mhurhangee/ep-ind-claims huggingface dataset:
Plant-side automation unit, wherein the plant-side automation unit is configured, within a time t freq, to perform a determination of results of a first process control algorithm based on process input variables N read in by time t=0, wherein the plant-side automation unit is configured to read in the process input variables M at time t=0 and send them to a processing unit external to the plant for processing, wherein the plant-side automation unit is configured to receive results of a second process control algorithm from the processing unit external to the plant, wherein the plant-side automation unit is configured to check whether the results of the second process control algorithm were received within a time t<t freq or t=t freq, wherein t freq corresponds to a predetermined sampling time or a defined cycle time, wherein the plant-side automation unit is configured to apply the results of the second process control algorithm to the process, where these results were received within time t<t freq or t=t freq, wherein the plant-side automation unit is configured to apply the results of the first process control algorithm to the process, where the results of the second process control algorithm were received within time t<t freq. wherein the plant-side automation unit is configured, within a time t freq, to perform a determination of results of a first process control algorithm based on process input variables N read in by time t=0, wherein the plant-side automation unit is configured to read in the process input variables M at time t=0 and send them to a processing unit external to the plant for processing, wherein the plant-side automation unit is configured to receive results of a second process control algorithm from the processing unit external to the plant, wherein the plant-side automation unit is configured to check whether the results of the second process control algorithm were received within a time t<t freq or t=t freq, wherein t freq corresponds to a predetermined sampling time or a defined cycle time, wherein the plant-side automation unit is configured to apply the results of the second process control algorithm to the process, where these results were received within time t<t freq or t=t freq, wherein the plant-side automation unit is configured to apply the results of the first process control algorithm to the process, where the results of the second process control algorithm were received within time t<t freq.
A heat shield assembly for a braked aircraft wheel, the assembly comprising a heat shield and at least one spacer (20, 30) comprising both a main body (21, 31) projecting from an outwardly-facing surface of the heat shield and also a clamping element (22, 32) of generally cylindrical shape projecting from the body and passing perpendicularly through an opening (11, 11') in the heat shield, the clamping element having an enlarged free end (22a, 32a) so as to co-operate with the body to form an annular groove engaged with the peripheral edge of the opening in the heat shield, the heat shield assembly being characterized in that the opening has the shape of a drop of water.
Vehicle with an apparatus for transmitting data in the vehicle, with at least one light source for generating light within the vehicle, with a voltage source for generating electrical voltage, wherein the electrical voltage is used to operate the light source, wherein a transmitter unit is provided which can modulate a data stream as a voltage signal onto the electrical voltage generated by the voltage source, wherein the light source distributes these voltage signals as a light signal in the vehicle, wherein at least one receiver unit is provided which can receive the modulated voltage signals from the light signal and convert them into a data stream, wherein the receiver unit is tuned to the frequency of the light source, characterized in that the vehicle comprises a hull and a turret, wherein an interior room is provided in the turret, wherein an interior room is provided in the hull, and wherein the transmission of the light signal is applied from one interior room to the other. with at least one light source for generating light within the vehicle, with a voltage source for generating electrical voltage, wherein the electrical voltage is used to operate the light source, wherein a transmitter unit is provided which can modulate a data stream as a voltage signal onto the electrical voltage generated by the voltage source, wherein the light source distributes these voltage signals as a light signal in the vehicle, wherein at least one receiver unit is provided which can receive the modulated voltage signals from the light signal and convert them into a data stream, wherein the receiver unit is tuned to the frequency of the light source, characterized in that the vehicle comprises a hull and a turret, wherein an interior room is provided in the turret, wherein an interior room is provided in the hull, and wherein the transmission of the light signal is applied from one interior room to the other.
A compound of Formula I: or a pharmaceutically acceptable salt thereof, in combination with an anti-PD-1 antibody for use in treating a cancer; wherein: R 1 is NH 2 or CH 3; R 2 is Cl, Br, CF 3, CH 3, or CN; R 3 is H or F; and n is 1 or 2. R 1 is NH 2 or CH 3; R 2 is Cl, Br, CF 3, CH 3, or CN; R 3 is H or F; and n is 1 or 2.
Universal joint shaft with universal joint shaft protection, wherein the universal joint shaft comprises the following: at least one shaft element for transmitting torque, at least one protective tube element arranged around the shaft element, and an intermediate bearing, by means of which the shaft element is rotatably mounted about an axis of rotation in the protective tube element, wherein the intermediate bearing comprises an outer ring fixed to the protective tube element and an inner ring fixed to the shaft element, which are rotatable relative to each other, characterized in that the universal joint shaft further comprises a clamping mechanism (17, 27, 28, 32) by means of which the inner ring is fixed on the shaft element, wherein the clamping mechanism comprises a clamping ring, which is connected rotationally fixed to the inner ring and which is clamped onto the shaft element. at least one shaft element for transmitting torque, at least one protective tube element arranged around the shaft element, and an intermediate bearing, by means of which the shaft element is rotatably mounted about an axis of rotation in the protective tube element, wherein the intermediate bearing comprises an outer ring fixed to the protective tube element and an inner ring fixed to the shaft element, which are rotatable relative to each other, characterized in that the universal joint shaft further comprises a clamping mechanism (17, 27, 28, 32) by means of which the inner ring is fixed on the shaft element, wherein the clamping mechanism comprises a clamping ring, which is connected rotationally fixed to the inner ring and which is clamped onto the shaft element.
A method of grafting PolyNaSS, on implants (I; H) made of titanium or titanium alloy, the method comprising the following successive steps: a) mounting implants (I; H) on an implant support structure (S; Th), b) dipping the implants (I; H) into a bath of acid so as to clean them, c) rinsing the implants (I; H), d) dipping the implants (I; H) in an anodizing bath so as to anodize them, e) rinsing the implants (I; H), f) putting the implants (I; H) into a polymerization chamber filled with inert gas, such as argon, g) mounting the implants on an elevator (L; L') present in the polymerization chamber, h) actuating the elevator (L; L') so as to dip the implants (I; H) into a polymerization bath present in the polymerization chamber, i) subjecting the polymerization bath to a polymerization catalyst (M; S UV; S' UV) so as to synthesize bioactive polymer on the implants (I; H), j) raising the elevator (L; L') so as to extract the implants from the polymerization bath, k) removing the implants (I; H) from the elevator (L; L'), l) extracting the implants (I; H) from the chamber, m) washing the implants (I; H) so as to remove any excess non-grafted bioactive polymer therefrom, n) drying the grafted implants (I; H). a) mounting implants (I; H) on an implant support structure (S; Th), b) dipping the implants (I; H) into a bath of acid so as to clean them, c) rinsing the implants (I; H), d) dipping the implants (I; H) in an anodizing bath so as to anodize them, e) rinsing the implants (I; H), f) putting the implants (I; H) into a polymerization chamber filled with inert gas, such as argon, g) mounting the implants on an elevator (L; L') present in the polymerization chamber, h) actuating the elevator (L; L') so as to dip the implants (I; H) into a polymerization bath present in the polymerization chamber, i) subjecting the polymerization bath to a polymerization catalyst (M; S UV; S' UV) so as to synthesize bioactive polymer on the implants (I; H), j) raising the elevator (L; L') so as to extract the implants from the polymerization bath, k) removing the implants (I; H) from the elevator (L; L'), l) extracting the implants (I; H) from the chamber, m) washing the implants (I; H) so as to remove any excess non-grafted bioactive polymer therefrom, n) drying the grafted implants (I; H).
An electric drive comprising: - a rotor and - a stator in toothed-coil technology, wherein the stator comprises a number of individual tooth modules (1, 1'), wherein a respective individual tooth module (1, 1') comprises: - a stator winding which is wound around an associated tooth, and - a control device which is designed to generate an control signal for the stator winding, characterized in that - a respective individual tooth module (1, 1') comprises a shielding device (4, 10) which surrounds the stator winding and the control device, wherein the shielding device has a housing, in particular made of sheet steel, wherein the housing completely surrounds the stator winding and the control device, wherein the housing is filled with potting compound containing soft magnetic particles, wherein the potting compound completely surrounds the stator winding and the control device, - wherein the shielding device is embodied as a hermetic seal such that it is not destroyed in the event of a winding fire of the stator winding. - a rotor and - a stator in toothed-coil technology, wherein the stator comprises a number of individual tooth modules (1, 1'), wherein a respective individual tooth module (1, 1') comprises: - a stator winding which is wound around an associated tooth, and - a control device which is designed to generate an control signal for the stator winding, - a stator winding which is wound around an associated tooth, and - a control device which is designed to generate an control signal for the stator winding, - a respective individual tooth module (1, 1') comprises a shielding device (4, 10) which surrounds the stator winding and the control device, wherein the shielding device has a housing, in particular made of sheet steel, wherein the housing completely surrounds the stator winding and the control device, wherein the housing is filled with potting compound containing soft magnetic particles, wherein the potting compound completely surrounds the stator winding and the control device, - wherein the shielding device is embodied as a hermetic seal such that it is not destroyed in the event of a winding fire of the stator winding.
An on machine seamable lagging material for use on a cylindrical pulley or drum for an industrial machine, the lagging material comprising a substrate; and a seaming element along the cross-machine direction of each of the opposing ends of the lagging material for forming a seam for seaming opposing ends of the lagging material when brought together, wherein the lagging material comprises a coating on the drum contact inner surface of the substrate and wherein the lagging material comprises a plurality of openings spaced along the cross-machine direction of a seaming area on each of the opposing ends of the lagging material, the openings being configured to receive engagement members of an installation apparatus when the lagging material is placed around a drum/roll circumference and wherein said seaming element comprises clipper hooks, spiral-links, pins, pintles, yarns forming seaming loops, affixed tabs, interdigitator for forming tunnels, adhesives, glue, staples, and/or studs.
Method for regulating a switching converter with quasi-resonant switching, wherein a PWM switching regulator is used to generate a PWM switching signal with a variable clock frequency (f) and wherein a resonance signal is generated which specifies valleys (V1, V2, V3...Vn) of a voltage (U DS) applied to a switching element and oscillating with a resonance frequency, characterised in that a PWM reference signal is formed, wherein its respective pulse duration (t REF) is conversely proportional to the level of the clock frequency (f) or wherein a linear association with a dropping pulse duration (t REF) exists when the frequency (f) is increasing, that in order to generate the PWM reference signal, a control voltage (U STR) which is directly proportional to the clock frequency (f) is superimposed onto a saw tooth signal of the PWM switching regulator, that a control variable signal is derived from the PWM reference signal, by its respective pulse duration (t φ) being lengthened or shortened as a function of the resonance signal and that by changing the clock frequency (f) by means of a frequency regulator, the control variable signal is readjusted to the PWM reference signal.
A FGF2 protein, or a functional variant thereof, suitable for enhancing virus replication in cancer cells that express a receptor to FGF2 protein for use in the treatment of cancer in an animal, wherein the FGF2 protein or a functional variant thereof is formulated for administration to the cancer cells using an oncolytic virus having a genome comprising an open reading frame that encodes the FGF2 protein or functional variant thereof.
A quantum computing device, comprising: a Majorana fermion device coupled to an ion implanted region; and an encapsulation film coupled to the ion implanted region and a substrate layer, wherein the encapsulation film suspends the Majorana fermion device in the quantum computing device. a Majorana fermion device coupled to an ion implanted region; and an encapsulation film coupled to the ion implanted region and a substrate layer, wherein the encapsulation film suspends the Majorana fermion device in the quantum computing device.
A compound of the formula wherein X 1 is a group of formula --(A 1) o -(A 2) p -(A 3) q -(A 4) r -R 16, wherein --(A 1) o -(A 2) p -(A 3) q -(A 4) r - is a group of formula R 16 is H, a C 6 -C 24 aryl group, or a C 2 -C 30 heteroaryl group.
A method for producing a substantially pure vanilloid of formula, or for converting a protocatechuic aldehyde into a substantially pure vanilloid of formula: R 1 being selected from the group consisting of ―CHO; ―COOH; ―COOR 3; ― CH 2 OH; ―CH 2 COOH; ―C(=O)CH 3; ―CR 3 COOH; ―CHR 3 COOH; ― CH 2 NHC(=O)R 3; wherein R 3 is a lower alkyl, R 2 being different from a methyl (-CH 3), comprising the steps of: a) providing a recombinant unicellular host capable of producing said vanilloid, wherein said recombinant host expresses at least a nucleic acid coding for a 3-dehydroshikimate dehydratase and at least a nucleic acid coding for an aromatic carboxylic acid reductase (ACAR); b) cultivating said host in a suitable medium; and c) recovering the produced vanilloid from said host or from the culture supernatant thereof, wherein said recombinant host expresses at least a nucleic acid coding for a caffeic acid 3-O-methyltransferase polypeptide sharing at least 80% sequence identity with a sequence selected from SEQ ID NO: 1, 2 or 3, that is suitable for methylating selectively the 3-OH of a protocatechuic aldehyde. R 1 being selected from the group consisting of ―CHO; ―COOH; ―COOR 3; ― CH 2 OH; ―CH 2 COOH; ―C(=O)CH 3; ―CR 3 COOH; ―CHR 3 COOH; ― CH 2 NHC(=O)R 3; wherein R 3 is a lower alkyl, R 2 being different from a methyl (-CH 3), a) providing a recombinant unicellular host capable of producing said vanilloid, wherein said recombinant host expresses at least a nucleic acid coding for a 3-dehydroshikimate dehydratase and at least a nucleic acid coding for an aromatic carboxylic acid reductase (ACAR); b) cultivating said host in a suitable medium; and c) recovering the produced vanilloid from said host or from the culture supernatant thereof,
A method performed by at least one processor executing machine-interpretable instructions, the method comprising: associating, with signals representing instructions for execution of a plurality of data processing segments, each data processing segment representing instructions for execution of a respective portion of a data process executable by a plurality of networked computing resources (106, 1106), at least one timing parameter determined at least partly using one or more latencies associated with execution of signal processing requests by at least one of the networked computing resources (106, 1106); and routing, in accordance with a timing sequence, the signals representing instructions for execution of the plurality of portions of the data process to the plurality of networked computing resources (106, 1106); the timing sequence for routing the signals based on the at least one associated timing parameter determined so as to cause synchronized arrival or execution of the instructions for execution of the plurality of portions of the data process at the plurality of networked computing resources (106, 1106). associating, with signals representing instructions for execution of a plurality of data processing segments, each data processing segment representing instructions for execution of a respective portion of a data process executable by a plurality of networked computing resources (106, 1106), at least one timing parameter determined at least partly using one or more latencies associated with execution of signal processing requests by at least one of the networked computing resources (106, 1106); and routing, in accordance with a timing sequence, the signals representing instructions for execution of the plurality of portions of the data process to the plurality of networked computing resources (106, 1106); the timing sequence for routing the signals based on the at least one associated timing parameter determined so as to cause synchronized arrival or execution of the instructions for execution of the plurality of portions of the data process at the plurality of networked computing resources (106, 1106).
A composition for use in a method of treating a chondrosarcoma and/or a metastatic cancer originating from a chondrosarcoma, wherein the composition comprises an inhibitor of RUNX2 activity, wherein the inhibitor of RUNX2 activity is a compound according to formula or a pharmaceutically acceptable salt, ester or prodrug thereof, wherein R 1 and R 2 are each independently selected from hydrogen, a halogen, a haloalkyl, an alkyl, an alkylamide, a cycloalkylamide or an alkyamine; R 3 is H or alkyl; and R 4 is a bridged cycloalkenyl ring. wherein R 1 and R 2 are each independently selected from hydrogen, a halogen, a haloalkyl, an alkyl, an alkylamide, a cycloalkylamide or an alkyamine; R 3 is H or alkyl; and R 4 is a bridged cycloalkenyl ring.
Release device of a tool clamp or workpiece clamp with a housing and a piston which is axially displaceable within the housing for actuating a draw rod, characterised in that a piston scanning sensor for detecting the position of the piston relative to the housing and a draw rod sensor for detecting the position of the draw rod relative to the housing are arranged in the housing.
An apparatus comprising: - means for obtaining (340, 350), in an apparatus, information characterizing physical surroundings of the apparatus; - means for transmitting the information characterizing the physical surroundings to a network entity; - means for receiving, responsive to the transmission, provisioning information and for associating the apparatus with the provisioning information, characterized in that the provisioning information associates the apparatus with a user account and in that the provisioning information comprises an embedded subscriber identity module provisioning information. - means for obtaining (340, 350), in an apparatus, information characterizing physical surroundings of the apparatus; - means for transmitting the information characterizing the physical surroundings to a network entity; - means for receiving, responsive to the transmission, provisioning information and for associating the apparatus with the provisioning information,
Process for imparting an electromagnetic axial oblong rotation movement to the molten metal in a continuous casting ingot mold for slabs equipped with a submerged nozzle centred on the casting axis and having lateral outlets that open towards the small end sides of the ingot mold, process in which, at least four polyphased inductors (10, 10b, 10c, 10d), each producing a magnetic field travelling along the width of the ingot mold, are mounted, as two inductors placed side by side per large side of said ingot mold, and said inductors are adjusted to create a system with four driving forces, of which the two forces associated to any pair of inductors (10b, 10d) located diagonally to one another with respect to the casting axis push the metal from the nozzle towards the small sides, i.e. "towards the exterior", while the other two forces, associated to the other pair of inductors (10a, 10c) located diagonally to one another, push the metal from the small sides towards the nozzle, i.e. "towards the interior", the combined application of these four forces imparting an axial oblong rotation movement to the molten metal at the meniscus, process characterized in that, with the aim of homogenising said rotational movement of the molten metal at the meniscus during the casting, the natural flow rate of the molten metal within the ingot mould being previously identified by taking into account parameters relating of the casting operation, said driving forces are differentiated amongst themselves in such a way as to further intensify the forces that push the metal "towards the interior" if the natural flow rate of the metal bath is of the "single loop" type, and conversely, in such a way as to further intensify the forces that push the metal "towards the exterior" if the natural flow rate of the metal bath is of the "double loop" type.
Motor vehicle roof comprising two glass sheets (1, 3) joined by means of a thermoplastic interlayer, of which the sheet turned toward the outside is annealed, and the sheet turned toward the inside is made of toughened glass, the total thickness of the glass sheets not being greater than 5 mm and preferably not greater than 4.5 mm and wherein the ratio of the thicknesses of the annealed and toughened sheets is not greater than 0.8 and preferably is not greater than 0.6.