with a 50% ethanol:water (v:v) solution, 2) Filtration of the extract of step by vacuum filtration and the filtered liquid extract is filtered for a second time using a fine filter with 1-5 micrometer pore diameter, 3) Passing deionized water as a mobile phase through a macro-porous adsorbent-containing column and the eluent from the column goes to waste, 4) Feeding the filtered liquid extract into the conditioned column in an amount of 0.01 to 5 times of the column volume, and observing the eluent which goes to waste at 284nm wavelength, then passing deionized water as mobile phase through the column and this part goes to waste, 5) Passing a 50% ethanol-water solution through the column as mobile phase, 6) Collection of eluent corresponding to liquid extract containing rosmarinic acid, 7) Evaporation-1 of ethanol in the eluate of step 6, containing rosmarinic acid, either under vacuum in rotary evaporator, lyophilizer, vacuum dryer, vacuum oven or spray dryer, 8) Freeze drying (lyophilizing) of the remaining aqueous part and obtainment of deodorized rosmarinic acid, 9) Passing a 99% ethanol through the column as mobile phase, 10) Collection of the eluent of step 9, liquid extract containing carnosic acid and carnosol, 11) Evaporation-2 of ethanol in the eluate of step 10, containing carnosic acid and carnosol either under vacuum in rotary evaporator at 40 °C, until it dries completely and obtainment of deodorized carnosic acid and carnosol,