mhurhangee/ep-ind-claims huggingface dataset:
A high-strength galvanized steel sheet having a chemical composition containing, by mass%, C: 0.07% to 0.25%, Si: 0.01% to 3.00%, Mn: 1.5% to 4.0%, P: 0.100% or less, S: 0.02% or less, Al: 0.01% to 1.50%, N: 0.001% to 0.008%, Ti: 0.003% to 0.200%, B: 0.0003% to 0.0050%, optionally at least one of Cr: 0.01% to 2.00%, Mo: 0.01% to 2.00%, V: 0.01% to 2.00%, Ni: 0.01% to 2.00%, Cu: 0.01% to 2.00%, Nb: 0.003% to 0.200%, Ca: 0.001% to 0.005% and REM: 0.001% to 0.005%, and the balance being Fe and inevitable impurities, wherein the relationship Ti > 4N is satisfied, and a microstructure consisting of, in terms of area ratio in a cross section located at 1/4 of the thickness from the surface of a base steel sheet, a ferrite phase in an amount of 70% or less (including 0%), a bainite phase in an amount of 20% or less (including 0%), a martensite phase in an amount of 25% or more, a retained austenite phase in an amount of less than 3% (including 0%), and optionally, as additional phases, a martensite phase and a pearlite phase which include carbides as additional phases other than a ferrite phase, a martensite phase, a bainite phase, and a retained austenite phase, wherein the additional phases have a total area ratio of less than 10%, wherein the average crystal grain diameter of the martensite phase is 20 μm or less, and wherein a variation in the Vickers hardness of the martensite phase is 20 or less in terms of standard deviation.
A method of manufacturing a combustor of a rocket engine, comprising: preparing a combustor inner tube having cooling ditches; providing an outer layer on an outer circumferential surface of the combustor inner tube to cover the cooling ditches of the combustor inner tube; and stacking an LMD layer on the outer circumferential surface of the outer layer by an LMD process, wherein the step of providing an outer layer comprises: stacking a first layer on the outer circumferential surface of the combustor inner tube; and stacking a laser low reflectivity layer as an outermost layer of the outer layer, and wherein the laser low reflectivity layer is a layer having a reflectivity lower to a laser beam used in the LMD process than with the first layer. preparing a combustor inner tube having cooling ditches; providing an outer layer on an outer circumferential surface of the combustor inner tube to cover the cooling ditches of the combustor inner tube; and stacking an LMD layer on the outer circumferential surface of the outer layer by an LMD process, wherein the step of providing an outer layer comprises: stacking a first layer on the outer circumferential surface of the combustor inner tube; and stacking a laser low reflectivity layer as an outermost layer of the outer layer, and stacking a first layer on the outer circumferential surface of the combustor inner tube; and stacking a laser low reflectivity layer as an outermost layer of the outer layer, and wherein the laser low reflectivity layer is a layer having a reflectivity lower to a laser beam used in the LMD process than with the first layer.
A thermal image receiver element comprising a support and having on at least one side of the support: an aqueous coatable dye receiving layer as an outermost layer, wherein the dye receiving layer has a thickness ranging from 0.1 μm to 5 μm and comprises a water-dispersible release agent, a crosslinking agent, one or more surfactants, one or more antifoamers, and a polymer binder matrix consisting essentially of: a water-dispersible acrylic polymer comprising substituted or unsubstituted hydroxyl, phspho, phosphonate, sulfo, sulfonate, carboxy, or carboxylate groups; a water-dispersible polyester that has a T g of 30 °C or less; and a water-dispersible conductive polymeric material, wherein the water-dispersible acrylic polymer is present in an amount of at least 55 weight % of the total dye receiving layer weight and is present at a dry ratio to the water-dispersible polyester of at least 1:1. an aqueous coatable dye receiving layer as an outermost layer, wherein the dye receiving layer has a thickness ranging from 0.1 μm to 5 μm and comprises a water-dispersible release agent, a crosslinking agent, one or more surfactants, one or more antifoamers, and a polymer binder matrix consisting essentially of: a water-dispersible acrylic polymer comprising substituted or unsubstituted hydroxyl, phspho, phosphonate, sulfo, sulfonate, carboxy, or carboxylate groups; a water-dispersible polyester that has a T g of 30 °C or less; and a water-dispersible conductive polymeric material, wherein the water-dispersible acrylic polymer is present in an amount of at least 55 weight % of the total dye receiving layer weight and is present at a dry ratio to the water-dispersible polyester of at least 1:1. a water-dispersible acrylic polymer comprising substituted or unsubstituted hydroxyl, phspho, phosphonate, sulfo, sulfonate, carboxy, or carboxylate groups; a water-dispersible polyester that has a T g of 30 °C or less; and a water-dispersible conductive polymeric material, wherein the water-dispersible acrylic polymer is present in an amount of at least 55 weight % of the total dye receiving layer weight and is present at a dry ratio to the water-dispersible polyester of at least 1:1.
A reaction furnace for producing a polycrystalline silicon by a Siemens method, wherein the reaction furnace has an in-furnace reaction space in which when an inner cross-sectional area of the reaction furnace, which is perpendicular to a straight body portion of the reaction furnace, is represented by S 0, and a total sum of cross-sectional areas of polycrystalline silicon rods that are grown by precipitation of the polycrystalline silicon onto at least one pair of silicon core wires in an inverted U shape, which are arranged in the reaction furnace, is represented by S R = ΣS i, a reaction space cross-sectional area ratio that is defined by S = [S 0 -S R]/S R satisfies 2.5 or more, in a case where a diameter of the polycrystalline silicon rod is 140 mm or more, and wherein the reaction space is designed as space securing a mutual distance of 75 mm or more in between the polycrystalline silicon rods at the final diameter. the reaction furnace has an in-furnace reaction space in which when an inner cross-sectional area of the reaction furnace, which is perpendicular to a straight body portion of the reaction furnace, is represented by S 0, and a total sum of cross-sectional areas of polycrystalline silicon rods that are grown by precipitation of the polycrystalline silicon onto at least one pair of silicon core wires in an inverted U shape, which are arranged in the reaction furnace, is represented by S R = ΣS i, a reaction space cross-sectional area ratio that is defined by S = [S 0 -S R]/S R satisfies 2.5 or more, in a case where a diameter of the polycrystalline silicon rod is 140 mm or more, and wherein the reaction space is designed as space securing a mutual distance of 75 mm or more in between the polycrystalline silicon rods at the final diameter.
A water sprayer outlet mechanism configured for use with a pool, the water sprayer outlet mechanism having an inlet and an outlet nozzle in fluid communication with the inlet, the outlet nozzle comprising: an elongate hole configured to deliver water from the inlet to the pool, a planar projection of the elongate hole (460, 460') having a lateral axis and a central axis of symmetry, the elongate hole (460, 460') defined by: a first elongate section (462, 465'); wherein the first elongate section (462, 465') is calculated with a formula: Y = a 4 x 4 + a 2 x 2 + a 0 wherein: x is a value on the lateral axis; Y is a value on the central axis; a 0 ≥ 1; 10 -5 ≥ a 4 ≥10 -12; and 10 -2 ≥ a 2 ≥10 -6. a second elongate section (461, 466'); a first end section (463, 467') that connects the first and second elongate sections; and a second end section (464, 468') that connects the first and second elongate sections; wherein a width of the elongate hole measured between the first and second elongate sections increases from the central axis to each of the first and second end sections. an elongate hole configured to deliver water from the inlet to the pool, a planar projection of the elongate hole (460, 460') having a lateral axis and a central axis of symmetry, the elongate hole (460, 460') defined by: a first elongate section (462, 465'); wherein the first elongate section (462, 465') is calculated with a formula: Y = a 4 x 4 + a 2 x 2 + a 0 wherein: x is a value on the lateral axis; Y is a value on the central axis; a 0 ≥ 1; 10 -5 ≥ a 4 ≥10 -12; and 10 -2 ≥ a 2 ≥10 -6. a second elongate section (461, 466'); a first end section (463, 467') that connects the first and second elongate sections; and a second end section (464, 468') that connects the first and second elongate sections; a first elongate section (462, 465'); wherein the first elongate section (462, 465') is calculated with a formula: Y = a 4 x 4 + a 2 x 2 + a 0 wherein: x is a value on the lateral axis; Y is a value on the central axis; a 0 ≥ 1; 10 -5 ≥ a 4 ≥10 -12; and 10 -2 ≥ a 2 ≥10 -6. x is a value on the lateral axis; Y is a value on the central axis; a 0 ≥ 1; 10 -5 ≥ a 4 ≥10 -12; and 10 -2 ≥ a 2 ≥10 -6. a second elongate section (461, 466'); a first end section (463, 467') that connects the first and second elongate sections; and a second end section (464, 468') that connects the first and second elongate sections; wherein a width of the elongate hole measured between the first and second elongate sections increases from the central axis to each of the first and second end sections.
A method for determining a spatial property of a submerged object (50; 58) in a 3D-space, using an underwater moveable platform, such as a remotely operated vehicle or an autonomous underwater vehicle, that is provided with a camera and with a position and orientation measurement system configured to output a position and orientation of the camera, the method comprising: capturing, at one or a plurality of different positions (P1, P2) of the camera with respect to the object, image data comprising an image (64; 64') of the object captured by the camera and a representation of a position and orientation of the camera in the 3D space at the time the or each image was captured, wherein said representation is obtained using the position and orientation output by the position and orientation measurement system; receiving, at a processing unit, dimensions of a 3D bounding volume (70; 80) for the object in the captured image; constructing at the processing unit, based on the captured image data, for one or two or more of said captured images, a composite image in which the bounding volume is projected overlaid onto said image, and receiving, at the processing unit, input for adjusting the position and/or orientation of the bounding volume to improve the visual fit of the bounding volume with the object in the composite image; determining at least one of a heading, a position, a verticality, an attitude, and an inclination of the object, based on the dimensions and orientation of the adjusted bounding volume in the 3D space. capturing, at one or a plurality of different positions (P1, P2) of the camera with respect to the object, image data comprising an image (64; 64') of the object captured by the camera and a representation of a position and orientation of the camera in the 3D space at the time the or each image was captured, wherein said representation is obtained using the position and orientation output by the position and orientation measurement system; receiving, at a processing unit, dimensions of a 3D bounding volume (70; 80) for the object in the captured image; constructing at the processing unit, based on the captured image data, for one or two or more of said captured images, a composite image in which the bounding volume is projected overlaid onto said image, and receiving, at the processing unit, input for adjusting the position and/or orientation of the bounding volume to improve the visual fit of the bounding volume with the object in the composite image; determining at least one of a heading, a position, a verticality, an attitude, and an inclination of the object, based on the dimensions and orientation of the adjusted bounding volume in the 3D space.
A turbine bypass system, comprising: a turbine; a bypass path selectively operable to deliver hot gases to a gas cooler; and a pebble bed positioned in the bypass path upstream of the gas cooler which is operable to absorb heat from the bypass gases and thereby reduce the temperature of the bypass gases prior to delivery of the bypass gases to the gas cooler, characterized in that the turbine bypass system includes a cooling arrangement selectively operable to cool the pebble bed, in that the turbine is a gas turbine, and in that the gas cooler comprises a heat exchanger. a turbine; a bypass path selectively operable to deliver hot gases to a gas cooler; and a pebble bed positioned in the bypass path upstream of the gas cooler which is operable to absorb heat from the bypass gases and thereby reduce the temperature of the bypass gases prior to delivery of the bypass gases to the gas cooler, characterized in that the turbine bypass system includes a cooling arrangement selectively operable to cool the pebble bed, in that the turbine is a gas turbine, and in that the gas cooler comprises a heat exchanger.
Tyre tread having a rubber composition based on at least one natural or synthetic polyisoprene, at a content ranging from 50 phr to 90 phr, a reinforcing filler comprising predominantly, by weight, an inorganic filler, a coupling agent, a plasticizing agent at a content of less than or equal to 10 phr and a sulphur-based crosslinking system, characterized in that the composition contains a zinc content ranging from 0.7 to 1,5 phr and also comprises a polybutadiene, BR, or a butadiene-styrene copolymer, SBR.
Brush head for a toothbrush, in particular an electric toothbrush, which is provided with bristles comprising tapered filaments and conventional, cylindrical and rounded filaments, wherein the tapered filaments are longer than the conventional, cylindrical and rounded filaments, characterized in that the ends of the tapered filaments are at two different levels (E1, E2).
A display panel having a display region and at least one bonding region located beside the display region, the display panel comprising: a base; and a plurality of conductive pads disposed on a side of the base and located in each bonding region, the plurality of conductive pads being arranged at intervals along a first direction, and the plurality of conductive pads including at least one first type of conductive pad configured to transmit a direct current voltage signal to the display region and a plurality of second type of conductive pads configured to transmit a pulse voltage signal to the display region; wherein a dimension of a first type of conductive pad in the at least one first type of conductive pad in the first direction is greater than a dimension of a second type of conductive pad in the plurality of second type of conductive pads in the first direction; the dimension of the first type of conductive pad in the first direction is W 1, and the dimension of the second type of conductive pad in the first direction is W 2, wherein W 1 is equal to n times W 2 (W 1 =nW 2), and n is any value greater than 1; each first type of conductive pad is formed by forming n conductive pads into an integrative structure, wherein the n conductive pads are located in a same bonding region and transmit a same kind of direct current voltage signal; and each first type of conductive pad is formed by forming n structures having a same dimension as the second type of conductive pad into an integrative structure. a base; and a plurality of conductive pads disposed on a side of the base and located in each bonding region, the plurality of conductive pads being arranged at intervals along a first direction, and the plurality of conductive pads including at least one first type of conductive pad configured to transmit a direct current voltage signal to the display region and a plurality of second type of conductive pads configured to transmit a pulse voltage signal to the display region; wherein a dimension of a first type of conductive pad in the at least one first type of conductive pad in the first direction is greater than a dimension of a second type of conductive pad in the plurality of second type of conductive pads in the first direction; the dimension of the first type of conductive pad in the first direction is W 1, and the dimension of the second type of conductive pad in the first direction is W 2, wherein W 1 is equal to n times W 2 (W 1 =nW 2), and n is any value greater than 1; each first type of conductive pad is formed by forming n conductive pads into an integrative structure, wherein the n conductive pads are located in a same bonding region and transmit a same kind of direct current voltage signal; and each first type of conductive pad is formed by forming n structures having a same dimension as the second type of conductive pad into an integrative structure.
A base station comprising: means for determining a periodicity, T, for a search space of a machine-type communications, MTC, Physical Downlink Control Channel, M-PDCCH; and means for transmitting, to a user equipment, LTE,, a radio resource control, RRC, message including a parameter, Rmax, indicating a maximum number of repetitions for the search space of the M-PDCCH over a plurality of consecutive subframes and a parameter, G, indicating a starting subframe for the search space of the M-PDCCH, and wherein the periodicity, T, is represented by a numerical formula: T = Rmax * G. means for determining a periodicity, T, for a search space of a machine-type communications, MTC, Physical Downlink Control Channel, M-PDCCH; and means for transmitting, to a user equipment, LTE,, a radio resource control, RRC, message including a parameter, Rmax, indicating a maximum number of repetitions for the search space of the M-PDCCH over a plurality of consecutive subframes and a parameter, G, indicating a starting subframe for the search space of the M-PDCCH, and wherein the periodicity, T, is represented by a numerical formula: T = Rmax * G.
A method for scheduling a High Speed Downlink Packet Access, HSDPA, resource, comprising: respectively acquiring weight values of three parameters of User Equipment, UE, wherein the three parameters are a theoretical data rate, a history throughput, and an amount of data in a data buffer; calculating a scheduling priority of the UE according to the weight values of the three parameters; and scheduling the UE according to the scheduling priority of the UE; wherein calculating the scheduling priority of the UE according to the weight values of the three parameters comprises: calculating the scheduling priority P of the UE according to the weight values of the three parameters by using a following formula: P k = C k t T k t ∗ f buffer, where P k represents a scheduling priority of a k th UE, C k ( t) represents a theoretical data rate of the k th UE at a moment t, T k ( t) represents a history throughput of the k th UE accumulated at the moment t, and f ( buffer) represents an amount of data in a data buffer of the k th UE. respectively acquiring weight values of three parameters of User Equipment, UE, wherein the three parameters are a theoretical data rate, a history throughput, and an amount of data in a data buffer; calculating a scheduling priority of the UE according to the weight values of the three parameters; and scheduling the UE according to the scheduling priority of the UE; wherein calculating the scheduling priority of the UE according to the weight values of the three parameters comprises: calculating the scheduling priority P of the UE according to the weight values of the three parameters by using a following formula: P k = C k t T k t ∗ f buffer, where P k represents a scheduling priority of a k th UE, C k ( t) represents a theoretical data rate of the k th UE at a moment t, T k ( t) represents a history throughput of the k th UE accumulated at the moment t, and f ( buffer) represents an amount of data in a data buffer of the k th UE.
A use of a composition containing silica (hetero)polycondensate modified with organic groups as a coating applied to the surface of a substrate selected from a drug and a foodstuff, or as a component of such a coating, wherein the organic groups are polymers.
A method for assigning computational tasks in a vehicle context, the method comprising: receiving a computational task; determining a processing resource requirement of the computational task; estimating a task duration of the computational task; determining available processing resources of a first temporal vehicular virtual server, TVVS, at a first timestamp, the first TVVS comprising first participant vehicles proximally located relative to one another on a road segment at the first timestamp; determining vehicle movement data of the first participant vehicles; estimating available processing resources of the first TVVS at a second timestamp based on the vehicle movement data of the first participant vehicles, the second timestamp being subsequent to the first timestamp and based on the first timestamp and the task duration of the computational task; determining to execute the computational task on the first TVVS based on the processing resource requirement of the computation task, the available processing resources of the first TVVS at the first timestamp, and the estimated available processing resources of the first TVVS at the second timestamp; and responsive to determining to execute the computational task on the first TVVS, assigning the computational task to the first TVVS to perform an execution of the computational task. receiving a computational task; determining a processing resource requirement of the computational task; estimating a task duration of the computational task; determining available processing resources of a first temporal vehicular virtual server, TVVS, at a first timestamp, the first TVVS comprising first participant vehicles proximally located relative to one another on a road segment at the first timestamp; determining vehicle movement data of the first participant vehicles; estimating available processing resources of the first TVVS at a second timestamp based on the vehicle movement data of the first participant vehicles, the second timestamp being subsequent to the first timestamp and based on the first timestamp and the task duration of the computational task; determining to execute the computational task on the first TVVS based on the processing resource requirement of the computation task, the available processing resources of the first TVVS at the first timestamp, and the estimated available processing resources of the first TVVS at the second timestamp; and responsive to determining to execute the computational task on the first TVVS, assigning the computational task to the first TVVS to perform an execution of the computational task.