mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for precipitation of water, wherein the apparatus contains particles of organic and / or inorganic insoluble material suspended in water, the apparatus further comprises a non-conductive mast; a plurality of spraying nozzles for ejecting droplets in an upward direction and mounted at the top of the non-conductive mast; at least one insulated charging electrode, arranged adjacent to the plurality of spraying nozzles, for ionizing the droplets, wherein the charging electrode is located in ejection direction above the spraying nozzles and connected to a high-voltage direct current power supply, characterized in that the apparatus further comprising at least one internal tank supported by the non-conductive mast for storing the particles of organic and / or inorganic insoluble material suspended in water; and a pump accommodated in the non-conductive mast, being with direct connection to the spraying nozzles and direct connection to the at least one internal tank through at least one pipe or hose (24, 28, 40), wherein the spraying nozzles are fed with the particles of organic and / or inorganic insoluble material suspended in water by the pump, and the pump is electrically coupled with a low voltage direct current supply. a non-conductive mast; a plurality of spraying nozzles for ejecting droplets in an upward direction and mounted at the top of the non-conductive mast; at least one insulated charging electrode, arranged adjacent to the plurality of spraying nozzles, for ionizing the droplets, wherein the charging electrode is located in ejection direction above the spraying nozzles and connected to a high-voltage direct current power supply, characterized in that the apparatus further comprising at least one internal tank supported by the non-conductive mast for storing the particles of organic and / or inorganic insoluble material suspended in water; and a pump accommodated in the non-conductive mast, being with direct connection to the spraying nozzles and direct connection to the at least one internal tank through at least one pipe or hose (24, 28, 40), wherein the spraying nozzles are fed with the particles of organic and / or inorganic insoluble material suspended in water by the pump, and the pump is electrically coupled with a low voltage direct current supply.
A pharmaceutical formulation comprising mebendazole wherein at least 90% of the mebendazole in the formulation is polymorph C, and wherein the formulation is granulated.
A computer-implemented method of managing a replicated database instance in a database environment using a separate control environment, comprising: under control of one or more computer systems configured with executable instructions, monitoring state information for each of a primary instance replica and a secondary instance replica in a database environment using a monitoring component of a separate control environment; and in response to the monitoring component being unable to communicate with one of the first and second instance replicas: determining failure information including whether the first and second instance replicas are able to communicate with each other and whether the first and second instance replicas have a common data generation identifier; based at least in part upon the failure information, determining a workflow to be executed in the control environment, the workflow including one or more tasks to be executed in the database environment in response to the monitoring component being unable to communicate with one of the first and second instance replicas; and executing the workflow in the control environment. determining failure information including whether the first and second instance replicas are able to communicate with each other and whether the first and second instance replicas have a common data generation identifier; based at least in part upon the failure information, determining a workflow to be executed in the control environment, the workflow including one or more tasks to be executed in the database environment in response to the monitoring component being unable to communicate with one of the first and second instance replicas; and executing the workflow in the control environment.
Hydraulic cylinder, particularly slave cylinder for a hydraulic actuating system for motor vehicles, comprising a piston subassembly comprising a piston and a piston rod, a cylinder housing in which a pressure chamber variably bounded at one side by the piston and fixedly bounded at the other side by a base of the cylinder housing is provided, a spring element arranged at the side of the piston remote from the pressure chamber, the spring element being supported at one end on a spring plate of the hydraulic cylinder on the housing side which is separate from the cylinder housing, and operatively connected at the other end with the piston rod so as to bias the piston subassembly in a direction away from the base of the cylinder housing, and a fixing section fixing the piston subassembly in a predetermined stroke setting with respect to the cylinder housing prior to first actuation of the hydraulic cylinder and constructed to release the piston subassembly relative to the cylinder housing when first actuation of the hydraulic cylinder takes place, characterized in that the fixing section is formed at the spring plate and co-operates with a mating section at the piston rod for releasable fixing of the piston subassembly with respect to the cylinder housing.
Plug screw feeder for conveying feedstock from an inlet area to an outlet area, where the areas (2, 7) have different pressure levels, and for dewatering the feedstock at the same time by means of compression, with a housing and a rotating screw with a screw length L in axial direction, where the rotating screw is designed in several detachable parts and at least one detachable connection in the multi-part, rotating screw is disposed within the screw length L, where within the screw length L at least two parts (10, 11) of the multi-part, rotating screw are made of different metal materials, characterised in that at least one part of the multi-part, rotating screw is made of cast iron containing less than 1% by mass chromium, where the cast iron has a minimum hardness of 260 HB30, minimum tensile strength R m of 800 N/mm 2 and elongation at break in the range of 1 to 10%, and the at least one part is disposed in the low-load area of the plug screw feeder.
A frame structure adapted for use with a stent graft, the frame structure comprising: a scallop region having a first end portion, a second end portion, and a perimeter that defines an aperture, wherein a lumen extends between the first and second end portions; and a Z-form region extending from the scallop region and comprising a plurality of Z-shaped struts, each of which has a first end and a second end that is connected to the scallop region at different points so as to form a central frame structure lumen; wherein the second end portion of the scallop region includes a backstop that is deployable from a first flattened configuration to a second erect configuration; wherein the backstop, in the second erect configuration, is sized and dimensioned to extend into a lumen of an aortic arch branch vessel, the aperture being sized and dimensioned so that the central frame structure lumen is in fluid communication with the lumen of each of the aortic arch branch vessels when the frame structure is implanted in a subject. a scallop region having a first end portion, a second end portion, and a perimeter that defines an aperture, wherein a lumen extends between the first and second end portions; and a Z-form region extending from the scallop region and comprising a plurality of Z-shaped struts, each of which has a first end and a second end that is connected to the scallop region at different points so as to form a central frame structure lumen; wherein the second end portion of the scallop region includes a backstop that is deployable from a first flattened configuration to a second erect configuration; wherein the backstop, in the second erect configuration, is sized and dimensioned to extend into a lumen of an aortic arch branch vessel, the aperture being sized and dimensioned so that the central frame structure lumen is in fluid communication with the lumen of each of the aortic arch branch vessels when the frame structure is implanted in a subject.
A computer implemented method for visualising a 3D dental restoration (104, 105) on a 2D image of the mouth of a patient, wherein the method comprises - obtaining a 3D dental model of at least a part of the patient's oral cavity - designing the 3D dental restoration (104, 105), - obtaining the 2D image of the mouth of the patient, - estimating a virtual camera comprising at least one virtual camera property corresponding to at least one physical camera property of the physical camera used to obtain the 2D image, - viewing the 3D dental restoration (104, 105) using the virtual camera - determining the visible area (104', 105') of the 3D dental restoration, which is not overlapped by surrounding anatomic features when viewed with the virtual camera, - imaging the visible area (104', 105') of the 3D dental restoration with the 2D image, characterized therein that the visible area (104', 105') of the 3D dental restoration is imaged with the 2D image by projecting the visible area (104', 105') of the 3D dental restoration onto the 2D image. - obtaining a 3D dental model of at least a part of the patient's oral cavity - designing the 3D dental restoration (104, 105), - obtaining the 2D image of the mouth of the patient, - estimating a virtual camera comprising at least one virtual camera property corresponding to at least one physical camera property of the physical camera used to obtain the 2D image, - viewing the 3D dental restoration (104, 105) using the virtual camera - determining the visible area (104', 105') of the 3D dental restoration, which is not overlapped by surrounding anatomic features when viewed with the virtual camera, - imaging the visible area (104', 105') of the 3D dental restoration with the 2D image, characterized therein that the visible area (104', 105') of the 3D dental restoration is imaged with the 2D image by projecting the visible area (104', 105') of the 3D dental restoration onto the 2D image.
Apparatus for heat shrinking a film wrapping an object, the apparatus comprising: - a housing having a heat treatment chamber for containing steam, - a transport device for supporting and moving the object through the heat treatment chamber, - at least one steam supply for supplying steam to the heat treatment chamber, - at least a steam outlet device comprising one or more outlets for steam, the outlet device connected to the steam supply, the steam outlet device disposed in the heat treatment chamber along the transport device, the one or more outlets directed towards the moving object, wherein the housing further comprises a window arranged to allow an operator to look inside the heat treatment chamber, wherein the apparatus further comprises a blurring reduction system comprising a air flow generator, such as a vent, for generating an air flow along and directed at an inner side of the window and a air inlet for the intake of air from outside the heat treatment chamber and the air flow generator is arranged to direct the air onto an inner side of the window. - a housing having a heat treatment chamber for containing steam, - a transport device for supporting and moving the object through the heat treatment chamber, - at least one steam supply for supplying steam to the heat treatment chamber, - at least a steam outlet device comprising one or more outlets for steam, the outlet device connected to the steam supply, the steam outlet device disposed in the heat treatment chamber along the transport device, the one or more outlets directed towards the moving object,
A paper strength agent composed of an aqueous solution of including an acrylamide-based polymer being a polymer of a polymer component, wherein the polymer component consists of (meth)acrylamide, a quaternary ammonium-based monomer, and (meth)allylsulfonic acid salt. the polymer component consists of (meth)acrylamide, a quaternary ammonium-based monomer, and (meth)allylsulfonic acid salt.
A method for controlling a vapour compression system, the vapour compression system comprising a compressor unit comprising one or more compressors, a heat rejecting heat exchanger, an ejector, a receiver, at least one expansion device and at least one evaporator arranged in a refrigerant path, an outlet of the heat rejecting heat exchanger being connected to a primary inlet of the ejector, an outlet of the ejector being connected to an inlet of the receiver, and an outlet of the evaporator being connected to a secondary inlet of the ejector and to an inlet of the compressor unit, wherein the vapour compression system further comprises a non-return valve arranged in the refrigerant path between the outlet of the evaporator and the inlet of the compressor unit, in such a manner that a refrigerant flow from the outlet of the evaporator towards the inlet of the compressor unit is allowed, while a fluid flow from the inlet of the compressor unit towards the outlet of the evaporator is prevented, and wherein a gaseous outlet of the receiver is connected to the inlet of the compressor unit via a bypass valve, characterized in that the method comprises the steps of: - measuring a pressure, P 0, of refrigerant leaving the evaporator, - obtaining a value being representative for a pressure, P suc, of refrigerant entering the compressor unit, - comparing the pressures, P 0 and P suc, to respective reference pressure values, P 0,ref and P suc,ref, - in the case that ε 0 >ε suc, where ε 0 =P 0 -P 0,ref and ε suc =P suc -P suc,ref, controlling the compressor unit based on P 0, and - in the case that ε suc >ε 0, controlling the compressor unit based on P suc. - measuring a pressure, P 0, of refrigerant leaving the evaporator, - obtaining a value being representative for a pressure, P suc, of refrigerant entering the compressor unit, - comparing the pressures, P 0 and P suc, to respective reference pressure values, P 0,ref and P suc,ref, - in the case that ε 0 >ε suc, where ε 0 =P 0 -P 0,ref and ε suc =P suc -P suc,ref, controlling the compressor unit based on P 0, and - in the case that ε suc >ε 0, controlling the compressor unit based on P suc.
A lane keeping control method, comprising: receiving vehicle information and image information from a vehicle sensor and a camera sensor; calculating a target distance by using the vehicle speed information and the image information; generating coordinates of a target point according to the target distance by using the vehicle speed information and the image information and generating a target trace to the target point as a circular trace; and calculating a target yaw rate (YR des) based on the vehicle speed information and the curvature of the target trace after the generating of the target trace, characterized in that in the generating of the target trace the coordinates of the target point are calculated by equations, y = ρ road L 2 − ε 2 2 1 − ρ road ε − ε and x = L 2 − y 2, wherein y is a transverse distance to the target point, x is a longitudinal distance to the target point, ρ road is curvature of a center of a lane, L is the target distance, and ε is an offset value from the vehicle to the center of the lane. receiving vehicle information and image information from a vehicle sensor and a camera sensor; calculating a target distance by using the vehicle speed information and the image information; generating coordinates of a target point according to the target distance by using the vehicle speed information and the image information and generating a target trace to the target point as a circular trace; and calculating a target yaw rate (YR des) based on the vehicle speed information and the curvature of the target trace after the generating of the target trace, characterized in that in the generating of the target trace the coordinates of the target point are calculated by equations, y = ρ road L 2 − ε 2 2 1 − ρ road ε − ε and x = L 2 − y 2, wherein y is a transverse distance to the target point, x is a longitudinal distance to the target point, ρ road is curvature of a center of a lane, L is the target distance, and ε is an offset value from the vehicle to the center of the lane.
A rotating electrical machine comprising a stator coil and an electrically insulated coil slotted therein via a slot liner, the electrically insulated coil including a conductor, and a mica tape wrapped around the conductor, wherein the slot liner and the mica tape are cured with an impregnating resin, wherein the liner cured portion formed of the slot liner and the impregnating resin contains an epoxy resin having 3 or more epoxy groups, a bifunctional epoxy resin, and an acid curing agent having one acid anhydride skeleton, and wherein a mica cured portion formed of the mica tape and the impregnating resin contains an alicyclic epoxy resin, a bifunctional epoxy resin, and an acid curing agent having one acid anhydride skeleton.
Support device for supporting a tube on a tube working machine, particularly a laser tube cutting machine, the device comprising a pivoting arm arranged to be rotatably supported at an end thereof by a base of the machine for rotation about a first axis of rotation oriented transversely to the direction of the longitudinal axis (x) of the tube as the tube is being fed by a tube-carrying carriage of the machine to a working head of the machine, a cylindrical roller mounted at the opposite end of the pivoting arm with its axis oriented parallel to the first axis of rotation, a first driving system (28,36,38) for controlling the angular position of the pivoting arm about the first axis of rotation, characterized in that the device further comprises a variable-profile support member rotatably mounted at the free end of the pivoting arm for rotation about a second axis of rotation parallel to the first axis of rotation, wherein the support member has a cavity for receiving the tube whose cross-sectional profile has a variable size depending on the angular position of the support member about the second axis of rotation, and wherein the support member is movable, by rotation about the second axis of rotation, between a working position, in which the support member receives the tube in the cavity, and a non-working position, in which the support member is placed underneath the cylindrical roller, thereby allowing the tube to be supported on the cylindrical roller, and a second driving system (42, 44, 46, 48, 50) for controlling the angular position of the support member about the second axis of rotation.
A spiral wound reverse osmosis membrane element which is formed by winding at least one set of water purification membrane module around a central treated water pipe, and each set of the water purification membrane module is formed by laminating a mesh-like treated water flow guiding member, a reverse osmosis membrane and a mesh-like feed water flow guiding member; the reverse osmosis membrane is folded at a folded side to form a feed water flow channel therein along its inner surface; a treated water flow channel is formed between outer surfaces of adjacent reverse osmosis membranes; the mesh-like feed water flow guiding member is disposed inside the feed water flow channel; the mesh-like treated water flow guiding channel is disposed inside the treated water flow channel; the treated water flow channel is opened only at a treated water outlet which opens towards the central treated water tube, and the treated water flow channel is closed and sealed at remaining three sides; the feed water flow channel is closed and sealed at areas remote from the central treated water tube at two sides adjacent to the folded side, so that the feed water flow channel forms small sections of raw water inlets respectively at areas closer to the central treated water tube at the two sides, and a concentrate outlet is formed at the feed water flow channel at a side opposite to the folded side.
An assay device for determining a concentration of hemoglobin in a blood fluid sample, wherein the assay device comprises: a separation membrane (461, 806), wherein the separation membrane contains a cell lysing reagent in the form of sodium lauryl sulfate, wherein the cell lysing reagent is present on the separation membrane in an amount greater than 200 micrograms/square centimeter to less than 675 micrograms/square centimeter based on the dry weight of the cell lysing reagent on the separation membrane; and a detection membrane (530, 812) located downstream from the separation membrane and configured to elicit a quantifiable response in the presence of hemoglobin in the blood fluid sample, wherein the quantifiable response corresponds to an amount of hemoglobin present in the blood fluid sample, wherein the detection membrane is asymmetric and has a first plurality of pores located towards an upstream side of the detection membrane and a second plurality of pores located towards a downstream side of the detection membrane, wherein the first plurality of pores have an average pore size that is larger than an average pore size of the second plurality of pores. a separation membrane (461, 806), wherein the separation membrane contains a cell lysing reagent in the form of sodium lauryl sulfate, wherein the cell lysing reagent is present on the separation membrane in an amount greater than 200 micrograms/square centimeter to less than 675 micrograms/square centimeter based on the dry weight of the cell lysing reagent on the separation membrane; and a detection membrane (530, 812) located downstream from the separation membrane and configured to elicit a quantifiable response in the presence of hemoglobin in the blood fluid sample, wherein the quantifiable response corresponds to an amount of hemoglobin present in the blood fluid sample, wherein the detection membrane is asymmetric and has a first plurality of pores located towards an upstream side of the detection membrane and a second plurality of pores located towards a downstream side of the detection membrane, wherein the first plurality of pores have an average pore size that is larger than an average pore size of the second plurality of pores.
Leaf for a swing-type gate, having two articulation mechanisms provided to secure said leaf to a support pillar, said leaf comprising a metal frame created by fitting together at least two horizontal tubular crosspieces, to proximal and distal vertical tubular uprights, each of the two crosspieces,, in order to be connected to the proximal and distal uprights, being engaged in an aperture created in the wall, facing the inside of the frame, of the corresponding upright, and being fixed to the latter, each crosspiece, being immobilized in the corresponding upright, by means of a transverse key pin that is secured to said upright (5, 6) and extends inside the latter along the longitudinal geometric axis of the latter or parallel to this said longitudinal axis, wherein said pin passes all the way through said crosspiece and is engaged in one or more through holes created in said crosspiece (3, 4), the proximal upright engaging, by means of its upper and lower ends, with the two articulation mechanisms, each mechanism consisting on one hand of an end piece rigidly fixed in the corresponding end of the proximal upright, and provided with a vertical bearing in the form of a bushing and on the other hand of a hinge provided with a fitting for fixing to the support pillar and with a vertical cylindrical articulation axle or with a journal, provided to be engaged in the vertical bearing which comprises the end piece, characterized in that the key pin consists of at least one of the elements vertical bearing or articulation axle or journal.
Bradykinin receptor 1 (B1 R) agonist for use as a medicament for modulating collateral blood vessel growth of collateral arteries and/or other blood vessels of pre-existing arterial networks in prophylactic treatment (prevention) of cardiovascular ischemic disease in a patient at risk thereof.