mhurhangee/ep-ind-claims huggingface dataset:
A transmitting apparatus for transmitting vehicular data via a sidelink interface to one or more receiving apparatuses, wherein the transmitting apparatus performs autonomous radio resource allocation for transmitting the vehicular data via the sidelink interface, wherein the transmitting apparatus comprises: circuitry, which in operation, obtains one or more quality of service configurations provisioned in the transmitting apparatus, generates the vehicular data and forwards the generated vehicular data together with a priority indication indicating the priority of the vehicular data, to a transmitter, the transmitter, which in operation, determines one of the obtained one or more quality of service configurations depending on the priority indication obtained together with the vehicular data and a mapping provisioned in the transmitting apparatus associating each of the one or more quality of service configurations with a priority indication value, and performs the autonomous radio resource allocation based on the determined one quality of service configuration, and transmits the vehicular data via the sidelink interface to the one or more receiving apparatuses according to the performed autonomous radio resource allocation. circuitry, which in operation, obtains one or more quality of service configurations provisioned in the transmitting apparatus, generates the vehicular data and forwards the generated vehicular data together with a priority indication indicating the priority of the vehicular data, to a transmitter, the transmitter, which in operation, determines one of the obtained one or more quality of service configurations depending on the priority indication obtained together with the vehicular data and a mapping provisioned in the transmitting apparatus associating each of the one or more quality of service configurations with a priority indication value, and performs the autonomous radio resource allocation based on the determined one quality of service configuration, and transmits the vehicular data via the sidelink interface to the one or more receiving apparatuses according to the performed autonomous radio resource allocation.
A method of transmitting data comprising: mapping a data symbol to a ternary sequence, wherein the ternary sequence is obtained based on a cyclic shift of a base ternary sequence; and transmitting a signal based on the ternary sequence, wherein a length of the ternary sequence is 2 k, the k being a size of the data symbol, wherein N=2 k data symbols are encoded to N distinct ternary sequences, and wherein the length of the ternary sequence and a length of the base ternary sequence are equal to each other. mapping a data symbol to a ternary sequence, wherein the ternary sequence is obtained based on a cyclic shift of a base ternary sequence; and transmitting a signal based on the ternary sequence, wherein a length of the ternary sequence is 2 k, the k being a size of the data symbol, wherein N=2 k data symbols are encoded to N distinct ternary sequences, and wherein the length of the ternary sequence and a length of the base ternary sequence are equal to each other.
A vinyl chloride resin composition comprising: (a) a vinyl chloride resin; (b) a diester plasticizer formed from a compound represented by formula shown below where R 1 and R 3 are monovalent hydrocarbon groups that may be the same or different and R 2 is a divalent hydrocarbon group; and (c) a trimellitate plasticizer, wherein (a) the vinyl chloride resin includes (x) a base vinyl chloride resin having an average particle diameter of at least 50 μm and no greater than 500 μm as measured by sieving with a standard sieve as prescribed by JIS Z8801 in an amount of from 70 mass% to 100 mass% and (y) vinyl chloride resin fine particles having an average particle diameter of at least 0.1 μm and no greater than 10 μm as measured by laser diffraction in accordance with JIS Z8825 in an amount of from 0 mass% to 30 mass%, wherein a blending ratio of (b) the diester plasticizer relative to (c) the trimellitate plasticizer, expressed as a mass ratio, is from 1/99 to 99/1. (a) a vinyl chloride resin; (b) a diester plasticizer formed from a compound represented by formula shown below where R 1 and R 3 are monovalent hydrocarbon groups that may be the same or different and R 2 is a divalent hydrocarbon group; and (c) a trimellitate plasticizer, wherein (a) the vinyl chloride resin includes (x) a base vinyl chloride resin having an average particle diameter of at least 50 μm and no greater than 500 μm as measured by sieving with a standard sieve as prescribed by JIS Z8801 in an amount of from 70 mass% to 100 mass% and (y) vinyl chloride resin fine particles having an average particle diameter of at least 0.1 μm and no greater than 10 μm as measured by laser diffraction in accordance with JIS Z8825 in an amount of from 0 mass% to 30 mass%, wherein a blending ratio of (b) the diester plasticizer relative to (c) the trimellitate plasticizer, expressed as a mass ratio, is from 1/99 to 99/1.
An imaging agent comprising at least one fucoidan directly complexed to at least one detectable moiety, wherein the imaging agent is selectin-targeted, wherein the detectable moiety is detectable by planar scintigraphy or Single Photon Emission Computed Tomography (SPECT), and wherein the detectable moiety is selected from the group consisting of technetium-99m ( 99m Tc), gallium-67 ( 67 Ga), yttrium-91 ( 91 Y), indium-111 ( 111 In), rhenium-186 ( 186 Re), and thallium-201 ( 201 T1).
A device for filling powder material in a bag, the device comprising: an outer casing comprising a fixed upper part and a movable lower part, a main casing, arranged inside the outer casing, the main casing comprising an inlet and an outlet for the powder material, wherein the movable lower part of the outer casing is configured to open and close the outlet of the main casing by being moved to an open position and a closed position respectively, a motor casing, arranged inside the main casing, the motor casing comprising a motor, a fluid inlet pipe, and a fluid outlet pipe, an impeller, arranged under the motor and fixedly attached to a shaft of the motor to rotate at the outlet of the main casing such that the powder material is distributed by the impeller when the motor is rotated, and a sealing arrangement, arranged around the shaft of the motor to seal the motor casing, wherein the sealing arrangement comprises a pressurized space, wherein the pressurized space is provided with a fluid inlet connected to the fluid inlet pipe and a fluid outlet connected to the fluid outlet pipe for feeding fluid from the fluid inlet to the fluid outlet, wherein the sealing arrangement is monitored by a control unit, the control unit being configured to control a flow of the fluid passing through the fluid inlet and the fluid outlet and to detect a leakage or blockage in the sealing arrangement by monitoring a parameter representative of an amount of the fluid passing through the pressurized space. an outer casing comprising a fixed upper part and a movable lower part, a main casing, arranged inside the outer casing, the main casing comprising an inlet and an outlet for the powder material, wherein the movable lower part of the outer casing is configured to open and close the outlet of the main casing by being moved to an open position and a closed position respectively, a motor casing, arranged inside the main casing, the motor casing comprising a motor, a fluid inlet pipe, and a fluid outlet pipe, an impeller, arranged under the motor and fixedly attached to a shaft of the motor to rotate at the outlet of the main casing such that the powder material is distributed by the impeller when the motor is rotated, and a sealing arrangement, arranged around the shaft of the motor to seal the motor casing, wherein the sealing arrangement comprises a pressurized space, wherein the pressurized space is provided with a fluid inlet connected to the fluid inlet pipe and a fluid outlet connected to the fluid outlet pipe for feeding fluid from the fluid inlet to the fluid outlet, wherein the sealing arrangement is monitored by a control unit, the control unit being configured to control a flow of the fluid passing through the fluid inlet and the fluid outlet and to detect a leakage or blockage in the sealing arrangement by monitoring a parameter representative of an amount of the fluid passing through the pressurized space.
A sintered friction material for a brake comprising: a metal matrix of Ni or Ni and less than 10 vol% Fe; a solid lubricant (a); and a friction adjusting material (b), wherein the solid lubricant (a) includes one or more selected from graphite, molybdenum disulfide, boron nitride, CaF 2, BaF 2 and graphite fluoride, the friction adjusting material (b) includes: metal or alloy particles consisting of metal particles selected from W, Mo, Cr, or alloy particles selected from FeW; and inorganic particles consisting of at least one selected from metal oxides, metal nitrides, metal carbides, and intermetallic compounds, and the metal or alloy particles have an average particle size d b1 of 50 μm or more and the inorganic particles have an average particle size d b2, satisfying d b1 < d b2. the solid lubricant (a) includes one or more selected from graphite, molybdenum disulfide, boron nitride, CaF 2, BaF 2 and graphite fluoride, the friction adjusting material (b) includes: metal or alloy particles consisting of metal particles selected from W, Mo, Cr, or alloy particles selected from FeW; and inorganic particles consisting of at least one selected from metal oxides, metal nitrides, metal carbides, and intermetallic compounds, and the metal or alloy particles have an average particle size d b1 of 50 μm or more and the inorganic particles have an average particle size d b2, satisfying d b1 < d b2.
Scrubbing solution comprising an absorbent for carbon dioxide on the basis of amino acid salts, and an absorption rate activator additive, wherein the activator additive is germanium dioxide.
Process for the protective or decorative coating of a continuously moving metal strip, in which, once the strip has been coated, it is heated by electromagnetic induction in a baking tunnel designed to evaporate the solvents and bake the coating; those solvents are continuously extracted from the tunnel furnace using air, the resulting gas to be treated with a flow Q2 and a temperature T2 is sent to a regenerative incinerator; wherein an injection flow Q1 at an injection temperature T1 is such that a resulting flow Q3 at the regenerative incinerator inlet, which is the addition of the injection flow Q1 and extraction flow Q2, is at a temperature T3 higher than the dew point of the volatile organic compounds; wherein the flow Q1 is zero if the temperature T2 is higher than said dew point of the volatile organic compounds, and wherein the flow Q1 of hot gas at a temperature T1 is taken from a dilution air circuit extending between a heat exchanger and said tunnel furnace; said heat exchanger preheating dilution air via exchange with purified gas coming from the regenerative incinerator.
A driving assistance method comprising: a) probabilistically estimating actual and/or future behavior of people and/or a driving system driving a first traffic participant and of a second traffic object or second traffic participant, respectively, the second traffic object or second traffic participant being different from the first traffic participant, b) probabilistically estimating, based on the estimated actual and/or future behaviors and environmental structures and/or constraints, a plurality of possible trajectories to be taken by the first traffic participant and/or a plurality of possible trajectories to be taken by the second traffic object or second traffic participant, c) determining risk of collision of the first traffic participant relative to the second traffic object or second traffic participant by calculating information adapted for risk assessment of collision of the first traffic participant relative to the second traffic object or second traffic participant, based on a combination of said probabilistic behavior estimation with said probabilistic trajectory information, d) outputting the information provided after step a), step b) and/or step c). a) probabilistically estimating actual and/or future behavior of people and/or a driving system driving a first traffic participant and of a second traffic object or second traffic participant, respectively, the second traffic object or second traffic participant being different from the first traffic participant, b) probabilistically estimating, based on the estimated actual and/or future behaviors and environmental structures and/or constraints, a plurality of possible trajectories to be taken by the first traffic participant and/or a plurality of possible trajectories to be taken by the second traffic object or second traffic participant, c) determining risk of collision of the first traffic participant relative to the second traffic object or second traffic participant by calculating information adapted for risk assessment of collision of the first traffic participant relative to the second traffic object or second traffic participant, based on a combination of said probabilistic behavior estimation with said probabilistic trajectory information, d) outputting the information provided after step a), step b) and/or step c).
A cable comprising one or more cores, each core comprising: a conductor; an insulating layer; and a water-blocking layer, wherein the conductor, the insulating layer and the water-blocking layer each extend along the longitudinal axis of the core, wherein the insulating layer is axially external to the conductor, and the water-blocking layer is axially external to the insulating layer, and wherein the water-blocking layer comprises a copper alloy, wherein the alloy comprises: - 6% to 20% (w/w) nickel, and 80% to 94% (w/w) copper; - 7% to 15% (w/w) nickel, and 85% to 93% (w/w) copper; - 8% to 12% (w/w) nickel, and 88% to 92% (w/w) copper; - 9 to 11% (w/w) nickel, and 89% to 91% (w/w) copper; - 8% to 12% (w/w) nickel, 0.5% to 2.5% (w/w) iron, 0.5% to 1.5% (w/w) manganese, and 84% to 91% (w/w) copper; - 9% to 11% (w/w) nickel, 1% to 1.8% (w/w) iron, 0.8% to 1.2% (w/w) manganese, and 86% to 89.2% (w/w) copper; - 20% to 40% (w/w) nickel, and 60% to 80% (w/w) copper; - 25% to 35% (w/w) nickel, and 65% to 75% (w/w) copper; - 25% to 35% (w/w) nickel, 0.1% to 2% (w/w) iron, 0.5% to 1.5% (w/w) manganese, and 61.5% to 74.4% (w/w) copper; - 29% to 33% (w/w) nickel, 0.4% to 1% (w/w) iron, 0.8% to 1.2% (w/w) manganese, and 64.8% to 69.8% (w/w) copper; 25% to 35% (w/w) nickel, 1% to 3% (w/w) iron, 1% to 4% (w/w) manganese, and 58% to 73% (w/w) copper; - 29% to 32% (w/w) nickel, 1.7% to 2.3% (w/w) iron, 1.5% to 2.5% (w/w) manganese, and 63.2% to 67.8% (w/w) copper; - 0.5% to 4% (w/w) beryllium and 96% to 99.5% (w/w) copper; - 1% to 3% (w/w) beryllium and 97% to 99% (w/w) copper; - 1.5% to 2% (w/w) beryllium and 98% to 98.5% (w/w) copper; or - 20% to 25% (w/w) zinc, 1 to 5% aluminium, and 70% to 79% (w/w) copper. a conductor; an insulating layer; and a water-blocking layer, - 6% to 20% (w/w) nickel, and 80% to 94% (w/w) copper; - 7% to 15% (w/w) nickel, and 85% to 93% (w/w) copper; - 8% to 12% (w/w) nickel, and 88% to 92% (w/w) copper; - 9 to 11% (w/w) nickel, and 89% to 91% (w/w) copper; - 8% to 12% (w/w) nickel, 0.5% to 2.5% (w/w) iron, 0.5% to 1.5% (w/w) manganese, and 84% to 91% (w/w) copper; - 9% to 11% (w/w) nickel, 1% to 1.8% (w/w) iron, 0.8% to 1.2% (w/w) manganese, and 86% to 89.2% (w/w) copper; - 20% to 40% (w/w) nickel, and 60% to 80% (w/w) copper; - 25% to 35% (w/w) nickel, and 65% to 75% (w/w) copper; - 25% to 35% (w/w) nickel, 0.1% to 2% (w/w) iron, 0.5% to 1.5% (w/w) manganese, and 61.5% to 74.4% (w/w) copper; - 29% to 33% (w/w) nickel, 0.4% to 1% (w/w) iron, 0.8% to 1.2% (w/w) manganese, and 64.8% to 69.8% (w/w) copper; 25% to 35% (w/w) nickel, 1% to 3% (w/w) iron, 1% to 4% (w/w) manganese, and 58% to 73% (w/w) copper; - 29% to 32% (w/w) nickel, 1.7% to 2.3% (w/w) iron, 1.5% to 2.5% (w/w) manganese, and 63.2% to 67.8% (w/w) copper; - 0.5% to 4% (w/w) beryllium and 96% to 99.5% (w/w) copper; - 1% to 3% (w/w) beryllium and 97% to 99% (w/w) copper; - 1.5% to 2% (w/w) beryllium and 98% to 98.5% (w/w) copper; or - 20% to 25% (w/w) zinc, 1 to 5% aluminium, and 70% to 79% (w/w) copper.
A power tool that includes: a housing having a motor including an output member; a rotary output spindle (70, 70') journaled in the housing; a transmission disposed in the housing and including a first output gear and a second output gear, wherein the transmission is arranged to selectively couple the output member to the output spindle through the first output gear or the second output gear for rotating the output spindle at a first speed or a second speed, respectively; and a speed shift assembly that includes: a guide member that influences movement of a said output gear; and a user engageable member that is movable between a first speed position that corresponds to the first output gear being coupled for rotation with the output member and a second speed position that corresponds to the second output gear being coupled for rotation with the output member wherein movement between the first and second positions causes the second output gear to at least partially nest into the first output gear; characterized in that the guide member selectively influences movement of the first output gear and/or the second output gear, and the power tool includes a biasing member disposed between the first and second output gears. a housing having a motor including an output member; a rotary output spindle (70, 70') journaled in the housing; a transmission disposed in the housing and including a first output gear and a second output gear, wherein the transmission is arranged to selectively couple the output member to the output spindle through the first output gear or the second output gear for rotating the output spindle at a first speed or a second speed, respectively; and a speed shift assembly that includes: a guide member that influences movement of a said output gear; and a user engageable member that is movable between a first speed position that corresponds to the first output gear being coupled for rotation with the output member and a second speed position that corresponds to the second output gear being coupled for rotation with the output member wherein movement between the first and second positions causes the second output gear to at least partially nest into the first output gear; characterized in that the guide member selectively influences movement of the first output gear and/or the second output gear, and the power tool includes a biasing member disposed between the first and second output gears. a guide member that influences movement of a said output gear; and a user engageable member that is movable between a first speed position that corresponds to the first output gear being coupled for rotation with the output member and a second speed position that corresponds to the second output gear being coupled for rotation with the output member wherein movement between the first and second positions causes the second output gear to at least partially nest into the first output gear; characterized in that the guide member selectively influences movement of the first output gear and/or the second output gear, and the power tool includes a biasing member disposed between the first and second output gears.
A device for clearing obstructions from a medical tube comprising: an enclosure having an interior defining a sterile field, an exterior, and a distal opening for providing access to the interior; a spool provided within the enclosure that is rotatable about an axis; an elongated guide member coupled to the spool, wherein rotation of the spool in a first direction causes the guide member to unwind about the spool and advance through the distal opening, and wherein rotation of the spool in a second direction causes the guide member to wind about the spool and retract through the distal opening; a drive mechanism that is operable to rotate the spool within the enclosure without compromising the sterile field within the enclosure; and a control system configured to automatically control operation of the drive mechanism to automatically stroke the guide member intermittently according to a predetermined set period of time between successive strokes. an enclosure having an interior defining a sterile field, an exterior, and a distal opening for providing access to the interior; a spool provided within the enclosure that is rotatable about an axis; an elongated guide member coupled to the spool, wherein rotation of the spool in a first direction causes the guide member to unwind about the spool and advance through the distal opening, and wherein rotation of the spool in a second direction causes the guide member to wind about the spool and retract through the distal opening; a drive mechanism that is operable to rotate the spool within the enclosure without compromising the sterile field within the enclosure; and a control system configured to automatically control operation of the drive mechanism to automatically stroke the guide member intermittently according to a predetermined set period of time between successive strokes.
A method of manufacturing a medical device comprising: (a) bending a frame member to form an upper straight portion and a lower straight portion connected by a bent portion; (b) mounting a rigid mounting device to an attachment location of the upper straight portion characterised in that the method comprises (c) connecting a plurality of mounts on the lower straight portion, wherein each plurality of mounts has a top surface, wherein the bent portion is configured to align with a centerline extending through a center length of the mounting device to be level with all of the top surfaces; and (d) mounting marker elements on each mount and aligning a centerline of each marker element with the top surface to form a pre-attached marker assembly. (a) bending a frame member to form an upper straight portion and a lower straight portion connected by a bent portion; (b) mounting a rigid mounting device to an attachment location of the upper straight portion characterised in that the method comprises (c) connecting a plurality of mounts on the lower straight portion, wherein each plurality of mounts has a top surface, wherein the bent portion is configured to align with a centerline extending through a center length of the mounting device to be level with all of the top surfaces; and (d) mounting marker elements on each mount and aligning a centerline of each marker element with the top surface to form a pre-attached marker assembly.