mhurhangee/ep-ind-claims huggingface dataset:
A use of a circuit arrangement having an active measuring voltage (U G) for determining an insulation resistance (R F) or a complex-valued insulation impedance (Z F) of an ungrounded power supply system against ground potential, the circuit arrangement having a measuring path which runs between an active conductor (L1, L2) of the power supply system and the ground potential and comprises a measuring-voltage generator (V G) for generating the measuring voltage (U G), a measuring resistance (R M) for capturing a measured voltage (U M) and a coupling resistance (R A), the circuit arrangement comprising a signal evaluation circuit which comprises a signal input for evaluating the measured voltage (U M) and a ground connection, the ground connection being connected to the ground potential the ground potential, the measuring-voltage generator (V G), the measuring resistance (R M) and the coupling resistance (R A) making up a series connection in the measuring path in a first order, at least two of the active conductors (L1, L2) each being connected to the ground potential via a measuring path by means of a multi-pole coupling in an ungrounded power supply system having at least two active conductors (L1, L2) and the measuring paths being realized individually, characterized in that the corresponding measuring-voltage generators (V G) generate different measuring voltages (U G) to test the functionality of the couplings. the ground potential, the measuring-voltage generator (V G), the measuring resistance (R M) and the coupling resistance (R A) making up a series connection in the measuring path in a first order, at least two of the active conductors (L1, L2) each being connected to the ground potential via a measuring path by means of a multi-pole coupling in an ungrounded power supply system having at least two active conductors (L1, L2) and the measuring paths being realized individually, characterized in that the corresponding measuring-voltage generators (V G) generate different measuring voltages (U G) to test the functionality of the couplings.
Use of a 5-10% aqueous ammonium carbonate solution in quantitative stripping of anyone or more of Uranium, Plutonium, di-butyl phosphate and fission products from TBP based spent solvent into the aqueous ammonium carbonate phase without any emulsion or crud or precipitation formation such as to leave the resultant TBP based spent solvent with U and Pu levels of less than 5 mg/L and di-butyl phosphate levels of less than 10 mg/L.
A method for transmitting signals in a subsea environment, comprising: transmitting an acoustic signal from a first subsea autonomous vehicle (124, 134) through water in the subsea environment to a second subsea autonomous vehicle (164, 174) positioned at a shallower depth than the first subsea autonomous vehicle (124, 134), determining that a quality of the acoustic signal is below a threshold by sonar scanning a half-sphere horizon between the first subsea autonomous vehicle (124, 134) and the second subsea autonomous vehicle (164, 174) to detect an acoustic interference in a transmission path between the first subsea autonomous vehicle (124, 134) and the second subsea autonomous vehicle (164, 174); and adjusting a parameter of the first subsea autonomous vehicle (124, 134), the second subsea autonomous vehicle (164, 174), or both to improve the quality of the acoustic signal when the quality of the acoustic signal is below the threshold. transmitting an acoustic signal from a first subsea autonomous vehicle (124, 134) through water in the subsea environment to a second subsea autonomous vehicle (164, 174) positioned at a shallower depth than the first subsea autonomous vehicle (124, 134), determining that a quality of the acoustic signal is below a threshold by sonar scanning a half-sphere horizon between the first subsea autonomous vehicle (124, 134) and the second subsea autonomous vehicle (164, 174) to detect an acoustic interference in a transmission path between the first subsea autonomous vehicle (124, 134) and the second subsea autonomous vehicle (164, 174); and adjusting a parameter of the first subsea autonomous vehicle (124, 134), the second subsea autonomous vehicle (164, 174), or both to improve the quality of the acoustic signal when the quality of the acoustic signal is below the threshold.
A stator arrangement for an air-cooled electric machine, the arrangement comprising: a stator with an outer stator surface, an opening therein defining an inner stator surface, and longitudinally opposed stator end surfaces, (54, 64) conductive coils supported by the stator, the conductive coils including end turns overlying the longitudinally opposed stator end surfaces (54, 64), and sealable protective barriers mounted over the end turns and sealed to the stator to block out environmental contaminants from crossing the protective barriers and contacting encapsulant there within to prevent conductive coil shorting or grounding, wherein said protective barriers define axial necks protruding into said opening, characterized in that the axial necks are joined together within said opening at adjacent terminal ends. a stator with an outer stator surface, an opening therein defining an inner stator surface, and longitudinally opposed stator end surfaces, (54, 64) conductive coils supported by the stator, the conductive coils including end turns overlying the longitudinally opposed stator end surfaces (54, 64), and sealable protective barriers mounted over the end turns and sealed to the stator to block out environmental contaminants from crossing the protective barriers and contacting encapsulant there within to prevent conductive coil shorting or grounding, wherein said protective barriers define axial necks protruding into said opening, characterized in that the axial necks are joined together within said opening at adjacent terminal ends.
A spray nozzle (12, 112) comprising: a nozzle body having a first portion and a second portion, the first portion having a cylindrical configuration, the second portion including a dome-shaped end wall, the first and second portions of the nozzle body defining an internal fluid passage having an inlet end and a downstream end defined by the dome-shaped end wall; a flow control element arranged at the inlet end of the internal fluid passage, the flow control element including a pre-orifice through which fluid can enter the internal fluid passage of the nozzle body; and first and second discharge orifices (44, 46, 144, 146) in the dome-shaped end wall (42, 142) with each of the first and second discharge orifices being arranged on a respective one of opposing first and second sides of an apex of the dome-shaped end wall, the first and second discharge orifices each having an elongated slit-like configuration that is relatively narrower in width at a first end (54, 55) thereof than at a second end (56, 57) thereof with the first end being arranged relatively closer to the apex than the second end, a portion of the first and second discharge orifices near the first end (54, 55) of each discharge orifice being in overlapping relation when viewed from the first side towards the second side, and said first and second discharge orifices being in parallel relation to each other and each widen continuously as the respective discharge orifice extends from the first end (54, 55) to the second end (56, 57) for producing a fan shaped fluid discharge pattern from the spray nozzle with even distribution. a nozzle body having a first portion and a second portion, the first portion having a cylindrical configuration, the second portion including a dome-shaped end wall, the first and second portions of the nozzle body defining an internal fluid passage having an inlet end and a downstream end defined by the dome-shaped end wall; a flow control element arranged at the inlet end of the internal fluid passage, the flow control element including a pre-orifice through which fluid can enter the internal fluid passage of the nozzle body; and first and second discharge orifices (44, 46, 144, 146) in the dome-shaped end wall (42, 142) with each of the first and second discharge orifices being arranged on a respective one of opposing first and second sides of an apex of the dome-shaped end wall, the first and second discharge orifices each having an elongated slit-like configuration that is relatively narrower in width at a first end (54, 55) thereof than at a second end (56, 57) thereof with the first end being arranged relatively closer to the apex than the second end, a portion of the first and second discharge orifices near the first end (54, 55) of each discharge orifice being in overlapping relation when viewed from the first side towards the second side, and said first and second discharge orifices being in parallel relation to each other and each widen continuously as the respective discharge orifice extends from the first end (54, 55) to the second end (56, 57) for producing a fan shaped fluid discharge pattern from the spray nozzle with even distribution.
A valve, comprising: a body that defines an aperture and a first bore; a shaft that is at least partially positioned within the first bore, wherein the shaft has a groove to receive a retainer that at least partially surrounds and which is positioned within the groove; a fluid flow control member positioned within the aperture and operatively coupled to the shaft to control a flow of fluid through the valve; a packing follower (514, 600) that is coupled to the valve and at least partially positioned within the first bore, wherein the packing follower comprises: an elongated portion (517, 600) and a second bore therethrough to receive the shaft, wherein the second bore has a tapered portion configured to exert a force on the retainer when the shaft moves toward an opening of the packing follower, and wherein the force has a first component in a direction perpendicular to a longitudinal axis of the bore and a second component smaller than the first component in a direction parallel to the longitudinal axis of the bore. a body that defines an aperture and a first bore; a shaft that is at least partially positioned within the first bore, wherein the shaft has a groove to receive a retainer that at least partially surrounds and which is positioned within the groove; a fluid flow control member positioned within the aperture and operatively coupled to the shaft to control a flow of fluid through the valve; a packing follower (514, 600) that is coupled to the valve and at least partially positioned within the first bore, wherein the packing follower comprises: an elongated portion (517, 600) and a second bore therethrough to receive the shaft, wherein the second bore has a tapered portion configured to exert a force on the retainer when the shaft moves toward an opening of the packing follower, and wherein the force has a first component in a direction perpendicular to a longitudinal axis of the bore and a second component smaller than the first component in a direction parallel to the longitudinal axis of the bore.
A cutting unit for the cutting of a substrate band for an aerosol-generating device, wherein the substrate band has a longitudinally-extending axis and wherein the cutting unit comprises: feed means for feeding the substrate band along a feed direction parallel to the extension axis; and a cutting head comprising a cutting edge having a closed profile for cutting a substrate portion from the substrate band, which cutting head is movable in a movement direction transversal to the feed direction between a cutting position, in which it cuts the substrate portion, and a release position, in which it releases the substrate portion; the cutting unit is characterised in that: it comprises conveying means, which are arranged and shaped so as to receive the substrate portion from the cutting head when the cutting head is in the release position, and convey the substrate portion towards an output section; and the conveying means comprise a conveyor belt of the suction type and comprising a release segment at which it receives the substrate portion from the cutting head. feed means for feeding the substrate band along a feed direction parallel to the extension axis; and a cutting head comprising a cutting edge having a closed profile for cutting a substrate portion from the substrate band, which cutting head is movable in a movement direction transversal to the feed direction between a cutting position, in which it cuts the substrate portion, and a release position, in which it releases the substrate portion; the cutting unit is characterised in that: it comprises conveying means, which are arranged and shaped so as to receive the substrate portion from the cutting head when the cutting head is in the release position, and convey the substrate portion towards an output section; and the conveying means comprise a conveyor belt of the suction type and comprising a release segment at which it receives the substrate portion from the cutting head. it comprises conveying means, which are arranged and shaped so as to receive the substrate portion from the cutting head when the cutting head is in the release position, and convey the substrate portion towards an output section; and the conveying means comprise a conveyor belt of the suction type and comprising a release segment at which it receives the substrate portion from the cutting head.
A refrigerated cargo container comprising: a cargo compartment; and a transportation refrigeration unit in fluid communication with the cargo compartment, where the transportation refrigeration unit comprises: a first compressor operably connected to an engine and driven by the engine; a second compressor, the first compressor and the second compressor urging refrigerant flow through two separate refrigerant circuits (64, 66) respectively, the separate refrigerant circuits (64, 66) each including an evaporator circulating a flow of refrigerant therethrough to cool a flow of supply air flowing from the cargo compartment over the evaporator, an expansion device and a condenser in fluid communication with at least one compressor of the first compressor and the second compressor, characterised in that; the second compressor is operably connected to a battery and driven by the battery. a cargo compartment; and a transportation refrigeration unit in fluid communication with the cargo compartment, where the transportation refrigeration unit comprises: a first compressor operably connected to an engine and driven by the engine; a second compressor, the first compressor and the second compressor urging refrigerant flow through two separate refrigerant circuits (64, 66) respectively, the separate refrigerant circuits (64, 66) each including an evaporator circulating a flow of refrigerant therethrough to cool a flow of supply air flowing from the cargo compartment over the evaporator, an expansion device and a condenser in fluid communication with at least one compressor of the first compressor and the second compressor, characterised in that; the second compressor is operably connected to a battery and driven by the battery. a first compressor operably connected to an engine and driven by the engine; a second compressor, the first compressor and the second compressor urging refrigerant flow through two separate refrigerant circuits (64, 66) respectively, the separate refrigerant circuits (64, 66) each including an evaporator circulating a flow of refrigerant therethrough to cool a flow of supply air flowing from the cargo compartment over the evaporator, an expansion device and a condenser in fluid communication with at least one compressor of the first compressor and the second compressor, characterised in that; the second compressor is operably connected to a battery and driven by the battery.
A mixing silo, comprising: a mixing chamber having a top and a bottom, and a mixing chamber outlet located at the bottom of the mixing chamber; an inlet hose connected to an inlet opening, located towards the top of the mixing chamber; an outlet hose connected to an outlet opening, located towards the top of the mixing chamber at a point above the inlet hose and inlet opening; a sieve located towards the top of the mixing chamber, disposed above the inlet opening and below the outlet opening, to prevent contact between a particulate mixing material and the top of the mixing chamber and to allow dust there through; a pump system operably connected to the mixing chamber, to create a negative pressure region at the top of the mixing chamber and pull dust through the sieve and remove the sieved dust from the top of the mixing chamber via the outlet opening; and an air manifold assembly, located in the mixing chamber towards the bottom, including an air pressure manifold comprising an air nozzle to introduce an air stream into the mixing chamber, and an air manifold cover configured to allow an air stream into the mixing chamber, to prevent contact between the particulate mixing material and the air pressure manifold, and to allow a particulate mixed product material to pass to the mixing chamber outlet. a mixing chamber having a top and a bottom, and a mixing chamber outlet located at the bottom of the mixing chamber; an inlet hose connected to an inlet opening, located towards the top of the mixing chamber; an outlet hose connected to an outlet opening, located towards the top of the mixing chamber at a point above the inlet hose and inlet opening; a sieve located towards the top of the mixing chamber, disposed above the inlet opening and below the outlet opening, to prevent contact between a particulate mixing material and the top of the mixing chamber and to allow dust there through; a pump system operably connected to the mixing chamber, to create a negative pressure region at the top of the mixing chamber and pull dust through the sieve and remove the sieved dust from the top of the mixing chamber via the outlet opening; and an air manifold assembly, located in the mixing chamber towards the bottom, including an air pressure manifold comprising an air nozzle to introduce an air stream into the mixing chamber, and an air manifold cover configured to allow an air stream into the mixing chamber, to prevent contact between the particulate mixing material and the air pressure manifold, and to allow a particulate mixed product material to pass to the mixing chamber outlet.
A windguard mechanism for use with a pickup mechanism of an agricultural machine, the windguard mechanism comprising a pair of arms (101, 102) directly or indirectly attachable to the agricultural machine and a windguard plate extending between the pair of arms (101, 102) and positioned to hold down the crop material processed by the pickup mechanism, the windguard plate comprises a first plate member fixed between the pair of arms (101, 102) and a second plate member positioned movably with respect to the first plate member, characterized in that the working surfaces (S11, S12; S21, S22) of the first plate member and of the second plate member form a substantially continuous windguard working surface of an area dependent on the position of the second plate member.
A combustion device capable of measuring an amount of used gas comprising: a burner configured to burn gas; a blower configured to supply air for combustion to the burner; a gas valve configured to supply gas for combustion to the burner; an air temperature sensor configured to measure a temperature of air supplied by the blower; and a control unit configured to control the number of revolutions of the blower, calculate a first amount of used gas which is the amount of used gas when burning with a present operating heat quantity according to a signal input by a user, and compensate the calculated first amount of used gas with a measured air temperature measured by the air temperature sensor to calculate a second amount of used gas which is a real amount of used gas, characterized in that a reference air temperature of the air is set in the control unit; in that the control unit is further configured to calculate the second amount of used gas by the following equation: second amount of used gas ∝ first amount of used gas x reference air temperature ÷ measured air temperature, and in that the control unit is further configured to measure the first amount of used gas and the second amount of used gas for each of a plurality of modes and to transmit the first and second amounts of used gas to a server, thereby allowing the user to check the first and second amounts of used gas for each of the plurality of modes through a portable terminal connected to the server. a burner configured to burn gas; a blower configured to supply air for combustion to the burner; a gas valve configured to supply gas for combustion to the burner; an air temperature sensor configured to measure a temperature of air supplied by the blower; and a control unit configured to control the number of revolutions of the blower, calculate a first amount of used gas which is the amount of used gas when burning with a present operating heat quantity according to a signal input by a user, and compensate the calculated first amount of used gas with a measured air temperature measured by the air temperature sensor to calculate a second amount of used gas which is a real amount of used gas, characterized in that second amount of used gas ∝ first amount of used gas x reference air temperature ÷ measured air temperature, and in that the control unit is further configured to measure the first amount of used gas and the second amount of used gas for each of a plurality of modes and to transmit the first and second amounts of used gas to a server, thereby allowing the user to check the first and second amounts of used gas for each of the plurality of modes through a portable terminal connected to the server.
A method for producing a plated article in which a plating film pattern is formed on the surface of a transparent glass substrate, comprising a first step of irradiating a partial area of the surface of the transparent glass substrate with a pulsed laser; a second step of attaching an electroless plating catalyst on the surface of the transparent glass substrate; a third step of selectively removing the catalyst attached to the area unirradiated by the pulsed laser in the transparent glass substrate; and a fourth step of electroless plating the transparent glass substrate after the third step to selectively form a plating film in the irradiated area with the pulsed laser, characterised in that in the first step, a pulse width of the pulsed laser is 1×10 -18 to 1×10 -4 sec, an average output power at a processing point is 0.01 to 1000 W, a repetition frequency of the pulsed laser is 1 kHz to 1000 MHz, and a wavelength of the pulsed laser is 100 to 12000 nm, and and in that in the third step, the transparent glass substrate contacts a solution containing a compound removing the catalyst, and the compound is a chelate compound which is an amino acid. a first step of irradiating a partial area of the surface of the transparent glass substrate with a pulsed laser; a second step of attaching an electroless plating catalyst on the surface of the transparent glass substrate; a third step of selectively removing the catalyst attached to the area unirradiated by the pulsed laser in the transparent glass substrate; and a fourth step of electroless plating the transparent glass substrate after the third step to selectively form a plating film in the irradiated area with the pulsed laser, characterised in that in the first step, a pulse width of the pulsed laser is 1×10 -18 to 1×10 -4 sec, an average output power at a processing point is 0.01 to 1000 W, a repetition frequency of the pulsed laser is 1 kHz to 1000 MHz, and a wavelength of the pulsed laser is 100 to 12000 nm, and and in that in the third step, the transparent glass substrate contacts a solution containing a compound removing the catalyst, and the compound is a chelate compound which is an amino acid.