mhurhangee/ep-ind-claims huggingface dataset:
A method for adjusting a precursor powder for sintered ore, comprising: mixing and granulating an iron ore raw material, coke breeze, and an auxiliary raw material in a drum mixer to obtain a precursor powder for sintered ore; and charging the precursor powder to a sintering machine where the precursor powder is sintered to produce sintered ore to be used in a blast furnace, wherein the mixing and the granulating are performed with a mixing ratio [(C/F) × 100] of a mass of particles having a particle size of 3 mm or more in the coke breeze to a mass of particles having a particle size of 3 mm or more in the iron ore raw material being adjusted in the range of 2 % to 3 %. mixing and granulating an iron ore raw material, coke breeze, and an auxiliary raw material in a drum mixer to obtain a precursor powder for sintered ore; and charging the precursor powder to a sintering machine where the precursor powder is sintered to produce sintered ore to be used in a blast furnace,
A cap apparatus comprising; a cap apparatus assembled from two parts; - an annular skirted cap body having a side wall defining an outer surface of the cap body and a central opening, an annular top wall having an annular outer surface and an annular undersurface, a flanged bearing secured to an undersurface of the annular top wall; and an annular thrust bearing secured to the annular outer surface of the annular top wall, the thrust bearing having an outer surface; wherein the inner surface of the annular skirted cap body has a connector to connect the skirted side body to a container; - a cap insert having at least one port wherein the top face of the cap insert is attached to an annular anti-rotation mounting plate comprising mounting holes for connecting to another apparatus; wherein the cap insert is seated inside the annular skirted cap body so that the annular skirted cap body and the cap insert are rotatably coupled through the flanged bearing, and through the annular anti-rotation mounting plate which is rotatably coupled to the annular skirted cap body through the thrust bearing and the at least one port extends through the central opening of the annular skirted cap body; and further comprising an O-ring seated against the flanged bearing between the flanged bearing and the cap insert. - an annular skirted cap body having a side wall defining an outer surface of the cap body and a central opening, an annular top wall having an annular outer surface and an annular undersurface, a flanged bearing secured to an undersurface of the annular top wall; and an annular thrust bearing secured to the annular outer surface of the annular top wall, the thrust bearing having an outer surface; wherein the inner surface of the annular skirted cap body has a connector to connect the skirted side body to a container; - a cap insert having at least one port
A method of preparing a positive electrode active material for a secondary battery, the method comprising: preparing a lithium composite transition metal oxide which includes nickel, cobalt, and manganese and contains 60 mol% or more of the nickel among all metals except lithium; adding a moisture absorbent and the lithium composite transition metal oxide into an atomic layer deposition reactor; and adding a coating metal precursor into the atomic layer deposition reactor, and forming a metal oxide coating layer on surfaces of particles of the lithium composite transition metal oxide by atomic layer deposition; wherein a moisture content of the lithium composite transition metal oxide in the atomic layer deposition reactor is 300 ppm or less before performing the atomic layer deposition. preparing a lithium composite transition metal oxide which includes nickel, cobalt, and manganese and contains 60 mol% or more of the nickel among all metals except lithium; adding a moisture absorbent and the lithium composite transition metal oxide into an atomic layer deposition reactor; and adding a coating metal precursor into the atomic layer deposition reactor, and forming a metal oxide coating layer on surfaces of particles of the lithium composite transition metal oxide by atomic layer deposition; wherein a moisture content of the lithium composite transition metal oxide in the atomic layer deposition reactor is 300 ppm or less before performing the atomic layer deposition.
A method for communicating reference signals, the method being characterised by: selecting a demodulation reference sequence, DMRS, of a plurality of DMRSs for transmission in a synchronization signal block, SSB, based on a half-frame in which the SSB is transmitted wherein the plurality of DMRSs are candidate DMRS sequences that may be used in the SSB; and transmitting the selected DMRS in the SSB. selecting a demodulation reference sequence, DMRS, of a plurality of DMRSs for transmission in a synchronization signal block, SSB, based on a half-frame in which the SSB is transmitted wherein the plurality of DMRSs are candidate DMRS sequences that may be used in the SSB; and transmitting the selected DMRS in the SSB.
Bonding device, in particular for producing bonding connections between electrical conductors consisting of wire material or strip material and contact points of substrates, such as in particular electrical circuits, wherein the bonding device comprises a bonding tool and an ultrasonic transducer for ultrasonic oscillation excitation of the bonding tool, wherein the ultrasonic transducer can be excited to oscillations by oscillation exciters such that a wave form is formed for the operating frequency, which performs a substantially rotational movement at the mounting point of the bonding tool and thereby excites the tool in a node of its wave form to perform flexural oscillations, characterised in that the ultrasonic transducer has at least one transducer body and the oscillation exciter with at least one oscillation excitation element, wherein the oscillation excitation element is connected to the transducer body in a manner suitable for transmitting the oscillations produced thereby to the transducer body, wherein the ultrasonic transducer, in particular with a bonding tool mounted on its tool holder, has an oscillation mode, of which the wave form produces, in the mounting point of the bonding tool, a rotationally oscillating movement about at least one axis of rotation or a combined oscillating excitation to rotation and translation, and in that the transducer body comprises only one oscillation excitation element carrier, and in that the oscillation excitation elements, in particular all of the oscillation excitation elements, forming an oscillation exciter, are arranged on two opposing surfaces (39, 40), facing away from one another, of the oscillation excitation element carrier, wherein the oscillation excitation element carrier is at least substantially in the shape of a rectangular cuboid or a rectangular plate, and in that the bonding tool and the ultrasonic transducer are provided on a bonding head which can be rotated about a - in particular vertical - geometrical axis of rotation, wherein the main direction of extension of the ultrasonic transducer and/or its extension direction in the direction of the axis of the minimum mass moment of inertia extends in parallel with the geometrical axis of rotation of the bonding head.
An air particulate detection system comprising: an aspiration particulate detection system; one or more pipe runs fluidly connected to the aspiration detection system, wherein each of the one or more pipe runs includes one or more sampling points configured to allow an air particulate entry into at least one of the one or more pipe runs, and wherein the aspiration particulate detection system comprises a blower to transport the air particulate from each of the one or more sampling points through the one or more pipe runs to the aspiration particulate detection system; and a secondary particulate detector fluidly connected to the aspiration particulate detection system through the one or more pipe runs, wherein the secondary particulate detector is in communication with the aspiration particulate detection system, wherein the secondary particulate detector is located proximate to at least one of the one or more sampling points, and wherein the air particulate is transported through the secondary particulate detector by the blower, characterized in that: the secondary particulate detector further comprises: a laser source configured to generate a laser having a plurality of wavelengths; and a sensor configured to detect at least one of an amount of laser scatter and laser fluorescence in response to interaction of the laser and air particulates; and an infrared light source configured to generate an infrared light; and a sensor configured to detect an infrared signature of an air particulate in response to interaction of the infrared light and the air particulate. an aspiration particulate detection system; one or more pipe runs fluidly connected to the aspiration detection system, wherein each of the one or more pipe runs includes one or more sampling points configured to allow an air particulate entry into at least one of the one or more pipe runs, and wherein the aspiration particulate detection system comprises a blower to transport the air particulate from each of the one or more sampling points through the one or more pipe runs to the aspiration particulate detection system; and a secondary particulate detector fluidly connected to the aspiration particulate detection system through the one or more pipe runs, wherein the secondary particulate detector is in communication with the aspiration particulate detection system, wherein the secondary particulate detector is located proximate to at least one of the one or more sampling points, and wherein the air particulate is transported through the secondary particulate detector by the blower, a laser source configured to generate a laser having a plurality of wavelengths; and a sensor configured to detect at least one of an amount of laser scatter and laser fluorescence in response to interaction of the laser and air particulates; and
A dental superstructure attaching system for use with a dental implant, said dental superstructure attaching system comprising: (i) a longitudinal member being connectable with an implant or an implant connecting member via an at least partially curved interface area at the proximal end of said longitudinal member, said longitudinal member comprising a main member and a lever member, wherein said longitudinal member further comprises means for urging said lever member and said main member away from each other, such that said longitudinal member is secured to said implant or implant connecting member; and (ii) a casing for attachment to a dental superstructure on the outer surface of the casing, said casing comprising a cavity for housing the longitudinal member, such that when urging said lever member and said main member away from each other, the longitudinal member is secured in said cavity, wherein said lever member comprises a threaded receiving seat axially aligned with a threaded through hole of the main member, such that said receiving seat and said through hole are configured to receive a screw. (i) a longitudinal member being connectable with an implant or an implant connecting member via an at least partially curved interface area at the proximal end of said longitudinal member, said longitudinal member comprising a main member and a lever member, wherein said longitudinal member further comprises means for urging said lever member and said main member away from each other, such that said longitudinal member is secured to said implant or implant connecting member; and (ii) a casing for attachment to a dental superstructure on the outer surface of the casing, said casing comprising a cavity for housing the longitudinal member, such that when urging said lever member and said main member away from each other, the longitudinal member is secured in said cavity, wherein said lever member comprises a threaded receiving seat axially aligned with a threaded through hole of the main member, such that said receiving seat and said through hole are configured to receive a screw.
A gas turbine engine comprising: a combustor section having a plurality of components including a combustor; a fuel source (249; 449a; 449b); and a fuel injector (238; 344a; 344b; 438a; 438b) arranged relative to the combustor, the fuel injector comprising: a nozzle (250; 350a; 350b; 450a; 450b) configured to dispense fuel (248; 448a; 448b) into the combustor of the gas turbine engine; a fuel conduit (246; 446a; 446b) fluidly connecting the fuel source (249; 449a; 449b) to the nozzle to supply fuel therethrough; and a heat pipe (260; 360a; 360b; 460a; 460b) having a vaporization section (262; 362a; 362b) and a condensation section (264; 364a; 364b), wherein the vaporization section is in thermal communication with the nozzle and the condensation section is in thermal communication with a cooling source (252; 352a; 352b; 452a; 452b) of the gas turbine engine, characterised in that the cooling source is the fuel source and the condensation section extends into the cooling source. a combustor section having a plurality of components including a combustor; a fuel source (249; 449a; 449b); and a fuel injector (238; 344a; 344b; 438a; 438b) arranged relative to the combustor, the fuel injector comprising: a nozzle (250; 350a; 350b; 450a; 450b) configured to dispense fuel (248; 448a; 448b) into the combustor of the gas turbine engine; a fuel conduit (246; 446a; 446b) fluidly connecting the fuel source (249; 449a; 449b) to the nozzle to supply fuel therethrough; and a heat pipe (260; 360a; 360b; 460a; 460b) having a vaporization section (262; 362a; 362b) and a condensation section (264; 364a; 364b), wherein the vaporization section is in thermal communication with the nozzle and the condensation section is in thermal communication with a cooling source (252; 352a; 352b; 452a; 452b) of the gas turbine engine, a nozzle (250; 350a; 350b; 450a; 450b) configured to dispense fuel (248; 448a; 448b) into the combustor of the gas turbine engine; a fuel conduit (246; 446a; 446b) fluidly connecting the fuel source (249; 449a; 449b) to the nozzle to supply fuel therethrough; and a heat pipe (260; 360a; 360b; 460a; 460b) having a vaporization section (262; 362a; 362b) and a condensation section (264; 364a; 364b), wherein the vaporization section is in thermal communication with the nozzle and the condensation section is in thermal communication with a cooling source (252; 352a; 352b; 452a; 452b) of the gas turbine engine, characterised in that the cooling source is the fuel source and the condensation section extends into the cooling source.
Method for charging electric consumers, for example electric vehicles, at a power supply network with multiple phases (11, 12, 13, 14), - whereby phase currents of the phases (11, 12, 13, 14) of the power supply network are measured at a balance point, - whereby for each of the electric consumers connected to the power supply network for charging via the balance point the phase (11, 12, 13, 14) to which the electric consumer is connected is determined, and - whereby an unbalanced load of the phases (11, 12, 13, 14) is held below an unbalanced load threshold value by communicating a power specification to each electric consumer connected for charging, - whereby the power specification includes how much charging power may be additionally drawn at the time concerned, or by how much the charging power must be reduced, - whereby when the phase current of one phase (11, 12, 13, 14) lies above a load threshold value or the phase current of this phase (11, 12, 13, 14) is greater than the lowest measured phase current of one of the other phases (11, 12, 13, 14) with the addition of the unbalanced load threshold value, the fact that the charging power must be reduced is signalled via the power specification, characterised in - that when the phase current of one phase (11, 12, 13, 14) lies below the load threshold value and the phase current of this phase (11, 12, 13, 14) is smaller than the lowest measured phase current of one of the other phases (11, 12, 13, 14) with the addition of the unbalanced load threshold value, the fact that additional charging power may be drawn is signalled via the power specification. - whereby phase currents of the phases (11, 12, 13, 14) of the power supply network are measured at a balance point, - whereby for each of the electric consumers connected to the power supply network for charging via the balance point the phase (11, 12, 13, 14) to which the electric consumer is connected is determined, and - whereby an unbalanced load of the phases (11, 12, 13, 14) is held below an unbalanced load threshold value by communicating a power specification to each electric consumer connected for charging, - whereby the power specification includes how much charging power may be additionally drawn at the time concerned, or by how much the charging power must be reduced, - whereby when the phase current of one phase (11, 12, 13, 14) lies above a load threshold value or the phase current of this phase (11, 12, 13, 14) is greater than the lowest measured phase current of one of the other phases (11, 12, 13, 14) with the addition of the unbalanced load threshold value, the fact that the charging power must be reduced is signalled via the power specification, - that when the phase current of one phase (11, 12, 13, 14) lies below the load threshold value and the phase current of this phase (11, 12, 13, 14) is smaller than the lowest measured phase current of one of the other phases (11, 12, 13, 14) with the addition of the unbalanced load threshold value, the fact that additional charging power may be drawn is signalled via the power specification.
A method for determining a transmit beamforming vector w CH of an antenna group of a transmitting station in a wireless communication system and a receive beamforming vector z CH of an antenna group of a receiving station in the wireless communication system, wherein each of the transmitting station and the receiving station comprises a codebook C T, C R including a plurality of predefined beamforming vectors w, z, the method comprising: determining from the codebook C T of the transmitting station the transmit beamforming vector w CH yielding a first predefined result when applying the beamforming weights defined in the beamforming vectors w from the codebook C T of the transmitting station to a known beamforming channel matrix H describing the radio channel between the transmitting station and the receiving station, and determining from the codebook C R of the receiving station the receive beamforming vector z CH yielding a second predefined result when applying the beamforming weights defined in the beamforming vectors z from the codebook C R of the receiving station to a combination of the known beamforming channel matrix H and the determined transmit beamforming vector w CH, wherein the wireless communication system comprises a multi-carrier system having K subcarriers, and wherein from the plurality of beamforming channel matrices H (k) for the respective subcarriers the beamforming channel matrix H (l) which has the largest sum of the absolute values of the matrix values is selected for determining the beamforming vectors, wherein l is determined as follows: l = arg ⁢ max 1 ≤ k ≤ K ∑ n = 1 N ∑ m = 1 M h n, m k or l = arg ⁢ max k ∈ K ∑ n = 1 N ∑ m = 1 M h n, m k K ⊂ 1, 2,... K. wherein h n, m k is the matrix element of the matrix H (k) in the n th row and the m th column. determining from the codebook C T of the transmitting station the transmit beamforming vector w CH yielding a first predefined result when applying the beamforming weights defined in the beamforming vectors w from the codebook C T of the transmitting station to a known beamforming channel matrix H describing the radio channel between the transmitting station and the receiving station, and determining from the codebook C R of the receiving station the receive beamforming vector z CH yielding a second predefined result when applying the beamforming weights defined in the beamforming vectors z from the codebook C R of the receiving station to a combination of the known beamforming channel matrix H and the determined transmit beamforming vector w CH, wherein the wireless communication system comprises a multi-carrier system having K subcarriers, and wherein from the plurality of beamforming channel matrices H (k) for the respective subcarriers the beamforming channel matrix H (l) which has the largest sum of the absolute values of the matrix values is selected for determining the beamforming vectors, wherein l is determined as follows: l = arg ⁢ max 1 ≤ k ≤ K ∑ n = 1 N ∑ m = 1 M h n, m k or l = arg ⁢ max k ∈ K ∑ n = 1 N ∑ m = 1 M h n, m k K ⊂ 1, 2,... K. wherein h n, m k is the matrix element of the matrix H (k) in the n th row and the m th column.
Pneumatic vehicle tire, at least having: - a tread with an outer tread cap with a profiled tread surface, an inner tread base and at least one electrically conductive conductivity strip, which extends in a radial direction from the tread base, through the tread cap, to the tread surface, - an electrically non-conductive belt bandage, which is arranged under the tread base and has a multiplicity of gaps, - a multi-ply belt, - a carcass and - side walls, characterized in that the tread base is formed from an electrically conductive material and the gaps in the belt bandage are filled with the same electrically conductive material from which the tread base is formed. - a tread with an outer tread cap with a profiled tread surface, an inner tread base and at least one electrically conductive conductivity strip, which extends in a radial direction from the tread base, through the tread cap, to the tread surface, - an electrically non-conductive belt bandage, which is arranged under the tread base and has a multiplicity of gaps, - a multi-ply belt, - a carcass and - side walls, characterized in that the tread base is formed from an electrically conductive material and the gaps in the belt bandage are filled with the same electrically conductive material from which the tread base is formed.
A transport device for securing elongated items during transport and storage, where the transport device includes at least two sets of profiled beams, where each set of profiled beams includes at least two or more profiled beams (3, 5, 7), and where each profiled beam (3, 5, 7) includes a first end and a second end, an underside, a top side and to side faces, where a number of transverse cutouts are arranged at least at the underside and through the two side faces for bearing on and partially surrounding the elongated items, where each set of profiled beams includes at least two profiled beams (3, 5, 7), namely a first and a second profiled beam, where the first profiled beam at least includes jointing means that are accessible from the top side, and where the second profiled beam is adapted for disposition immediately over the first profiled beam, and at least including downwardly projecting jointing means for engaging the jointing means at the top side of the first profiled beam, where the profiled beams (3, 5, 7) include a longitudinal central part with a top side and an underside and with a front side and a back side, where two downwardly facing flanges and two upwardly facing flanges, respectively, extend from the front side and the back side, respectively, the flanges thus forming the side faces of the profiled beams (3,5, 7), where a number of transverse cutouts are formed through the upwardly facing flanges at the top side of the profiled beams (3, 5, 7), characterised in that the depth of the transverse cutouts through the upwardly facing flanges at the top side of the profiled beams (3, 5, 7) is less that the depth of the transverse cutouts through the downwardly facing flanges at the underside of the profiled beams (3, 5, 7).