mhurhangee/ep-ind-claims huggingface dataset:
A control system of an internal combustion engine comprising: an air-fuel ratio sensor which is provided in an exhaust passage (19; 22) of the internal combustion engine; and an engine control system which controls the internal combustion engine in accordance with an output of said air-fuel ratio sensor, characterized in that said air-fuel ratio sensor is configured so that an applied voltage at which an output current becomes zero, changes in accordance with the exhaust air-fuel ratio, and so that when the exhaust air-fuel ratio is a stoichiometric air-fuel ratio, when the applied voltage at said air-fuel ratio sensor is increased, the output current increases correspondingly, and wherein when said air-fuel ratio sensor detects the air-fuel ratio of the exhaust gas, the applied voltage at said air-fuel ratio sensor is fixed to a constant voltage, and said constant voltage is a voltage which is different from the voltage whereby the output current becomes zero when the exhaust air-fuel ratio is the stoichiometric air-fuel ratio, and is the voltage whereby the output current becomes zero when the exhaust air-fuel ratio is an air-fuel ratio which is different from the stoichiometric air-fuel ratio, and wherein said engine control system is configured to judge that the exhaust air-fuel ratio is a predetermined air-fuel ratio which is different from the stoichiometric air-fuel ratio, when the output current of said air-fuel ratio sensor becomes 0. characterized in that said air-fuel ratio sensor is configured so that an applied voltage at which an output current becomes zero, changes in accordance with the exhaust air-fuel ratio, and so that when the exhaust air-fuel ratio is a stoichiometric air-fuel ratio, when the applied voltage at said air-fuel ratio sensor is increased, the output current increases correspondingly, and wherein when said air-fuel ratio sensor detects the air-fuel ratio of the exhaust gas, the applied voltage at said air-fuel ratio sensor is fixed to a constant voltage, and said constant voltage is a voltage which is different from the voltage whereby the output current becomes zero when the exhaust air-fuel ratio is the stoichiometric air-fuel ratio, and is the voltage whereby the output current becomes zero when the exhaust air-fuel ratio is an air-fuel ratio which is different from the stoichiometric air-fuel ratio, and wherein
Method for manufacturing a visual communication board that has an enamel coat on the writing side of the communication panel, characterised in that a dotted or striped pattern is applied by a printing technique on the enamelled writing side of the communication board, whereby the printing technique can be any printing technique that can apply a ceramic-forming medium in the form of a pattern, such as screen printing or a direct photographic process, a digital printing technique such as inkjet, toner transfer, or a flexographic or deep-printing technique, or other transfer techniques such as decalcomania, whereby a ceramic-forming medium in the form of a coating or ink or composition with antimicrobial constituents is deposited as antimicrobial microdots, whereafter the pattern is annealed on the enamelled surface of the visual communication board at a temperature of at least 500°C, whereby the content of silver, silver oxide or silver salt in the ceramic material of the patterns lies between 0,1 and 10 weight%, and the number of bacteria at the surface of the writing board is lowered by a factor of at least 100 within 24 hours by the antibacterial action of the surface.
In a production method for a stabilizer link (100, 800), comprising: a subassembly forming step in which a subassembly having a stud ball, a main body (201, 811) of a ball seat (200, 810), and a housing (4, 300) is formed, wherein in the subassembly forming step, a space is formed between a bottom side of a side surface of the main body and a bottom side of an inner surface of the housing (4, 300); a cavity forming step in which a die is provided to an outer surface of a bottom side of the housing (4, 300) in the subassembly and a cavity is thereby formed; and an injection molding step in which injection molding is performed such that a reinforced resin is injected into the cavity and the space, and a fixing portion (202, 812) of the ball seat (200, 810) is thereby formed so as to cover the bottom side of the side surface of the main body (201, 811), characterized in that in formation of the main body (201, 811) of the ball seat (200, 810), a first fit shape (221, 223, 224 821) including at least one of a recess and a protrusion is formed at the bottom side of the side surface of the main body (201, 811), and in formation of the fixing portion (202, 812) of the ball seat (200, 810), a resin including a reinforcing agent is used as the reinforced resin, the reinforced resin is flowed to an outer surface of the side surface of the main body (201, 811) through a hole (4A, 320) of the housing (4, 300), so that a second fit shape (231, 831) fitted to the first fit shape (221, 223, 224 821) is formed at the fixing portion (202, 812), a projection (232, 832) projecting from the hole (4A, 320) of the housing (4, 300) to an external is formed at a bottom of the fixing portion (202, 812), and the projection (232, 832) is formed to have a shape engaging with the outer surface of the bottom of the housing (4, 300). a subassembly forming step in which a subassembly having a stud ball, a main body (201, 811) of a ball seat (200, 810), and a housing (4, 300) is formed, wherein in the subassembly forming step, a space is formed between a bottom side of a side surface of the main body and a bottom side of an inner surface of the housing (4, 300); a cavity forming step in which a die is provided to an outer surface of a bottom side of the housing (4, 300) in the subassembly and a cavity is thereby formed; and
Condensate drainage system, comprising at least one oil-water separator, which is connected to communicate with a compressor or a compressor stage, a condensate valve, which is connected on the input side to the at least one oil-water separator and can be opened and closed by means of a shut-off device connected in series for discharging condensate, and a condensate collection container, which is connected to the outlet of the condensate valve, characterised in that the condensate valve is configured to act at the same time as pressure reducer for decreasing the pressure of the outflowing condensate and has a constriction of its cross section on the outlet side, preferably a nozzle for controlling and determining a small discharge quantity, which passes directly into the condensate collection container, that the condensate valve comprises a movable piston, which can be pressed against a small diameter aperture of a valve seat on the input side with the condensate valve closed by means of the shut-off device and that the piston is configured as stepped piston which, seen in the direction of flow of the condensate has a piston surface and on the outlet side has a larger piston surface, which is acted upon by the condensate via an overflow line with the condensate valve opened by means of the shut-off device.
A method for determining a failure of a flow divider within a gas turbine engine fuel system, including a controller, fuel manifold and fuel pressure sensor, the method being performed by the controller and comprising the steps of: delivering a fuel command to cause a fuel pump to deliver fuel to the fuel manifold, a flow divider valve coupled to the fuel manifold and configured to limit fuel delivery to a combustor; measuring an actual fuel pressure value with the fuel pressure sensor; ascertaining an actual fill time of the fuel manifold based on at least one of the step of delivering the fuel command and the step of measuring the actual fuel pressure; calculating an expected fill time, wherein the expected fill time is indicative of the time required to fill a known fuel manifold volume; determining whether the expected fill time is greater than or equal to the actual fill time; when the expected fill time is less than the actual fill time, sending a first signal with the controller to annunciate a first condition indicative of a potential failure of the flow divider valve; when the expected fill time is greater than or equal to the actual fill time, determining whether the actual fuel pressure value is less than or equal to an expected fuel pressure value based at least in part on at least one environmental signal; and when the actual fuel pressure value is less than the expected fuel pressure value, sending a second signal with the controller to annunciate a second condition, wherein the second condition is indicative of a potential failure of the flow divider valve. delivering a fuel command to cause a fuel pump to deliver fuel to the fuel manifold, a flow divider valve coupled to the fuel manifold and configured to limit fuel delivery to a combustor; measuring an actual fuel pressure value with the fuel pressure sensor; ascertaining an actual fill time of the fuel manifold based on at least one of the step of delivering the fuel command and the step of measuring the actual fuel pressure; calculating an expected fill time, wherein the expected fill time is indicative of the time required to fill a known fuel manifold volume; determining whether the expected fill time is greater than or equal to the actual fill time; when the expected fill time is less than the actual fill time, sending a first signal with the controller to annunciate a first condition indicative of a potential failure of the flow divider valve; when the expected fill time is greater than or equal to the actual fill time, determining whether the actual fuel pressure value is less than or equal to an expected fuel pressure value based at least in part on at least one environmental signal; and when the actual fuel pressure value is less than the expected fuel pressure value, sending a second signal with the controller to annunciate a second condition, wherein the second condition is indicative of a potential failure of the flow divider valve.
A wireless transmit/receive unit, WTRU, comprising a processor and a memory, the processor configured to: receive a physical downlink control channel, PDCCH, transmission, wherein the PDCCH transmission indicates a state associated with a serving cell, wherein, in a first state, a first set of resources is active for the WTRU, and, in a second state, a second set of resources is active for the WTRU; determine reference signals to use for radio link monitoring, RLM, based on the received PDCCH transmission, wherein a first set of reference signals are used for RLM when the first set of resources is active for the WTRU and a second set of reference signals are used when the second set of resources is active for the WTRU; perform RLM measurements using the first set of reference signals if the first set of resources is active for the WTRU or perform RLM measurements using the second set of reference signals if the second set of resources is active for the WTRU; determine that the WTRU is out of sync if a radio link quality based on the RLM measurements is below a threshold; and initiate a radio resource control, RRC, connection request procedure. receive a physical downlink control channel, PDCCH, transmission, wherein the PDCCH transmission indicates a state associated with a serving cell, wherein, in a first state, a first set of resources is active for the WTRU, and, in a second state, a second set of resources is active for the WTRU; determine reference signals to use for radio link monitoring, RLM, based on the received PDCCH transmission, wherein a first set of reference signals are used for RLM when the first set of resources is active for the WTRU and a second set of reference signals are used when the second set of resources is active for the WTRU; perform RLM measurements using the first set of reference signals if the first set of resources is active for the WTRU or perform RLM measurements using the second set of reference signals if the second set of resources is active for the WTRU; determine that the WTRU is out of sync if a radio link quality based on the RLM measurements is below a threshold; and initiate a radio resource control, RRC, connection request procedure.
A fluid dispensing system comprising: a clamp adapted to secure a hose to the fluid dispensing system, the clamp (116, 150) comprising: a first clamping portion configured to detachably connect with an elongated member of the fluid dispensing system, and a second clamping portion disposed adjacent to the first clamping portion, the second clamping portion is configured to hold the hose of the fluid dispensing system; characterized in that: the fluid dispensing system comprises a fluid regulator valve and a further clamp comprising a pair of first clamping portions and an elongated second clamping portion, wherein the inner surface of the pair of first clamping portions is configured to conform to an outer surface of the elongated member and wherein the inner surface of the elongated second clamping portion is configured to conform to an outer surface of the fluid regulator valve. a clamp adapted to secure a hose to the fluid dispensing system, the clamp (116, 150) comprising: a first clamping portion configured to detachably connect with an elongated member of the fluid dispensing system, and a second clamping portion disposed adjacent to the first clamping portion, the second clamping portion is configured to hold the hose of the fluid dispensing system; a first clamping portion configured to detachably connect with an elongated member of the fluid dispensing system, and a second clamping portion disposed adjacent to the first clamping portion, the second clamping portion is configured to hold the hose of the fluid dispensing system; characterized in that: the fluid dispensing system comprises a fluid regulator valve and a further clamp comprising a pair of first clamping portions and an elongated second clamping portion, wherein the inner surface of the pair of first clamping portions is configured to conform to an outer surface of the elongated member and wherein the inner surface of the elongated second clamping portion is configured to conform to an outer surface of the fluid regulator valve. comprising a pair of first clamping portions and an elongated second clamping portion, wherein the inner surface of the pair of first clamping portions is configured to conform to an outer surface of the elongated member and wherein the inner surface of the elongated second clamping portion is configured to conform to an outer surface of the fluid regulator valve.
An apparatus comprising: a block addressable NAND non-volatile memory device having a first write speed and a first namespace with a first write granularity; a byte addressable three-dimensional cross point, 3DXP, non-volatile memory device having a second write speed faster than the first write speed and a second namespace with a second write granularity smaller than the first write granularity; and a storage controller that includes logic configured to: receive an atomic multimedia write transaction request to write user data and meta data associated with storage of the user data; and cause the user data to be stored in the block addressable NAND non-volatile memory device, and cause the meta data to be stored in the byte addressable 3DXP non-volatile memory device, simultaneously and atomically, and cause roll back of storage of the user data and the meta data, when storage of the user data or storage of the meta data indicates a failure or when a power failure occurs for at least one of the block addressable NAND non-volatile memory device without a power loss imminent, PLI, capability and the byte addressable 3DXP non-volatile memory device without a PLI capability. a block addressable NAND non-volatile memory device having a first write speed and a first namespace with a first write granularity; a byte addressable three-dimensional cross point, 3DXP, non-volatile memory device having a second write speed faster than the first write speed and a second namespace with a second write granularity smaller than the first write granularity; and a storage controller that includes logic configured to: receive an atomic multimedia write transaction request to write user data and meta data associated with storage of the user data; and cause the user data to be stored in the block addressable NAND non-volatile memory device, and cause the meta data to be stored in the byte addressable 3DXP non-volatile memory device, simultaneously and atomically, and cause roll back of storage of the user data and the meta data, when storage of the user data or storage of the meta data indicates a failure or when a power failure occurs for at least one of the block addressable NAND non-volatile memory device without a power loss imminent, PLI, capability and the byte addressable 3DXP non-volatile memory device without a PLI capability. receive an atomic multimedia write transaction request to write user data and meta data associated with storage of the user data; and cause the user data to be stored in the block addressable NAND non-volatile memory device, and cause the meta data to be stored in the byte addressable 3DXP non-volatile memory device, simultaneously and atomically, and cause roll back of storage of the user data and the meta data, when storage of the user data or storage of the meta data indicates a failure or when a power failure occurs for at least one of the block addressable NAND non-volatile memory device without a power loss imminent, PLI, capability and the byte addressable 3DXP non-volatile memory device without a PLI capability.
A manufacturing process for producing a strand-based product, comprising the steps of: blending cellulosic strands with one or more additives or chemicals; forming a base mat from said cellulosic strands; applying one or more layers (20, 30, 30a, 30b) on the base mat, said one or more layers comprising: a fines layer; and at least one overlay layer (30, 30a, 30b); applying heat and pressure to the base mat and said one or more layers in a pressing process to form a board, characterised in that the pressing process comprises application of a caul plate to produce a minimal embossment on the upper surface of the board; and the manufacturing process comprises applying an aggregate-containing paint primer layer to the embossed upper surface of the board. blending cellulosic strands with one or more additives or chemicals; forming a base mat from said cellulosic strands; applying one or more layers (20, 30, 30a, 30b) on the base mat, said one or more layers comprising: a fines layer; and at least one overlay layer (30, 30a, 30b); a fines layer; and at least one overlay layer (30, 30a, 30b); applying heat and pressure to the base mat and said one or more layers in a pressing process to form a board, the pressing process comprises application of a caul plate to produce a minimal embossment on the upper surface of the board; and the manufacturing process comprises applying an aggregate-containing paint primer layer to the embossed upper surface of the board.
A display device comprising: a display panel including a first display area and a second display area that are adjacent to each other, the display panel including a first touch sensor disposed in the first display area; a sensor screen disposed on the display panel, the sensor screen including a fingerprint sensor and a second touch sensor (TS1-TS4) at a location corresponding to the second display area of the display panel; a display touch integrated circuit (DTIC) configured to drive pixels of the first and second display areas (DA1, DA2) during a display period (Pd) included in one frame period to write input image data to the display panel and the first touch sensor during a touch period (Pt) included in the one frame period to obtain a first touch sensing value from the first touch sensor; and a fingerprint touch IC (FTIC) configured to drive the fingerprint sensor in a portion of the one frame period, in which the first touch sensor is not driven to obtain a fingerprint sensing value and adapted to drive the second touch sensor (TS1-TS4) in the portion of the one frame period, in which the first touch sensor is not driven, to obtain a second touch sensing value. a display panel including a first display area and a second display area that are adjacent to each other, the display panel including a first touch sensor disposed in the first display area; a sensor screen disposed on the display panel, the sensor screen including a fingerprint sensor and a second touch sensor (TS1-TS4) at a location corresponding to the second display area of the display panel; a display touch integrated circuit (DTIC) configured to drive pixels of the first and second display areas (DA1, DA2) during a display period (Pd) included in one frame period to write input image data to the display panel and the first touch sensor during a touch period (Pt) included in the one frame period to obtain a first touch sensing value from the first touch sensor; and a fingerprint touch IC (FTIC) configured to drive the fingerprint sensor in a portion of the one frame period, in which the first touch sensor is not driven to obtain a fingerprint sensing value and adapted to drive the second touch sensor (TS1-TS4) in the portion of the one frame period, in which the first touch sensor is not driven, to obtain a second touch sensing value.
A method for manufacturing a rotor blade for a wind turbine, comprising the steps of a) arranging a first layup of fiber material inside a mold, the first layup corresponding to an airfoil of the rotor blade, b) arranging (S1, S1', S4) a second layup of fiber material on a core member before and/or after arranging the core member in the mold, the second layup including the core member corresponding to a web of the rotor blade, the core member comprising a parabolic or semicircular shaped recess, wherein the shape of the recess results in web tips tapering out towards a root of the blade to ensure a smooth transfer of loads into and out of the web, and covering tip sections (19, 20) of the core member defining the recess at least partially by layers of fiber material extending beyond a respective tip section (19, 20), and c) curing a resin impregnating the fiber material of the first and second layup (39, 34) to form the rotor blade. a) arranging a first layup of fiber material inside a mold, the first layup corresponding to an airfoil of the rotor blade, b) arranging (S1, S1', S4) a second layup of fiber material on a core member before and/or after arranging the core member in the mold, the second layup including the core member corresponding to a web of the rotor blade, the core member comprising a parabolic or semicircular shaped recess, wherein the shape of the recess results in web tips tapering out towards a root of the blade to ensure a smooth transfer of loads into and out of the web, and covering tip sections (19, 20) of the core member defining the recess at least partially by layers of fiber material extending beyond a respective tip section (19, 20), and c) curing a resin impregnating the fiber material of the first and second layup (39, 34) to form the rotor blade.