mhurhangee/ep-ind-claims huggingface dataset:
A power saving method of a liquid crystal display comprising a glass substrate, a flexible printed circuit board (230; 232), a timing controller and source drivers (212 - 212), the source drivers (212 - 212) disposed on the glass substrate and connected in series, the flexible printed circuit board (230; 232) connected to one of the source drivers (212; 212), wherein each source driver (212 - 212) comprises a control transceiver (414; 416), a data transceiver (424; 426) and a panel driving unit, the data transceiver (424; 426) being an image data transceiver for transmitting image data from a source driver to the next source driver, and the control transceiver (414; 416) being a transceiver for transceiving the control signals from a source driver to the next source driver, the method comprising the steps of: (a) activating the source drivers (212 - 212); (b) transmitting image data and control signals, received by the one source driver (212; 212) from the controller via the flexible printed circuit board (230; 232), to the activated source driver (212, 212; 212, 212) most remote by transmitting image data and control signals through the activated source drivers (212 - 212) (c) switching the most remote activated source driver (212, 212; 212, 212) to a power-saving mode by disabling the data transceiver (424; 426) and the panel driving unit of the most remote source driver (212, 212; 212, 212) and keeping enabled the control transceiver (414; 416) of the most remote activated source driver (212, 212; 212, 212); and (d) repeating steps (b) and (c) until all the source drivers (212 - 212) are switched to the power-saving mode. (a) activating the source drivers (212 - 212); (b) transmitting image data and control signals, received by the one source driver (212; 212) from the controller via the flexible printed circuit board (230; 232), to the activated source driver (212, 212; 212, 212) most remote by transmitting image data and control signals through the activated source drivers (212 - 212) (c) switching the most remote activated source driver (212, 212; 212, 212) to a power-saving mode by disabling the data transceiver (424; 426) and the panel driving unit of the most remote source driver (212, 212; 212, 212) and keeping enabled the control transceiver (414; 416) of the most remote activated source driver (212, 212; 212, 212); and (d) repeating steps (b) and (c) until all the source drivers (212 - 212) are switched to the power-saving mode.
An adapter for blood dispensing comprising: a fitting portion which is adapted to be fitted with a distal portion of an injector and to receive blood from the injector; a nozzle portion in which a flow path, through which the blood can flow toward a sample container, is provided and which is adapted to be inserted into the sample container; and a medicine-holding body which is disposed in the flow path, holds a medicine to be mixed into the blood, and is formed of a plurality of fibers bundled by aligning a longitudinal direction thereof in a flowing direction which is a direction in which the blood flows, wherein the medicine is an anticoagulant for suppressing coagulation of the blood. a fitting portion which is adapted to be fitted with a distal portion of an injector and to receive blood from the injector; a nozzle portion in which a flow path, through which the blood can flow toward a sample container, is provided and which is adapted to be inserted into the sample container; and a medicine-holding body which is disposed in the flow path, holds a medicine to be mixed into the blood, and is formed of a plurality of fibers bundled by aligning a longitudinal direction thereof in a flowing direction which is a direction in which the blood flows,
A composition comprising ambrisentan for use in treating a pulmonary hypertension condition in a subject by administering a therapeutically effective amount thereof to the subject, wherein, at baseline, time from first diagnosis of the condition in the subject is not greater than 2 years, and wherein the ambrisentan is administered in combination therapy with a phosphodiesterase-5 inhibitor selected from sildenafil, tadalafil and vardenafil.
A trunk piston marine engine lubricating oil composition for a medium-speed compression-ignited marine engine comprising or made by admixing an oil of lubricating viscosity, in a major amount, containing 50 mass % or more of a Group II basestock, and, in respective minor amounts, an overbased alkali or alkaline earth metal hydrocarbyl-substituted hydroxybenzoate detergent having a basicity index of 5.5 or greater, wherein the hydrocarbyl group is an alkyl group of 9 to 30 carbon atoms; and an overbased alkali or alkaline earth metal hydrocarbyl-substituted hydroxybenzoate detergent having a basicity index in the range of 2.5 to 4, wherein the hydrocarbyl group is an alkyl group of 14 to 19 carbon atoms; wherein the ratio of the mass of metal in detergent to the mass of metal in detergent is 1 or less; the trunk piston marine engine lubricating oil composition having a TBN, using ASTM D2896, of 20 to 60; wherein the treat rate of additives and contained in the lubricating oil composition is in the range of 1 to 25 mass %. an overbased alkali or alkaline earth metal hydrocarbyl-substituted hydroxybenzoate detergent having a basicity index of 5.5 or greater, wherein the hydrocarbyl group is an alkyl group of 9 to 30 carbon atoms; and an overbased alkali or alkaline earth metal hydrocarbyl-substituted hydroxybenzoate detergent having a basicity index in the range of 2.5 to 4, wherein the hydrocarbyl group is an alkyl group of 14 to 19 carbon atoms;
The non-therapeutic use of at least petroselinic acid, of its salts and esters for reinforcing cohesion of skin tissue of the scalp and for preventing and/or treating weakened, sensitized, and/or reactive scalps, characterized in that said petroselinic acid is administered orally.
Shuttering device for shuttering of openings in walls with a shuttering panel against the escape of fresh concrete and with a fastening device, which holds the shuttering panel in its shuttering position at an opening against the escape of fresh concrete filling the opening, wherein the fastening device comprises a traction unit - which extends through a panel opening of the shuttering panel and can extend into the opening, and - wherein the traction unit is, on the one hand, supportable against a wall-side support device and, on the other hand, fixed directly or indirectly to the shuttering panel in a holding engagement, wherein the fastening device comprises a tensioning device (25, 26; 46) which pretensions the traction unit in its holding engagement on the shuttering panel, characterized in that the traction unit - comprises at least one traction element formed by a traction cable or a tensioning strap, or - is a combination of at least two of the above-mentioned traction elements, and the tensioning device comprises a winding device for winding the traction cable or the tensioning strap. wherein the fastening device comprises a traction unit - which extends through a panel opening of the shuttering panel and can extend into the opening, and - wherein the traction unit is, on the one hand, supportable against a wall-side support device and, on the other hand, fixed directly or indirectly to the shuttering panel in a holding engagement, - which extends through a panel opening of the shuttering panel and can extend into the opening, and - wherein the traction unit is, on the one hand, supportable against a wall-side support device and, on the other hand, fixed directly or indirectly to the shuttering panel in a holding engagement, wherein the fastening device comprises a tensioning device (25, 26; 46) which pretensions the traction unit in its holding engagement on the shuttering panel, characterized in that the traction unit - comprises at least one traction element formed by a traction cable or a tensioning strap, or - is a combination of at least two of the above-mentioned traction elements, and - comprises at least one traction element formed by a traction cable or a tensioning strap, or - is a combination of at least two of the above-mentioned traction elements, and the tensioning device comprises a winding device for winding the traction cable or the tensioning strap.
Process for the workup of mixed acid and wastewater from the nitration of aromatics, in which the nitric acid present is reacted under adiabatic conditions by reaction with an aromatic, characterised in that a. at least one waste stream component is provided, selected from waste acid (mixed acid) generated during the nitration, acidic washing water from the workup of crude nitroaromatics, and dilute nitric acid generated in an off-gas treatment in the course of the nitration, b. the at least one waste stream component is mixed with re-concentrated sulfuric acid, c. an aromatic is metered in to the mixture in stoichiometric excess relative to the nitric acid, d. the reaction mixture obtained is reacted in an adiabatically operated reactor, e. the organic phase obtained is separated from the sulfuric acid phase in a separator, f. the sulfuric acid phase is concentrated under vacuum, and g. at least one partial stream of the re-concentrated sulfuric acid from step g) is employed in step b). a. at least one waste stream component is provided, selected from waste acid (mixed acid) generated during the nitration, acidic washing water from the workup of crude nitroaromatics, and dilute nitric acid generated in an off-gas treatment in the course of the nitration, b. the at least one waste stream component is mixed with re-concentrated sulfuric acid, c. an aromatic is metered in to the mixture in stoichiometric excess relative to the nitric acid, d. the reaction mixture obtained is reacted in an adiabatically operated reactor, e. the organic phase obtained is separated from the sulfuric acid phase in a separator, f. the sulfuric acid phase is concentrated under vacuum, and g. at least one partial stream of the re-concentrated sulfuric acid from step g) is employed in step b).
Oxygen separator for generating a flow of oxygen-enriched gas, said oxygen separator comprising: at least two oxygen separation devices (101, 102) arranged to separate oxygen from an oxygen comprising gas, said at least two oxygen separation devices (101, 102) each comprising a first end (101a, 102a) for receiving the oxygen comprising gas and a second end (101b, 102b) for delivering an oxygen-enriched gas, an equalization duct fluidically coupled to the respective second end (101b, 102b) of said at least two oxygen separation devices (101, 102) as to enable equilibrate an internal pressure of the at least two oxygen separation devices (101, 102), a first gas sensor is provided in the equalization duct such that the first gas sensor is arranged to monitor at least one component of the oxygen-enriched gas in said equalization duct, a control device arranged to control the oxygen separator based on the monitoring by the first gas sensor, wherein the at least two oxygen separation devices (101, 102) are fluidically coupled to a an exhaust duct, wherein said exhaust duct is fluidically coupled to each of the at least two oxygen separation devices (101, 102) in order to guide an exhaust gas from the at least two oxygen separation devices out of the oxygen separator, the oxygen separator further comprises a second gas sensor provided in the exhaust duct such that the second gas sensor is arranged to monitor at least one component of the exhaust gas; and where the control device is arranged to control said oxygen separator based on the monitoring by the first gas sensor and by the second gas sensor. at least two oxygen separation devices (101, 102) arranged to separate oxygen from an oxygen comprising gas, said at least two oxygen separation devices (101, 102) each comprising a first end (101a, 102a) for receiving the oxygen comprising gas and a second end (101b, 102b) for delivering an oxygen-enriched gas, an equalization duct fluidically coupled to the respective second end (101b, 102b) of said at least two oxygen separation devices (101, 102) as to enable equilibrate an internal pressure of the at least two oxygen separation devices (101, 102), a first gas sensor is provided in the equalization duct such that the first gas sensor is arranged to monitor at least one component of the oxygen-enriched gas in said equalization duct, a control device arranged to control the oxygen separator based on the monitoring by the first gas sensor, wherein the at least two oxygen separation devices (101, 102) are fluidically coupled to a an exhaust duct, wherein said exhaust duct is fluidically coupled to each of the at least two oxygen separation devices (101, 102) in order to guide an exhaust gas from the at least two oxygen separation devices out of the oxygen separator, the oxygen separator further comprises a second gas sensor provided in the exhaust duct such that the second gas sensor is arranged to monitor at least one component of the exhaust gas; and where the control device is arranged to control said oxygen separator based on the monitoring by the first gas sensor and by the second gas sensor.
An active grill shutter, comprising a vane, an electrical motor and a grill body, the vane being provided with a positioning tab and a rotation shaft that are fixedly connected, the electrical motor driving the positioning tab and the rotation shaft to rotate in a synchronized manner, so as to drive the vane altogether to rotate, the grill body being provided with a set of limiting ribs that limit the rotation angle of the positioning tab, the set of limiting ribs comprising an abutment edge, characterized in that the active grill shutter further comprises a vane protection structure which is a set of weakening holes provided on the positioning tab or a set of weakening grooves provided on the abutment edge, and which is capable of deforming so as to absorb the energy produced by a collision between the vane and the grill body.
A three-dimensional memory device (100, 200), comprising: a memory array structure; and a staircase structure (102, 202-1, 202-2) in an intermediate of the memory array structure (104, 204) and dividing the memory array structure (104, 204) into a first memory array structure and a second memory array structure along a first lateral direction, the staircase structure (102, 202-1, 202-2) comprising (i) a plurality of stairs (114, 214, 314, 414) extending along the first lateral direction, and (ii) a bridge structure (108, 208, 308, 408) in contact with the first memory array structure and the second memory array structure, each of the plurality of stairs (114, 214, 314, 414) comprising a stair above one or more pairs of dielectric layers, wherein each stair comprises a respective conductor portion (320, 420) on a top surface of the stair and in contact with and electrically connected to a respective conductive layer at the same level of the bridge structure (108, 208, 308, 408), and a dielectric portion at a same level and in contact with the conductor portion (320, 420), the stair being electrically connected to at least one of the first memory array structure and the second memory array structure through the respective conductive layer (330, 430) in the bridge structure (108, 208, 308, 408); and wherein a width (d) of conductor portion (320, 420) first decreases and then stays unchanged along a second lateral direction perpendicular to the first lateral direction and away from the bridge structure. a memory array structure; and a staircase structure (102, 202-1, 202-2) in an intermediate of the memory array structure (104, 204) and dividing the memory array structure (104, 204) into a first memory array structure and a second memory array structure along a first lateral direction, the staircase structure (102, 202-1, 202-2) comprising (i) a plurality of stairs (114, 214, 314, 414) extending along the first lateral direction, and (ii) a bridge structure (108, 208, 308, 408) in contact with the first memory array structure and the second memory array structure, each of the plurality of stairs (114, 214, 314, 414) comprising a stair above one or more pairs of dielectric layers, wherein each stair comprises a respective conductor portion (320, 420) on a top surface of the stair and in contact with and electrically connected to a respective conductive layer at the same level of the bridge structure (108, 208, 308, 408), and a dielectric portion at a same level and in contact with the conductor portion (320, 420), the stair being electrically connected to at least one of the first memory array structure and the second memory array structure through the respective conductive layer (330, 430) in the bridge structure (108, 208, 308, 408); and wherein a width (d) of conductor portion (320, 420) first decreases and then stays unchanged along a second lateral direction perpendicular to the first lateral direction and away from the bridge structure.
A device for inactivating microorganisms, in particular bacteria and/or viruses, which are located on and/or in an object having a bottom face, a top face and at least two side faces which connect the bottom face and the top face together, whereupon a volume is formed for receiving the object, characterized in that an inactivation device is provided in the volume for inactivating the microorganisms, wherein the inactivation device comprises at least one heating element disposed in front of the side faces for heating the volume and a guiding means for introducing a fluid into the volume, wherein the heating element is configured as an electric heater.
An orthopedic implant having a titanium or titanium alloy body with a plurality of surfaces, wherein the implant comprises bone-contacting surfaces and free surfaces, the orthopedic implant produced according to a process comprising the steps of: (a) additively building the orthopedic implant; and then (b) treating the orthopedic implant with hot isostatic pressure or with hot uniaxial pressure or to relieve stress; and then (c) mechanically, chemically, or mechanically and chemically eroding one or more of the bone- contacting surfaces and one or more of the free surfaces of the orthopedic implant to (i) remove alpha case from, and (ii) impart an osteoinducting roughness including micro-scale structures and nano-scale structures into the eroded surfaces, wherein the eroded surfaces are free from alpha case and wherein some of the free surfaces are eroded and some of the free surfaces are not eroded. (a) additively building the orthopedic implant; and then (b) treating the orthopedic implant with hot isostatic pressure or with hot uniaxial pressure or to relieve stress; and then (c) mechanically, chemically, or mechanically and chemically eroding one or more of the bone- contacting surfaces and one or more of the free surfaces of the orthopedic implant to (i) remove alpha case from, and (ii) impart an osteoinducting roughness including micro-scale structures and nano-scale structures into the eroded surfaces, wherein the eroded surfaces are free from alpha case and wherein some of the free surfaces are eroded and some of the free surfaces are not eroded.
A medical device (10, 110, 210, 310, 410, 510) comprising: a support structure (12, 112, 212, 312, 412, 512) that is collapsible and has a proximal end (20, 120, 220), a distal end (22, 122, 222), and an intermediate portion (24, 124, 224) situated between the proximal and distal ends; a flow media (14, 114, 214, 314, 414, 514) comprising a porous fabric received over and attached to an outside surface of the intermediate portion (24, 124, 224) of the support structure (12, 112, 212, 312, 412, 512); and a proximal capture feature (32, 132, 232) coupled to the proximal end (20, 120, 220) of the support structure (12, 112, 212, 312, 412, 512) and a distal capture feature (40, 140, 240) coupled to the distal end of the support structure, the proximal (32, 132, 232) and distal (40, 140, 240) capture features facilitating retrograde and antegrade deployment of the medical device (10, 110, 210, 310, 410, 510). and retrograde and antegrade capture of the medical device (10, 110, 210, 310, 410, 510). a support structure (12, 112, 212, 312, 412, 512) that is collapsible and has a proximal end (20, 120, 220), a distal end (22, 122, 222), and an intermediate portion (24, 124, 224) situated between the proximal and distal ends; a flow media (14, 114, 214, 314, 414, 514) comprising a porous fabric received over and attached to an outside surface of the intermediate portion (24, 124, 224) of the support structure (12, 112, 212, 312, 412, 512); and a proximal capture feature (32, 132, 232) coupled to the proximal end (20, 120, 220) of the support structure (12, 112, 212, 312, 412, 512) and a distal capture feature (40, 140, 240) coupled to the distal end of the support structure, the proximal (32, 132, 232) and distal (40, 140, 240) capture features facilitating retrograde and antegrade deployment of the medical device (10, 110, 210, 310, 410, 510). and retrograde and antegrade capture of the medical device (10, 110, 210, 310, 410, 510).
A catalyst composition for producing carbon nanotube represented by following formula. [Fe,Mo] x:M y:Al z wherein: [Fe, Mo] represents catalyst active material of iron, molybdenum, its oxide, or its derivative; A1 represents inactive support material of aluminum, its oxide, or its derivative; M represents at least one transition metal selected from Co, Ni, Ti, Mn, W, Sn, or Cu, its oxide, or its derivative; x, y, and z represent molar fraction of [the sum of Fe and Mo], M and Al, wherein x+y+z=10, 1.0≤x≤4.0, 0.1≤y≤3.0, 2.5≤z≤8.0; and the molar ratio of Fe:Mo is a:b, wherein a+b=10, 7.9≤a≤9.9, 0.1≤b≤2.1. [Fe, Mo] represents catalyst active material of iron, molybdenum, its oxide, or its derivative; A1 represents inactive support material of aluminum, its oxide, or its derivative; M represents at least one transition metal selected from Co, Ni, Ti, Mn, W, Sn, or Cu, its oxide, or its derivative; x, y, and z represent molar fraction of [the sum of Fe and Mo], M and Al, wherein x+y+z=10, 1.0≤x≤4.0, 0.1≤y≤3.0, 2.5≤z≤8.0; and the molar ratio of Fe:Mo is a:b, wherein a+b=10, 7.9≤a≤9.9, 0.1≤b≤2.1.