mhurhangee/ep-ind-claims huggingface dataset:
Sound guidance unit for a tank which is provided for storing a fluid, in particular a fluid reducing agent, having a transducer unit and a measurement section unit; a fill-height sound measurement section, which is configured for measuring the fill height of the fluid in the tank, wherein the fill-height sound measurement section has a sound guidance tube extending substantially in a vertical direction and a fill-height sound transducer arranged at a lower end of the sound guidance tube, wherein the fill-height sound transducer is formed in or on the transducer unit, and wherein the sound guidance tube is formed in or on the measurement section unit; wherein the sound guidance unit has a heating body which is arranged on or around at least one region of the sound guidance tube; wherein the sound guidance unit additionally comprises a quality sound measurement section with a quality sound transducer arranged at the quality sound measurement section and with a main reflector arranged at the quality sound measurement section; and wherein the main reflector is arranged between the quality sound transducer and the fill-height sound transducer in a horizontal direction such that the fluid in the quality sound measurement section is heated by the waste heat of a control circuit, which is arranged in the transducer unit between the two sound transducers (26, 28). a transducer unit and a measurement section unit; a fill-height sound measurement section, which is configured for measuring the fill height of the fluid in the tank, wherein the fill-height sound measurement section has a sound guidance tube extending substantially in a vertical direction and a fill-height sound transducer arranged at a lower end of the sound guidance tube, wherein the fill-height sound transducer is formed in or on the transducer unit, and wherein the sound guidance tube is formed in or on the measurement section unit; wherein the sound guidance unit has a heating body which is arranged on or around at least one region of the sound guidance tube; wherein the sound guidance unit additionally comprises a quality sound measurement section with a quality sound transducer arranged at the quality sound measurement section and with a main reflector arranged at the quality sound measurement section; and wherein the main reflector is arranged between the quality sound transducer and the fill-height sound transducer in a horizontal direction such that the fluid in the quality sound measurement section is heated by the waste heat of a control circuit, which is arranged in the transducer unit between the two sound transducers (26, 28).
A cable assembly apparatus for coupling a connector to a cable, comprising: a base supporting an interface pedestal dimensioned to receive the connector; an inductor coil coupled to an inductor coil actuator operable to move the inductor coil between a load position and an operation position proximate the interface pedestal; a grip clamp operable by a clamp actuator to move between an open position and a closed position above the interface pedestal; and a temperature sensor configured to read a temperature proximate the interface pedestal; characterized in that the temperature proximate the interface pedestal is read at an open side of the connector, when the connector is seated upon the interface pedestal opposite the inductor coil. a base supporting an interface pedestal dimensioned to receive the connector; an inductor coil coupled to an inductor coil actuator operable to move the inductor coil between a load position and an operation position proximate the interface pedestal; a grip clamp operable by a clamp actuator to move between an open position and a closed position above the interface pedestal; and
A preparation method for a capacitor structure, the preparation method comprises: forming a dielectric layer on a first electrode, wherein the dielectric layer comprises a first amorphous layer, a high dielectric constant layer and a second amorphous layer arranged in a stack, the first amorphous layer maintains an amorphous structure after annealing, and the high dielectric constant layer is formed by crystallizing an initial dielectric constant layer after annealing; and forming a second electrode on the dielectric layer, wherein, the high dielectric constant layer has a dielectric constant of 40 - 300, characterized in that, the material of the first amorphous layer comprises aluminum titanate, and a mass concentration of aluminum in the aluminum titanate is 10% - 50%; and wherein an annealing temperature is 200°C - 600°C, and an annealing time is 10 s - 600 s; and the first amorphous layer has a thickness of 0.5 - 5 nm. forming a dielectric layer on a first electrode, wherein the dielectric layer comprises a first amorphous layer, a high dielectric constant layer and a second amorphous layer arranged in a stack, the first amorphous layer maintains an amorphous structure after annealing, and the high dielectric constant layer is formed by crystallizing an initial dielectric constant layer after annealing; and forming a second electrode on the dielectric layer, wherein, the high dielectric constant layer has a dielectric constant of 40 - 300, characterized in that, the material of the first amorphous layer comprises aluminum titanate, and a mass concentration of aluminum in the aluminum titanate is 10% - 50%; and wherein an annealing temperature is 200°C - 600°C, and an annealing time is 10 s - 600 s; and the first amorphous layer has a thickness of 0.5 - 5 nm.
A front pillar structure, comprising: a front side pillar frame member and a rear side pillar frame member that structure a front pillar that is disposed at an outer side, in a vehicle transverse direction, of a front windshield glass; a transparent member that extends between the front side pillar frame member and the rear side pillar frame member, and that, as seen in a plan view, is disposed along a direction intersecting the front windshield glass; a planar portion that is formed at the front side pillar frame member so as to face toward a vehicle front side, and to which an outer side end portion, in the vehicle transverse direction, of the front windshield glass is mounted from a vehicle front side; and an angle absorbing member that is provided at a vehicle front side end portion of the transparent member, and that is mounted to the planar portion from the vehicle front side, characterized in that: the angle absorbing member has two projecting portions for positioning with respect to the planar portion, the projecting portions are arranged in the vehicle transverse direction, and a urethane adhesive is mounted between the projecting portions. a front side pillar frame member and a rear side pillar frame member that structure a front pillar that is disposed at an outer side, in a vehicle transverse direction, of a front windshield glass; a transparent member that extends between the front side pillar frame member and the rear side pillar frame member, and that, as seen in a plan view, is disposed along a direction intersecting the front windshield glass; a planar portion that is formed at the front side pillar frame member so as to face toward a vehicle front side, and to which an outer side end portion, in the vehicle transverse direction, of the front windshield glass is mounted from a vehicle front side; and an angle absorbing member that is provided at a vehicle front side end portion of the transparent member, and that is mounted to the planar portion from the vehicle front side, characterized in that: the angle absorbing member has two projecting portions for positioning with respect to the planar portion, the projecting portions are arranged in the vehicle transverse direction, and a urethane adhesive is mounted between the projecting portions. the angle absorbing member has two projecting portions for positioning with respect to the planar portion, the projecting portions are arranged in the vehicle transverse direction, and a urethane adhesive is mounted between the projecting portions.
A positive electrode plate of a power battery, comprising a positive current collector and a positive active material layer formed on the positive current collector, wherein the positive active material layer contains a mixture of lithium iron phosphate and LiFe 2 F 6, or a mixture of lithium iron phosphate, FeF 3 and LiFe 2 F 6.
An RF generator circuit comprising: a power supply; an active device configured to output a signal; a dual inductor including a pair of windings (314, 316) wound on a toroidal core; a capacitor (340, 342, 344, 346) electrically coupled with one of the windings (314, 316) of the dual inductor; and a feedback device configured to provide feedback from the dual inductor to the active device; wherein the power supply and the active device are electrically coupled with the capacitor (340, 342, 344, 346) and the one of the windings (314, 316) of the dual inductor; and wherein the dual inductor is configured to provide a voltage step up of the signal of the active device. a power supply; an active device configured to output a signal; a dual inductor including a pair of windings (314, 316) wound on a toroidal core; a capacitor (340, 342, 344, 346) electrically coupled with one of the windings (314, 316) of the dual inductor; and a feedback device configured to provide feedback from the dual inductor to the active device; wherein the power supply and the active device are electrically coupled with the capacitor (340, 342, 344, 346) and the one of the windings (314, 316) of the dual inductor; and wherein the dual inductor is configured to provide a voltage step up of the signal of the active device.
Method for carrying out an optical identity comparison between two decor samples which are differently coloured and structured, having the following features: - a section of a decor sample (UR, LE, I) which is uneven coloured and structured is illuminated with scattered light, - by means of a spectrometer, an interference spectrum is produced from the light that is reflected from the section of the sample (UR, LE, I) which is to be analysed, - the interference spectrum produced by the spectrometer is imaged onto a camera (25, 25'), - the interference spectrum thus obtained and/or the values derived therefrom of the decor sample which is to be analysed are used as sample values, which are compared with correspondingly obtained sample values of a reference sample (UR, LE), the sample values of which were identified or are identified with regard to an identical section of the decor sample (UR, LE). - a section of a decor sample (UR, LE, I) which is uneven coloured and structured is illuminated with scattered light, - by means of a spectrometer, an interference spectrum is produced from the light that is reflected from the section of the sample (UR, LE, I) which is to be analysed, - the interference spectrum produced by the spectrometer is imaged onto a camera (25, 25'), - the interference spectrum thus obtained and/or the values derived therefrom of the decor sample which is to be analysed are used as sample values, which are compared with correspondingly obtained sample values of a reference sample (UR, LE), the sample values of which were identified or are identified with regard to an identical section of the decor sample (UR, LE).
A method performed by a User Equipment (104A, 104B, 104C, 104D, 700) "UE" comprising: determining a received signal strength of a reference signal transmitted from an eNodeB; determining a coverage enhancement based on the determined signal strength; and transmitting a signature sequence (300, 400, 500) of a plurality of signature sequences a first repeated number of times corresponding to the determined coverage enhancement, wherein determining the coverage enhancement comprises determining: whether an initial coverage extension level selected is supported by a network; if the initial coverage extension level is supported by the network, use the initial coverage extension level as the determined coverage enhancement; and if the initial coverage extension level is not supported by the network: determine a next closest coverage extension level that is supported by the network; and use the next closest coverage extension level as the determined coverage enhancement. determining a received signal strength of a reference signal transmitted from an eNodeB; determining a coverage enhancement based on the determined signal strength; and transmitting a signature sequence (300, 400, 500) of a plurality of signature sequences a first repeated number of times corresponding to the determined coverage enhancement, wherein determining the coverage enhancement comprises determining: whether an initial coverage extension level selected is supported by a network; if the initial coverage extension level is supported by the network, use the initial coverage extension level as the determined coverage enhancement; and if the initial coverage extension level is not supported by the network: determine a next closest coverage extension level that is supported by the network; and use the next closest coverage extension level as the determined coverage enhancement. whether an initial coverage extension level selected is supported by a network; if the initial coverage extension level is supported by the network, use the initial coverage extension level as the determined coverage enhancement; and if the initial coverage extension level is not supported by the network: determine a next closest coverage extension level that is supported by the network; and use the next closest coverage extension level as the determined coverage enhancement. determine a next closest coverage extension level that is supported by the network; and use the next closest coverage extension level as the determined coverage enhancement.
A cable fixation device (100, 200, 300, 400) comprising: a base (102, 202) with fastener holes; an upright (110, 208) projecting from the base (102, 202), the upright (110, 208) including a fixation projection (126, 212, 316, 318) having a T-shaped portion (128, 214, 324) for receiving a cable tie (152, 222, 326) for fixating a cable, characterised in that said T-shaped portion (128, 214, 324) for receiving the cable tie (152, 222, 326) comprises protrusions (130, 218, 320) for engaging the cable jacket of said cable. a base (102, 202) with fastener holes; an upright (110, 208) projecting from the base (102, 202), the upright (110, 208) including a fixation projection (126, 212, 316, 318) having a T-shaped portion (128, 214, 324) for receiving a cable tie (152, 222, 326) for fixating a cable, characterised in that said T-shaped portion (128, 214, 324) for receiving the cable tie (152, 222, 326) comprises protrusions (130, 218, 320) for engaging the cable jacket of said cable.
A power amplifier comprising: an MMIC substrate; a high frequency probe pad disposed on the MMIC substrate; and a metal plate disposed on the MMIC substrate so as to adjoin to the high frequency probe pad, and connected to an MMIC external circuit via a first bonding wire, wherein a low pass filter is formed of an inductance of the first bonding wire, a capacitor which the metal plate has, and an inductance of a second bonding wire connected between the metal plate and the high frequency probe pad. an MMIC substrate; a high frequency probe pad disposed on the MMIC substrate; and a metal plate disposed on the MMIC substrate so as to adjoin to the high frequency probe pad, and connected to an MMIC external circuit via a first bonding wire, wherein a low pass filter is formed of an inductance of the first bonding wire, a capacitor which the metal plate has, and an inductance of a second bonding wire connected between the metal plate and the high frequency probe pad.
Process for producing a monosaccharide in free form using a microorganism, wherein the process comprises the steps of: a) providing a genetically engineered microorganism possessing the following enzymatic activities for the synthesis of the monosaccharide: i) a glycosyltransferase specifically able to transfer, from an activated nucleotide monosaccharide, the monosaccharide to an acceptor-substrate to form an acceptor-monosaccharide-substrate, and ii) a glycosidase able to release the monosaccharide from the acceptor-substrate; wherein the microorganism is unable to metabolize the monosaccharide; wherein the recombinant microorganism has been transformed to comprise at least one of i) a nucleic acid sequence encoding a glycosyltransferase not naturally occurring in the microorganism, and/or ii) a nucleic acid sequence encoding a glycosidase not naturally occurring in said microorganism, b) cultivating the microorganism in a medium suitable for growing the microorganism, whereby the monosaccharide is produced in a free form, c) recovering the free monosaccharide from the medium. a) providing a genetically engineered microorganism possessing the following enzymatic activities for the synthesis of the monosaccharide: i) a glycosyltransferase specifically able to transfer, from an activated nucleotide monosaccharide, the monosaccharide to an acceptor-substrate to form an acceptor-monosaccharide-substrate, and ii) a glycosidase able to release the monosaccharide from the acceptor-substrate; wherein the microorganism is unable to metabolize the monosaccharide; wherein the recombinant microorganism has been transformed to comprise at least one of i) a nucleic acid sequence encoding a glycosyltransferase not naturally occurring in the microorganism, and/or ii) a nucleic acid sequence encoding a glycosidase not naturally occurring in said microorganism, b) cultivating the microorganism in a medium suitable for growing the microorganism, whereby the monosaccharide is produced in a free form, c) recovering the free monosaccharide from the medium.
Process for producing hydrophobic silica moldings, wherein i) a mixture containing hydrophilic silica is coated with hydrophobicizing agent at a temperature of not more than 55°C and ii) the mixture from step i is, after a storage time of not more than 30 days, compacted to give moldings, iii) where the temperature is not more than 55°C during steps i and ii and up to use of the moldings. i) a mixture containing hydrophilic silica is coated with hydrophobicizing agent at a temperature of not more than 55°C and ii) the mixture from step i is, after a storage time of not more than 30 days, compacted to give moldings, iii) where the temperature is not more than 55°C during steps i and ii and up to use of the moldings.
A catheter for cerebral angiography and neurointerventions, comprising: a proximal end, a distal end and a plurality of segments (20, 21, 22, 23), the plurality of segments including: a first curved segment having a curve with a first radius of curvature, the first curved segment being extended with a first linear segment; a second curved segment connecting the first linear segment with a second linear segment, the second curved segment having a curve with a second radius of curvature, the curve of the first curved segment being in a different direction than the curve of the second curved segment (21 wherein the plurality of segments (20, 21, 22, 23) further comprises a third linear segment that is connected to an end of the second linear segment through a curved portion that orients the third linear segment in a direction that approaches towards the first curved segment; characterised in that the second linear segment having a length greater than a length of the first linear segment. a first curved segment having a curve with a first radius of curvature, the first curved segment being extended with a first linear segment; a second curved segment connecting the first linear segment with a second linear segment, the second curved segment having a curve with a second radius of curvature, the curve of the first curved segment being in a different direction than the curve of the second curved segment (21 wherein the plurality of segments (20, 21, 22, 23) further comprises a third linear segment that is connected to an end of the second linear segment through a curved portion that orients the third linear segment in a direction that approaches towards the first curved segment; characterised in that the second linear segment having a length greater than a length of the first linear segment.
A method for communication in a wireless network supporting a hybrid automatic repeat request, HARQ, transmission, the method comprising: coding bits in each of codewords; modulating the coded bits in each of the codewords to generate modulated symbols; mapping the modulated symbols for each of the codewords into each of corresponding layers; and transmitting the each of the modulated symbols mapped into the each of corresponding layers and control information related to the modulated symbols, characterised in, that the control information comprises of modulation information, resources allocation information, layer mapping information, and one bit flipping information, wherein the mapping of the modulated symbols for each of the codewords into each of the corresponding layer is determined based on the one bit flipping information for two codewords transmission. coding bits in each of codewords; modulating the coded bits in each of the codewords to generate modulated symbols; mapping the modulated symbols for each of the codewords into each of corresponding layers; and transmitting the each of the modulated symbols mapped into the each of corresponding layers and control information related to the modulated symbols, characterised in, that the control information comprises of modulation information, resources allocation information, layer mapping information, and one bit flipping information, wherein the mapping of the modulated symbols for each of the codewords into each of the corresponding layer is determined based on the one bit flipping information for two codewords transmission.
Toggle fixing (1, 1') having a screw for fixing an article to a thin-walled building component (24, 24'), - having a crosspiece (2, 2') which, for fixing, can be pushed into a hole (25, 25') and which extends along a crosspiece longitudinal axis (L 1) and has an opening (5, 5') for receiving the screw, the opening (5, 5') extending along an opening longitudinal axis (L 2) transversely with respect to the crosspiece longitudinal axis (L 1), and - having a strip (3, 3') which is connected to the crosspiece (2, 2') and serves for holding and positioning the crosspiece (2, 2') during mounting, the crosspiece (2, 2') forming a supporting side (19, 19') on the side facing towards the strip (3, 3'), characterised in that the crosspiece (2, 2') has a screw channel (13, 13') which extends along a channel longitudinal axis (L 3) that is substantially parallel to the crosspiece longitudinal axis (L 1), and into which a screw is driven, especially screwed, in such a way that the crosspiece (2, 2') is expanded. - having a crosspiece (2, 2') which, for fixing, can be pushed into a hole (25, 25') and which extends along a crosspiece longitudinal axis (L 1) and has an opening (5, 5') for receiving the screw, the opening (5, 5') extending along an opening longitudinal axis (L 2) transversely with respect to the crosspiece longitudinal axis (L 1), and - having a strip (3, 3') which is connected to the crosspiece (2, 2') and serves for holding and positioning the crosspiece (2, 2') during mounting, the crosspiece (2, 2') forming a supporting side (19, 19') on the side facing towards the strip (3, 3'),