mhurhangee/ep-ind-claims huggingface dataset:
A chocolate composition comprising dry milk chocolate and an extraneous flavor composition, wherein the extraneous flavor composition comprises a) a highly volatile compound, b) a lactone compound, and c) a caramelic composition, wherein the caramelic composition comprises dimethylhydroxy furanone, phenylacetaldehyde, and maltol; wherein the lactone compound is selected from the group consisting of δ-dodecalactone, δ-decalactone, γ-nonalactone, δ-octalactone, γ-undecalactone, δ-valerolactone, γ-valerolactone, δ-hexalactone, γ-hexalactone, δ-heptalactone, γ-heptalactone, γ-octalactone, δ-octenolactone, δ-nonalactone, γ-decalactone, δ-decenolactone (massoia lactone), δ-undecalactone, γ-dodecalactone, 5-butyldihydro-4-methylfuran-2 -one (whiskey lactone), 6-pentylpyran-2-one, and combinations thereof; and wherein the highly volatile compound is selected from the group consisting of methanethiol, 2,3-butanedione, 2-methylbutanal, 3-methylbutanal, methylpropanal, and combinations thereof.
Hydraulic binder containing slags, aluminium-silicates and calcium sulphate, wherein slag, in particular furnace slag, in amounts from 7 to 50% (w/w) as well as aluminium-silicates different from furnace slag, preferably flue-ash and natural aluminium-silicates, preferably basalt or andesite, in amounts of 5 to 75% (w/w) with the requirement that the sum of slag and aluminium-silicates is between 82 and 95,9% (w/w) and CaSO 4 is present in amounts between 4 and 15% (w/w) and that in addition alkali activators, in particular alkali hydroxides and/or - carbonates of Na and/or K are deployed in amounts from 0,1 to 3% (w/w), characterized in that portland-cement clinker in amounts between 0,1 and 5% (w/w) is deployed as setting accelerator.
Electronic circuit comprising: - a switched-mode power supply; - a linear voltage regulation circuit comprising a first input node coupled with an output of the switched-mode power supply via an inductor, a second input node coupled with a node for applying a supply voltage of the switched-mode power supply, at least one input stage and first and second output stages, the first output stage comprising a first transistor connected between the first input node and an output node of the regulation circuit, the second output stage comprising a second transistor connected between the second input node and the output node of the regulation circuit, the gate of the first transistor of the first stage being coupled with the second node through a first switch, the substrate of the first transistor of the first stage being connected, via a second switch, to the first or second input node; and - a first load, connected between the output node and ground, being supplied either by the switched-mode power supply in series with the regulation circuit or by the regulation circuit. - a switched-mode power supply; - a linear voltage regulation circuit comprising a first input node coupled with an output of the switched-mode power supply via an inductor, a second input node coupled with a node for applying a supply voltage of the switched-mode power supply, at least one input stage and first and second output stages, the first output stage comprising a first transistor connected between the first input node and an output node of the regulation circuit, the second output stage comprising a second transistor connected between the second input node and the output node of the regulation circuit, the gate of the first transistor of the first stage being coupled with the second node through a first switch, the substrate of the first transistor of the first stage being connected, via a second switch, to the first or second input node; and - a first load, connected between the output node and ground, being supplied either by the switched-mode power supply in series with the regulation circuit or by the regulation circuit.
An expansion-chamber muffler installed in the midway of a tube for supplying or evacuating a gas and provided with an expansion chamber (121, 221, 321, 421, 521) which spatial cross-sectional area is larger than that of the tube, comprising: a tube (123, 223, 323, 423, 523) extending from the expansion-chamber muffler on the opposite side of a tube (122, 222, 322, 422, 522) connecting a noise source and the expansion-chamber muffler; and at least two or more ports (124, 224, 324, 424, 524) for inflow or outflow of a gas on the lateral side of the tube, wherein the end face (125, 225) of the tube (123, 223, 323, 423, 523) is closed, characterized in that the plurality of ports (124, 224, 324, 424, 524) provided on the lateral side of the tube (123, 223, 323, 423, 523) along the longitudinal direction each have different hole diameters.
A method for calibrating one or more extrinsic parameters of a movable object (100, 1800) using multiple sensors (202, 1808) during operation of the movable object (100, 1800), the method comprising: receiving, at one or more processors, initial values for the one or more extrinsic parameters, wherein the one or more extrinsic parameters comprise spatial relationships between at least two image sensors (1608, 2202) carried by the movable object (100, 1800); receiving, at the one or more processors, inertial data from at least one inertial sensor carried by the movable object (100, 1800) during the operation of the movable object (100, 1800); receiving, at the one or more processors, image data from the at least two image sensors (1608, 2202) carried by the movable object (100, 1800) during the operation of the movable object (100, 1800); and determining, with aid of the one or more processors, estimated values for the one or more extrinsic parameters based on the initial values, the inertial data, and the image data using an iterative optimization algorithm during the operation of the movable object (100, 1800). receiving, at one or more processors, initial values for the one or more extrinsic parameters, wherein the one or more extrinsic parameters comprise spatial relationships between at least two image sensors (1608, 2202) carried by the movable object (100, 1800); receiving, at the one or more processors, inertial data from at least one inertial sensor carried by the movable object (100, 1800) during the operation of the movable object (100, 1800); receiving, at the one or more processors, image data from the at least two image sensors (1608, 2202) carried by the movable object (100, 1800) during the operation of the movable object (100, 1800); and determining, with aid of the one or more processors, estimated values for the one or more extrinsic parameters based on the initial values, the inertial data, and the image data using an iterative optimization algorithm during the operation of the movable object (100, 1800).
A suction retractor comprising: a flexible continuous dam which forms a closed loop of any shape and which defines one or more inlet, the one or more inlet opening into an interior of the closed loop, and the one or more inlet opening to a continuous channel extending throughout an interior of the closed loop, so that suction can be applied through the one or more inlet and into the interior of the continuous dam, the continuous dam comprising opposed first and second walls (112, 113), the flexibility of the continuous dam allowing the dam to conformationally adapt to a body part, tissue, organ or part thereof to which contact is made, characterized in that, the suction retractor comprises a guard covering the one or more inlet, wherein suction applied into the interior is sufficient to effectively hold or secure the one body part, tissue, organ or part thereof to another body part tissue, organ or part thereof through the suction retractor.
A substrate for cellular therapy to treat diseased or damaged ocular tissue, comprising: a non-porous polymer being configured for implantation into ocular tissue, the polymer comprising: a planar parylene apical surface for the growth of cells-having a thickness between 0.1 and 6 microns; and a parylene basal surface comprising supporting features, the supporting features being periodic polymeric supports having a height between 3 μm and 150 μm and providing structural rigidity to the substrate; the substrate configured to support a population of cells suitable for the treatment of diseased or damaged ocular tissue upon implantation into a region of diseased or damaged ocular tissue of a subject. a planar parylene apical surface for the growth of cells-having a thickness between 0.1 and 6 microns; and a parylene basal surface comprising supporting features, the supporting features being periodic polymeric supports having a height between 3 μm and 150 μm and providing structural rigidity to the substrate; the substrate configured to support a population of cells suitable for the treatment of diseased or damaged ocular tissue upon implantation into a region of diseased or damaged ocular tissue of a subject.
Applicator unit for applying a strip to a drum, wherein the applicator unit comprises an applicator roller and a cutter, wherein the applicator roller comprises a roller body that is rotatable about a roller axis for applying the strip to the drum in an application direction perpendicular to said roller axis, characterised in that the applicator roller and the cutter are configured to cooperate for cutting the strip on the applicator roller along a helical cutting path about the roller axis.
A gas turbine engine for an aircraft, comprising: a high-pressure spool comprising an HP compressor and a first electric machine driven by an HP turbine, the first electric machine having a first maximum output power; a low-pressure spool comprising an LP compressor and a second electric machine driven by an LP turbine, the second electric machine having a second maximum output power; a combustion system comprising a fuel metering unit; and an engine controller configured to identify a condition to the effect that the engine is in a maximum take-off mode of operation or a maximum climb mode of operation, and: in response to an electrical power demand being between zero and the second maximum output power, only extracting electrical power from the second electric machine to meet the electrical power demand, in response to an electrical power demand being between the second maximum output power and the sum of the first maximum output power and the second maximum output power, extracting the second maximum output power from the second electric machine and a remainder of the electrical power demand from the first electrical machine. a high-pressure spool comprising an HP compressor and a first electric machine driven by an HP turbine, the first electric machine having a first maximum output power; a low-pressure spool comprising an LP compressor and a second electric machine driven by an LP turbine, the second electric machine having a second maximum output power; a combustion system comprising a fuel metering unit; and an engine controller configured to identify a condition to the effect that the engine is in a maximum take-off mode of operation or a maximum climb mode of operation, and: in response to an electrical power demand being between zero and the second maximum output power, only extracting electrical power from the second electric machine to meet the electrical power demand, in response to an electrical power demand being between the second maximum output power and the sum of the first maximum output power and the second maximum output power, extracting the second maximum output power from the second electric machine and a remainder of the electrical power demand from the first electrical machine. in response to an electrical power demand being between zero and the second maximum output power, only extracting electrical power from the second electric machine to meet the electrical power demand, in response to an electrical power demand being between the second maximum output power and the sum of the first maximum output power and the second maximum output power, extracting the second maximum output power from the second electric machine and a remainder of the electrical power demand from the first electrical machine.
An airfoil assembly for a gas turbine engine, comprising: a first end wall with surfaces (120a-1, 120a-2) defining a first recess; a second end wall with surfaces (122a-1, 122a-2) defining a second recess; an airfoil having a first portion disposed in the first recess, a second portion disposed in the second recess, and a leading edge disposed between the first and second portions; and a sheath in contact with the first and second portions of the airfoil and covering the leading edge of the airfoil between the surfaces (120a-1, 120a-2; 122a-1, 122a-2) defining the first and second recesses, characterized in that the sheath extends outwardly from the first portion of the airfoil through the first end wall and from the second portion of the airfoil through the second end wall. a first end wall with surfaces (120a-1, 120a-2) defining a first recess; a second end wall with surfaces (122a-1, 122a-2) defining a second recess; an airfoil having a first portion disposed in the first recess, a second portion disposed in the second recess, and a leading edge disposed between the first and second portions; and a sheath in contact with the first and second portions of the airfoil and covering the leading edge of the airfoil between the surfaces (120a-1, 120a-2; 122a-1, 122a-2) defining the first and second recesses, characterized in that the sheath extends outwardly from the first portion of the airfoil through the first end wall and from the second portion of the airfoil through the second end wall.
A vehicle environment detection system, being a radar, ultrasonic or Lidar system, comprising a control unit arrangement and at least one sensor arrangement that is arranged to be mounted in an ego vehicle and to provide sensor detections (9, 12) for at least two preceding target vehicles (10, 11), wherein the control unit arrangement is arranged to determine a resulting TTC, time to collision, between the ego vehicle and the closest preceding target vehicle of the at least two preceding target vehicles, based on an ego velocity (v 0) and an ego acceleration (a 0) for the ego vehicle, a first distance (r 1) between the ego vehicle and the closest preceding target vehicle, and that target velocity (v 1, v 2) and corresponding target acceleration (a l, a 2) for a preceding target vehicle (10, 11) among said target vehicles (10, 11) that provide a lowest TTC value, wherein the control unit arrangement is configured to compare the resulting TTC with a first and second threshold value, the second threshold value falling below the first threshold value, wherein the control unit is configured to initiate an alarm if the resulting TTC falls below the first threshold value and initiate an emergency system if the resulting TTC falls below the second threshold value characterized in that for each pair of any two preceding vehicles that travel successively one after the other among said at least two preceding vehicles, the control unit arrangement is arranged to determine a corresponding further TTC between the vehicles in each such pair, where the control unit arrangement is arranged to for each pair of vehicles compare the further TTC with a further threshold value, and to adjust at least one of a first and second threshold value accordingly.
A method for assessing a subject as having alcoholic hepatitis comprising: receiving an exhaled breath sample from a subject; determining the level of trimethylamine, the level of acetone and the level of pentane in the exhaled breath sample obtained from the subject using an analytical device; determining a TAP score based on the concentration of trimethylamine, the concentration of acetone and the concentration of pentane in the exhaled breath, wherein the TAP score is determined according to the formula: TAP score = 100 × exp lr / 1 + exp Ir wherein ( Ir = − 4.39 + 0.46 × trimethylamine − 0.0032 × acetone − 0.091 × pentane]; and diagnosing the subject as having alcoholic hepatitis based on the TAP score. receiving an exhaled breath sample from a subject; determining the level of trimethylamine, the level of acetone and the level of pentane in the exhaled breath sample obtained from the subject using an analytical device; determining a TAP score based on the concentration of trimethylamine, the concentration of acetone and the concentration of pentane in the exhaled breath, wherein the TAP score is determined according to the formula: TAP score = 100 × exp lr / 1 + exp Ir wherein ( Ir = − 4.39 + 0.46 × trimethylamine − 0.0032 × acetone − 0.091 × pentane]; and diagnosing the subject as having alcoholic hepatitis based on the TAP score.
A seat back for a passenger seat, the seat back comprising: a unitary structural core formed as a single piece, the unitary structural core comprising: a body comprising carbon fiber composite material, the body further comprising a forward-facing side and a rearward-facing side; and wherein the unitary structural core further comprises a non-tubular flange comprising carbon fiber composite material, the non-tubular flange integrally formed with the body and comprising portions extending from the rearward-facing side of the body respectively along a left lateral side edge, a top side edge, and a right lateral side edge of the unitary structural core wherein the non-tubular flange comprises: a depth extending rearwardly from the rearward-facing side of the body; and a thickness transverse to the depth and corresponding to a distance between an inward-facing side of the non-tubular flange and an outward-facing side of the non-tubular flange, wherein the non-tubular flange comprises solid material spanning the thickness, characterized in that the non-tubular flange is formed in regions that include a top region at or near a top of the body, a bottom region at or near a bottom of the body, and a middle region located between the top region and the bottom region, and the non-tubular flange is formed by adding layers among the regions so that the thickness of the non-tubular flange in the top region is less than the thickness of the non-tubular flange in the middle region, and that the thickness of the non-tubular flange in the middle region is less than the thickness of the non-tubular flange in the bottom region. a body comprising carbon fiber composite material, the body further comprising a forward-facing side and a rearward-facing side; and wherein the unitary structural core further comprises a non-tubular flange comprising carbon fiber composite material, the non-tubular flange integrally formed with the body and comprising portions extending from the rearward-facing side of the body respectively along a left lateral side edge, a top side edge, and a right lateral side edge of the unitary structural core wherein the non-tubular flange comprises: a depth extending rearwardly from the rearward-facing side of the body; and a thickness transverse to the depth and corresponding to a distance between an inward-facing side of the non-tubular flange and an outward-facing side of the non-tubular flange, wherein the non-tubular flange comprises solid material spanning the thickness, a depth extending rearwardly from the rearward-facing side of the body; and a thickness transverse to the depth and corresponding to a distance between an inward-facing side of the non-tubular flange and an outward-facing side of the non-tubular flange, wherein the non-tubular flange comprises solid material spanning the thickness,
A transfer sheet comprising: at least a base material film for releasing, a hard coat layer, a primer layer, and an adhesive layer in this order, wherein the hard coat layer is formed of a cured product of a resin composition containing a curable resin, and the primer layer is formed of a binder resin containing polyurethane having a mass average molecular weight of 40,000 to 100,000 and containing 1 to 30% by mass of an acrylic component. wherein the hard coat layer is formed of a cured product of a resin composition containing a curable resin, and the primer layer is formed of a binder resin containing polyurethane having a mass average molecular weight of 40,000 to 100,000 and containing 1 to 30% by mass of an acrylic component.
An apparatus for a first network entity to handle group based context and security of a group of communication devices in a communication network, the apparatus comprising: a memory interface to send or receive, to or from a memory device, information corresponding to a user plane routing profile and a group security context; and a processor to: create a group context corresponding to the group of communication devices for a service, wherein the group context comprising the user plane routing profile and the group security context; based on a service subscription of the group of communication devices, determine a network slice for the group of communication devices to use the service to which the group of communication devices have subscribed wherein the network slice is a logical instantiation of a core network, CN,; and generate a message to communicate the group context to a second network entity for storing and using for authentication of one or more of the communication devices of said group of communication devices returning from an idle or inactive mode to a connected mode for packet transmission through the communication network. a memory interface to send or receive, to or from a memory device, information corresponding to a user plane routing profile and a group security context; and a processor to: create a group context corresponding to the group of communication devices for a service, wherein the group context comprising the user plane routing profile and the group security context; based on a service subscription of the group of communication devices, determine a network slice for the group of communication devices to use the service to which the group of communication devices have subscribed wherein the network slice is a logical instantiation of a core network, CN,; and generate a message to communicate the group context to a second network entity for storing and using for authentication of one or more of the communication devices of said group of communication devices returning from an idle or inactive mode to a connected mode for packet transmission through the communication network. create a group context corresponding to the group of communication devices for a service, wherein the group context comprising the user plane routing profile and the group security context; based on a service subscription of the group of communication devices, determine a network slice for the group of communication devices to use the service to which the group of communication devices have subscribed wherein the network slice is a logical instantiation of a core network, CN,; and generate a message to communicate the group context to a second network entity for storing and using for authentication of one or more of the communication devices of said group of communication devices returning from an idle or inactive mode to a connected mode for packet transmission through the communication network.