mhurhangee/ep-ind-claims huggingface dataset:
Combined heat and power plant for the decentralized supply of electricity and heat, having at least one engine, by means of which electrical energy can be provided while providing exhaust gas, and having at least one high-temperature battery, in which the electrical energy provided by the engine can be stored, wherein the high-temperature battery can be supplied by means of the exhaust gas provided by the engine, in order to keep the high-temperature battery warm, characterized in that at least one thermal store, for storing thermal energy provided by the exhaust gas, and at least one electrical heating means, for heating the thermal store, are provided, wherein the electrical heating means is electrically connected to the high-temperature battery, and can be supplied and operated with electrical energy stored in the high-temperature battery.
A lactic acid bacterium W3 belonging to the genus Weissella (Weissella sp.: accession number: NITE BP-01789) or a mutant thereof, or a transformant thereof.
Method for determining the position and orientation of a mobile transmitter, which has at least two linearly polarised antennas arranged at a predefined angle to one another, wherin a plurality of receivers, which are synchronised with the mobile transmitter and of which the position is known, each having a circularly polarised antenna and receiving transmitted signals of predefined carrier frequency in a multiplex operation, comprising the following steps: setting up a field-theoretical model of the transmission path between the mobile transmitter and receivers, which defines carrier phase measured values or carrier phase measured values and time of arrival values), implementing the field-theoretical model in a Kalman filter, evaluating the receiver signals in terms of carrier phase measured values or carrier phase measured values and time of arrival values, determining the position and orientation of the mobile transmitter in the Kalman filter with use of the field-theoretical model and the carrier phase measured values or carrier phase measured values and time of arrival values determined from the receiver signals. setting up a field-theoretical model of the transmission path between the mobile transmitter and receivers, which defines carrier phase measured values or carrier phase measured values and time of arrival values), implementing the field-theoretical model in a Kalman filter, evaluating the receiver signals in terms of carrier phase measured values or carrier phase measured values and time of arrival values, determining the position and orientation of the mobile transmitter in the Kalman filter with use of the field-theoretical model and the carrier phase measured values or carrier phase measured values and time of arrival values determined from the receiver signals.
Process for operating a vertical fixed bed degasser which is continuously fed with an active polymer powder produced by a catalytic olefin polymerisation process in a polymerisation reactor wherein - the polymerisation conditions in the degasser are such that there is produced an additional amount of polymer corresponding to between 0.001 and 0.015 times the amount which entered the degasser, - the degassing process comprises the introduction into said degasser of a stripping gas comprising from 5 to 60% by volume of principal monomer, preferably ethylene, and - the degassing conditions are selected such that the temperature inside the degasser is maintained within a range of temperatures comprised between the polymerisation reactor temperature plus or minus 20 degrees centigrade. - the polymerisation conditions in the degasser are such that there is produced an additional amount of polymer corresponding to between 0.001 and 0.015 times the amount which entered the degasser, - the degassing process comprises the introduction into said degasser of a stripping gas comprising from 5 to 60% by volume of principal monomer, preferably ethylene, and - the degassing conditions are selected such that the temperature inside the degasser is maintained within a range of temperatures comprised between the polymerisation reactor temperature plus or minus 20 degrees centigrade.
Tube assembly comprising an inner tube having an outer thread, an outer tube having an inner thread engaging the outer thread, and means for securing an angular position between the inner tube and the outer tube, the inner tube comprising at least a groove on its outer surface characterized in that the outer tube comprises a recess on its inner surface, wherein a blocking element is arranged in a space formed by the recess and the groove in overlapping relation with the groove and the recess, wherein the blocking element comprises in circumferential direction of the tubes (13, 14) a width corresponding to the width of the recess and the width of the groove in circumferential direction.
Scoring or cutting balloon catheter carrying at least on a portion of its surface at least one drug or drug preparation and at least one lipophilic antioxidant comprising nordihydroguaiaretic acid at a ratio of 3-100% by weight of the nordihydroguaiaretic acid in relation to 100% by weight of the drug.
An unravelable catheter which is formed from flexible material, the catheter having an insertable catheter body which is configured to be inserted into a lumen and a free proximal end which can be pulled to remove the insertable catheter body from the lumen, the catheter having two basic configurations: an initial configuration in which the insertable catheter body has a shape resembling a tension coil spring for the entire length of the insertable catheter body, a bond being provided between adjacent coils to provide a hermetic seal wherein each bond is formed by gluing, welding or molding, and a final configuration, which is essentially linear; said insertable catheter body being adapted to undergo a non-reversible transformation from said initial configuration to said final configuration, wherein the bonds between adjacent coils are broken separating said coils from each other, when said catheter is pulled from the free proximal end to remove it from said lumen.
A device for receiving hazardous materials, comprising a safety cabinet, further comprising at least one container accommodated in the safety cabinet, and comprising a filling device (4, 5) with a filling opening arranged outside of or at the wall of the safety cabinet, wherein - the filling device (4, 5) transfers the hazardous materials supplied via the filling opening into the container for storing them therein, wherein further - the filling device (4, 5) is equipped with a mechanical forced closure which, when the container is full, prevents a further hazardous material inflow via the filling device (4, 5) and/or a hazardous material outflow via a vent hole, and wherein - the mechanical forced closure is provided in a container closure and has a floating body which closes the vent hole when the container is filled, characterized in that - the vent hole in the container closure ensures that vapors developing in the container are vented into the interior of the safety cabinet via the vent hole. - the filling device (4, 5) transfers the hazardous materials supplied via the filling opening into the container for storing them therein, wherein further - the filling device (4, 5) is equipped with a mechanical forced closure which, when the container is full, prevents a further hazardous material inflow via the filling device (4, 5) and/or a hazardous material outflow via a vent hole, and wherein - the mechanical forced closure is provided in a container closure and has a floating body which closes the vent hole when the container is filled, - the vent hole in the container closure ensures that vapors developing in the container are vented into the interior of the safety cabinet via the vent hole.
A method for reducing exchange of molecules between droplets, the method comprising the steps of: (a) flowing in a microfluidic channel a plurality of microdroplets in an immiscible carrier fluid, wherein the plurality of microdroplets comprise a first microdroplet and a second microdroplet, and wherein the first microdroplet comprises a first biological or chemical material and the second microdroplet comprises a second biological or chemical material; and the carrier fluid comprises an oil and a first surfactant at a first concentration within the oil; (b) removing a portion of the carrier fluid from a side channel to the microfluidic channel; and (c) adding a second fluid into the microfluidic channel, wherein the second fluid comprises the oil and is free of the first surfactant, and wherein the second fluid is immiscible with the plurality of microdroplets, thereby changing the first concentration to a second concentration, wherein the second concentration is lower than the first concentration. (a) flowing in a microfluidic channel a plurality of microdroplets in an immiscible carrier fluid, wherein the plurality of microdroplets comprise a first microdroplet and a second microdroplet, and wherein the first microdroplet comprises a first biological or chemical material and the second microdroplet comprises a second biological or chemical material; and the carrier fluid comprises an oil and a first surfactant at a first concentration within the oil; (b) removing a portion of the carrier fluid from a side channel to the microfluidic channel; and (c) adding a second fluid into the microfluidic channel, wherein the second fluid comprises the oil and is free of the first surfactant, and wherein the second fluid is immiscible with the plurality of microdroplets, thereby changing the first concentration to a second concentration, wherein the second concentration is lower than the first concentration.
A signal reception method performed by a terminal device, the method comprising the steps of: • receiving (S 210) first configuration information from a network device, wherein the first configuration information comprises at least one transmission configuration indicator, TCI, state and a configuration of a tracking reference signal, TRS, of a first channel, and the TRS is a set comprising a plurality of channel state information reference signal, CSI-RS, resources; • determining (S 230) a quasi-colocation, QCL, parameter of the first channel based on a first TCI state in the at least one TCI state, ∘ wherein the QCL parameter includes information about a receive beam of the first channel, ∘ wherein the first TCI state is a TCI state with a smallest TCI state number in the at least one TCI state, ∘ wherein the determination of the QCL parameter is performed before an activation command used to activate at least one or more of the at least one TCI state is received by the terminal device from the network device; • receiving (S 250) the first channel based on the QCL parameter of the first channel. • receiving (S 210) first configuration information from a network device, wherein the first configuration information comprises at least one transmission configuration indicator, TCI, state and a configuration of a tracking reference signal, TRS, of a first channel, and the TRS is a set comprising a plurality of channel state information reference signal, CSI-RS, resources; • determining (S 230) a quasi-colocation, QCL, parameter of the first channel based on a first TCI state in the at least one TCI state, ∘ wherein the QCL parameter includes information about a receive beam of the first channel, ∘ wherein the first TCI state is a TCI state with a smallest TCI state number in the at least one TCI state, ∘ wherein the determination of the QCL parameter is performed before an activation command used to activate at least one or more of the at least one TCI state is received by the terminal device from the network device; ∘ wherein the QCL parameter includes information about a receive beam of the first channel, ∘ wherein the first TCI state is a TCI state with a smallest TCI state number in the at least one TCI state, ∘ wherein the determination of the QCL parameter is performed before an activation command used to activate at least one or more of the at least one TCI state is received by the terminal device from the network device; • receiving (S 250) the first channel based on the QCL parameter of the first channel.
Illuminating device (100, 200, 300, 400, 500) comprising at least one lighting module (120, 220, 320, 420, 520) and at least one lighting module support (110, 210, 310, 410, 510), wherein the lighting module support (110, 210, 310, 410, 510) is provided in order to dissipate heat from the lighting module (120, 220, 320, 420, 520) and at least one first fastening element (145, 245, 345, 445, 545) for fastening the lighting module (120, 220, 320, 420, 520) on the lighting module support (110, 210, 310, 410, 510) is provided, wherein the first fastening element (145, 245, 345, 445, 545) is designed in such a way that the lighting module (120, 220, 320, 420, 520) is pressed with a defined pressing force onto the lighting module support (110, 210, 310, 410, 510) in such a way that a defined transfer of heat between the lighting module (120, 220, 320, 420, 520) and lighting module support (110, 210, 310, 410, 510) is enabled, and, in the region of the first fastening element (145, 245, 345, 445, 545), a movement of the lighting module (120, 220, 320, 420, 520) parallel to the main plane of the lighting module (120, 220, 320, 420, 520) is enabled, wherein at least one second fastening element (165, 365) is provided, which fixes the lighting module (120, 220, 320, 420, 520) and the lighting module support (110, 210, 310, 410, 510) at least at one point in the region of the second fastening element (165, 365), characterized in that the first fastening element (145, 245, 345, 445, 545) comprises at least one punched part, wherein the punched part is formed as a punched spring steel sheet.
A circuit comprising: a charge device for charging an energy storage apparatus comprising (a) a first terminal coupled to an output of a bridgeless power factor correction circuit; and (b) a second terminal coupled to the energy storage apparatus; a discharge device for discharging the energy storage apparatus comprising (a) a third terminal coupled to the energy storage apparatus; and (b) a fourth terminal coupled to an input of the bridgeless power factor correction circuit; the energy storage apparatus formed by at least one capacitor; and the bridgeless power factor correction circuit having a first and second input coupled to an input ac source and an output coupled to a load comprising (a) a first switch coupled between a first input of the bridgeless power factor correction circuit and ground; and (b) a second switch coupled between a second input of the bridgeless power factor correction circuit and ground. a charge device for charging an energy storage apparatus comprising (a) a first terminal coupled to an output of a bridgeless power factor correction circuit; and (b) a second terminal coupled to the energy storage apparatus; (a) a first terminal coupled to an output of a bridgeless power factor correction circuit; and (b) a second terminal coupled to the energy storage apparatus; a discharge device for discharging the energy storage apparatus comprising (a) a third terminal coupled to the energy storage apparatus; and (b) a fourth terminal coupled to an input of the bridgeless power factor correction circuit; (a) a third terminal coupled to the energy storage apparatus; and (b) a fourth terminal coupled to an input of the bridgeless power factor correction circuit; the energy storage apparatus formed by at least one capacitor; and the bridgeless power factor correction circuit having a first and second input coupled to an input ac source and an output coupled to a load comprising (a) a first switch coupled between a first input of the bridgeless power factor correction circuit and ground; and (b) a second switch coupled between a second input of the bridgeless power factor correction circuit and ground. (a) a first switch coupled between a first input of the bridgeless power factor correction circuit and ground; and (b) a second switch coupled between a second input of the bridgeless power factor correction circuit and ground.
A method for producing a titanium oxide particle comprising: a step of producing a titanium hydroxide compound particle in a mixture solution; a step of adding a silane compound to the mixture solution to produce a silica-coated titanium hydroxide compound particle having a surface thereof coated with silica; and a step of calcining the silica-coated titanium hydroxide compound particle separated from the mixture solution to produce a titanium oxide particle formed of a Ti 3 O 5 particle body which is coated with silica glass, has a composition of Ti 3 O 5, and is in a microparticle shape, wherein in the step of producing a titanium hydroxide compound particle, the mixture solution is prepared by mixing a titanium chloride aqueous solution having titanium chloride dissolved in water with an ammonium aqueous solution, a hydroxylation reaction occurs in a water phase of the mixture solution, and the titanium hydroxide compound particle is produced in the water phase, the silica-coated titanium hydroxide compound particle being produced by utilizing water without a solution having an oil phase and in the step of calcining the silica-coated titanium hydroxide compound particle, the silica-coated titanium hydroxide compound particle is calcined under a hydrogen atmosphere at a temperature of 1050 to 1250 °C. a step of producing a titanium hydroxide compound particle in a mixture solution; a step of adding a silane compound to the mixture solution to produce a silica-coated titanium hydroxide compound particle having a surface thereof coated with silica; and a step of calcining the silica-coated titanium hydroxide compound particle separated from the mixture solution to produce a titanium oxide particle formed of a Ti 3 O 5 particle body which is coated with silica glass, has a composition of Ti 3 O 5, and is in a microparticle shape, wherein
A luminaire having: • a plasma light source powered by High Frequency power; • a HF power supply having a physical structure, • the light source and the HF power supply physical structure being connected together as an assembly; • a housing for the HF power supply, the housing having: • an aperture through which the said assembly extends with cooling air flow clearance and • a reflector for at least substantially collimating light from the light source, the reflector having its own aperture through which the said assembly extends, with the light source arranged within the reflector; characterised in that: • the luminaire includes: • luminaire supporting means suitable for supporting the luminaire, and • a sub-frame, the assembly and the housing being fastened together via the sub-frame; • the reflector is fastened to the housing at the aperture of the housing; • the housing is fastened to the sub-frame; • the sub-frame is fastened to the assembly at the HF power supply physical structure; and • the sub-frame is fastened to the luminaire support means, whereby the plasma light source is supported with respect to the reflector with the light source at the focal point of the reflector, also in that the luminaire includes: • a cooling air fan arranged at an opening in the housing for drawing air in (or out) for cooling of the HF power supply and passage out (or in) via the aperture and past the light source whereby upon operation air flow is past the light source as the cooling air exits the housing and reflector as fastened together. • a plasma light source powered by High Frequency power; • a HF power supply having a physical structure, • the light source and the HF power supply physical structure being connected together as an assembly; • the light source and the HF power supply physical structure being connected together as an assembly; • a housing for the HF power supply, the housing having: • an aperture through which the said assembly extends with cooling air flow clearance and • an aperture through which the said assembly extends with cooling air flow clearance and • a reflector for at least substantially collimating light from the light source, the reflector having its own aperture through which the said assembly extends, with the light source arranged within the reflector; • the luminaire includes: • luminaire supporting means suitable for supporting the luminaire, and • a sub-frame, the assembly and the housing being fastened together via the sub-frame; • luminaire supporting means suitable for supporting the luminaire, and • a sub-frame, the assembly and the housing being fastened together via the sub-frame; • the reflector is fastened to the housing at the aperture of the housing; • the housing is fastened to the sub-frame; • the sub-frame is fastened to the assembly at the HF power supply physical structure; and • the sub-frame is fastened to the luminaire support means, • a cooling air fan arranged at an opening in the housing for drawing air in (or out) for cooling of the HF power supply and passage out (or in) via the aperture and past the light source
An integrated circuit (100, 200) comprising: a magneto resistive RAM, MRAM, array (106, 151, 152, 153, 154) comprising a plurality of MRAM cells; a set of Hall sensor circuits (112, 114, 116, 118, 156, 157, 158, 159, 300), wherein the set includes a first Hall sensor having a first level of magnetic sensitivity, and a second hall sensor having second level of magnetic sensitivity greater than the first level of sensitivity; and magnetic processing circuitry (160, 166, 400) for receiving at least one indication from the set of Hall sensor circuits, wherein the magnetic processing circuitry includes an output to provide an indication of a possible magnetic field threat or attack to the MRAM array based on the at least one indication, wherein the indication is based on a detection of a magnetic field being at least at a first threshold (T1, T2, T3, T4) magnitude for a first predetermined amount of time (DT 1, DT 2, DT 3, DT 4), wherein the magnetic processing circuitry is configured to provide a second indication of a possible magnetic field threat or attack, wherein the second indication is based on a magnetic field being at least at a second threshold (T1, T2, T3, T4) magnitude for a second predetermined amount of time (DT 1, DT 2, DT 3, DT 4), and wherein the second threshold magnitude is greater than the first threshold magnitude and the second predetermined amount of time is less than the first predetermined amount of time. a magneto resistive RAM, MRAM, array (106, 151, 152, 153, 154) comprising a plurality of MRAM cells; a set of Hall sensor circuits (112, 114, 116, 118, 156, 157, 158, 159, 300), wherein the set includes a first Hall sensor having a first level of magnetic sensitivity, and a second hall sensor having second level of magnetic sensitivity greater than the first level of sensitivity; and magnetic processing circuitry (160, 166, 400) for receiving at least one indication from the set of Hall sensor circuits, wherein the magnetic processing circuitry includes an output to provide an indication of a possible magnetic field threat or attack to the MRAM array based on the at least one indication, wherein the indication is based on a detection of a magnetic field being at least at a first threshold (T1, T2, T3, T4) magnitude for a first predetermined amount of time (DT 1, DT 2, DT 3, DT 4), wherein the magnetic processing circuitry is configured to provide a second indication of a possible magnetic field threat or attack, wherein the second indication is based on a magnetic field being at least at a second threshold (T1, T2, T3, T4) magnitude for a second predetermined amount of time (DT 1, DT 2, DT 3, DT 4), and wherein the second threshold magnitude is greater than the first threshold magnitude and the second predetermined amount of time is less than the first predetermined amount of time.