mhurhangee/ep-ind-claims huggingface dataset:
A method of making a wind turbine blade, the wind turbine blade extending longitudinally in a spanwise direction and extending transversely in a chordwise direction between a leading edge and a trailing edge, the method comprising: a. providing a first half shell and a second half shell to be joined together, each half shell comprising an inner surface having concave curvature in the chordwise direction such that portions of the inner surface are inclined relative to a local chord of the blade; b. defining a shear web mounting region on an inclined portion of the inner surface of a half shell; c. providing a web locator having a fixed portion and a spring portion extending from the fixed portion, the spring portion being moveable relative to the fixed portion between compressed and relaxed states, and the spring portion being biased towards the relaxed state, d. attaching the fixed portion of the web locator to an inner surface of a half shell proximate to the mounting region such that at least part of the spring portion extends in front of the mounting region; e. providing a shear web having a mounting flange (28a, 28b) for bonding to the mounting region; f. providing adhesive on the mounting flange and/or on the mounting region; g. bringing the first and second half shells (16, 18) together with the shear web arranged therebetween, such that the mounting flange (28a, 28b) is guided by a surface of the spring portion of the web locator towards the mounting region and the spring portion compresses; and h. compressing and curing the adhesive. a. providing a first half shell and a second half shell to be joined together, each half shell comprising an inner surface having concave curvature in the chordwise direction such that portions of the inner surface are inclined relative to a local chord of the blade; b. defining a shear web mounting region on an inclined portion of the inner surface of a half shell; c. providing a web locator having a fixed portion and a spring portion extending from the fixed portion, the spring portion being moveable relative to the fixed portion between compressed and relaxed states, and the spring portion being biased towards the relaxed state, d. attaching the fixed portion of the web locator to an inner surface of a half shell proximate to the mounting region such that at least part of the spring portion extends in front of the mounting region; e. providing a shear web having a mounting flange (28a, 28b) for bonding to the mounting region; f. providing adhesive on the mounting flange and/or on the mounting region; g. bringing the first and second half shells (16, 18) together with the shear web arranged therebetween, such that the mounting flange (28a, 28b) is guided by a surface of the spring portion of the web locator towards the mounting region and the spring portion compresses; and h. compressing and curing the adhesive.
Mobile solid-fuel firing installation having a combustion chamber, having a heat exchanger (34, 40), with a coolant side and a hot-gas side which is connected to the combustion chamber via a hot-gas guide, for transmitting firing heat from flue gas to a coolant, having a hot-gas drive for driving the flue gas through the hot-gas side, having a coolant drive for driving the coolant through the coolant side, wherein the coolant is ambient air and the coolant drive comprises an ambient-air blower, and having a blow-out opening for the blowing-out of heated ambient air into the surroundings as warm air, characterized in that the coolant guide runs through the installation from an ambient-air inlet opening to the blow-out opening in a horizontal cooling-stream direction, and the coolant drive consists of at least one pressure blower for blowing ambient air into the heat exchanger (34, 40), and a coolant guide is drive-free from the pressure blower to the blow-out opening.
A method for processing data sending in a communication system, comprising: allocating, by a NodeB, pilot resources to a user equipment, UE, according to a preset agreement, a transmission mode of the UE, and a number of spatial transmission layers of the UE; wherein the pilot resources include multiple resource elements, REs, (201, 202) and a code word of code division multiplexing, CDM, orthogonal code words, and the code word is [1, 1, 1, 1], [1, -1, 1, -1], [1, 1, -1, -1] or [1, -1, -1, 1]; said method characterised by notifying, by the NodeB, a pilot-resource information number corresponding to the pilot resources to the UE; wherein the pilot-resource information number identifies a combination of the number of transmission layers of the UE, pilot resource at each spatial transmission layer, and current pilot-resource use status of the communication system, and the current pilot-resource use status of the communication system includes a position of the pilot resource RE and an orthogonal cover code, OCC, length, and the OCC length is one of 2 and 4, where the OCC length equals 2 means the code word is orthogonal in a slot and the OCC length equals 4 means the code word is orthogonal in a sub-frame. allocating, by a NodeB, pilot resources to a user equipment, UE, according to a preset agreement, a transmission mode of the UE, and a number of spatial transmission layers of the UE; wherein the pilot resources include multiple resource elements, REs, (201, 202) and a code word of code division multiplexing, CDM, orthogonal code words, and the code word is [1, 1, 1, 1], [1, -1, 1, -1], [1, 1, -1, -1] or [1, -1, -1, 1]; said method characterised by notifying, by the NodeB, a pilot-resource information number corresponding to the pilot resources to the UE; wherein the pilot-resource information number identifies a combination of the number of transmission layers of the UE, pilot resource at each spatial transmission layer, and current pilot-resource use status of the communication system, and the current pilot-resource use status of the communication system includes a position of the pilot resource RE and an orthogonal cover code, OCC, length, and the OCC length is one of 2 and 4, where the OCC length equals 2 means the code word is orthogonal in a slot and the OCC length equals 4 means the code word is orthogonal in a sub-frame.
A power adaptor comprising a communication interface and being configured to charge via its communication interface a battery of an electronic equipment, and wherein, during charging said battery, - said power adaptor is configured to first charge said battery in a regular charge mode; - when the output current value of said power adaptor falls within a regular current range, said power adaptor is configured to perform a quick charge inquiry communication; and - after a quick charge command is received, said power adaptor is configured to adjust the output current and output voltage to charge said battery according to a quick charge mode in which a charging time for the battery is reduced relative to said regular charge mode. - said power adaptor is configured to first charge said battery in a regular charge mode; - when the output current value of said power adaptor falls within a regular current range, said power adaptor is configured to perform a quick charge inquiry communication; and - after a quick charge command is received, said power adaptor is configured to adjust the output current and output voltage to charge said battery according to a quick charge mode in which a charging time for the battery is reduced relative to said regular charge mode.
An epitaxial substrate for a semiconductor device, comprising: a base substrate; a channel layer made of GaN, formed on said base substrate; a spacer layer made of group III nitride having a composition of Al p Ga 1-p N (wherein 0.8≤ p≤ 1), formed on said channel layer; and a barrier layer made of group III nitride having a composition of In x Al y Ga z N (wherein x+y+z=1), and including at least In, Al, and Ga, formed on said spacer layer, characterized in that the composition of said group III nitride forming said barrier layer is within the range surrounded with the lines represented by the following formulas on a ternary phase diagram with InN, AlN, and GaN as vertexes 4 x = y = 0.8 1 − z 19 x = y = 0.95 1 − z z = 0.6 z = 0.4, and wherein the interface between the channel layer and the barrier layer has an average roughness within the range between 0.1 nm and 1 nm and root mean square roughness within the range of between 0.1 nm and 1 nm. a base substrate; a channel layer made of GaN, formed on said base substrate; a spacer layer made of group III nitride having a composition of Al p Ga 1-p N (wherein 0.8≤ p≤ 1), formed on said channel layer; and a barrier layer made of group III nitride having a composition of In x Al y Ga z N (wherein x+y+z=1), and including at least In, Al, and Ga, formed on said spacer layer, characterized in that the composition of said group III nitride forming said barrier layer is within the range surrounded with the lines represented by the following formulas on a ternary phase diagram with InN, AlN, and GaN as vertexes 4 x = y = 0.8 1 − z 19 x = y = 0.95 1 − z z = 0.6 z = 0.4, and wherein the interface between the channel layer and the barrier layer has an average roughness within the range between 0.1 nm and 1 nm and root mean square roughness within the range of between 0.1 nm and 1 nm.
A topical skin barrier comprising: in a range by weight from about 25.0% to about 90.0%, a composition selected from the group consisting of petrolatum and white petrolatum; in a range by weight from about 5.0% to about 50.0%, a cellulose gum having a degree of substitution between 0.80 - 0.95; and in a range by weight from about 0.25% to about 20.0%, a pain relief agent, wherein said topical skin barrier has properties of (i) effective adhesion to skin, (ii) protection from moisture and waste, (iii) transparency, and (iv) a pain reliever. in a range by weight from about 25.0% to about 90.0%, a composition selected from the group consisting of petrolatum and white petrolatum; in a range by weight from about 5.0% to about 50.0%, a cellulose gum having a degree of substitution between 0.80 - 0.95; and in a range by weight from about 0.25% to about 20.0%, a pain relief agent, wherein said topical skin barrier has properties of (i) effective adhesion to skin, (ii) protection from moisture and waste, (iii) transparency, and (iv) a pain reliever.
A method of making a stack of the type comprising a first electrode, an active layer, and a second electrode, for use in an electronic device, in particular of the organic photodetector type or the organic solar cell type, the method comprising the following steps: a) depositing a first layer of conductive material on a substrate in order to form the first electrode; b) depositing an active layer in the form of a thin organic semiconductor layer, this layer including non-continuous zones; c) locally eliminating the first conductive layer through the non-continuous zones of the active layer by chemical attack, in order to form zones having no material in said first layer, said zones having no material having at least lateral dimensions of the non-continuous zones of the active layer, and d) depositing a second layer of conductive material on the active layer in order to form the second conductive electrode. a) depositing a first layer of conductive material on a substrate in order to form the first electrode; b) depositing an active layer in the form of a thin organic semiconductor layer, this layer including non-continuous zones; c) locally eliminating the first conductive layer through the non-continuous zones of the active layer by chemical attack, in order to form zones having no material in said first layer, said zones having no material having at least lateral dimensions of the non-continuous zones of the active layer, and d) depositing a second layer of conductive material on the active layer in order to form the second conductive electrode.
An air management system for a vehicle (100, 200a, 200b, 200c, 400, 500a, 500b, 500c, 700, 700a, 700b, 800, 800'), the air management system comprising: a first pneumatic circuit (510a, 510b, 510c, 710a, 710b, 810) having a first leveling valve (16, 50, 300, 300a, 300b, 300c, 600a, 600b, 850) configured to adjust independently the height or pressure of a first side of the vehicle; a second pneumatic circuit (520a, 520b, 520c, 720a, 720b, 820) having a second leveling valve (17, 300a, 300b, 300c, 600a, 600b, 850) configured to adjust independently the height or pressure of a second side of the vehicle; and a cross-flow line (38, 250a, 250b, 250c, 550a, 550b, 760a, 760b, 860) connecting the first leveling valve (16, 50, 300, 300a, 300b, 300c, 600a, 600b, 850) with the second leveling valve (17, 300a, 300b, 300c, 600a, 600b, 850); wherein the first and second leveling valves are configured to establish pneumatic communication between the first and second pneumatic circuits when the first leveling valve (16, 50, 300, 300a, 300b, 300c, 600a, 600b, 850) is not independently adjusting the height or pressure of the first side of the vehicle and the second leveling valve (17, 300a, 300b, 300c, 600a, 600b, 850)is not independently adjusting the height or pressure of the second side of the vehicle, characterized in that the first and second leveling valves each include a housing body and a control arm (16a, 17a, 70, 340, 305, 610) pivotably connected to a shaft extending through the housing body, and the control arm (16a, 17a, 70, 340, 305, 610) is configured to pivot from a neutral position to one or more response positions. a first pneumatic circuit (510a, 510b, 510c, 710a, 710b, 810) having a first leveling valve (16, 50, 300, 300a, 300b, 300c, 600a, 600b, 850) configured to adjust independently the height or pressure of a first side of the vehicle; a second pneumatic circuit (520a, 520b, 520c, 720a, 720b, 820) having a second leveling valve (17, 300a, 300b, 300c, 600a, 600b, 850) configured to adjust independently the height or pressure of a second side of the vehicle; and a cross-flow line (38, 250a, 250b, 250c, 550a, 550b, 760a, 760b, 860) connecting the first leveling valve (16, 50, 300, 300a, 300b, 300c, 600a, 600b, 850) with the second leveling valve (17, 300a, 300b, 300c, 600a, 600b, 850); wherein the first and second leveling valves are configured to establish pneumatic communication between the first and second pneumatic circuits when the first leveling valve (16, 50, 300, 300a, 300b, 300c, 600a, 600b, 850) is not independently adjusting the height or pressure of the first side of the vehicle and the second leveling valve (17, 300a, 300b, 300c, 600a, 600b, 850)is not independently adjusting the height or pressure of the second side of the vehicle, characterized in that the first and second leveling valves each include a housing body and a control arm (16a, 17a, 70, 340, 305, 610) pivotably connected to a shaft extending through the housing body, and the control arm (16a, 17a, 70, 340, 305, 610) is configured to pivot from a neutral position to one or more response positions.
A method of dispensing a medication dose (9, 10, 11, 12) packaged in compartments (2, 3) of a tape stored in a container, comprising the steps of - making the medication dose accessible at an opening of the container by advancing the tape at a beginning of a predetermined time period, where each compartment holds all medication doses to be administered to a patient in the predetermined time period characterized in that the method comprises the step of making the compartment holding the medication doses inaccessible at an end of the predetermined time period. - making the medication dose accessible at an opening of the container by advancing the tape at a beginning of a predetermined time period, where each compartment holds all medication doses to be administered to a patient in the predetermined time period
A method for calculating a filter load estimation in an electrical or hybrid vehicle comprising a front-end air cooling system comprising a heat radiator and a filter in an airstream when air is flowing through the filter, the heat radiator for cooling coolant fluid, the coolant fluid for transporting heat from a battery to the heat radiator, the method comprising: obtaining, from a computer memory of the vehicle: - charging status data representing a charging condition of the battery; - charging power data representing a charging power being used for charging the battery; obtaining an exterior air temperature; determining from the battery charging status data that the charging condition is that the battery is being charged; providing, with a fan, air flow through the heat radiator and the filter; wherein the method further comprises obtaining a battery charging parameter and calculating the filter load estimation based on the exterior temperature, the charging power and the battery charging parameter. obtaining, from a computer memory of the vehicle: - charging status data representing a charging condition of the battery; - charging power data representing a charging power being used for charging the battery; - charging status data representing a charging condition of the battery; - charging power data representing a charging power being used for charging the battery; obtaining an exterior air temperature; determining from the battery charging status data that the charging condition is that the battery is being charged; providing, with a fan, air flow through the heat radiator and the filter; wherein the method further comprises obtaining a battery charging parameter and calculating the filter load estimation based on the exterior temperature, the charging power and the battery charging parameter.
A system for supplying refrigerants to a liquefied natural gas facility, the system comprising: a first conduit in fluid communication with a first storage device configured to store a first refrigerant, the first refrigerant having a first temperature; a second conduit in fluid communication with a second storage device configured to store a second refrigerant, the second refrigerant having a second temperature different than the first temperature; a heat exchanger configured to receive the first refrigerant from the first conduit and receive the second refrigerant from the second conduit, the heat exchanger configured to transfer heat between the first refrigerant and the second refrigerant; a first flow path configured to advance the first refrigerant to the LNG facility; and a second flow path configured to advance the second refrigerant to the LNG facility; wherein the first refrigerant has a first boiling point, the second refrigerant has a second boiling point, the first boiling point is greater than the second boiling point, and the first temperature is greater than the second temperature, characterised by the system further comprising a temperature control assembly configured to receive the first refrigerant from the heat exchanger and control the temperature of the first refrigerant. a first conduit in fluid communication with a first storage device configured to store a first refrigerant, the first refrigerant having a first temperature; a second conduit in fluid communication with a second storage device configured to store a second refrigerant, the second refrigerant having a second temperature different than the first temperature; a heat exchanger configured to receive the first refrigerant from the first conduit and receive the second refrigerant from the second conduit, the heat exchanger configured to transfer heat between the first refrigerant and the second refrigerant; a first flow path configured to advance the first refrigerant to the LNG facility; and a second flow path configured to advance the second refrigerant to the LNG facility; wherein the first refrigerant has a first boiling point, the second refrigerant has a second boiling point, the first boiling point is greater than the second boiling point, and the first temperature is greater than the second temperature, characterised by the system further comprising a temperature control assembly configured to receive the first refrigerant from the heat exchanger and control the temperature of the first refrigerant.
A horizontal axis wind turbine augmented with a diffuser, the diffuser comprising: a first diffuser ring comprising; an inlet and an outlet; and one or more vortex entrainment devices attached to a trailing edge of the first diffuser ring; wherein the first diffuser ring is adapted to form a turbine rotor cowling that is integrally attachable to a turbine rotor to form a unit that is rotatable about the horizontal axis of the wind turbine, characterized in that the one or more vortex entrainment devices are dynamic, aero-elastic vortex entrainment devices. a first diffuser ring comprising; an inlet and an outlet; and one or more vortex entrainment devices attached to a trailing edge of the first diffuser ring; wherein the first diffuser ring is adapted to form a turbine rotor cowling that is integrally attachable to a turbine rotor to form a unit that is rotatable about the horizontal axis of the wind turbine, characterized in that the one or more vortex entrainment devices are dynamic, aero-elastic vortex entrainment devices.
A process for the production of dihydrolipoic acid (DHLA), or a salt thereof, comprising the steps of: (a) preparing a microbiological culture comprising at least one species of Lactobacillus spp., Enterococcus spp., Pediococcus spp., or Bacillus spp.; (b) treating an aqueous broth containing molasses, N-acetyl-L-cysteine, rice protein, nutritional yeast, sugar, one or more mineral salts, one or more nucleotides, and a first edible oil with the microbiological culture to form a microbial broth; (c) incubating the microbial broth at a temperature of 35 °C to 40 °C for at least 48 hours; (d) feeding the microbial broth with R-lipoic acid, turmeric rhizome, N-acetyl-L-cysteine, glutathione, L-arginine, and NADH; (e) adjusting the pH to about 8.0; (f) incubating the microbial broth for at least 10 days; (g) optionally feeding the microbial broth after the at least 12 days with molasses, rice protein, nutritional yeast, and natamycin; (h) optionally adjusting the pH to about 8.0; (j) incubating the microbial broth for at least 2 days to 9 days; (k) adjusting the pH to about 2.0; (l) adding a second edible oil in a volume of 60-100% total microbial broth volume, and water in a volume of about 100% total microbial broth volume to form two layers; (m) mixing the edible oil layer and the aqueous layer to effect extraction of DHLA, or a salt thereof, into the edible oil layer; and (n) separating the edible oil layer containing DHLA, or a salt thereof. (a) preparing a microbiological culture comprising at least one species of Lactobacillus spp., Enterococcus spp., Pediococcus spp., or Bacillus spp.; (b) treating an aqueous broth containing molasses, N-acetyl-L-cysteine, rice protein, nutritional yeast, sugar, one or more mineral salts, one or more nucleotides, and a first edible oil with the microbiological culture to form a microbial broth; (c) incubating the microbial broth at a temperature of 35 °C to 40 °C for at least 48 hours; (d) feeding the microbial broth with R-lipoic acid, turmeric rhizome, N-acetyl-L-cysteine, glutathione, L-arginine, and NADH; (e) adjusting the pH to about 8.0; (f) incubating the microbial broth for at least 10 days; (g) optionally feeding the microbial broth after the at least 12 days with molasses, rice protein, nutritional yeast, and natamycin; (h) optionally adjusting the pH to about 8.0; (j) incubating the microbial broth for at least 2 days to 9 days; (k) adjusting the pH to about 2.0; (l) adding a second edible oil in a volume of 60-100% total microbial broth volume, and water in a volume of about 100% total microbial broth volume to form two layers; (m) mixing the edible oil layer and the aqueous layer to effect extraction of DHLA, or a salt thereof, into the edible oil layer; and (n) separating the edible oil layer containing DHLA, or a salt thereof.