mhurhangee/ep-ind-claims huggingface dataset:
A system for maintaining the integrity of a dry pipe sprinkler system, comprising: an auxiliary drain including a main collection pipe; a heater having a bracket configured to attach the heater to the main collection pipe of the auxiliary drain the bracket including a deflector configured to direct heat from the heater onto the main collection pipe; and a self-draining apparatus configured to receive excess water from the auxiliary drain, wherein the self-draining apparatus comprises: a Y-strainer in communication with a side port of an upper portion of the auxiliary drain, the Y-strainer configure to receive the excess water from the main collection pipe of the auxiliary drain; a drain trap arranged in parallel to the auxiliary drain and in communication with the Y-strainer, the drain trap having a float configured to release water from the drain trap upon the float lifting off a seat within the drain trap; and a drain tube extending from a lower portion of the drain trap and configured to receive the water released from the drain trap. an auxiliary drain including a main collection pipe; a heater having a bracket configured to attach the heater to the main collection pipe of the auxiliary drain the bracket including a deflector configured to direct heat from the heater onto the main collection pipe; and a self-draining apparatus configured to receive excess water from the auxiliary drain, wherein the self-draining apparatus comprises: a Y-strainer in communication with a side port of an upper portion of the auxiliary drain, the Y-strainer configure to receive the excess water from the main collection pipe of the auxiliary drain; a drain trap arranged in parallel to the auxiliary drain and in communication with the Y-strainer, the drain trap having a float configured to release water from the drain trap upon the float lifting off a seat within the drain trap; and a drain tube extending from a lower portion of the drain trap and configured to receive the water released from the drain trap. a Y-strainer in communication with a side port of an upper portion of the auxiliary drain, the Y-strainer configure to receive the excess water from the main collection pipe of the auxiliary drain; a drain trap arranged in parallel to the auxiliary drain and in communication with the Y-strainer, the drain trap having a float configured to release water from the drain trap upon the float lifting off a seat within the drain trap; and a drain tube extending from a lower portion of the drain trap and configured to receive the water released from the drain trap.
A fuel heating system for a gas turbine engine including at least a combustor and a turbine (20, 22, 24), said fuel heating system comprising: a heat exchanger comprising a fuel circuit having fuel flowing therethrough and a working fluid circuit having a working fluid flowing therethrough to regulate the operating temperature of the fuel flowing through the fuel circuit, said heat exchanger configured, when installed on the gas turbine engine, to discharge fuel from said fuel circuit into the combustor, and to discharge the working fluid from said working fluid circuit to the combustor to facilitate increasing the fuel efficiency of the gas turbine engine; an economizer coupled in flow communication with said heat exchanger working fluid circuit, said economizer configured to extract energy from gas turbine engine exhaust gases to facilitate increasing an operating temperature of the working fluid channeled therethrough; characterized in that the fuel heating system further comprises: said working fluid circuit having a bypass around said heat exchanger; a first valve to regulate the flow of working fluid channeled through said economizer and said heat exchanger working fluid circuit; a second valve to regulate the flow of working fluid bypassed around said heat exchanger; a fuel temperature sensor configured to sense the temperature of the fuel channeled from said fuel circuit to the combustor; and a control system coupled to said fuel temperature sensor, wherein said control system is configured to operate said first and second valves (92, 94) to regulate the flow of working fluid channeled through said working fluid circuit based on a preselected fuel temperature. a heat exchanger comprising a fuel circuit having fuel flowing therethrough and a working fluid circuit having a working fluid flowing therethrough to regulate the operating temperature of the fuel flowing through the fuel circuit, said heat exchanger configured, when installed on the gas turbine engine, to discharge fuel from said fuel circuit into the combustor, and to discharge the working fluid from said working fluid circuit to the combustor to facilitate increasing the fuel efficiency of the gas turbine engine; an economizer coupled in flow communication with said heat exchanger working fluid circuit, said economizer configured to extract energy from gas turbine engine exhaust gases to facilitate increasing an operating temperature of the working fluid channeled therethrough; said working fluid circuit having a bypass around said heat exchanger; a first valve to regulate the flow of working fluid channeled through said economizer and said heat exchanger working fluid circuit; a second valve to regulate the flow of working fluid bypassed around said heat exchanger; a fuel temperature sensor configured to sense the temperature of the fuel channeled from said fuel circuit to the combustor; and a control system coupled to said fuel temperature sensor, wherein said control system is configured to operate said first and second valves (92, 94) to regulate the flow of working fluid channeled through said working fluid circuit based on a preselected fuel temperature.
An air-conditioning system comprising: an air handling unit including an air exhaust fan configured to form a flow of air from an inside of a building toward an outside of the building, an air supply fan configured to form a flow of air from the outside of the building toward the inside of the building, and at least one heat exchange coil configured to exchange heat between air flowing from the outside of the building to the inside of the building and refrigerant; a plurality of outdoor units each including a compressor, a pressure reducing device, and an outdoor heat exchanger, and each connected to the at least one heat exchange coil with a refrigerant pipe to each form an independent heat pump apparatus; characterised by further comprising a unit number control unit configured to perform unit number control of selecting at least one of the plurality of outdoor units to be operated and determining an operating frequency of the compressor included in the at least one of the plurality of outdoor units to be operated to meet a total required capacity required of the air handling unit corresponding to a heat source load, the plurality of outdoor units including outdoor units different in basic capacity, the unit number control unit being configured to identify at least one of the plurality of outdoor units lowest in the basic capacity, and select the at least one of the plurality of outdoor units from the at least one of the plurality of outdoor units that is identified. an air handling unit including an air exhaust fan configured to form a flow of air from an inside of a building toward an outside of the building, an air supply fan configured to form a flow of air from the outside of the building toward the inside of the building, and at least one heat exchange coil configured to exchange heat between air flowing from the outside of the building to the inside of the building and refrigerant; a plurality of outdoor units each including a compressor, a pressure reducing device, and an outdoor heat exchanger, and each connected to the at least one heat exchange coil with a refrigerant pipe to each form an independent heat pump apparatus; characterised by further comprising a unit number control unit configured to perform unit number control of selecting at least one of the plurality of outdoor units to be operated and determining an operating frequency of the compressor included in the at least one of the plurality of outdoor units to be operated to meet a total required capacity required of the air handling unit corresponding to a heat source load, the plurality of outdoor units including outdoor units different in basic capacity, the unit number control unit being configured to identify at least one of the plurality of outdoor units lowest in the basic capacity, and select the at least one of the plurality of outdoor units from the at least one of the plurality of outdoor units that is identified.
Table for mounting and testing a test specimen, consisting of at least one plug-in board with a large number of contact elements which are electrically insulated from each other, and of at least one modular adapter having a plurality of connecting elements to be capable of being arranged in at least one alignment at each of a plurality of arbitrary positions of the plug-in board, such that the adapter can be connected in each of the arrangements via the connecting elements simultaneously to at least two contact elements (3.1) of the respective arrangement in a conductive manner, wherein the arrangement being defined by the alignment and the position at which the adapter is arranged, wherein a conductive connection of the adapter with the respective at least two contact elements (3.1) can be produced in each of the arrangements by plugging the adapter onto the plug-in plate, wherein the table is configured in such a manner that the contact elements (3.1) are distributed in a contact element pattern which regularly follows one another in a horizontal and a vertical direction, wherein the horizontal direction and the vertical direction being parallel to the plug-in board; wherein each of the contact elements (3.1) being connected to one of at least two electrically mutually insulated signal conductors of the table so that the contact elements are occupied by the at least two signal conductors (N, O, P, Q, R, S) with different electrical potentials, and so that the different electrical potentials are distributed on the contact elements (3.1) in at least one potential pattern (X1, X2, X3, X4, X5, X6, X7) which regularly repeats in the horizontal and vertical direction, that the adapter can be connected to all potentials at least once in each of the arrangements by the conductive connection to the respective at least two contact elements, wherein in each of the arrangements the potentials generate a potential assignment of the connection elements, which depends on the arrangement of the adapter; that the adapter has an identification code, that the adapter has an internal control system which causes in each of the arrangements, after connection to the at least two contact elements in the respective arrangement, a withdrawal of supply current from the signal conductors (N, O, P, Q, R, S) in the respective arrangement, that the controller comprises a circuit for identifying the signal conductors connected to the connecting elements and for establishing a correct connection of the adapter to all potentials of the signal conductors, so that all potentials of the signal conductors are available for the adapter regardless of the respective arrangement of the adapter; wherein the controller being configured to communicate with a computer and/or another adapter, that the plug-in board and/or the adapter and/or an external computer, each for itself and/or in interaction with one another, comprise first means for detecting the respective position of the adapter on the plug-in board, that each adapter can be brought into contact with the test specimen and comprises means which support and/or effect the assembly and testing of the test specimen.
A system comprising: a reactive component curable after exposure to a reaction initiator, wherein the reactive component comprises one or more components selected from the group consisting of a methylene malonate component, a methylene beta-ketoester component, a methylene beta-diketone component, and an oligomer or resin thereof; and a first substrate formed of a plastic material and comprising the reaction initiator, the reaction initiator incorporated into the first substrate. a reactive component curable after exposure to a reaction initiator, wherein the reactive component comprises one or more components selected from the group consisting of a methylene malonate component, a methylene beta-ketoester component, a methylene beta-diketone component, and an oligomer or resin thereof; and a first substrate formed of a plastic material and comprising the reaction initiator, the reaction initiator incorporated into the first substrate.
A mixture of at least one diphosphinic acid of the formula in which R 4 is ethylene, butylene, hexylene or octylene with at least one alkylphosphinic acid of the formula and wherein R 1, R 2 and R 3 are the same or different and are each ethyl, n-propyl, isopropyl, n-butyl, isobutyl, tert-butyl, n-pentyl, isopentyl, n-hexyl, isohexyl and/or phenyl, which comprises 0.1 to 99.9% by weight of diphosphinic acid of the formula and 99.9 to 0.1 % by weight of alkylphosphinic acid of the formula. R 4 is ethylene, butylene, hexylene or octylene
A method of programming a single analogue electronic neural network according to claim 10 comprising a plurality of layers (L0, L1, L2) of somas, two consecutive layers (L0, L1, L2) of somas being connected by a matrix of synapses, the method comprising: • applying (a) test signals to inputs of the neural network, the inputs being formed by a layer of somas; • measuring (b) at least at one measurement location (A, B, C) in the neural network responses of at least some somas performing their input current rectification, and synapses to the test signals, where a respective measurement location is arranged to measure an incoming signal value to a following soma; • extracting (b) from the neural network, based on the discrete responses, a first parameter set characterising the input-output relation of the at least some somas as a continuous, piece-wise differentiable function; • carrying out (c) a training of the neural network by applying to a training algorithm the first parameter set and training data for obtaining a second parameter set; and • programming (d) the single neural network by using the second parameter set to adjust a weight configuration of at least some of the synapses, and storing a respective weight configuration of a respective synapse digitally in a memory element, which is part of the respective synapse, wherein the responses of individual somas are measured for obtaining the first parameter set describing individual soma responses. • applying (a) test signals to inputs of the neural network, the inputs being formed by a layer of somas; • measuring (b) at least at one measurement location (A, B, C) in the neural network responses of at least some somas performing their input current rectification, and synapses to the test signals, where a respective measurement location is arranged to measure an incoming signal value to a following soma; • extracting (b) from the neural network, based on the discrete responses, a first parameter set characterising the input-output relation of the at least some somas as a continuous, piece-wise differentiable function; • carrying out (c) a training of the neural network by applying to a training algorithm the first parameter set and training data for obtaining a second parameter set; and • programming (d) the single neural network by using the second parameter set to adjust a weight configuration of at least some of the synapses, and storing a respective weight configuration of a respective synapse digitally in a memory element, which is part of the respective synapse,
A smoking article incorporating an additive delivery system, the additive delivery system comprising: a frangible capsule comprising a breakable shell containing a liquid core comprising a first additive, wherein the shell can be broken by means of a pressure to release a single burst of the liquid core; and a sustained-release liquid delivery material comprising a liquid composition containing a second additive, wherein the liquid composition is releasable in discrete amounts from the liquid delivery material upon compression of the liquid delivery material so as to selectively combine the first and the second additive, wherein the frangible capsule and the sustained-release liquid delivery material are spaced at least 10 mm apart in the longitudinal direction, such that a consumer can separately and selectively activate the release of additive from either component of the frangible capsule and the sustained-release liquid delivery material. a frangible capsule comprising a breakable shell containing a liquid core comprising a first additive, wherein the shell can be broken by means of a pressure to release a single burst of the liquid core; and a sustained-release liquid delivery material comprising a liquid composition containing a second additive, wherein the liquid composition is releasable in discrete amounts from the liquid delivery material upon compression of the liquid delivery material so as to selectively combine the first and the second additive, wherein the frangible capsule and the sustained-release liquid delivery material are spaced at least 10 mm apart in the longitudinal direction, such that a consumer can separately and selectively activate the release of additive from either component of the frangible capsule and the sustained-release liquid delivery material.
A flat panel display device, including: a display panel including a first substrate; a driving unit for driving the display panel, wherein the driving unit is mounted on a rear surface of the display panel; a connection member for electrically connecting the driving unit and the first substrate of the display panel; characterised by a recess formed on an edge of the first substrate, wherein the connection member passes through the recess and is bent around the first substrate to the rear surface of the display panel. a display panel including a first substrate; a driving unit for driving the display panel, wherein the driving unit is mounted on a rear surface of the display panel; a connection member for electrically connecting the driving unit and the first substrate of the display panel; characterised by a recess formed on an edge of the first substrate, wherein the connection member passes through the recess and is bent around the first substrate to the rear surface of the display panel.
A method of producing three-dimensional structural surfaces made on the basis of decor papers used as surface coatings of in particular wood-based panels, wherein the pattern is applied to the decor paper by printing in a machine equipped with at least one painting ink tank and at least one printing plate cylinder, having a surface with a pattern formed by engraved cells, having a form of ink micro-cells of varying sizes, wherein the ink from the ink cells is transferred to the travelling paper web when it comes in contact with the printing plate cylinder, forming on the paper a pattern corresponding to the pattern formed by the ink cells on the printing plate cylinder surface, whereupon the decor paper with the finally printed pattern is subject to drying in a drying chamber of the printing press and after drying, it is impregnated with synthetic resins, in particular melamine and/or urea resins, and then after drying in a chamber of the impregnating line it is pressed in the press onto the panel surface using a press plate, characterized in that before the impregnation, at the stage of pattern printing, a mixture is applied to the decor paper, consisting of printing ink, whether with pigment or not, and a swelling agent in the form of microspheres, being encapsulated gas bubbles of sizes ranging from 2μm to 180μm, increasing its volume under the influence of rising temperature, wherein the mixture of the ink and the swelling agent contains from 0.3% to 45% by weight of the swelling agent, and after exiting the printing press and after the impregnation, the decor paper with the formed final pattern with a coded three-dimensional structure is pressed onto the surface, in particular of a wood-based panel, using a press plate with any working surface, wherein a maximum temperature in the pressing process is higher than the maximum temperature in the printing press and the impregnating line.
A package comprising: a solar cell encapsulating film containing a silane compound and/or a silane-modified resin; and a package bag packaging the solar cell encapsulating film, the package bag suitable for storing or transporting a solar cell encapsulating film, wherein an absolute humidity inside the package is 3 to 8 g/m 3. a solar cell encapsulating film containing a silane compound and/or a silane-modified resin; and a package bag packaging the solar cell encapsulating film, the package bag suitable for storing or transporting a solar cell encapsulating film, wherein an absolute humidity inside the package is 3 to 8 g/m 3.
Current converter system, having a current converter and a pre-charging device, wherein the pre-charging device has at least one input (3,31,32) and at least one output (4,41,42), wherein the input (3,31,32) of the pre-charging device can be connected to an alternating voltage network, wherein the output (4,41,42) of the pre-charging device is connected to the current converter, wherein the pre-charging device has at least one resistor and a power semiconductor, wherein the at least one output (4,41,42) of the pre-charging device is electrically connected to an AC-side connection of the current converter, wherein the current converter system at the AC-side connection of the current converter has a network filter, wherein the power semiconductor is arranged such that in one phase, only a current flow between alternating voltage network and current converter in one direction takes place through the power semiconductor.
A valve device for draining fluids from and/or infusing fluids into a patient's body, comprising: a housing comprising first, second, and third connectors (205; 204; 203), and a primary fluid path communicating between the first and second connectors (205; 204) and a secondary fluid path communicating from the primary fluid path to the third connector, wherein the third connector is configured to prevent fluid flow therethrough unless a mating connector is fully coupled thereto; a first valve member movable within the housing between a first position in which the first valve member does not obstruct the primary fluid path and a second position in which the primary fluid path is closed to prevent fluid flow through the first connector; and a second valve member movable within the housing between a first position in which the second valve member does not obstruct the primary fluid path and a second position in which the primary fluid path is closed to prevent fluid flow through the second connector, wherein the secondary fluid path is disposed between the first valve member and the second valve member. a housing comprising first, second, and third connectors (205; 204; 203), and a primary fluid path communicating between the first and second connectors (205; 204) and a secondary fluid path communicating from the primary fluid path to the third connector, wherein the third connector is configured to prevent fluid flow therethrough unless a mating connector is fully coupled thereto; a first valve member movable within the housing between a first position in which the first valve member does not obstruct the primary fluid path and a second position in which the primary fluid path is closed to prevent fluid flow through the first connector; and a second valve member movable within the housing between a first position in which the second valve member does not obstruct the primary fluid path and a second position in which the primary fluid path is closed to prevent fluid flow through the second connector, wherein the secondary fluid path is disposed between the first valve member and the second valve member.