mhurhangee/ep-ind-claims huggingface dataset:
A control system of a detection system for measuring one or more conditions within a predetermined area comprising: a control unit having at least one processor for implementing an algorithm; at least one fiber harness, the at least one fiber harness having at least one fiber optic cable for transmitting light, the at least one fiber optic cable defining at least one node arranged to measure the one or more conditions; a sensor operably coupled to a plurality of said nodes, wherein the sensor includes a plurality of light sensitive devices adapted to receive scattered light associated with the plurality of nodes and generate signals corresponding to the scattered light; and a switch operably coupled to the sensor and to the control unit, the switch being adapted to selectively provide the signals from the light sensitive devices to the control unit for processing to determine at least one of a presence and magnitude of the condition within the predetermined area. a control unit having at least one processor for implementing an algorithm; at least one fiber harness, the at least one fiber harness having at least one fiber optic cable for transmitting light, the at least one fiber optic cable defining at least one node arranged to measure the one or more conditions; a sensor operably coupled to a plurality of said nodes, wherein the sensor includes a plurality of light sensitive devices adapted to receive scattered light associated with the plurality of nodes and generate signals corresponding to the scattered light; and a switch operably coupled to the sensor and to the control unit, the switch being adapted to selectively provide the signals from the light sensitive devices to the control unit for processing to determine at least one of a presence and magnitude of the condition within the predetermined area.
Device for manufacturing or repairing a three-dimensional object, comprising: - at least one construction space for consecutively hardening layers of at least one material that can be hardened, in predefined regions, for building the three-dimensional object layer by layer, or for repairing individual regions of the three-dimensional object layer by layer within the construction space; - at least one movable coater for depositing the material on at least one building and joining zone of a construction platform, which zone is formed in the construction space; - at least one inflow nozzle and at least one extraction nozzle for a process gas, the inflow nozzle and the extraction nozzle being arranged such that a gas flow is formed that extends over the building and joining zone at least in part; and - at least one gas-conveying apparatus (32, 32') arranged so as to be movable within the construction space, characterized in that the device further comprises at least one overflow receptacle, the gas-conveying apparatus (32, 32') being movably arranged such that the coater and/or the overflow receptacle are shielded from the gas flow when the gas-conveying apparatus (32, 32') is in a locked position, at least periodically, the gas-conveying apparatus being in the form of a blade wheel having at least three blades (34, 36, 38) and being arranged in a region above the overflow receptacle so as to be rotatable by means of a drive unit, or being rotatably arranged in a region above the overflow receptacle such that when the coater passes over the gas-conveying apparatus, said coater comes into contact with at least one sub-region of the blades (34, 36, 38) and sets the gas-conveying apparatus in motion. - at least one construction space for consecutively hardening layers of at least one material that can be hardened, in predefined regions, for building the three-dimensional object layer by layer, or for repairing individual regions of the three-dimensional object layer by layer within the construction space; - at least one movable coater for depositing the material on at least one building and joining zone of a construction platform, which zone is formed in the construction space; - at least one inflow nozzle and at least one extraction nozzle for a process gas, the inflow nozzle and the extraction nozzle being arranged such that a gas flow is formed that extends over the building and joining zone at least in part; and - at least one gas-conveying apparatus (32, 32') arranged so as to be movable within the construction space,
A yarn cooler for cooling yarns spun out from a spinning beam which is configured to spin out, as the yarns, a molten material downward through spinnerets, comprising: cooling cylinders which are provided below the spinning beam to oppose the respective spinnerets and each of which includes a first yarn running space in which the yarns run, a peripheral wall of the first yarn running space including a flow control member (32, 33) which is arranged to adjust the flow of cooling wind flowing into the first yarn running space; partitioning cylinders which are connected with lower end portions of the respective cooling cylinders and each of which includes a second yarn running space communicating with the first yarn running space, a peripheral wall of the second yarn running space including a shielding member which is arranged to block the cooling wind from flowing into the second yarn running space; a quench box which includes a supply space to which the cooling wind is supplied from outside, the partitioning cylinders being provided in the supply space, wherein, the cooling cylinders are provided outside the supply space and a partition is provided for each of the cooling cylinders to surround the cooling cylinder and form a circulation space between the partition and the outer circumferential surface of the cooling cylinder to allow the cooling wind to circulate in the circulation space, and at a border part between the supply space and the circulation space, a flow adjustment plate is provided to circulate the cooling wind from the supply space to the circulation space while adjusting the flow of the cooling wind. cooling cylinders which are provided below the spinning beam to oppose the respective spinnerets and each of which includes a first yarn running space in which the yarns run, a peripheral wall of the first yarn running space including a flow control member (32, 33) which is arranged to adjust the flow of cooling wind flowing into the first yarn running space; partitioning cylinders which are connected with lower end portions of the respective cooling cylinders and each of which includes a second yarn running space communicating with the first yarn running space, a peripheral wall of the second yarn running space including a shielding member which is arranged to block the cooling wind from flowing into the second yarn running space; a quench box which includes a supply space to which the cooling wind is supplied from outside, the partitioning cylinders being provided in the supply space, wherein, the cooling cylinders are provided outside the supply space and a partition is provided for each of the cooling cylinders to surround the cooling cylinder and form a circulation space between the partition and the outer circumferential surface of the cooling cylinder to allow the cooling wind to circulate in the circulation space, and at a border part between the supply space and the circulation space, a flow adjustment plate is provided to circulate the cooling wind from the supply space to the circulation space while adjusting the flow of the cooling wind.
A method of performing cell search in a wireless communication system, performed by a user equipment, the method comprising: searching a primary synchronization code, PSC; searching a first secondary synchronization signal, SSS, comprising a first sequence and a second sequence; searching a second SSS comprising the first sequence and the second sequence; and determining a cell identity based on the PSC, the first SSS and the second SSS, wherein the first sequence of the first SSS is scrambled by using a first scrambling code, the second sequence of the first SSS is scrambled by using a second scrambling code, the first sequence of the second SSS is scrambled by using the second scrambling code, and the second sequence of the second SSS is scrambled by using the first scrambling code, and wherein the first scrambling code and the second scrambling code are associated with the PSC. searching a primary synchronization code, PSC; searching a first secondary synchronization signal, SSS, comprising a first sequence and a second sequence; searching a second SSS comprising the first sequence and the second sequence; and determining a cell identity based on the PSC, the first SSS and the second SSS, wherein the first sequence of the first SSS is scrambled by using a first scrambling code, the second sequence of the first SSS is scrambled by using a second scrambling code, the first sequence of the second SSS is scrambled by using the second scrambling code, and the second sequence of the second SSS is scrambled by using the first scrambling code, and wherein the first scrambling code and the second scrambling code are associated with the PSC.
Cylinder/plate pump comprising a housing, and comprising, within said housing: - a driveshaft, - a cylinder block having at least two circumferentially distributed compression chambers, said cylinder block being driven by said driveshaft, - a plate with adjustable inclination, - at least two pistons respectively moving in translation in said compression chambers in said cylinder block, said pistons being driven by said plate via connecting rods, characterized in that said cylinder block is pivotably connected to the housing via separate guide means and centring means, in that said cylinder block is in one piece, which comprises a first part for guiding said pistons and a second part comprising said compression chambers, and in that said first part and second part of said cylinder block are connected by a third part, which has a diameter smaller than the diameters of said first part and second part of said cylinder block. - a driveshaft, - a cylinder block having at least two circumferentially distributed compression chambers, said cylinder block being driven by said driveshaft, - a plate with adjustable inclination, - at least two pistons respectively moving in translation in said compression chambers in said cylinder block, said pistons being driven by said plate via connecting rods,
A system for thermoforming an article, the system comprising: a heating station; a cooling station; a carriage; and a negative pressure generation system, wherein the negative pressure generation system is adapted to at least partly seal the article inside a forming material by exposing the article to a pressure less than atmospheric pressure, wherein the negative pressure generation system and the heating station are cooperatively adapted to expose the article to thermal energy, and to the pressure less than atmospheric pressure while the article is at least partly sealed inside the forming material; and wherein the negative pressure generation system and the cooling station are cooperatively adapted to expose the article to a temperature less than that experienced in the heating station while the article is at least partly sealed inside the forming material and exposed to the pressure less than atmospheric pressure, the article is an upper for a shoe, and characterized in that, the forming material is sized to seal the entire upper inside the forming material, and/or the carriage is adapted for coupling to the heating station when at least a portion of the article is positioned in an interior portion of the heating station, and/or the carriage is adapted for coupling to the cooling station when at least a portion of the article is positioned in an interior portion of the cooling station. the article is an upper for a shoe, and characterized in that, the forming material is sized to seal the entire upper inside the forming material, and/or the carriage is adapted for coupling to the heating station when at least a portion of the article is positioned in an interior portion of the heating station, and/or the carriage is adapted for coupling to the cooling station when at least a portion of the article is positioned in an interior portion of the cooling station.
A method of increasing the taste and flavor intensity of a food or beverage product or a pharma product, including the step of adding a taste and flavor modifying composition to the product, wherein the taste and flavor modifying composition comprises Reb A, Reb C, Reb D and Stevioside, and glycosylated diterpene derivative plant molecules, derived from a Stevia rebaudiana plant, wherein, in the taste and flavor modifying composition, the Reb A content is between 5% to 20%, the Reb C content is between 1% to 25%, the Reb D content is between 1% to 20%, and the stevioside content is between 2% to 15%, and wherein the taste and flavor modifying composition is present at a concentration ranging from 5 to 250 ppm to provide flavor and taste modification with limited or no significant sweetness enhancement.
A 3D printing nozzle calibration system, comprising: a heated chamber; a printing base plate mounted inside said heated chamber; printing base moving means configured to move said printing base plate; a moving carriage; at least one rail on which said moving carriage is configured to slide up and down; a printing nozzle partially mounted inside said heated chamber; said printing nozzle is connected to said moving carriage; a hard stop connected to said moving carriage; a fixed part on which said hard stop is resting; and a printer controller; wherein said printing base plate is configured to move up, up to a point where said printing base plate touches said printing nozzle in a determined point of said printing base plate, thereby causing said hard stop to disconnect from said fixed part; and wherein said printer controller is configured to store a height of said printing base plate upon said disconnection. a heated chamber; a printing base plate mounted inside said heated chamber; printing base moving means configured to move said printing base plate; a moving carriage; at least one rail on which said moving carriage is configured to slide up and down; a printing nozzle partially mounted inside said heated chamber; said printing nozzle is connected to said moving carriage; a hard stop connected to said moving carriage; a fixed part on which said hard stop is resting; and a printer controller; wherein said printing base plate is configured to move up, up to a point where said printing base plate touches said printing nozzle in a determined point of said printing base plate, thereby causing said hard stop to disconnect from said fixed part; and wherein said printer controller is configured to store a height of said printing base plate upon said disconnection.
A method for paging at least one client node (300a, 300b, 300c) in a group communications system, the method being performed by a control node of the group communications system, the method comprising: obtaining a need for paging the at least one client node (300a, 300b, 300c) in the group communications system; and transmitting a paging message for the at least one client node (300a, 300b, 300c) in a Single Cell Point To Multipoint, SC-PTM, transmission to the at least one client node (300a, 300b, 300c). obtaining a need for paging the at least one client node (300a, 300b, 300c) in the group communications system; and transmitting a paging message for the at least one client node (300a, 300b, 300c) in a Single Cell Point To Multipoint, SC-PTM, transmission to the at least one client node (300a, 300b, 300c).
A device for producing electrical power comprising: a bleed air system arranged to receive ram air and bleed air, wherein the bleed air is received from an engine or motor driven compressor, and arranged to direct said ram air and said bleed air through a bleed air duct to a thermoelectric generator coupled to said bleed air system for generating said electrical power using temperature differentials between the ram air and the bleed air. a bleed air system arranged to receive ram air and bleed air, wherein the bleed air is received from an engine or motor driven compressor, and arranged to direct said ram air and said bleed air through a bleed air duct to a thermoelectric generator coupled to said bleed air system for generating said electrical power using temperature differentials between the ram air and the bleed air.
A method for automatically controlling a height of an implement of an agricultural work vehicle relative to a ground surface, the method including monitoring, with one or more computing devices, each of the height of the implement relative to the ground surface and a vehicle speed of the work vehicle relative to the ground surface, the method further including determining, with the one or more computing devices, an implement height error by comparing the height of the implement with a predetermined target height, the method being characterized by: calculating, with the one or more computing devices, a sensitivity factor based on a sensitivity setting, and wherein, when the monitored vehicle speed is greater than a predetermined speed threshold, the sensitivity factor equals a first constant sensitivity value that is proportional to the sensitivity setting; reducing, with the one or more computing devices, the sensitivity factor to less than the first constant sensitivity value when the monitored vehicle speed becomes less than the predetermined speed threshold; and adjusting, with the one or more computing devices, the height of the implement relative to the ground surface based on the implement height error and the sensitivity factor. calculating, with the one or more computing devices, a sensitivity factor based on a sensitivity setting, and wherein, when the monitored vehicle speed is greater than a predetermined speed threshold, the sensitivity factor equals a first constant sensitivity value that is proportional to the sensitivity setting; reducing, with the one or more computing devices, the sensitivity factor to less than the first constant sensitivity value when the monitored vehicle speed becomes less than the predetermined speed threshold; and adjusting, with the one or more computing devices, the height of the implement relative to the ground surface based on the implement height error and the sensitivity factor.
A pool cleaner, comprising: a canister body (166, 440) including an inner chamber (186, 470) within inner walls of the canister body; a filtering medium assembly (174, 176, 426) disposed within the inner chamber (186, 470) of the canister body (166, 440); and a cyclone block (178, 418) disposed within the inner chamber (186, 470) of the canister body (166, 440) and at least partially surrounded by the filtering medium assembly, the cyclone block (178, 418) including a plurality of cyclone containers (228, 420); wherein a first cyclonic flow is generated between the inner walls of the canister body (166, 440) and the filtering medium assembly (174, 176, 426); and wherein a second cyclonic flow is generated within each of the plurality of cyclone containers (228, 420); and characterized by a fine debris container (172, 434) disposed within the inner chamber of the canister body (166, 440), the fine debris container (172, 434) including a dish (202, 516) and a central radial extension protruding from a bottom surface of the fine debris container (172, 434). a canister body (166, 440) including an inner chamber (186, 470) within inner walls of the canister body; a filtering medium assembly (174, 176, 426) disposed within the inner chamber (186, 470) of the canister body (166, 440); and a cyclone block (178, 418) disposed within the inner chamber (186, 470) of the canister body (166, 440) and at least partially surrounded by the filtering medium assembly, the cyclone block (178, 418) including a plurality of cyclone containers (228, 420); wherein a first cyclonic flow is generated between the inner walls of the canister body (166, 440) and the filtering medium assembly (174, 176, 426); and wherein a second cyclonic flow is generated within each of the plurality of cyclone containers (228, 420); and characterized by a fine debris container (172, 434) disposed within the inner chamber of the canister body (166, 440), the fine debris container (172, 434) including a dish (202, 516) and a central radial extension protruding from a bottom surface of the fine debris container (172, 434). wherein a first cyclonic flow is generated between the inner walls of the canister body (166, 440) and the filtering medium assembly (174, 176, 426); and wherein a second cyclonic flow is generated within each of the plurality of cyclone containers (228, 420); and characterized by a fine debris container (172, 434) disposed within the inner chamber of the canister body (166, 440), the fine debris container (172, 434) including a dish (202, 516) and a central radial extension protruding from a bottom surface of the fine debris container (172, 434).
A method for a distributed database system (102, 202) including a plurality of nodes (108, 108a-c), the method including: maintaining, at a first node of the plurality of nodes, a first plurality of records of transactions in the system, each record in the first plurality of records being associated with a transaction and including a start time of the transaction and a start time of an oldest transaction that was active at the start time of the transaction, one of the records in the first plurality of records being a record of an oldest currently active transaction in the system; maintaining, at a second node (108a, 108c) of the plurality of nodes, a second plurality of records of transactions, the second plurality of records including records of completed transactions associated with the second node, each record in the second plurality of records including a transaction start time and a transaction end time; receiving at the second node (108a, 108c), a message from the first node including a start time of an oldest transaction that was active at the transaction start time of the oldest currently active transaction in the system; and removing, from the second plurality of records, any records of completed transactions with a transaction end time occurring before the start time of the oldest transaction. maintaining, at a first node of the plurality of nodes, a first plurality of records of transactions in the system, each record in the first plurality of records being associated with a transaction and including a start time of the transaction and a start time of an oldest transaction that was active at the start time of the transaction, one of the records in the first plurality of records being a record of an oldest currently active transaction in the system; maintaining, at a second node (108a, 108c) of the plurality of nodes, a second plurality of records of transactions, the second plurality of records including records of completed transactions associated with the second node, each record in the second plurality of records including a transaction start time and a transaction end time; receiving at the second node (108a, 108c), a message from the first node including a start time of an oldest transaction that was active at the transaction start time of the oldest currently active transaction in the system; and removing, from the second plurality of records, any records of completed transactions with a transaction end time occurring before the start time of the oldest transaction.