mhurhangee/ep-ind-claims huggingface dataset:
A mutated tryptophan oxidase in which 1 to 10 amino acid residue(s) of a wildtype tryptophan oxidase is/are mutated and the mutated tryptophan oxidase has higher tryptophan oxidase activity than the wild-type tryptophan oxidase, wherein the wild-type tryptophan oxidase is a protein having: (a) an amino acid sequence represented by SEQ ID NO: 2; or (b) an amino acid sequence having 90% or more identity to the amino acid sequence represented by SEQ ID NO: 2; wherein the mutation of 1 to 10 amino acid residue(s) comprises a mutation of C395. wherein the wild-type tryptophan oxidase is a protein having: (a) an amino acid sequence represented by SEQ ID NO: 2; or (b) an amino acid sequence having 90% or more identity to the amino acid sequence represented by SEQ ID NO: 2; (a) an amino acid sequence represented by SEQ ID NO: 2; or (b) an amino acid sequence having 90% or more identity to the amino acid sequence represented by SEQ ID NO: 2; wherein the mutation of 1 to 10 amino acid residue(s) comprises a mutation of C395.
A dual layer backlight (100, 200) comprising: a first planar backlight (110, 210) having a planar light-emitting surface configured to emit light; and a second planar backlight (120, 220) comprising a plate light guide having a first surface and a second surface, the first surface being opposite to the second surface and the second surface being adjacent to the planar light-emitting surface of the first planar backlight, and characterized in that the second planar backlight further comprises a multibeam diffraction grating configured to diffractively couple out a portion of a guided light beam within the plate light guide as a plurality of coupled-out light beams directed away from said first surface, wherein a light beam of the coupled-out light beam plurality has a different principal angular direction from other light beams of the coupled-out light beam plurality. a first planar backlight (110, 210) having a planar light-emitting surface configured to emit light; and a second planar backlight (120, 220) comprising a plate light guide having a first surface and a second surface, the first surface being opposite to the second surface and the second surface being adjacent to the planar light-emitting surface of the first planar backlight, and the second planar backlight further comprises a multibeam diffraction grating configured to diffractively couple out a portion of a guided light beam within the plate light guide as a plurality of coupled-out light beams directed away from said first surface, wherein a light beam of the coupled-out light beam plurality has a different principal angular direction from other light beams of the coupled-out light beam plurality.
A computer-implemented method for modeling a subsurface reservoir for the purpose of predicting reservoir connectivity and reservoir flow performance, the method comprising: a) building a grid model corresponding to a subsurface reservoir; b) defining multiple grid levels on said grid model including a coarsest level, one or more intermediate level(s), and a finest level; c) obtaining a training image representative of geological patterns of said subsurface reservoir, wherein essential features of the training image can be characterized by statistics defined though a search template with a limited point configuration; d) scanning the training image with the search template and extracting all conditional probability distributions that can be inferred from said training image at each of said multiple grid levels; e) storing all conditional probability distributions in search trees; f) applying Multiple Point Statistics simulation to the cells and completing a facies model of said subsurface reservoir when all cells are simulated, wherein MPS simulation directly infers the necessary multivariate distributions from training images; characterized by: g) applying MPS simulation at the cells of said coarsest level grid cells wherein a regular path from cell-to-cell is followed; and h) applying MPS simulation at the cells of the intermediate level grid cells and then the finest level grid cells wherein a random path from cell-to-cell is followed until all cells are simulated. a) building a grid model corresponding to a subsurface reservoir; b) defining multiple grid levels on said grid model including a coarsest level, one or more intermediate level(s), and a finest level; c) obtaining a training image representative of geological patterns of said subsurface reservoir, wherein essential features of the training image can be characterized by statistics defined though a search template with a limited point configuration; d) scanning the training image with the search template and extracting all conditional probability distributions that can be inferred from said training image at each of said multiple grid levels; e) storing all conditional probability distributions in search trees; f) applying Multiple Point Statistics simulation to the cells and completing a facies model of said subsurface reservoir when all cells are simulated, wherein MPS simulation directly infers the necessary multivariate distributions from training images; characterized by: g) applying MPS simulation at the cells of said coarsest level grid cells wherein a regular path from cell-to-cell is followed; and h) applying MPS simulation at the cells of the intermediate level grid cells and then the finest level grid cells wherein a random path from cell-to-cell is followed until all cells are simulated.
Conveying arrangement for conveying products, comprising - a conveying device and - a format adjustment device with a first format part, which is stationary, and a second format part, which is displaceable relative to the first format part, and also with a fixing device for fixing a relative position between the first and second format part, - the format adjustment device being arranged on the conveying device and being movable together with the conveying device, characterized in that - the conveying device comprises a first conveyor belt and a second conveyor belt, wherein - a multiplicity of format adjustment devices are arranged on the first and second conveyor belt (21, 22), and - wherein two format adjustment devices of the first conveyor belt and two format adjustment devices of the second conveyor belt in each case form a conveying unit in order to convey a product. - a conveying device and - a format adjustment device with a first format part, which is stationary, and a second format part, which is displaceable relative to the first format part, and also with a fixing device for fixing a relative position between the first and second format part, - the format adjustment device being arranged on the conveying device and being movable together with the conveying device, - the conveying device comprises a first conveyor belt and a second conveyor belt, wherein - a multiplicity of format adjustment devices are arranged on the first and second conveyor belt (21, 22), and - wherein two format adjustment devices of the first conveyor belt and two format adjustment devices of the second conveyor belt in each case form a conveying unit in order to convey a product.
Control housing for a heating or ventilation or air conditioning system, consisting in a housing body closed by a lid assembly, wherein the housing body comprises at least one hydraulic control compartment in which a hydraulic equipment-receiving space is formed, said hydraulic control compartment comprising at least one opening (16, 17, 20, 21) for piping element or elements to pass through, for entry and exit of one or more piping elements into and out of the control housing, said receiving space further comprising means for maintaining in position at least one piping element, the hydraulic equipment-receiving space being defined by a bottom wall and side walls (7, 8, 9, 10) and said position maintaining means comprising, on one hand, means (27, 28) for supporting piping element(s) which are formed by at least one pair of bearing surfaces integral with the housing body, the two bearing surfaces of the same pair being orthogonally symmetric with respect to a plane orthogonal to a straight line passing by both said bearing surfaces and, on the other hand, means for locking in position at least one piping element against at least one bearing surface, characterised in that the means for locking in position piping element(s) are formed by a rigid member having, for the or each pair of bearing surfaces, a pair of clamping surfaces symmetrical with respect to a plan that is orthogonal to a straight line passing by both said clamping surfaces, the distance separating the clamping surfaces of the same pair being equal to the distance separating the bearing surfaces of the corresponding pair, such that when at least one piping element (43, 44, 49) is locked in position by the rigid member, each clamping surface of the same pair is facing a respective bearing surface of the corresponding pair, the rigid member being provided with means allowing to clamp the rigid member against the respective bearing surface.
A wireless communications system comprising: a first electronic device comprising a first media content playback device, a first wireless transceiver, and a first controller coupled with said first media content playback device and said first wireless transceiver; and a second electronic device comprising a second media content playback device, a second wireless transceiver configured to wirelessly communicate with said first wireless transceiver, and a second controller coupled with said second media content playback device and said second wireless transceiver; said first controller being configured to generate a playback pointer associated with playback of given media content, and wirelessly communicate the playback pointer to said second controller; said second controller being configured to play back the given media content based upon the playback pointer from a media content server comprised in the second media content playback device. a first electronic device comprising a first media content playback device, a first wireless transceiver, and a first controller coupled with said first media content playback device and said first wireless transceiver; and a first media content playback device, a first wireless transceiver, and a first controller coupled with said first media content playback device and said first wireless transceiver; and a second electronic device comprising a second media content playback device, a second wireless transceiver configured to wirelessly communicate with said first wireless transceiver, and a second controller coupled with said second media content playback device and said second wireless transceiver; a second media content playback device, a second wireless transceiver configured to wirelessly communicate with said first wireless transceiver, and a second controller coupled with said second media content playback device and said second wireless transceiver; said first controller being configured to generate a playback pointer associated with playback of given media content, and wirelessly communicate the playback pointer to said second controller; said second controller being configured to play back the given media content based upon the playback pointer from a media content server comprised in the second media content playback device.
A composition for embedded three-dimensional microbial culture, said composition comprising mechanically disintegrated plant derived nanofibrillar cellulose and at least one nutrient source, wherein said nanofibrillar cellulose is in the form of hydrogel.
A switching converter comprising: a smoothing circuit that includes 2 × M input capacitors (C1a; C1b), where M is a natural number; and no more than two transistors, namely a first transistor and a second transistor connected in series between two ends of the smoothing circuit, wherein the first and second transistors (M1, M2) are arranged side by side in a first direction on a circuit board, and two current loops (50a, 50b) that run through the smoothing circuit and the first and second transistors (M1, M2) are formed to be linearly symmetrical with respect to an axis of symmetry that extends in the first direction; the one end of each of the input capacitors (C1a, C1b), being connected to an input line with the other end thereof connected to a ground line, each of the input line and the ground line having a portion that extends in a second direction perpendicular to the first direction, the input capacitors (C1a, C1b), being arranged side by side in the second direction in such as manner as to sandwich the two transistors (M1, M2), which are arranged on the axis of symmetry, wherein magnetic fluxes generated by the two current loops (50a, 50b) cancel each other out, thus contributing to reduce electromagnetic interference, EMI. a smoothing circuit that includes 2 × M input capacitors (C1a; C1b), where M is a natural number; and no more than two transistors, namely a first transistor and a second transistor connected in series between two ends of the smoothing circuit, wherein the first and second transistors (M1, M2) are arranged side by side in a first direction on a circuit board, and two current loops (50a, 50b) that run through the smoothing circuit and the first and second transistors (M1, M2) are formed to be linearly symmetrical with respect to an axis of symmetry that extends in the first direction; the one end of each of the input capacitors (C1a, C1b), being connected to an input line with the other end thereof connected to a ground line, each of the input line and the ground line having a portion that extends in a second direction perpendicular to the first direction, the input capacitors (C1a, C1b), being arranged side by side in the second direction in such as manner as to sandwich the two transistors (M1, M2), which are arranged on the axis of symmetry, wherein magnetic fluxes generated by the two current loops (50a, 50b) cancel each other out, thus contributing to reduce electromagnetic interference, EMI.
A water-based drilling fluid characterised in that it comprises: - a predetermined volume of water; and - between 0.5 and 2.0 kg of a mixture having the following composition: - between 20% and 80% by weight of an acid montmorillonite smectite clay, i.e. having a pH<7; and - between 80% and 20% by weight of a partially hydrolyzed polyacrylamide, or PHPA; for each m 3 of said predetermined volume of water. - a predetermined volume of water; and - between 0.5 and 2.0 kg of a mixture having the following composition: - between 20% and 80% by weight of an acid montmorillonite smectite clay, i.e. having a pH<7; and - between 80% and 20% by weight of a partially hydrolyzed polyacrylamide, or PHPA; for each m 3 of said predetermined volume of water. - between 20% and 80% by weight of an acid montmorillonite smectite clay, i.e. having a pH<7; and - between 80% and 20% by weight of a partially hydrolyzed polyacrylamide, or PHPA; for each m 3 of said predetermined volume of water.
Method for producing a component, in particular a component for a turbomachine, made of a TiAl alloy, which method comprises the following steps in the given sequence: - producing a powder from the TiAl alloy; - producing a capsule, the shape of which corresponds to the shape of the component to be produced; - pouring the powder into the capsule and sealing said capsule; - hot-isostatically pressing the capsule together with the powder; - heat-treating the hot-isostatically pressed capsule, wherein the heat treatment comprises, in the given sequence: - solution annealing at a temperature of up to 1400°C for 15 to 45 min; - high-temperature annealing at a temperature of from 1100°C to 1300°C for 15 to 120 min; and - precipitation annealing at a temperature of from 850°C to 1100°C for 6 to 100 h; - removing the capsule; - finishing the contour of the component by removing material. - producing a powder from the TiAl alloy; - producing a capsule, the shape of which corresponds to the shape of the component to be produced; - pouring the powder into the capsule and sealing said capsule; - hot-isostatically pressing the capsule together with the powder; - heat-treating the hot-isostatically pressed capsule, wherein the heat treatment comprises, in the given sequence: - solution annealing at a temperature of up to 1400°C for 15 to 45 min; - high-temperature annealing at a temperature of from 1100°C to 1300°C for 15 to 120 min; and - precipitation annealing at a temperature of from 850°C to 1100°C for 6 to 100 h; - solution annealing at a temperature of up to 1400°C for 15 to 45 min; - high-temperature annealing at a temperature of from 1100°C to 1300°C for 15 to 120 min; and - precipitation annealing at a temperature of from 850°C to 1100°C for 6 to 100 h; - removing the capsule; - finishing the contour of the component by removing material.
Method for operating a machine from the field of automation engineering, wherein operating inputs that are entered at an operating unit, this having a screen, of the machine and an identification code are transferred via a data network to communication server software running on an external computing device, characterised in that on the basis of the identification code the communication server software determines MMI application software (18a,18b,18c) that is associated with the machine and the operating inputs, wherein the communication server software transfers the operating inputs to the MMI application software (18a,18b,18c) that has been determined and is running on the external computing device or on a further external computing device, wherein the MMI application software (18a,18b,18c) determines visualisation data on the basis of the operating inputs, wherein the visualisation data specifies a graphical output image that is to be represented on the screen, wherein the visualisation data contains information about how the graphical output image is to appear to the user on the screen wherein the visualisation data is transferred to the machine via the communication server software and the data network, wherein the graphical output image is represented on the screen on the basis of the visualisation data, and wherein the external computing device is not a component part of the machine and is arranged at a distance from the machine.
A system for predicting impaction state during an orthopaedic surgical procedure, the system comprising: one or more impaction sensors to generate sensor data indicative of impaction state of an orthopaedic implement relative to a patient's bone; an impaction data collector to collect the sensor data during the orthopaedic surgical procedure from the impaction sensor; an impaction analyzer to generate an impaction state prediction based on the sensor data; and an impaction state user interface to output the impaction state prediction; characterized in that: the impaction state prediction comprises an unseated state, a seated state, or a fracture state; and the impaction state prediction is generated with a machine learning model based on the sensor data. one or more impaction sensors to generate sensor data indicative of impaction state of an orthopaedic implement relative to a patient's bone; an impaction data collector to collect the sensor data during the orthopaedic surgical procedure from the impaction sensor; an impaction analyzer to generate an impaction state prediction based on the sensor data; and an impaction state user interface to output the impaction state prediction; characterized in that: the impaction state prediction comprises an unseated state, a seated state, or a fracture state; and the impaction state prediction is generated with a machine learning model based on the sensor data. the impaction state prediction comprises an unseated state, a seated state, or a fracture state; and the impaction state prediction is generated with a machine learning model based on the sensor data.
A battery module comprising: - a lower housing; - a plurality of battery cells, wherein the plurality of battery cells are electrically coupled together to produce a voltage; - a lid assembly disposed over the battery cells and coupled to the lower housing, wherein the lid assembly comprises a lid and a plurality of bus bar interconnects mounted on the lid; - a cover disposed over and coupled to the lower housing to hermetically seal the battery module; - a printed circuit board assembly disposed on and coupled to the lid assembly, wherein the PCB assembly comprises a PCB and at least one high current interconnect characterised in that the high current interconnect is configured to receive bladed components, wherein a first bladed component extends upward from below the PCB and a second bladed component extends downward from above the PCB, and wherein the first bladed component and the second bladed component are mechanically and electrically coupled via the high current interconnect; and - a lower housing; - a plurality of battery cells, wherein the plurality of battery cells are electrically coupled together to produce a voltage; - a lid assembly disposed over the battery cells and coupled to the lower housing, wherein the lid assembly comprises a lid and a plurality of bus bar interconnects mounted on the lid; - a cover disposed over and coupled to the lower housing to hermetically seal the battery module; - a printed circuit board assembly disposed on and coupled to the lid assembly, wherein the PCB assembly comprises a PCB and at least one high current interconnect characterised in that the high current interconnect is configured to receive bladed components, wherein a first bladed component extends upward from below the PCB and a second bladed component extends downward from above the PCB, and wherein the first bladed component and the second bladed component are mechanically and electrically coupled via the high current interconnect; and