mhurhangee/ep-ind-claims huggingface dataset:
An articulated/swivel joint for the articulated connection between a rear section and a front section of a construction machine, in particular a soil compactor, comprising a rear joint part, which is to be fitted on a rear section of a construction machine, a front joint part, which is to be fitted on a front section of a construction machine, and a joint mechanism, which couples the rear joint part to the front joint part in a jointed manner, wherein the joint mechanism couples the rear joint part and the front joint part in order to perform an articulated movement, which corresponds to a steering movement between the rear section and front section, and a swivel movement, which corresponds to a torsion movement between the rear section and front section, wherein a swivel-stop arrangement is assigned to the joint mechanism for limiting the swivel movement of the front joint part in relation to the rear joint part, wherein the swivel-stop arrangement comprises a first swivel stop for predetermining a first maximum amount of swivel deflection during deflection of the front joint part in relation to the rear joint part in a first swivel-movement direction and also comprises a second swivel stop for predetermining a second maximum amount of swivel deflection during deflection of the front joint part in relation to the rear joint part in a second swivel-movement direction, which is opposed to the first swivel-movement direction, wherein the first maximum amount of swivel deflection and the second maximum amount of swivel deflection define a maximum swivel-deflection range for the swivel movement of the front joint part in relation to the rear joint part, characterised in that when an articulated movement is being performed, the maximum swivel-deflection range decreases as the amount of articulated deflection increases, starting from a neutral position of articulation of the front joint part in relation to the rear joint part.
A control method for use in a mobile communication system (100, 200, 300), the control method comprising: configuring a discard timer corresponding to a service data unit for discarding the service data unit according to a value of the timer; maintaining the value of the discard timer corresponding to the service data unit when a handover is performed without restarting or resetting the value of the discard timer in such a way that a current value of the timer corresponding to packet data to be transmitted to a source base station before the handover is taken over as a current value of the timer corresponding to the packet data to be transmitted to a target base station after the handover; and discarding the corresponding service data unit when the maintained value of the discard timer reaches a given value. configuring a discard timer corresponding to a service data unit for discarding the service data unit according to a value of the timer; maintaining the value of the discard timer corresponding to the service data unit when a handover is performed without restarting or resetting the value of the discard timer in such a way that a current value of the timer corresponding to packet data to be transmitted to a source base station before the handover is taken over as a current value of the timer corresponding to the packet data to be transmitted to a target base station after the handover; and discarding the corresponding service data unit when the maintained value of the discard timer reaches a given value.
A landing string system comprising: a measurement device, comprising a main body portion or section and one or more mechanical sensors configured, when in use connected to a landing string, to measure strain associated with the landing string, a data-storage device in communication with the measurement device and positioned at the main body portion or section, the data storage device configured to store, from time to time, data associated with the measured strain, a power assembly configured to provide power to the data-storage device for at least an expected time of service of the system, and further comprising a monitoring system in communication with the data-storage device and configured to receive the data associated with the measured strain, the monitoring system being further configured to use the data associated with measured strain to determine strain at other regions associated with the main body portion or section, and/or to determine strain at regions beyond the main body portion or section. a measurement device, comprising a main body portion or section and one or more mechanical sensors configured, when in use connected to a landing string, to measure strain associated with the landing string, a data-storage device in communication with the measurement device and positioned at the main body portion or section, the data storage device configured to store, from time to time, data associated with the measured strain, a power assembly configured to provide power to the data-storage device for at least an expected time of service of the system, and further comprising a monitoring system in communication with the data-storage device and configured to receive the data associated with the measured strain, the monitoring system being further configured to use the data associated with measured strain to determine strain at other regions associated with the main body portion or section, and/or to determine strain at regions beyond the main body portion or section.
Microcapsules enclosing material with a solubility in water lower than 750 mg/L at 20°C or clomazone, characterized in that the wall of the microcapsules is formed by means of an interfacial polymerization reaction of the wall forming materials: (a) aliphatic isocyanate(s), and (b) aromatic isocyanate(s), and (c) compound(s) of formula -acetylene carbamide derivatives- in monomeric and/or oligomeric and/or polymeric form wherein R1, R3, R5, R7, are, independently one to each other, methylen, ethylen, n-propylen, isopropylen, n-butylen, isobutylen, sec-butylen, tert-butylen R2, R4, R6, R8, are, independently one to each other, hydrogen methyl, ethyl, n-propyl, isopropyl, n-butyl, isobutyl, sec-butyl, tert-butyl R9, R10 are hydrogen or hydroxymethyl; comprising compounds all isomeric and stereochemical configurations that may be present; depending on the radicals as cited, and been excluded from compounds all the combinations of radicals that are not able to form polyurea-acetylene carbamide derivative polymers when such acetylene carbamide derivatives are reacted as described in the present invention with a mixture of isocyanates and the ratio of wall forming materials is aliphatic isocyanate: aromatic isocyanate from 1: 3 to 1: 1; aromatic isocyanate: acetylene carbamide derivatives from 9: 1 to 4: 1; aliphatic isocyanates: acetylene carbamide derivatives from 2: 1 to 5: 1; and the microcapsules have a mean diameter of 0.3 to 25 μm, and 90% of the microcapsules have a diameter lower than 100 μm, when measured with a conventional laser diffraction particle sizer analyzer, previous customary dilution upon water under agitation. (a) aliphatic isocyanate(s), and (b) aromatic isocyanate(s), and (c) compound(s) of formula -acetylene carbamide derivatives- in monomeric and/or oligomeric and/or polymeric form R1, R3, R5, R7, are, independently one to each other, methylen, ethylen, n-propylen, isopropylen, n-butylen, isobutylen, sec-butylen, tert-butylen R2, R4, R6, R8, are, independently one to each other, hydrogen methyl, ethyl, n-propyl, isopropyl, n-butyl, isobutyl, sec-butyl, tert-butyl R9, R10 are hydrogen or hydroxymethyl; comprising compounds all isomeric and stereochemical configurations that may be present; depending on the radicals as cited, and been excluded from compounds all the combinations of radicals that are not able to form polyurea-acetylene carbamide derivative polymers when such acetylene carbamide derivatives are reacted as described in the present invention with a mixture of isocyanates and the ratio of wall forming materials is aliphatic isocyanate: aromatic isocyanate from 1: 3 to 1: 1; aromatic isocyanate: acetylene carbamide derivatives from 9: 1 to 4: 1; aliphatic isocyanates: acetylene carbamide derivatives from 2: 1 to 5: 1;
Flexible waveguide cable for the terahertz frequency range comprising a tube enclosing a dielectric waveguide core, the dielectric waveguide core is held within the tube by means of threads (41, 42) made of a dielectric material, wherein the flexible waveguide cable is configured such that the tube has no primary wave transmission function, it serves only as a mechanical support and mechanical protection of the dielectric waveguide core and that signal transmission is performed by the dielectric waveguide core, characterized in that the threads (41, 42) traverse the tube under a right angle to the center axis of the tube, and the tube is a segmented tube comprising a plurality of tube segments (20a-20p) connected to each other.
A container for storing and/or administering a vaccine composition, wherein the container contains a vaccine composition comprising an Hepatitis B antigen adsorbed on an aluminum oxyhydroxide adjuvant and is closed by a device acting as a stopper, wherein the surface of the device contactable with the composition is coated with a fluoropolymer.
A calculus removing device comprising: an insertion tube; a guide configured to be inserted into an inner side of the insertion tube and relatively movable with respect to the insertion tube; a wire configured to be inserted into an inner side of the guide and relatively movable with respect to the guide; a basket disposed in front of the wire and configured to hold a stone; and a controller configured to determine a size of the stone based on a relative movement of the guide with respect to the insertion tube or a relative movement of the wire with respect to the guide, wherein the controller is configured to determine the size of the stone based on a relative position of the wire with respect to the guide in a state in which the basket holding the stone is caught on a front end of the guide or based on a relative position of the wire with respect to the insertion tube in a state in which the basket holding the stone is caught on a front end of the insertion tube, the calculus removing device comprises a distance measurer disposed in the wire and configured to measure a relative movement distance of the wire with respect to the guide or a relative movement distance (L1, L2) of the wire with respect to the insertion tube, the controller is configured to receive a distance information signal measured by the distance measurer and to determine the relative position of the wire with respect to the guide or with respect to the insertion tube based on a distance detected by the distance measurer. an insertion tube; a guide configured to be inserted into an inner side of the insertion tube and relatively movable with respect to the insertion tube; a wire configured to be inserted into an inner side of the guide and relatively movable with respect to the guide; a basket disposed in front of the wire and configured to hold a stone; and a controller configured to determine a size of the stone based on a relative movement of the guide with respect to the insertion tube or a relative movement of the wire with respect to the guide, wherein the controller is configured to determine the size of the stone based on a relative position of the wire with respect to the guide in a state in which the basket holding the stone is caught on a front end of the guide or based on a relative position of the wire with respect to the insertion tube in a state in which the basket holding the stone is caught on a front end of the insertion tube, the calculus removing device comprises a distance measurer disposed in the wire and configured to measure a relative movement distance of the wire with respect to the guide or a relative movement distance (L1, L2) of the wire with respect to the insertion tube, the controller is configured to receive a distance information signal measured by the distance measurer and to determine the relative position of the wire with respect to the guide or with respect to the insertion tube based on a distance detected by the distance measurer.
A razor assembly, comprising: a cartridge including at least one blade; a handle assembly including: an electric power source; and at least one induction coil (30, 31, 32, 33) electrically coupled to the electric power source, wherein the cartridge is detachably coupled to the handle assembly, characterized in that the at least one induction coil (30, 31, 32, 33) is configured to generate a magnetic force directly penetrating the at least one blade and heats the at least one blade by induction heating. a cartridge including at least one blade; a handle assembly including: an electric power source; and at least one induction coil (30, 31, 32, 33) electrically coupled to the electric power source, wherein the cartridge is detachably coupled to the handle assembly, characterized in that the at least one induction coil (30, 31, 32, 33) is configured to generate a magnetic force directly penetrating the at least one blade and heats the at least one blade by induction heating. an electric power source; and at least one induction coil (30, 31, 32, 33) electrically coupled to the electric power source, wherein the cartridge is detachably coupled to the handle assembly, characterized in that the at least one induction coil (30, 31, 32, 33) is configured to generate a magnetic force directly penetrating the at least one blade and heats the at least one blade by induction heating.
An apparatus (500; 600) comprising: an orthopedic brace (510; 610) including a first member (520; 620) and a second member configured to control movement of a first component (580; 680) of an orthopedic joint prosthesis relative to a second component (590; 690) of the orthopedic joint prosthesis; one or more sensors (540; 640) configured to contact the orthopedic joint prosthesis by being affixed or attached onto or embedded into the orthopedic joint prosthesis, wherein the one or more sensors are configured to detect one or more alignment orientations of the first component relative to the second component of the orthopedic joint prosthesis; one or more controllers (550; 650) in communication with the one or more sensors, wherein the one or more sensors report the one or more alignment orientations to the one or more controllers, and one or more force applying elements (560; 660) configured to control movement of the first member relative to the second member of the orthopedic brace, wherein the one or more controllers are configured to control activity of the first member relative to the second member of the orthopedic brace by controlling application of force by the one or more force applying elements, and wherein the orthopedic brace is configured to adjust the one or more alignment orientations of the first component relative to the second component of the orthopedic joint prosthesis. an orthopedic brace (510; 610) including a first member (520; 620) and a second member configured to control movement of a first component (580; 680) of an orthopedic joint prosthesis relative to a second component (590; 690) of the orthopedic joint prosthesis; one or more sensors (540; 640) configured to contact the orthopedic joint prosthesis by being affixed or attached onto or embedded into the orthopedic joint prosthesis, wherein the one or more sensors are configured to detect one or more alignment orientations of the first component relative to the second component of the orthopedic joint prosthesis; one or more controllers (550; 650) in communication with the one or more sensors, wherein the one or more sensors report the one or more alignment orientations to the one or more controllers, and one or more force applying elements (560; 660) configured to control movement of the first member relative to the second member of the orthopedic brace, wherein the one or more controllers are configured to control activity of the first member relative to the second member of the orthopedic brace by controlling application of force by the one or more force applying elements, and wherein the orthopedic brace is configured to adjust the one or more alignment orientations of the first component relative to the second component of the orthopedic joint prosthesis.
A method for transmitting uplink control information, UCI, by a user equipment, UE, in a communication system, the method comprising: determining, through radio resource control, RRC, signaling, control information indicating concurrent transmission of the UCI on a physical uplink control channel, PUCCH, and data information on a physical uplink shared channel, PUSCH, in a subframe; generating the UCI comprising at least one of a hybrid automatic repeat request-acknowledgement, HARQ-ACK, and a channel quality indicator, CQI, to be transmitted in the subframe; determining whether the data information on the PUSCH is transmitted in the subframe; and transmitting the UCI on the PUCCH and the data information on the PUSCH based on the control information and the determination whether the data information on the PUSCH is transmitted in the subframe. determining, through radio resource control, RRC, signaling, control information indicating concurrent transmission of the UCI on a physical uplink control channel, PUCCH, and data information on a physical uplink shared channel, PUSCH, in a subframe; generating the UCI comprising at least one of a hybrid automatic repeat request-acknowledgement, HARQ-ACK, and a channel quality indicator, CQI, to be transmitted in the subframe; determining whether the data information on the PUSCH is transmitted in the subframe; and transmitting the UCI on the PUCCH and the data information on the PUSCH based on the control information and the determination whether the data information on the PUSCH is transmitted in the subframe.
Storage-stable aqueous dispersion or emulsion comprising: - at least one set retarder; - at least one water-soluble film-forming agent; - an oil; and - an alkali-insoluble latex. - at least one set retarder; - at least one water-soluble film-forming agent; - an oil; and - an alkali-insoluble latex.
An ionic transport device component, comprising: a) a substrate; and b) a sealing component coating at least a portion of the substrate surface, the sealing component including a barium silicate phase of Ba 5 Si 8 O 21 and Ba 3 Si 5 O 13, a hexa-celsian phase of h-BaO.Al 2 O 3.2SiO 2 (h-BAS 2), and a sanbornite phase of BaO.2SiO 2 (BS 2), and a residual glass phase, wherein the sealing component has a residual glass phase below 6 vol% and a coefficient of thermal expansion of 11 to 12.8 ppm/°C. a) a substrate; and b) a sealing component coating at least a portion of the substrate surface, the sealing component including a barium silicate phase of Ba 5 Si 8 O 21 and Ba 3 Si 5 O 13, a hexa-celsian phase of h-BaO.Al 2 O 3.2SiO 2 (h-BAS 2), and a sanbornite phase of BaO.2SiO 2 (BS 2), and a residual glass phase, wherein the sealing component has a residual glass phase below 6 vol% and a coefficient of thermal expansion of 11 to 12.8 ppm/°C.
A method for injecting a solid feed material through a solids injection lance that includes creating flow conditions by supplying a feed material into a passageway in a direction that is transverse, typically perpendicular, to a direction of movement of the feed material along a central section of the passageway of the lance, so that at least a part of the feed material flowing along the passageway forms a buffer zone between a wall of a tube that defines the passageway and the feed material flowing along the central section of the passageway.
System for energy recovery within an arrangement of industrial components comprising: a heat source for the arrangement; a thermodynamic circuit processing device, particularly an ORC device, having a heat exchanger for transferring heat from the heat source to a working medium of the thermodynamic circuit processing device and having an expansion device for expanding the working medium and for generating mechanical or electrical power; and at least one component of the arrangement to be driven, comprising at least one hydraulic or pneumatic machine which can be driven by the power generated; characterised by an electric motor/generator unit provided between the expansion device and the at least one component to be driven; wherein the electric motor/generator unit is to be connected to a power grid; and wherein the system is adapted, if no power of the expansion device can be absorbed as hydraulic or pneumatic energy by the component to be driven, to feed excess energy from the electric motor/generator unit into the power grid for a limited period of time until the power of the expansion device can be absorbed again as hydraulic or pneumatic energy by the component to be driven. a heat source for the arrangement; a thermodynamic circuit processing device, particularly an ORC device, having a heat exchanger for transferring heat from the heat source to a working medium of the thermodynamic circuit processing device and having an expansion device for expanding the working medium and for generating mechanical or electrical power; and at least one component of the arrangement to be driven, comprising at least one hydraulic or pneumatic machine which can be driven by the power generated; characterised by an electric motor/generator unit provided between the expansion device and the at least one component to be driven; wherein the electric motor/generator unit is to be connected to a power grid; and wherein the system is adapted, if no power of the expansion device can be absorbed as hydraulic or pneumatic energy by the component to be driven, to feed excess energy from the electric motor/generator unit into the power grid for a limited period of time until the power of the expansion device can be absorbed again as hydraulic or pneumatic energy by the component to be driven.
A catalyst composition comprising: (a) a metallic nanoparticle; and (b) a porous support with a surface area; wherein the nanoparticle (a) is adsorbed on the surface area of the porous support; wherein the nanoparticle (a) comprises (i) one or more metallic elements of group 10 of the periodic table; (ii) one or more organic molecules selected from the group consisting of an organophosphorus compound, and an N-heterocyclic carbene; and (iii) one or more metallic elements selected from the group consisting of tin (Sn), gallium (Ga), and indium (In). (a) a metallic nanoparticle; and (b) a porous support with a surface area; wherein the nanoparticle (a) is adsorbed on the surface area of the porous support;
An inverter for producing an alternating or three-phase current from a direct-current voltage with - a d.c. voltage intermediate circuit and, - on an output side, an output inductor, characterized by - three resonant circuits, comprising the inductances L1 to L3 and the capacitors C1 to C3, and a common star point, to compensate for symmetrical harmonic oscillations which occur on the output side; - an additional winding which is connected by way of a direct line between the star point and the d.c. voltage intermediate circuit, to couple asymmetrical harmonic oscillations, which occur on the output side, into the d.c. voltage intermediate circuit. - a d.c. voltage intermediate circuit and, - on an output side, an output inductor, characterized by - three resonant circuits, comprising the inductances L1 to L3 and the capacitors C1 to C3, and a common star point, to compensate for symmetrical harmonic oscillations which occur on the output side; - an additional winding which is connected by way of a direct line between the star point and the d.c. voltage intermediate circuit, to couple asymmetrical harmonic oscillations, which occur on the output side, into the d.c. voltage intermediate circuit.