mhurhangee/ep-ind-claims huggingface dataset:
A method of generating haptic effects, the method comprising: receiving a plurality of haptic pixels including haptic data modifiers, each haptic pixel associated with at least one video pixel, the at least one video pixel included in a video texture map representative of at least one frame of a video; characterized by identifying a point of interest in the at least one frame of the video, the point of interest including a target video pixel in the at least one frame of the video; determining a target haptic pixel among the haptic pixels, the target haptic pixel corresponding to the target video pixel in the at least one frame of the video; obtaining target haptic data included in the target haptic pixel; and controlling operation of a haptic actuator based on the target haptic data. receiving a plurality of haptic pixels including haptic data modifiers, each haptic pixel associated with at least one video pixel, the at least one video pixel included in a video texture map representative of at least one frame of a video; characterized by identifying a point of interest in the at least one frame of the video, the point of interest including a target video pixel in the at least one frame of the video; determining a target haptic pixel among the haptic pixels, the target haptic pixel corresponding to the target video pixel in the at least one frame of the video; obtaining target haptic data included in the target haptic pixel; and controlling operation of a haptic actuator based on the target haptic data.
A boil-off gas reliquefaction system, comprising: a boil-off gas compressor configured to compress, in multi-stages, boil-off gas generated in a liquefied gas storage tank and supply the compressed boil-off gas to a consumer; a boil-off gas heat exchanger configured to perform heat exchange between boil off gas compressed in the boil-off gas compressor and boil-off gas introduced into the boil-off gas compressor; a decompression valve configured to decompress the boil-off gas compressed in the boil-off gas compressor and then heat-exchanged in the boil-off gas heat exchanger; and a gas-liquid separator configured to perform gas-liquid separation on the boil-off gas decompressed in the decompression valve, wherein boil-off gas to be introduced into the boil-off gas heat exchanger comprises lubricant used in the boil-off gas compressor of a high pressure stage, characterized in that the boil-off gas reliquefaction system further comprises a high-temperature boil-off gas transfer line configured to transfer high-temperature boil-off gas discharged from the boil-off gas heat exchanger to a low pressure consumer upstream of the decompression valve, when high-pressure boil-off gas compressed in the boil-off gas compressor is injected into the boil-off gas heat exchanger to remove the lubricant introduced into the boil-off gas heat exchanger. a boil-off gas compressor configured to compress, in multi-stages, boil-off gas generated in a liquefied gas storage tank and supply the compressed boil-off gas to a consumer; a boil-off gas heat exchanger configured to perform heat exchange between boil off gas compressed in the boil-off gas compressor and boil-off gas introduced into the boil-off gas compressor; a decompression valve configured to decompress the boil-off gas compressed in the boil-off gas compressor and then heat-exchanged in the boil-off gas heat exchanger; and a gas-liquid separator configured to perform gas-liquid separation on the boil-off gas decompressed in the decompression valve, wherein boil-off gas to be introduced into the boil-off gas heat exchanger comprises lubricant used in the boil-off gas compressor of a high pressure stage, characterized in that the boil-off gas reliquefaction system further comprises a high-temperature boil-off gas transfer line configured to transfer high-temperature boil-off gas discharged from the boil-off gas heat exchanger to a low pressure consumer upstream of the decompression valve, when high-pressure boil-off gas compressed in the boil-off gas compressor is injected into the boil-off gas heat exchanger to remove the lubricant introduced into the boil-off gas heat exchanger.
End-cap for being connected to an optical fiber of a localized surface plasmon resonance (LSPR) sensor, wherein said end-cap comprises a housing, a reflecting surface, a compartment and plasmonic nanoparticles, wherein said nanoparticles are selected from lithographic metal nanostructures, metal nanoparticles and semiconductor nanocrystals, or a combination thereof characterized in that the end-cap further comprises an arrangement for thermal regeneration wherein said thermal regeneration is induced by optical or resistive heating, and a substrate, wherein said nanoparticles are immobilized on the surface of said substrate, wherein said substrate is removable, wherein said substrate is transparent, and wherein said substrate is placed on top of the reflective surface.
Method for producing an ignition plug, comprising the following steps in the stated sequence: - providing an ignition plug housing having a cylindrical portion, - mounting a sealing element onto the portion, and - forming a thread on the portion by deformation, wherein that side of the mounted sealing element which faces towards the combustion chamber is utilized as a reference point for the positioning of the thread, - wherein a start and an end of the thread are positioned in a defined angular position with respect to a ground electrode of the ignition plug and with a defined spacing to that side of the mounted sealing element which faces toward the combustion chamber, - wherein an internal diameter of the sealing element is smaller than a nominal diameter of the thread. - providing an ignition plug housing having a cylindrical portion, - mounting a sealing element onto the portion, and - forming a thread on the portion by deformation, wherein that side of the mounted sealing element which faces towards the combustion chamber is utilized as a reference point for the positioning of the thread, - wherein a start and an end of the thread are positioned in a defined angular position with respect to a ground electrode of the ignition plug and with a defined spacing to that side of the mounted sealing element which faces toward the combustion chamber, - wherein an internal diameter of the sealing element is smaller than a nominal diameter of the thread.
A clamp apparatus comprising: a clamp arm, one end portion of which is exposed from an opening of a casing, and another end portion of which is accommodated inside the casing; a support shaft that pivotally supports the other end portion of the clamp arm at the interior of the casing; and a cylinder having a rod that is connected to the clamp arm through a toggle link mechanism arranged in the interior of the casing, and which causes the clamp arm to swing about the support shaft by converting linear movement of the rod into rotational movement through the toggle link mechanism, wherein an arcuate portion is formed on the clamp arm and is curved about the support shaft, and the arcuate portion is exposed to the exterior of the casing when the clamp arm swings so as to clamp a workpiece, wherein a scraper, which is in sliding contact against an arcuate surface of the arcuate portion when the clamp arm swings, is disposed on the casing, characterized in that the arcuate portion is accommodated inside the casing when the clamp arm swings so as to release the workpiece, and that a recess part is formed as a depression at a border between the first arcuate portion and the clamp side end portion, wherein an end of the scraper is inserted into the recess part when the clamp side end portion is placed in an upstanding posture. a clamp arm, one end portion of which is exposed from an opening of a casing, and another end portion of which is accommodated inside the casing; a support shaft that pivotally supports the other end portion of the clamp arm at the interior of the casing; and a cylinder having a rod that is connected to the clamp arm through a toggle link mechanism arranged in the interior of the casing, and which causes the clamp arm to swing about the support shaft by converting linear movement of the rod into rotational movement through the toggle link mechanism, wherein an arcuate portion is formed on the clamp arm and is curved about the support shaft, and the arcuate portion is exposed to the exterior of the casing when the clamp arm swings so as to clamp a workpiece, wherein a scraper, which is in sliding contact against an arcuate surface of the arcuate portion when the clamp arm swings, is disposed on the casing, characterized in that the arcuate portion is accommodated inside the casing when the clamp arm swings so as to release the workpiece, and that a recess part is formed as a depression at a border between the first arcuate portion and the clamp side end portion, wherein an end of the scraper is inserted into the recess part when the clamp side end portion is placed in an upstanding posture.
An aircraft brake temperature control system for controlling a temperature of a brake of a landing gear of an aircraft, the aircraft brake temperature control system comprising a controller that is configured to cause at least one fluid moving device (230, 231, 232) to drive a flow of fluid onto the brake, selectively in one of a plurality of modes, to control the temperature of the brake, characterised in that the controller is configured to cause the at least one fluid moving device to drive the flow of fluid onto the brake to control the temperature of the brake, on the basis of a condition indicating to the controller that the aircraft is in-flight.
A method for mapping from a layer to a multiplexing demodulation reference symbol, DMRS, port, applied in a pre-coding method based on a multiplexing DMRS, comprising determining a multiplexing relationship between DMRS ports; and mapping layers of data transport respectively to DMRS ports with the multiplexing relationship determined, characterised in that, when mapping layers of data transport respectively to DMRS ports with the multiplexing relationship determined, a fixed relationship is set between the layer of data transport and the DMRS port, l a y e r 0 ↔ p o r t 0 l a y e r 1 ↔ p o r t 1 l a y e r 2 ↔ p o r t 2 l a y e r 3 ↔ p o r t 3 l a y e r 4 ↔ p o r t 4 l a y e r 5 ↔ p o r t 5 l a y e r 6 ↔ p o r t 6 l a y e r 7 ↔ p o r t 7 wherein, port0, port1, port2, port3, port4, port5, port6, port7 are DMRS ports 7, 8, 9, 10, 11, 12, 13 and 14 respectively, the step of determining a multiplexing relationship between DMRS ports refers to: classifying DMRS ports 7, 8, 11 and 13 as one DMRS port group, classifying DMRS ports 9, 10, 12 and 14 as another DMRS port group, wherein various DMRS ports in classified DMRS port groups employ a code division multiplexing manner, and different DMRS port groups employ a time division and/or frequency division multiplexing manner.
A roving beverage dispensing device comprising: (a) A beverage container containing a liquid beverage to be dispensed, (b) A first, at least partially flexible, beverage dispensing line, comprising an inlet end and an outlet end, the inlet end being provided with connecting means for coupling said inlet end to the container thus bringing the liquid contained in the container in fluid communication with the outlet end of the dispensing line, (c) A second, pressure line, an outlet thereof being releasably connected to the container to bring the interior of the container in fluid communication with a source of pressurized gas, (d) A cooled compartment comprising refrigerating means and containing said container; (e) An elongated tapping column, one end thereof being fixed to the top surface of the compartment and comprising an elongated inner channel, said inner channel having a smallest diameter, D1, and bringing in fluid communication the interior of the compartment a tapping valve element located at a top end of the elongated tapping column, said tapping valve element being suitable for receiving a portion of the outlet end of the dispensing line and for controlling the flow of liquid therethrough, Characterized in that, the largest diameters of the dispensing line and the connecting means are both smaller than the smallest diameter, D1, of the elongated channel so that the dispensing line and the connecting means can be introduced from a point at or adjacent the top end of the tapping column down through the channel /2) and into the compartment where it can be connected to the container. (a) A beverage container containing a liquid beverage to be dispensed, (b) A first, at least partially flexible, beverage dispensing line, comprising an inlet end and an outlet end, the inlet end being provided with connecting means for coupling said inlet end to the container thus bringing the liquid contained in the container in fluid communication with the outlet end of the dispensing line, (c) A second, pressure line, an outlet thereof being releasably connected to the container to bring the interior of the container in fluid communication with a source of pressurized gas, (d) A cooled compartment comprising refrigerating means and containing said container; (e) An elongated tapping column, one end thereof being fixed to the top surface of the compartment and comprising an elongated inner channel, said inner channel having a smallest diameter, D1, and bringing in fluid communication the interior of the compartment a tapping valve element located at a top end of the elongated tapping column, said tapping valve element being suitable for receiving a portion of the outlet end of the dispensing line and for controlling the flow of liquid therethrough,
An ion mobility spectrometry method comprising: providing a flow of drift gas away from a detector along a drift chamber of an ion mobility spectrometer, IMS, towards an ion gate in a direction opposite to an ion's path of travel; operating the IMS to determine whether a sample comprises ions having a first characteristic based on the time of flight of ions along the chamber; in the event that it is determined that the sample comprises ions having the first characteristic, applying thermal energy together with a radio frequency, RF, electric field to parent ions so as to obtain daughter ions having a second characteristic for inferring at least one identity for the parent ions based on the first characteristic and the second characteristic, wherein the RF electric field is applied using an RF electrode comprising two grids arranged across the drift chamber. providing a flow of drift gas away from a detector along a drift chamber of an ion mobility spectrometer, IMS, towards an ion gate in a direction opposite to an ion's path of travel; operating the IMS to determine whether a sample comprises ions having a first characteristic based on the time of flight of ions along the chamber; in the event that it is determined that the sample comprises ions having the first characteristic, applying thermal energy together with a radio frequency, RF, electric field to parent ions so as to obtain daughter ions having a second characteristic for inferring at least one identity for the parent ions based on the first characteristic and the second characteristic, wherein the RF electric field is applied using an RF electrode comprising two grids arranged across the drift chamber.
An adapter for connecting an extinguishing-agent container to a pipeline connection of a fire-extinguishing system in a fluid-conducting manner, having - a first connector, which is configured to be connected to a correspondingly configured connection of the extinguishing-agent container, and - a second connector, which is configured to be connected to a corresponding pipeline connection, characterized in that the first and/or second connectors (5a,b) are each coupled to a pipe coupling by means of a spherical-cap joint (9a,b), wherein the spherical-cap joint (9a,b) has a housing (12a,b) with a first sliding surface, and a rocking piece (11a,b) with a second sliding surface, wherein the first and second sliding surfaces slide against one another and are shaped such that the rocking piece is guided in a spherically movable manner in the housing, wherein the spherical-cap joint (9a,b) has a pretensioning element, which is coupled to the rocking piece (11a,b) on one side and the housing (12a,b) on the other side, and is pretensioned in the direction of the first and second sliding surfaces (13, 15) such that the first and second sliding surfaces are pressed together in a fluidtight manner. - a first connector, which is configured to be connected to a correspondingly configured connection of the extinguishing-agent container, and - a second connector, which is configured to be connected to a corresponding pipeline connection, characterized in that the first and/or second connectors (5a,b) are each coupled to a pipe coupling by means of a spherical-cap joint (9a,b), wherein the spherical-cap joint (9a,b) has a housing (12a,b) with a first sliding surface, and a rocking piece (11a,b) with a second sliding surface, wherein the first and second sliding surfaces slide against one another and are shaped such that the rocking piece is guided in a spherically movable manner in the housing, wherein the spherical-cap joint (9a,b) has a pretensioning element, which is coupled to the rocking piece (11a,b) on one side and the housing (12a,b) on the other side, and is pretensioned in the direction of the first and second sliding surfaces (13, 15) such that the first and second sliding surfaces are pressed together in a fluidtight manner. characterized in that the first and/or second connectors (5a,b) are each coupled to a pipe coupling by means of a spherical-cap joint (9a,b), wherein the spherical-cap joint (9a,b) has a housing (12a,b) with a first sliding surface, and a rocking piece (11a,b) with a second sliding surface, wherein the first and second sliding surfaces slide against one another and are shaped such that the rocking piece is guided in a spherically movable manner in the housing, wherein the spherical-cap joint (9a,b) has a pretensioning element, which is coupled to the rocking piece (11a,b) on one side and the housing (12a,b) on the other side, and is pretensioned in the direction of the first and second sliding surfaces (13, 15) such that the first and second sliding surfaces are pressed together in a fluidtight manner.
Process for the production of ethylene carbonate and/or ethylene glycol comprising: a) supplying an overhead absorber stream withdrawn from an absorber to a vapor-liquid separator to yield an aqueous bottoms stream and a recycle gas stream; b) supplying an aqueous process stream comprising one or more impurities to a distillation apparatus to yield an overhead impurities stream and a purified aqueous process stream, wherein the aqueous process stream supplied to the distillation apparatus comprises at least a portion of the aqueous bottoms stream withdrawn from the vapor-liquid separator, wherein the overhead impurities stream is supplied to a condenser and is cooled to a temperature in the range of from 5 to 95 °C, wherein the cooled overhead impurities stream is split into a reflux stream which is recycled to the distillation apparatus and an overhead impurities stream; c) supplying at least a portion of the purified aqueous process stream and an ethylene oxide product stream to the absorber; and d) contacting the ethylene oxide product stream with the purified aqueous process stream in the absorber in the presence of one or more carboxylation and hydrolysis catalysts to yield a fat absorbent stream comprising ethylene carbonate and/or ethylene glycol. a) supplying an overhead absorber stream withdrawn from an absorber to a vapor-liquid separator to yield an aqueous bottoms stream and a recycle gas stream; b) supplying an aqueous process stream comprising one or more impurities to a distillation apparatus to yield an overhead impurities stream and a purified aqueous process stream, wherein the aqueous process stream supplied to the distillation apparatus comprises at least a portion of the aqueous bottoms stream withdrawn from the vapor-liquid separator, wherein the overhead impurities stream is supplied to a condenser and is cooled to a temperature in the range of from 5 to 95 °C, wherein the cooled overhead impurities stream is split into a reflux stream which is recycled to the distillation apparatus and an overhead impurities stream; c) supplying at least a portion of the purified aqueous process stream and an ethylene oxide product stream to the absorber; and d) contacting the ethylene oxide product stream with the purified aqueous process stream in the absorber in the presence of one or more carboxylation and hydrolysis catalysts to yield a fat absorbent stream comprising ethylene carbonate and/or ethylene glycol.
A method for wireless communication at a wireless device, comprising: identifying an anchor channel for transmission of a synchronization signal and a plurality of physical hopping channels for transmission of data; mapping the plurality of physical hopping channels to a corresponding plurality of logical hopping channels; determining a hopping sequence to be used for communication of data on the plurality of logical hopping channels such that every logical channel within the plurality of logical hopping channels is used an equal number of times within a period of time, wherein each hopping channel of the plurality of hopping channels is visited before revisiting the same hopping channel; and communicating data on the plurality of logical hopping channels in accordance with the hopping sequence. identifying an anchor channel for transmission of a synchronization signal and a plurality of physical hopping channels for transmission of data; mapping the plurality of physical hopping channels to a corresponding plurality of logical hopping channels; determining a hopping sequence to be used for communication of data on the plurality of logical hopping channels such that every logical channel within the plurality of logical hopping channels is used an equal number of times within a period of time, wherein each hopping channel of the plurality of hopping channels is visited before revisiting the same hopping channel; and communicating data on the plurality of logical hopping channels in accordance with the hopping sequence.
A method of synthesizing a molecular sieve having the structure of SSZ-109, the method comprising: (a) providing a reaction mixture comprising: a source of silicon oxide; a source of an oxide of a trivalent element, wherein the trivalent element X comprises one or more of boron and aluminum; optionally, a source of a Group 1 or Group 2 metal; a structure directing agent comprising N 1,N 6 -diisopropyl-N 1,N 1,N 6,N 6 -tetramethylhexane-1,6-diaminium cations; a source of hydroxide ions; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the molecular sieve. (a) providing a reaction mixture comprising: a source of silicon oxide; a source of an oxide of a trivalent element, wherein the trivalent element X comprises one or more of boron and aluminum; optionally, a source of a Group 1 or Group 2 metal; a structure directing agent comprising N 1,N 6 -diisopropyl-N 1,N 1,N 6,N 6 -tetramethylhexane-1,6-diaminium cations; a source of hydroxide ions; and water; and a source of silicon oxide; a source of an oxide of a trivalent element, wherein the trivalent element X comprises one or more of boron and aluminum; optionally, a source of a Group 1 or Group 2 metal; a structure directing agent comprising N 1,N 6 -diisopropyl-N 1,N 1,N 6,N 6 -tetramethylhexane-1,6-diaminium cations; a source of hydroxide ions; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the molecular sieve.