mhurhangee/ep-ind-claims huggingface dataset:
A female coupling, comprising: a coupling body defining a longitudinal axis and an internal space; a valve stem including a valve stem head, wherein the valve stem is in a fixed relationship with the coupling body; a valve assembly disposed within the internal space and comprising the valve stem head and a valve sleeve, wherein the valve sleeve is movable, along the longitudinal axis, relative to the coupling body and the valve stem head to open and close a flow path through the female coupling; a spring arranged to bias the valve sleeve against a seal member attached to the valve stem head to close the flow path through the female coupling; and a mechanism coupled to the coupling body and configured to latch a mated male coupling to the female coupling, the mechanism movable between a latched arrangement and an unlatched arrangement, wherein the valve stem head includes a protuberance extending from a front face of the valve stem head along the longitudinal axis, wherein the protuberance is optionally T-shaped. a coupling body defining a longitudinal axis and an internal space; a valve stem including a valve stem head, wherein the valve stem is in a fixed relationship with the coupling body; a valve assembly disposed within the internal space and comprising the valve stem head and a valve sleeve, wherein the valve sleeve is movable, along the longitudinal axis, relative to the coupling body and the valve stem head to open and close a flow path through the female coupling; a spring arranged to bias the valve sleeve against a seal member attached to the valve stem head to close the flow path through the female coupling; and a mechanism coupled to the coupling body and configured to latch a mated male coupling to the female coupling, the mechanism movable between a latched arrangement and an unlatched arrangement, wherein the valve stem head includes a protuberance extending from a front face of the valve stem head along the longitudinal axis, wherein the protuberance is optionally T-shaped.
Annular combustion chamber of a gas turbine engine, comprising an external wall and an internal wall which are connected by a wall forming the bottom of the chamber, said walls delimiting combustion furnaces whose axes are tilted with respect to the axis of the chamber, the wall of the bottom of the chamber, in the shape of a truncated cone, being drilled to form openings for fuel injection systems, the planes of the openings being perpendicular to the axes of said combustion furnaces, thermal protection deflectors centred on each of the openings comprising a flat shoulder by means of which they are supported against a flat surface portion along the periphery of the openings, the wall of the bottom of the chamber being formed as a succession of flat adjacent facets having a common border, with one facet per opening, the shoulder of the deflectors being supported against the plane of the facets, characterised by the fact that the minimum distance between two adjacent openings is smaller than a value of E = 9*e + 2*p + 5 in mm, "e" corresponding to the thickness of the sheet metal forming the wall of the bottom of the chamber and "p" corresponding to the width of said shoulder.
A display device comprising: a base layer on which a display area (DD-DA) and a non-display area (DD-NDA) are defined; a circuit layer comprising a first power electrode and driving circuits, which are disposed in the non-display area (DD-NDA); a first planarization layer defining a first opening therein and covering the driving circuits, the first power electrode being exposed through the first opening; a second power electrode disposed on the first planarization layer, contacting the first power electrode exposed through the first opening and overlapping at least a portion of the driving circuits in a plane view; a second planarization layer disposed on the first planarization layer, covering a portion of the second power electrode and defining a groove part in an area which overlaps the first planarization layer and the second power electrode in a plan view; a light emitting element layer comprising a first electrode disposed on the second planarization layer, an emission layer disposed on the first electrode, and a second electrode disposed on the emission layer; a connection electrode which contacts the second electrode and the second power electrode and electrically connects the second electrode to the second power electrode; and a thin film encapsulation layer disposed on the light emitting element layer. a base layer on which a display area (DD-DA) and a non-display area (DD-NDA) are defined; a circuit layer comprising a first power electrode and driving circuits, which are disposed in the non-display area (DD-NDA); a first planarization layer defining a first opening therein and covering the driving circuits, the first power electrode being exposed through the first opening; a second power electrode disposed on the first planarization layer, contacting the first power electrode exposed through the first opening and overlapping at least a portion of the driving circuits in a plane view; a second planarization layer disposed on the first planarization layer, covering a portion of the second power electrode and defining a groove part in an area which overlaps the first planarization layer and the second power electrode in a plan view; a light emitting element layer comprising a first electrode disposed on the second planarization layer, an emission layer disposed on the first electrode, and a second electrode disposed on the emission layer; a connection electrode which contacts the second electrode and the second power electrode and electrically connects the second electrode to the second power electrode; and a thin film encapsulation layer disposed on the light emitting element layer.
A table top washing machine, comprising: (a) a tub for accommodating articles to be cleaned; (b) means for circulating water within the tub; (c) a waste water drain comprising a drain port for draining water from the tub and a fitting for connecting a waste line to said drain port; wherein said waste water drain comprises an angled connector having a first leg connected to the drain port, and a second leg comprising the fitting, characterized in that said first leg is rotatably connected to the drain port, and wherein said waste water drain further comprises means (69, 70, 72, 74, 76) for limiting rotation of the first leg such that orienting the second leg to point in an upward direction is prevented, so that the second leg can only be directed downwardly or at maximum horizontally in order to prevent a back flow of water within the waste line. (a) a tub for accommodating articles to be cleaned; (b) means for circulating water within the tub; (c) a waste water drain comprising a drain port for draining water from the tub and a fitting for connecting a waste line to said drain port; wherein said waste water drain comprises an angled connector having a first leg connected to the drain port, and a second leg comprising the fitting, characterized in that said first leg is rotatably connected to the drain port, and wherein said waste water drain further comprises means (69, 70, 72, 74, 76) for limiting rotation of the first leg such that orienting the second leg to point in an upward direction is prevented, so that the second leg can only be directed downwardly or at maximum horizontally in order to prevent a back flow of water within the waste line.
An apparatus (100, 100a) suitable for single molecule sequencing comprising: at least one nanowell, wherein the at least one nanowell has an observation zone; a plurality of nucleic acid immobilization moieties (120a, 120b, 120c, 120d, 120e), disposed in or proximate to the observation zone; a plurality of types of nucleic acid fragments (130a, 130b, 130c, 130d, 130e), immobilized to the plurality of nucleic acid immobilization moieties (120a, 120b, 120c, 120d, 120e) respectively; only one primer molecule (160a, 160b, 160c); and at least one polymerase (140a, 140b, 140c, 140d), disposed in the observation zone. at least one nanowell, wherein the at least one nanowell has an observation zone; a plurality of nucleic acid immobilization moieties (120a, 120b, 120c, 120d, 120e), disposed in or proximate to the observation zone; a plurality of types of nucleic acid fragments (130a, 130b, 130c, 130d, 130e), immobilized to the plurality of nucleic acid immobilization moieties (120a, 120b, 120c, 120d, 120e) respectively; only one primer molecule (160a, 160b, 160c); and at least one polymerase (140a, 140b, 140c, 140d), disposed in the observation zone.
Process for preparing acrolein by catalytic dehydration reaction of glycerin characterized in that the dehydration reaction of glycerin is carried out in the presence of a supported catalyst comprising a W-containing metal oxide supported on a porous carrier, said porous carrier containing at least one metal oxide selected from a group comprising TiO 2, SiO 2, Al 2 O 3, ZrO 2 and Nb 2 O 5, a ratio in the pore volume of macropores having a pore size of not smaller than 50 nm to the pore volume of mesopores having a pore size of from larger than 2 nm to smaller than 50 nm being higher than 0.5, the pore volume of said porous carrier being higher than or equal to 0.30 cm 3 /g, the pore volume being measured by the mercury intrusion method.
A method, comprising: detecting, by a first device configured to operate in a first wireless network, interference to the first device from a second wireless network; transmitting from the first device, to a second device of the second wireless network, a notification indicating: the interference; and a time when the interference occurred; an identification of a device causing the interference; a future schedule of the first device; and instructions for: synchronizing the second device with the first device; and forwarding the notification from the second device to a control device (PNC B) associated with the second wireless network. detecting, by a first device configured to operate in a first wireless network, interference to the first device from a second wireless network; transmitting from the first device, to a second device of the second wireless network, a notification indicating: the interference; and a time when the interference occurred; an identification of a device causing the interference; a future schedule of the first device; and instructions for: synchronizing the second device with the first device; and forwarding the notification from the second device to a control device (PNC B) associated with the second wireless network. the interference; and a time when the interference occurred; an identification of a device causing the interference; a future schedule of the first device; and instructions for: synchronizing the second device with the first device; and forwarding the notification from the second device to a control device (PNC B) associated with the second wireless network. synchronizing the second device with the first device; and forwarding the notification from the second device to a control device (PNC B) associated with the second wireless network.
A connector assembly comprising: an outer housing longitudinally extending between a front end and a rear end, the rear end having an opening for receiving a cable; an inner housing located within the outer housing; a collet disposed around the cable at the rear end of the outer housing, the collet including longitudinally extending fingers configured to engage the cable; and a retainer secured to the rear end of the outer housing, characterized in that the inner housing has a shield (23, 24) that electrically couples with the cable to restrict emission of electromagnetic interference; and the retainer secures the collet between the outer housing and the retainer, wherein the retainer and the collet redirect strain imparted on the cable away from an interface between the shield (23, 24) and the cable.
An ignitor diagnostic device for detecting the presence of arcing between an energized spark rod and a housing, comprising: a flame rod for sensing an electromagnetic signal radiated by the spark rod when energized; sensing device coupled through a flame rod cable to the flame rod for receiving the electromagnetic signal from the flame rod and processing the electromagnetic signal to create a spark indication signal; a user interface adapted to provide output to a user; and a logic unit coupled to the user interface, the logic unit adapted to receive the spark indication signal from the sensing device, determine if arcing is occurring based upon the strength of the spark indication signal and provide this information to the user interface to cause an output to be displayed to the user. a flame rod for sensing an electromagnetic signal radiated by the spark rod when energized; sensing device coupled through a flame rod cable to the flame rod for receiving the electromagnetic signal from the flame rod and processing the electromagnetic signal to create a spark indication signal; a user interface adapted to provide output to a user; and a logic unit coupled to the user interface, the logic unit adapted to receive the spark indication signal from the sensing device, determine if arcing is occurring based upon the strength of the spark indication signal and provide this information to the user interface to cause an output to be displayed to the user.
A preparation method of trisodium AHU-377 and Valsartan co-crystal hydrate Form II, wherein the X-ray powder diffraction pattern (CuKa radiation) of said Form II has characteristic peaks at 2theta values of 4.3°±0.2°, 5.0°±0.2° and 12.8°±0.2°, said preparation method comprises the following steps: Step 1: preparing a clear solution containing trisodium AHU-377 and Valsartan, wherein said clear solution comprises a first solvent and a second solvent; the first solvent is an anti-solvent of Form II, and can form azeotrope with water, the second solvent is a good solvent of Form II, and the boiling point of the second solvent is lower than that of the first solvent; Step 2: evaporating the clear solution obtained in Step 1 under vacuum or under nitrogen purging to remove the second solvent and water from the system; and Step 3: mixing the system obtained in Step 2 with water, a third solvent and with or without seed crystals of Form II, then stirring for crystallization, filtering, washing and drying to obtain Form II, wherein said third solvent is an anti-solvent of Form II, which is miscible in the first solvent, and water is soluble in said third solvent; wherein the first solvent is one or more solvents selected from methylbenzene, xylene, cyclohexane, isopropyl acetate and methyl isobutyl ketone, and/or the second solvent is methanol or ethanol or a combination thereof, and/or the third solvent is one or more solvents selected from ethyl acetate, acetone, 2-butanone, isopropyl acetate and methyl isobutyl ketone. Step 1: preparing a clear solution containing trisodium AHU-377 and Valsartan, wherein said clear solution comprises a first solvent and a second solvent; the first solvent is an anti-solvent of Form II, and can form azeotrope with water, the second solvent is a good solvent of Form II, and the boiling point of the second solvent is lower than that of the first solvent; Step 2: evaporating the clear solution obtained in Step 1 under vacuum or under nitrogen purging to remove the second solvent and water from the system; and Step 3: mixing the system obtained in Step 2 with water, a third solvent and with or without seed crystals of Form II, then stirring for crystallization, filtering, washing and drying to obtain Form II, wherein said third solvent is an anti-solvent of Form II, which is miscible in the first solvent, and water is soluble in said third solvent; wherein
A membrane of selective permeability, said membrane comprising a porous polymer and terminating on one side in a skin, with open-ended nanotubes embedded in and protruding through opposite surfaces of said skin to provide fluid communication through each of said nanotubes through said membrane, and said skin forming a substantially impermeable barrier around said nanotubes, said membrane having pores increasing in diameter with increasing distance from said skin, wherein the membrane is fabricated by the process of: (a) coating a substrate with a film of polymer solution comprising a polymer dissolved in a solvent; (b) forming over said film of polymer solution a nanotube dispersion layer comprising nanotubes dispersed in a liquid carrier that is partially miscible with, but forms a separate liquid phase from, said polymer solution; (c) evaporating said liquid carrier from said nanotube dispersion layer to leave a residual nanotube dispersion layer over said substrate, said residual nanotube dispersion layer comprising said nanotubes dispersed in said polymer solution and protruding from said nanotube dispersion layer; and (d) contacting said residual nanotube dispersion layer with a liquid that is at least partially miscible with said solvent but in which said polymer is substantially insoluble, to cause precipitation of said polymer to form a porous membrane. (a) coating a substrate with a film of polymer solution comprising a polymer dissolved in a solvent; (b) forming over said film of polymer solution a nanotube dispersion layer comprising nanotubes dispersed in a liquid carrier that is partially miscible with, but forms a separate liquid phase from, said polymer solution; (c) evaporating said liquid carrier from said nanotube dispersion layer to leave a residual nanotube dispersion layer over said substrate, said residual nanotube dispersion layer comprising said nanotubes dispersed in said polymer solution and protruding from said nanotube dispersion layer; and (d) contacting said residual nanotube dispersion layer with a liquid that is at least partially miscible with said solvent but in which said polymer is substantially insoluble, to cause precipitation of said polymer to form a porous membrane.
A method performed by a wireless device operating in both a first network and a second network wherein the wireless device is in an idle/inactive state in the second network, the method comprising: determining a periodic pattern for performing a set of idle/inactive mode procedures in the second network; transmitting a first indication of the determined periodic pattern to the first network; monitoring an occurrence of at least one idle/inactive event in the second network, the at least one idle/inactive event comprising a periodic event; and transmitting a second indication of the occurrence of the at least one idle/inactive event to the first network, characterized in that the second indication comprises an updated periodic pattern based on the determined periodic pattern and the occurrence of the at least one idle/inactive event. determining a periodic pattern for performing a set of idle/inactive mode procedures in the second network; transmitting a first indication of the determined periodic pattern to the first network; monitoring an occurrence of at least one idle/inactive event in the second network, the at least one idle/inactive event comprising a periodic event; and transmitting a second indication of the occurrence of the at least one idle/inactive event to the first network, characterized in that the second indication comprises an updated periodic pattern based on the determined periodic pattern and the occurrence of the at least one idle/inactive event.
Method for improving exhaust gas recirculation in an internal combustion engine, in particular a diesel engine, having an exhaust gas turbocharger, which comprises the following method steps: (i) determining operating parameters of the internal combustion engine in order to determine pressure values of the exhaust gas; (ii) controlled feeding of compressed air based on the pressure values thus determined for the exhaust gas in order to generate a vacuum in a feed section of a gas feed device; (iii) sucking a portion of exhaust gas of the internal combustion engine into the feed section of the gas feed device by means of the vacuum generated; and (iv) recirculating the thus sucked-in portion of the exhaust gas into the internal combustion engine via an intake line connected to the gas feed device, wherein the controlled feeding of compressed air is performed by switching on a valve when a measured pressure value of the exhaust gas falls below a predefined comparison value, characterized in that the compressed air downstream of the valve is guided through a venturi arrangement and/or an injector pump into which the sucked-in portion of exhaust gas is guided, wherein the feed section comprises the venturi arrangement and/or the injector pump. (i) determining operating parameters of the internal combustion engine in order to determine pressure values of the exhaust gas; (ii) controlled feeding of compressed air based on the pressure values thus determined for the exhaust gas in order to generate a vacuum in a feed section of a gas feed device; (iii) sucking a portion of exhaust gas of the internal combustion engine into the feed section of the gas feed device by means of the vacuum generated; and (iv) recirculating the thus sucked-in portion of the exhaust gas into the internal combustion engine via an intake line connected to the gas feed device,
A method for operating an inverter, the DC voltage input of which is connected to a positive pole (PV+) and to a negative pole (PV-) of a PV generator and the AC voltage output of which is connected to an AC grid via a transformer, the method comprising the following steps of: • determining a potential of the positive and/or negative pole ( U PV +, U PV-) of the PV generator with respect to a ground potential by a monitoring means, • selecting a modulation method for controlling power switches of the inverter from a number of modulation methods stored in a storage device of the inverter on the basis of the previously determined potential ( U PV +, U PV-) wherein the modulation method selected from the number of modulation methods stored in the storage device of the inverter is the one that reduces a voltage stress with respect to ground of components of the PV system arranged on the AC side when these potentials are present, • applying the selected modulation method to control the power switches for converting a DC input voltage into an AC output voltage. • determining a potential of the positive and/or negative pole ( U PV +, U PV-) of the PV generator with respect to a ground potential by a monitoring means, • selecting a modulation method for controlling power switches of the inverter from a number of modulation methods stored in a storage device of the inverter on the basis of the previously determined potential ( U PV +, U PV-) wherein the modulation method selected from the number of modulation methods stored in the storage device of the inverter is the one that reduces a voltage stress with respect to ground of components of the PV system arranged on the AC side when these potentials are present, • applying the selected modulation method to control the power switches for converting a DC input voltage into an AC output voltage.