mhurhangee/ep-ind-claims huggingface dataset:
An immersion device for measuring the temperature with an optical fiber, preferably a metal coated optical fiber, in a metallurgical vessel comprising a feeding channel and feeding means (20, 21, 22, 27, 106, 108) for feeding an optical fiber into a disposable guiding tube and for feeding the disposable guiding tube together with the optical fiber into a melt, characterized by control means (102, 103, 104, 105, 107) for monitoring the position of an end of the fiber relative to an end of the guiding tube, wherein the control means (102, 103, 104, 105, 107) comprise detectors (102, 103, 104, 107) for detecting the position of the fiber before the fiber moves into the guiding tube as well as the position of the guiding tube and a computer to calculate the position of the fiber relative to the guiding tube, wherein the control means (102, 103, 104, 105, 107) are configured such that the control means (102, 103, 104, 105, 107) accept a temperature measurement in dependence of said relative position.
Use of an additive comprising bone meal in environmental remediation of polluted material, characterized in that the bone meal is used as an oxygen source, the additive comprises bone meal from slaughterhouse byproduct and comprises less than 50 % w:w of proteins; at least 10 % w:w of lipid material; 23-60% w:w of C; 8-13 % w:w of Ca; 5-9 % w:w of P; 5-8.5 % w:w of N; and wherein the ratio of N:P ranges from 0.5 to 2 and the ratio of C:N ranges from 3 to 4, and the use comprises mechanical mixing of the additive with the polluted material. the bone meal is used as an oxygen source, the additive comprises bone meal from slaughterhouse byproduct and comprises less than 50 % w:w of proteins; at least 10 % w:w of lipid material; 23-60% w:w of C; 8-13 % w:w of Ca; 5-9 % w:w of P; 5-8.5 % w:w of N; and wherein the ratio of N:P ranges from 0.5 to 2 and the ratio of C:N ranges from 3 to 4, and the use comprises mechanical mixing of the additive with the polluted material.
Coke oven encompassing a device comprising an aperture and a cover for admittance and dosed proportioning and cutoff of primary combustion air fed into the primary heating space of horizontal coke oven chambers, wherein • at least one aperture for supply of primary combustion air is arranged in the top ceiling of at least one coke oven chamber of a coke oven bank or coke oven battery, characterized in that • this aperture possesses a cover which covers the air supply on the outer side, with it being possible to withdraw this cover gradually so as to partially open the aperture for the supply of air, thus enabling the admittance of air, and • the number of stages for withdrawal of the cover and for opening the air supply ranging between two and an infinite number, and • the cover is connected to a rod which can be moved in vertical direction by means of a mechanical device such that the cover opens or closes the air supply by the vertical movement. • at least one aperture for supply of primary combustion air is arranged in the top ceiling of at least one coke oven chamber of a coke oven bank or coke oven battery, • this aperture possesses a cover which covers the air supply on the outer side, with it being possible to withdraw this cover gradually so as to partially open the aperture for the supply of air, thus enabling the admittance of air, and • the number of stages for withdrawal of the cover and for opening the air supply ranging between two and an infinite number, and • the cover is connected to a rod which can be moved in vertical direction by means of a mechanical device such that the cover opens or closes the air supply by the vertical movement.
A light emitting diode, LED, luminaire comprising: a. a chassis, comprising a chassis body; b. at least one LED module, mounted on the chassis body; and c. a LED power supply assembly, comprising one or more LED power supply units for the at least one LED module; wherein an opening is defined within the chassis and the one or more LED power supply units are positioned within the opening, wherein the chassis body has an inner perimeter and an outer perimeter, and the LED luminaire further comprises at least one inner perimeter vent interposed between the chassis body and the LED power supply assembly to thermally separate the chassis body from the one or more LED power supply units, wherein the at least one inner perimeter vent comprises a plurality of inner perimeter vents located around the inner perimeter of the chassis body, wherein the chassis further comprises a plurality of outer perimeter vents extending along the outer perimeter of the chassis body, wherein the chassis further comprises a plurality of fins located on the chassis body, each of the plurality of fins comprising a proximal end and a distal end, wherein the inner perimeter vents are formed by connecting the proximal ends of adjacent fins and the outer perimeter vents are formed by connecting the distal ends of adjacent fins. a. a chassis, comprising a chassis body; b. at least one LED module, mounted on the chassis body; and c. a LED power supply assembly, comprising one or more LED power supply units for the at least one LED module;
An on-chip data packet processing method comprising - receiving data packets at an ingress port, - processing the data packets with an on-chip wire-speed engine, the processing comprising adding metadata to the data packets, - forwarding the processed data to an on-chip QoS unit, - altering the metadata of the data packets and/or providing further metadata to the data packets, - forwarding the data packets from the on-chip QoS unit to an on-chip data consumer, the on-chip data consumer being selected from an egress port, a switch, and a processing unit (44, 45), the type of the on-chip data consumer being dependent on the metadata, characterized in that if the data packets are forwarded to a processing unit (44, 45): - processing the data packets in a first processing step, - redirecting the processed data from the processing unit (44, 45) to the QoS unit and - repeating the step of forwarding the data packets to a data consumer. - receiving data packets at an ingress port, - processing the data packets with an on-chip wire-speed engine, the processing comprising adding metadata to the data packets, - forwarding the processed data to an on-chip QoS unit, - altering the metadata of the data packets and/or providing further metadata to the data packets, - forwarding the data packets from the on-chip QoS unit to an on-chip data consumer, the on-chip data consumer being selected from an egress port, a switch, and a processing unit (44, 45), the type of the on-chip data consumer being dependent on the metadata, characterized in that if the data packets are forwarded to a processing unit (44, 45): - processing the data packets in a first processing step, - redirecting the processed data from the processing unit (44, 45) to the QoS unit and - repeating the step of forwarding the data packets to a data consumer. - processing the data packets in a first processing step, - redirecting the processed data from the processing unit (44, 45) to the QoS unit and - repeating the step of forwarding the data packets to a data consumer.
A fuel combustion enhancement apparatus of an internal combustion engine comprising a power source terminal, a conductor plate for gas activation, and an amplifier, the fuel combustion enhancement apparatus comprising: a gas activation enhancement device comprising a frequency resonance coil power source, a local oscillation power source, a detection circuit, a power amplification circuit, a power amplification IC, and an amplifier power source is connected between the power source terminal and the conductor plate, and characterized in that the gas activation enhancement device is configured to receive an AM frequency. a gas activation enhancement device comprising a frequency resonance coil power source, a local oscillation power source, a detection circuit, a power amplification circuit, a power amplification IC, and an amplifier power source is connected between the power source terminal and the conductor plate, and characterized in that the gas activation enhancement device is configured to receive an AM frequency.
Floor structure of a rail vehicle, comprising a carrier, wherein an upwardly open C-rail on the carrier in the use state is provided for, which C-rail has upwardly pointing C-legs (3, 4) having free end regions which point towards one another into a C-cavity, with a free cantilever dimension provided relative to the inner surface of the C-legs (3, 4) that faces the C-cavity, the C-rail being connected to an insulation layer which provides thermal insulation, and the insulation layer, based on a cross section, filling the C-cavity and extending upwards beyond the C-legs (3, 4) in the case of an integral, materially uniform design, characterised in that the insulation layer is only form-fittingly connected to the C-rail, resting on the C-legs (3, 4), in that the insulation layer can be mounted and/or removed by sliding displacement in the longitudinal direction of the C-rail, and in that the insulation layer is arranged and designed such that no load transfer takes place via said insulation layer.
An inkjet recording method comprising the steps of: applying an ink-receiving solution prepared by dissolving in an aqueous solvent at least one metal salt having a water solubility of 0.1 mol/l or more, selected from calcium salts, magnesium salts, nickel salts and zinc salts having a valence of 2 or more, to at least the surface to be printed by using an inkjet ink or the entire surface of a recording medium; and printing on the metal salt adhered part by using the inkjet ink comprising at least a pigment, a resin emulsion and an aqueous solvent containing a surfactant, wherein a phosphorus-containing group having at least one P-O or P=O bond is bound to the surface of the pigment, and the conductance of an aqueous solution containing 1 mass% of a solid content of the resin emulsion is 300 μS/cm or less. applying an ink-receiving solution prepared by dissolving in an aqueous solvent at least one metal salt having a water solubility of 0.1 mol/l or more, selected from calcium salts, magnesium salts, nickel salts and zinc salts having a valence of 2 or more, to at least the surface to be printed by using an inkjet ink or the entire surface of a recording medium; and printing on the metal salt adhered part by using the inkjet ink comprising at least a pigment, a resin emulsion and an aqueous solvent containing a surfactant, wherein a phosphorus-containing group having at least one P-O or P=O bond is bound to the surface of the pigment, and the conductance of an aqueous solution containing 1 mass% of a solid content of the resin emulsion is 300 μS/cm or less.
An ethylene-based polymer characterized as having a density from 0.923 to 0.94 grams per cubic centimeter determined as defined in the description, a molecular weight distribution (Mw/Mn) from 4 to 6 determined as defined in the description, a melt index (I 2) from 0.05 to less than 0.5 grams per 10 minutes, measured in accordance with ASTM D 1238, condition 190°C/2.16 kg, a gpcBR value greater than 0.05 as determined by a gpcBR Branching Index, measured by 3D-GPC, and a GPC- LS characterization Y value of 0.4 to 10, wherein the GPC-LS characterization Y value is determined according to the following formula: Y = Abs A / B / Abs x + 0.05 wherein A is the area between (a) a straight line between a first intercept point and a second intercept point at the two logarithmic cc-GPC molecular weight values located on the concentration-normalized LS chromatogram curve, and (b) the concentration-normalized LS chromatogram curve between the two logarithmic cc-GPC molecular weight values, and wherein B is the area under the concentration-normalized LS chromatogram curve between the two logarithmic cc-GPC molecular weight values; and wherein x is determined according to the following formula: x = LSresponse P o int 2, CN − LSresponse P o int 1, CN LSresponse P o int 2, CN log MW P o int 2, ccGPC − log MW P o int 1, ccGPC wherein LSresponse (Point 2,CN) is the concentration-normalized LS response value for Intercept 2, corresponding to logarithmic cc-GPC molecular weight value of 6.0607, LSresponse (Point 1,CN) is the concentration-normalized LS response value for Intercept 1, corresponding to the logarithmic cc-GPC molecular weight value of 5.3010, and log MW (Point 2,ccGPC) is the logarithmic cc-GPC molecular weight for Intercept 2, corresponding to the logarithmic cc-GPC molecular weight value 6.0607, log MW (Point 1 ccGPC) is the logarithmic cc-GPC molecular weight for Intercept 1 corresponding to the logarithmic cc-GPC molecular weight value of 5.3010; and wherein Abs() is the mathematical absolute value function.
A compressor, comprising a centrifugal compressor gas-supplementing structure, the centrifugal compressor gas-supplementing structure comprises an annular gas-supplementing passage for introducing supplemented gas into a gas passage of the compressor, wherein an airflow-guiding assembly is provided in the annular gas-supplementing passage, and the airflow-guiding assembly is used for adjusting a direction of the supplemented gas flowing into the gas passage, so that an angle between a direction of the supplemented gas flowing into the gas passage and a direction of an airflow in the gas passage falls within a preset range; wherein the preset range is -5° to 5°; wherein the compressor comprises a plurality of return vanes, the airflow-guiding assembly comprises at least one group of guide vanes provided in a circumferential direction of the annular gas-supplementing passage; wherein a thickness of each guide vane of the at least one group of guide vanes is the same as a thickness of each of the plurality of return vanes; wherein the each guide vane of the at least one group of guide vanes is of a flat plate shape, an inclined direction thereof is the same as an inclined direction of the each return vane of the compressor; or, the each guide vane of the at least one group of guide vanes is of a spiral shape, an inclined direction thereof is the same as an inclined direction of the each of the return vanes of the compressor; characterised in that, viewed from an axial direction of an impeller, the each guide vane of the at least one group of guide vanes is provided outside, in a radial direction, of each of the return vanes; and in that the each guide vane of the at least one group of guide vanes is spaced from the each return vane and a radially inward end of the each guide vane is provided between two adjacent return vanes.
Cable drum comprising: - a flange having an inner surface delimiting a storage space of a cable, a cavity being formed in the flange, - a beacon at least partially housed in the cavity and comprising a communication interface to emit signals transporting data relating to the cable drum and/or to the cable stored in the storage space, characterised in that the cavity opens into the inner surface. - a flange having an inner surface delimiting a storage space of a cable, a cavity being formed in the flange, - a beacon at least partially housed in the cavity and comprising a communication interface to emit signals transporting data relating to the cable drum and/or to the cable stored in the storage space, characterised in that the cavity opens into the inner surface.
A heat-curable-reaction-resin mixture suitable for impregnation or encapsulation material for coils, stators, rotors in electric engine, which reaction-resin mixture comprises: a) A polyfunctional isocyanate, b) An epoxy resin composition predominantly comprising a compound A based on glycidyl ether of aliphatic and / or cycloaliphatic alcohols having at least 2 alcohol functionalities, or a compound B based on glycidyl ester of aliphatic and / or cycloaliphatic carbonic acids having at least 2 carboxylic acid functionalities, c) A cure accelerator, wherein the cure accelerator is based on boron trichloride-amine complex. a) A polyfunctional isocyanate, b) An epoxy resin composition predominantly comprising a compound A based on glycidyl ether of aliphatic and / or cycloaliphatic alcohols having at least 2 alcohol functionalities, or a compound B based on glycidyl ester of aliphatic and / or cycloaliphatic carbonic acids having at least 2 carboxylic acid functionalities, c) A cure accelerator, wherein the cure accelerator is based on boron trichloride-amine complex.
A laminated structure comprising: an electrically conductive layer; an underlying layer including a first resin and inorganic particles; a support including a second resin; and a resin layer including a third resin that is a resin having a softening temperature lower than the softening temperature of the second resin, wherein the softening temperature is obtained by measuring changes of characteristics at the time of heating at a heating rate of from 5°C/min through 20°C/min, and using a point of inflection, the electrically conductive layer, the underlying layer, the support, and the resin layer being disposed in this order. an electrically conductive layer; an underlying layer including a first resin and inorganic particles; a support including a second resin; and a resin layer including a third resin that is a resin having a softening temperature lower than the softening temperature of the second resin, wherein the softening temperature is obtained by measuring changes of characteristics at the time of heating at a heating rate of from 5°C/min through 20°C/min, and using a point of inflection, the electrically conductive layer, the underlying layer, the support, and the resin layer being disposed in this order.
A vacuum insulating panel comprising: a first substrate; a second substrate; a plurality of spacers provided in a gap between at least the first and second substrates, wherein the gap is at pressure less than atmospheric pressure; a seal provided at least partially between at least the first and second substrates, characterized in that the seal comprises a first seal layer and a second seal layer (31, 32); and in that the second seal layer (31, 32) comprises boron oxide and bismuth oxide, wherein the second seal layer (31, 32) comprises from about 1-20 mol% bismuth oxide and from about 20-65 mol% boron oxide, and comprises at least two times more boron oxide than bismuth oxide in terms of mol%. a first substrate; a second substrate; a plurality of spacers provided in a gap between at least the first and second substrates, wherein the gap is at pressure less than atmospheric pressure; a seal provided at least partially between at least the first and second substrates, characterized in that the seal comprises a first seal layer and a second seal layer (31, 32); and in that the second seal layer (31, 32) comprises boron oxide and bismuth oxide, wherein the second seal layer (31, 32) comprises from about 1-20 mol% bismuth oxide and from about 20-65 mol% boron oxide, and comprises at least two times more boron oxide than bismuth oxide in terms of mol%.
A cap (100, 400) for a container, comprising a disc-shaped top section (102, 401), an annular side section (104, 404) projecting substantially perpendicularly from the perimeter of said disc-shaped top section (102, 401), a locking flange disposed at an extremity of said annular side section (104, 404) opposite said disc-shaped top section (102, 401), and a locking flap (116, 402) extending from at least a portion of said extremity (110, 414) of said annular side section (104, 404), said locking flap (116, 402) being mobile between a locked first position wherein a portion of said locking flange contiguous with said locking flap (116, 402) extends inwardly from an interior face of said annular side section (104, 404), and an unlocked second position wherein said portion of said locking flange is at least partially recessed relative to said interior face of said annular side section (104, 404), characterized in that it comprises a frangible tab attached perpendicularly to the annular side section and the locking flap, said locking flap being thereby immobilized in the locked first position.
A polynucleotide comprising a nucleic acid sequence comprising an open reading frame for a modified beetle luciferase which comprises at least two modifications relative to a corresponding unmodified or circularly permuted beetle luciferase, wherein one modification is a first heterologous sequence comprising a domain which is at the N-terminus and another modification is a second heterologous sequence comprising a domain which is at the C-terminus, wherein the domains of the first and second heterologous sequences noncovalently interact, wherein the noncovalent interaction detectably inhibits luminescence of the modified beetle luciferase, and wherein the noncovalent interaction is modulatable.
Contact assembly for a combined power and data connector, comprising a connector face, facing in a connecting direction, the connector face comprising a first section and a second section, wherein the first section is a data section and comprises a plurality of data contacts, which are separated from the second section by at least one separating wall assembly, the data contacts being arranged on a carrier unit, that is mounted on a data section side of the separating wall assembly, the data section side of the separating wall assembly being opposite the second section of the connector face, wherein the carrier unit further carries electric power, wherein the at least one separating wall assembly comprises a fixation sub-assembly that fixates the carrier unit onto the separating wall assembly, wherein the connector face is mounted in a mounting member, wherein the connector face protrudes through a face opening in a mounting side of the mounting member, the face opening being laterally greater than the connector face and comprising a floating space which laterally surrounds the connector face, the mounting member allowing a relative movement between the separating wall assembly together with the fixated carrier unit and the mounting member at least perpendicular to the connecting direction, wherein said fixation sub-assembly positively locks the carrier unit onto the separating wall assembly, wherein the fixation sub-assembly comprises at least one groove which opens into the connector face and which extends parallel to the connecting direction, the carrier unit comprising at least one locking sub-assembly which is configured to be inserted into the at least one groove against the connecting direction, wherein the locking sub-assembly of the carrier unit is provided with at least one locking protrusion, which protrudes from a bottom surface of the carrier unit, the bottom surface facing the second section, the locking protrusion being configured to be engaged to a locking feature on the separating wall assembly, and wherein the locking protrusion extends perpendicular to the connecting direction into the at least one groove.