mhurhangee/ep-ind-claims huggingface dataset:
A method of demodulating a downlink control channel by a relay node, RN, in a wireless communication system, the method comprising: receiving cell-specific reference signals on at least one antenna port from a base station, BS,; receiving user equipment, UE,-specific reference signals on at least one antenna port from the BS; and demodulating a relay physical downlink control channel, R-PDCCH, based on either the cell-specific reference signals or the UE-specific reference signals, wherein a type of reference signals, among the cell-specific reference signals or the UE-specific reference signals, used to demodulate the R-PDCCH is configured by a reference signal indicator received from the BS via higher layers. receiving cell-specific reference signals on at least one antenna port from a base station, BS,; receiving user equipment, UE,-specific reference signals on at least one antenna port from the BS; and demodulating a relay physical downlink control channel, R-PDCCH, based on either the cell-specific reference signals or the UE-specific reference signals, wherein a type of reference signals, among the cell-specific reference signals or the UE-specific reference signals, used to demodulate the R-PDCCH is configured by a reference signal indicator received from the BS via higher layers.
A method for preparing a LEV-type zeolite, comprising: (a) preparing a reaction mixture comprising a FAU-type zeolite; fluoride ions; N-methyl quinuclidinium cations; and water; and (b) maintaining the reaction mixture under conditions sufficient to form crystals of the LEV-type zeolite; wherein the LEV-type zeolite has a composition, as-synthesized and in its anhydrous state, in terms of mole ratios, as follows: SiO 2 /AlO 3 10 to 100 Q/SiO 2 0.01 to 0.10 F/SiO 2 0 to 0.03 wherein Q is the N-methyl quinuclidinium cation; and wherein the reaction mixture comprises, in terms of mole ratios, the following: SiO 2 /AlO 3 10 to 100 Q/SiO 2 0.1 to 1.0 F/SiO 2 0.01 to 0.5 H 2 O/SiO 2 3 to 50 wherein Q is the N-methyl quinuclidinium cation. (a) preparing a reaction mixture comprising a FAU-type zeolite; fluoride ions; N-methyl quinuclidinium cations; and water; and (b) maintaining the reaction mixture under conditions sufficient to form crystals of the LEV-type zeolite;
A method comprising retrieving setting information relating to closed subscriber groups of a donor base station and a relay node of a relay-enhanced cellular system, acquiring a whitelist defining one or more closed subscriber groups in which a terminal is a member, said terminal requesting access to the relay-enhanced cellular system via the relay node, and verifying a membership of the terminal for both closed subscriber groups of the donor base station and the relay node based on the retrieved setting information and the acquired whitelist.
Method for the installation control in a power plant, wherein a functional value of a target function based on a physical model is generated for a plurality of sets of variables from respectively a set of environment variables on the one hand and the respective set of variables on the other hand, said functional value being allocated to the respective sets, wherein the set of variables is selected to be transmitted to a control device of the power plant whose allocated functional value complies with a predefined optimisation criterion, wherein, in addition to a starting set and a set determined on the basis of the starting set and the functional value allocated thereto by means of a gradient method, the number of sets of variables further comprises a set selected by a random generator.
A valve regulated lead-acid battery comprising a positive electrode plate, a retainer mat and a negative electrode plate, which are housed in a container and holding an electrolyte solution respectively, and the electrolyte solution containing colloidal silica, wherein the electrolyte solution contains lithium ions, and wherein a silica content in the electrolyte solution is 1% by mass or more and 5% by mass or less, and a lithium-ion content in the electrolyte solution is 0.2 mol/L or more and 0.4 mol/L or less.
An engine control system comprising: an electronic hardware engine controller in signal communication with at least one actuator configured to operate at a plurality of different positions that control operation of an engine, and at least one actuator sensor (125a, 125b) configured to measure an actuator position, the engine controller configured to generate a synthesized actuator position independently from the measured actuator position, wherein the engine controller adjusts the position of the at least one actuator based on the synthesized actuator position in response to detecting at least one of a faulty actuator and a faulty actuator sensor (125a, 125b); wherein the at least one actuator sensor (125a, 125b) includes a first actuator position sensor and a second actuator position sensor; wherein the engine controller determines a cross-channel mismatch value associated with the first and second actuator position sensors (125a 125b), and determines a single channel fault associated with one of the first actuator position sensor or the second actuator position sensor in response to the cross-channel mismatch value exceeding a channel differential threshold value; and wherein the engine controller replaces the measured actuator position output from the faulty actuator position sensor (125a, 125b) with the synthesized actuator position, and controls the position of the at least one actuator using the synthesized actuator position and the measured actuator position output from the non-faulty actuator position sensor (125a, 125b). an electronic hardware engine controller in signal communication with at least one actuator configured to operate at a plurality of different positions that control operation of an engine, and at least one actuator sensor (125a, 125b) configured to measure an actuator position, the engine controller configured to generate a synthesized actuator position independently from the measured actuator position, wherein the engine controller adjusts the position of the at least one actuator based on the synthesized actuator position in response to detecting at least one of a faulty actuator and a faulty actuator sensor (125a, 125b); wherein the at least one actuator sensor (125a, 125b) includes a first actuator position sensor and a second actuator position sensor; wherein the engine controller determines a cross-channel mismatch value associated with the first and second actuator position sensors (125a 125b), and determines a single channel fault associated with one of the first actuator position sensor or the second actuator position sensor in response to the cross-channel mismatch value exceeding a channel differential threshold value; and wherein the engine controller replaces the measured actuator position output from the faulty actuator position sensor (125a, 125b) with the synthesized actuator position, and controls the position of the at least one actuator using the synthesized actuator position and the measured actuator position output from the non-faulty actuator position sensor (125a, 125b).
A rifle display adapter (40, 1102) that is configured to mount to a frame of a rifle scope, the rifle display adapter comprising: a display device (39, 1148) configured to project an image through an objective lens of the rifle scope; a one or more processors (41, 1104); and one or more memory devices comprising instructions that, when executed by the one or more processors (41, 1104), cause the one or more processors to perform operations comprising: sending position information of the rifle display adapter (40, 1102) to a ballistic computer; receiving a firing solution from the ballistic computer, the firing solution comprising a degree to which a windage calculation algorithm has converged; displaying a targeting reticle on the display device (39, 1148), wherein the targeting reticle is displayed relative to a crosshair (408, 516) of the rifle scope according to the firing solution; and displaying a set of visual elements graphically indicating the degree to which the windage calculation algorithm has converged. a display device (39, 1148) configured to project an image through an objective lens of the rifle scope; a one or more processors (41, 1104); and one or more memory devices comprising instructions that, when executed by the one or more processors (41, 1104), cause the one or more processors to perform operations comprising: sending position information of the rifle display adapter (40, 1102) to a ballistic computer; receiving a firing solution from the ballistic computer, the firing solution comprising a degree to which a windage calculation algorithm has converged; displaying a targeting reticle on the display device (39, 1148), wherein the targeting reticle is displayed relative to a crosshair (408, 516) of the rifle scope according to the firing solution; and displaying a set of visual elements graphically indicating the degree to which the windage calculation algorithm has converged. sending position information of the rifle display adapter (40, 1102) to a ballistic computer; receiving a firing solution from the ballistic computer, the firing solution comprising a degree to which a windage calculation algorithm has converged; displaying a targeting reticle on the display device (39, 1148), wherein the targeting reticle is displayed relative to a crosshair (408, 516) of the rifle scope according to the firing solution; and displaying a set of visual elements graphically indicating the degree to which the windage calculation algorithm has converged.
A block copolymer comprising a first block represented by Formula 1 and a second block comprising a C 6-13 aromatic structure and at least one halogen atom, wherein the second block is different from the first block, wherein R is hydrogen or an alkyl group having 1 to 4 carbon atoms; X is a carbonyl group, -C(=O)-X 1 - or -X 1 -C(=O)-, wherein X 1 is an oxygen atom, a sulfur atom or -S(=O) 2 -; and Y is a monovalent substituent comprising an aromatic structure which has 6 to 12 carbon atoms and to which a side chain having 8 or more chain-forming atoms is linked, wherein an absolute value of a difference between surface energies of the first block and the second block is from 2.5 mN/m to 7 mN/m, wherein the surface energy is measured in accordance with method A as defined in the description. wherein R is hydrogen or an alkyl group having 1 to 4 carbon atoms; X is a carbonyl group, -C(=O)-X 1 - or -X 1 -C(=O)-, wherein X 1 is an oxygen atom, a sulfur atom or -S(=O) 2 -; and Y is a monovalent substituent comprising an aromatic structure which has 6 to 12 carbon atoms and to which a side chain having 8 or more chain-forming atoms is linked, wherein an absolute value of a difference between surface energies of the first block and the second block is from 2.5 mN/m to 7 mN/m, wherein the surface energy is measured in accordance with method A as defined in the description.
A device adapted to detect perturbation attacks performed on a digital circuit, wherein the device comprises: - a first metallic layer and a second metallic layer arranged on said digital circuit, said first metal layer comprising a plurality of signal transmission lines routed horizontally, said second metal layer comprising a plurality of signal transmission lines routed vertically, the device comprising one or more transmitter buffers and one or more receiver buffers, a transmitter buffer and a receiver buffer being connected by each signal transmission line; - a random number generator configured to generate random signal values; the device further comprising a transmitter manager connected to one or more transmitter buffers and a receiver manager connected to one or more receiver buffers, wherein: - the transmitter manager is configured to transmit random signal values generated by said random number generator over the signal transmission lines of the first metallic layer and the second metallic layer, said random signal values being transmitted from said one or more transmitter buffers, connected to said transmitter manager, to said one or more receiver buffers connected to said receiver manager, and - the receiver manager is configured to receive random signal values from the transmitter manager through said one or more receiver buffers connected to the receiver manager, measure a transmission time corresponding to a time of transmission of said received random signal values, and compare said transmission time to a predefined timing interval to detect perturbation attacks. - a first metallic layer and a second metallic layer arranged on said digital circuit, said first metal layer comprising a plurality of signal transmission lines routed horizontally, said second metal layer comprising a plurality of signal transmission lines routed vertically, the device comprising one or more transmitter buffers and one or more receiver buffers, a transmitter buffer and a receiver buffer being connected by each signal transmission line; - a random number generator configured to generate random signal values; - the transmitter manager is configured to transmit random signal values generated by said random number generator over the signal transmission lines of the first metallic layer and the second metallic layer, said random signal values being transmitted from said one or more transmitter buffers, connected to said transmitter manager, to said one or more receiver buffers connected to said receiver manager, and - the receiver manager is configured to receive random signal values from the transmitter manager through said one or more receiver buffers connected to the receiver manager, measure a transmission time corresponding to a time of transmission of said received random signal values, and compare said transmission time to a predefined timing interval to detect perturbation attacks.
A process for preparation of fingolimod hydrochloride (Ia) comprising reaction of 2-(4-octylphenyl)ethyl iodide with diethyl acetamidomalonate in presence of a base and an iodinating agent selected from the group of quaternary ammonium salts and iodides of alkali metals, in a solvent to give diethyl 2-acetamido-2-(4-octylphenyl) ethyl malonate which on reduction with sodium borohydride and subsequent hydrolysis with a mineral acid gives fingolimod base, which is then isolated as its hydrochloride salt.
An elevator with a guide rail and an elevator cage and/or elevator shaft door assembly with at least one foldable door system and a drive unit for opening and closing the door system; wherein the door system itself comprises a leading and a following door leaf (4, 5), wherein the following door leaf has a first rotary axis and a second rotary axis via which it is connected to the leading door leaf, and wherein the leading door leaf has a third rotary axis that can be translationally guided along the guide track of a guide rail and said rotary axes are realized in such a way that the door leaves (4, 5) fold onto each other or apart from each other with their main surfaces during opening and closing, and the door leaves (4, 5) are extended in the closed position of the door system, wherein the door leaves (4, 5) are disposed and supported in such a way that, when the door is opened fully, they form a package of the door leaves (4, 5) which is positioned such that a main surface of the door leaf laterally borders the clear door opening by this main surface forming a lateral boundary wall for the clear door opening, characterized in that the guide track extends in a guide rail in an oblique orientation relative to the outer edges thereof, so that the third rotary axis, if the door leaves (4, 5) are opened, when they form an elevator cage door, is situated further inside the elevator cage than if the door leaves are closed, and so that the third rotary axis, if the door leaves (4, 5) form an elevator shaft door, is situated further outward of the shaft when the door leaves are opened than if the door leaves are closed, wherein the third rotary axis extending within the leading door leaf is disposed in such a way that, when the door is fully opened, it comes to lie between the visible surface of the leading door leaf and the large surface of the following door leaf facing away from the visible surface of the following door leaf, and the third rotary axis, and preferably also the bolt embodying it and the associated retaining device, do not protrude over the front edge of the leading door leaf.
Inhalation therapy device having - an aerosol-generating device which is designed to generate an aerosol from a medicament-containing liquid and to release the aerosol into an expansion chamber area, - a liquid storage device which is designed to store the liquid and to supply the liquid to the aerosol-generating device, - a supply device which is designed to supply a gaseous medium, in particular air, and - a flow-influencing device which is designed to influence the flow path of the supplied gaseous medium such that the gaseous medium forms a by-pass flow (m) around the expansion chamber area for the aerosol. - an aerosol-generating device which is designed to generate an aerosol from a medicament-containing liquid and to release the aerosol into an expansion chamber area, - a liquid storage device which is designed to store the liquid and to supply the liquid to the aerosol-generating device, - a supply device which is designed to supply a gaseous medium, in particular air, and - a flow-influencing device which is designed to influence the flow path of the supplied gaseous medium such that the gaseous medium forms a by-pass flow (m) around the expansion chamber area for the aerosol.
A method for recovering noble metal from an acidic aqueous solution containing dissolved noble metal and free chlorine and/or for preventing the formation of an explosive mixture of hydrogen and chlorine gas during the recovery of noble metal from an acidic aqueous solution containing dissolved noble metal and free chlorine and/or for eliminating free chlorine as part of the recovery of noble metal from an acidic aqueous solution containing dissolved noble metal and free chlorine, the method comprising the successive steps of: combining a salt of a non-noble metal present in a low oxidation state as a solid or as an aqueous solution with the acidic aqueous solution, so as to consume the free chlorine and form an acidic aqueous mixture, and adding non-noble metal to the acidic aqueous mixture formed in step, so as to precipitate elementary noble metal, wherein the acidic aqueous solution is characterized by (i) a fraction of dissolved noble metal in the range from 100 to 500 mg/l, (ii) a pH in the range from -0.8 to +1 and (iii) a free chlorine content in the range from 0.1 to 1 g/l or by (i) a fraction of dissolved noble metal in the range from 100 to 500 mg/l, (ii) a pH in the range from -0.8 to +1 and (iii) a free chlorine content in the range from 1000 to 10,000 ppm by weight, and wherein the dissolved noble metal comprises at least one noble metal selected from the group consisting of gold, platinum, palladium, rhodium, iridium, osmium and ruthenium. for preventing the formation of an explosive mixture of hydrogen and chlorine gas during the recovery of noble metal from an acidic aqueous solution containing dissolved noble metal and free chlorine and/or for eliminating free chlorine as part of the recovery of noble metal from an acidic aqueous solution containing dissolved noble metal and free chlorine, the method comprising the successive steps of: combining a salt of a non-noble metal present in a low oxidation state as a solid or as an aqueous solution with the acidic aqueous solution, so as to consume the free chlorine and form an acidic aqueous mixture, and adding non-noble metal to the acidic aqueous mixture formed in step, so as to precipitate elementary noble metal, combining a salt of a non-noble metal present in a low oxidation state as a solid or as an aqueous solution with the acidic aqueous solution, so as to consume the free chlorine and form an acidic aqueous mixture, and adding non-noble metal to the acidic aqueous mixture formed in step, so as to precipitate elementary noble metal, wherein the acidic aqueous solution is characterized by (i) a fraction of dissolved noble metal in the range from 100 to 500 mg/l, (ii) a pH in the range from -0.8 to +1 and (iii) a free chlorine content in the range from 0.1 to 1 g/l or by (i) a fraction of dissolved noble metal in the range from 100 to 500 mg/l, (ii) a pH in the range from -0.8 to +1 and (iii) a free chlorine content in the range from 1000 to 10,000 ppm by weight, and wherein the dissolved noble metal comprises at least one noble metal selected from the group consisting of gold, platinum, palladium, rhodium, iridium, osmium and ruthenium.
Air suspension for a rail vehicle, arranged between the body or superstructure and the chassis, wherein the air suspension has a working volume, which is bounded by a rim connected to the superstructure, an air-spring lobe and a chassis-side piston, wherein the air-spring lobe is segmentally reinforced in partial regions of its circumference by reinforcing elements in such a way that, when the air-spring lobe undergoes springing or deflection in the horizontal direction over the circumference of the lobe, there is a greater stiffness of the air-spring lobe in the region of the segments/circumferential regions that are reinforced than in the circumferential regions that are not reinforced by reinforcing elements, wherein the reinforced segments are provided by preferably rubberized reinforcing elements laid in partial regions of the circumference of the air-spring lobe, within its wall thickness, in particular by textile cords or steel cords that are optionally knitted together and/or arranged crosswise, characterized in that the reinforced segments (6, 7) of the air-spring lobe are formed such that there are different stiffnesses in the travelling direction and in a horizontal direction at an angle to the travelling direction, in particular in the travelling direction x and in a lateral direction y perpendicular to the travelling direction.
Method of manufacturing stiffened components from fibre composite material comprising the steps of - providing a component to be reinforced, - depositing reinforcing fibres preformed to form a T-shaped reinforcing element on this component to be reinforced, - providing two rigid forming tools (3, 4) suitable for covering the longer ends of the T-shaped preformed reinforcing fibres, - inserting a folded tubular core into the rigid forming tools (3, 4), - positioning the rigid forming tools (3, 4) on the longer end faces of the T-shaped preformed reinforcing fibres in such a way that the folded tubular core comes to lie above the end face of the preformed reinforcing fibres facing away from the component to be reinforced, - pressing the rigid forming tools (3, 4) against the preformed reinforcing fibres, - inflating the tubular core so that pressure is exerted on the end face of the preformed reinforcing fibres facing away from the component to be reinforced, - consolidating the reinforcing fibres. - providing a component to be reinforced, - depositing reinforcing fibres preformed to form a T-shaped reinforcing element on this component to be reinforced, - providing two rigid forming tools (3, 4) suitable for covering the longer ends of the T-shaped preformed reinforcing fibres, - inserting a folded tubular core into the rigid forming tools (3, 4), - positioning the rigid forming tools (3, 4) on the longer end faces of the T-shaped preformed reinforcing fibres in such a way that the folded tubular core comes to lie above the end face of the preformed reinforcing fibres facing away from the component to be reinforced, - pressing the rigid forming tools (3, 4) against the preformed reinforcing fibres, - inflating the tubular core so that pressure is exerted on the end face of the preformed reinforcing fibres facing away from the component to be reinforced, - consolidating the reinforcing fibres.