mhurhangee/ep-ind-claims huggingface dataset:
A process for producing sodium bicarbonate crystals from sodium carbonate containing silica, the process comprising: mixing a treated mother liquor from a downstream process with the sodium carbonate to form a sodium carbonate solution; crystallizing the sodium carbonate solution by directing the sodium carbonate solution through a carbonating tower and injecting CO 2 into the carbonating tower to form sodium bicarbonate crystals; clarifying the sodium carbonate solution to produce a concentrate having the sodium bicarbonate crystals and a mother liquor containing silica; directing the mother liquor to a reactor; mixing an aluminum salt with the mother liquor; precipitating hydrous aluminum oxide in the mother liquor; adsorbing silica onto the hydrous aluminum oxide in the mother liquor; and separating the hydrous aluminum oxide having the adsorbed silica from the mother liquor to form the treated mother liquor that is mixed with the sodium carbonate to form the sodium carbonate solution. mixing a treated mother liquor from a downstream process with the sodium carbonate to form a sodium carbonate solution; crystallizing the sodium carbonate solution by directing the sodium carbonate solution through a carbonating tower and injecting CO 2 into the carbonating tower to form sodium bicarbonate crystals; clarifying the sodium carbonate solution to produce a concentrate having the sodium bicarbonate crystals and a mother liquor containing silica; directing the mother liquor to a reactor; mixing an aluminum salt with the mother liquor; precipitating hydrous aluminum oxide in the mother liquor; adsorbing silica onto the hydrous aluminum oxide in the mother liquor; and separating the hydrous aluminum oxide having the adsorbed silica from the mother liquor to form the treated mother liquor that is mixed with the sodium carbonate to form the sodium carbonate solution.
A method performed at an enhanced node B, the method comprising: checking a buffer of the enhanced node B for data for a particular user equipment; signaling a decrease in a rate of periodic channel quality indication reports upon determination that the buffer has been empty for a predetermined time, the signaling comprising: sending a channel quality indication reporting rate to the user equipment specifying that the reporting rate is reduced and sending to the user equipment a notification to use partial channel quality indication information; the method further comprising releasing network resources required for channel quality indication reporting. checking a buffer of the enhanced node B for data for a particular user equipment; signaling a decrease in a rate of periodic channel quality indication reports upon determination that the buffer has been empty for a predetermined time, the signaling comprising: sending a channel quality indication reporting rate to the user equipment specifying that the reporting rate is reduced and sending to the user equipment a notification to use partial channel quality indication information; the method further comprising sending a channel quality indication reporting rate to the user equipment specifying that the reporting rate is reduced and sending to the user equipment a notification to use partial channel quality indication information; the method further comprising releasing network resources required for channel quality indication reporting.
A method for manufacturing a conductor comprising removing metal impurities in a conductor by irradiating microwave on the conductor including the metal impurities and converting the metal impurities into metal oxides, wherein the conductor including the metal impurities consists of any one, two or more selected from the group consisting of carbon black, acetylene black, Ketjen black, channel black, furnace black, lamp black, thermal black, denca black, super P, super C, and activated carbon, and wherein the microwave irradiation is carried out using only oxygen in the air without using a separate oxidizing agent.
Wind farm, comprising multiple wind power installations, each equipped in the same manner with a rotatably mounted rotor structure, control means for controlling the operation of the individual wind power installations and a communication device, wherein the control means are designed to synchronize the rotary movements of the rotor structures of at least some of the wind power installations, and wherein the communication device is designed to communicate a desired rotary movement and/or one or more sensor-detected rotary movements of the rotor structures to a radar system.
Motor vehicle circuit arrangement with - at least two semiconductor components, and - at least a first metallic carrier board and a first metallic printed circuit board as well as a second metallic printed circuit board, wherein - the carrier board being electrically insulated from the first and second circuit boards, and - the carrier board being electrically connected to at least the first printed circuit board via at least one first semiconductor component, and - the carrier board being electrically connected to at least the second printed circuit board via at least one second semiconductor component so that the carrier board and the printed circuit boards form an electrical three-pole, wherein, - the carrier board is electrically short-circuited to a respective power terminal of the first and second semiconductor components, the respective power terminal being electrically contacted to a metallic coating applied directly to the carrier board, - the first and second printed circuit boards have strip lines and a power terminal of the respective first semiconductor component is short-circuited to the first printed circuit board and of the respective second semiconductor component to the second printed circuit board via a contact pad spaced apart from the strip lines, wherein the contact pad being arranged in a contact region which is arranged as a window-like opening in an insulating layer of the printed circuit board and a switching terminal of the respective first and second semiconductor component being short-circuited to the respective strip line. - at least two semiconductor components, and - at least a first metallic carrier board and a first metallic printed circuit board as well as a second metallic printed circuit board, wherein - the carrier board being electrically insulated from the first and second circuit boards, and - the carrier board being electrically connected to at least the first printed circuit board via at least one first semiconductor component, and - the carrier board being electrically connected to at least the second printed circuit board via at least one second semiconductor component so that the carrier board and the printed circuit boards form an electrical three-pole, wherein, - the carrier board is electrically short-circuited to a respective power terminal of the first and second semiconductor components, the respective power terminal being electrically contacted to a metallic coating applied directly to the carrier board, - the first and second printed circuit boards have strip lines and a power terminal of the respective first semiconductor component is short-circuited to the first printed circuit board and of the respective second semiconductor component to the second printed circuit board via a contact pad spaced apart from the strip lines, wherein the contact pad being arranged in a contact region which is arranged as a window-like opening in an insulating layer of the printed circuit board and a switching terminal of the respective first and second semiconductor component being short-circuited to the respective strip line.
An e-bike battery configured to be inserted into and coupled to an e-bike frame assembly of an e-bike, the e-bike battery comprising: a battery housing; a battery mount (70, 74) located along a side of the battery housing, wherein the battery mount (70, 74) defines an aperture (78, 82) configured to receive a fastener (110, 114); characterized in that a resilient pad (86, 90) is located adjacent the battery mount (70, 74) and at an outer surface of the battery housing, wherein the resilient pad (86, 90) extends at least partially around the aperture (78, 82), and is configured to be compressed between the battery housing and the e-bike frame assembly when the e-bike battery is coupled to the e-bike frame assembly with the fastener (110, 114), wherein the resilient pad (86, 90) is formed with the battery housing and the battery housing includes a housing material that is less resilient than a pad material of the resilient pad (86, 90), and wherein the battery housing includes a projecting lip (102, 106) which surrounds at least partially the resilient pad (86, 90). a battery housing; a battery mount (70, 74) located along a side of the battery housing, wherein the battery mount (70, 74) defines an aperture (78, 82) configured to receive a fastener (110, 114); characterized in that a resilient pad (86, 90) is located adjacent the battery mount (70, 74) and at an outer surface of the battery housing, wherein the resilient pad (86, 90) extends at least partially around the aperture (78, 82), and is configured to be compressed between the battery housing and the e-bike frame assembly when the e-bike battery is coupled to the e-bike frame assembly with the fastener (110, 114), wherein the resilient pad (86, 90) is formed with the battery housing and the battery housing includes a housing material that is less resilient than a pad material of the resilient pad (86, 90), and wherein the battery housing includes a projecting lip (102, 106) which surrounds at least partially the resilient pad (86, 90).
An actuator for operating a valve in a fluid line comprising: - an actuating member with an actuating element for transferring a force to the valve, wherein the actuating member is mounted to move between a first and a second position, - a spring for storing energy and for moving the actuating member from a dead point to its second position by means of this energy in order to thereby move the actuating element, - lock means (10, 17) for locking the actuating member in its first position, - release means for releasing the actuating member in order to allow the actuating member to move from the first to the second position, the release means being pressure operated and adapted to be in contact with the fluid line and wherein the release means release the actuating member when the pressure in the fluid line exceeds a threshold, and - wherein the actuating member is connected to a resistance element for controlling the maximum translation speed of the actuating member. - an actuating member with an actuating element for transferring a force to the valve, wherein the actuating member is mounted to move between a first and a second position, - a spring for storing energy and for moving the actuating member from a dead point to its second position by means of this energy in order to thereby move the actuating element, - lock means (10, 17) for locking the actuating member in its first position, - release means for releasing the actuating member in order to allow the actuating member to move from the first to the second position, the release means being pressure operated and adapted to be in contact with the fluid line and wherein the release means release the actuating member when the pressure in the fluid line exceeds a threshold, and - wherein the actuating member is connected to a resistance element for controlling the maximum translation speed of the actuating member.
A device for manipulating an inner conductor (20, 20-1...20-8), from a plurality of inner conductors (20, 20-1...20-8) at a stripped end of a sheathed cable, comprising: a manipulation device, which is pivotable from an initial position about a pivot axis, wherein the pivot axis extends essentially perpendicularly to the axial direction of the end of the sheathed cable, wherein the end of the sheathed cable is alignable relative to the manipulation device in a plane which extends essentially perpendicular to the axis of the end of the sheathed cable; wherein the manipulation device comprises an inner conductor gripper for gripping the end of the inner conductor, characterized in that the manipulation device further comprises: a needle, the needle axis of which extends approximately in the axial direction in the initial position of the manipulation device, wherein the needle is movable toward an end of the inner conductor along the needle axis in the initial position of the manipulation device. a manipulation device, which is pivotable from an initial position about a pivot axis, wherein the pivot axis extends essentially perpendicularly to the axial direction of the end of the sheathed cable, wherein the end of the sheathed cable is alignable relative to the manipulation device in a plane which extends essentially perpendicular to the axis of the end of the sheathed cable; wherein the manipulation device comprises an inner conductor gripper for gripping the end of the inner conductor, characterized in that the manipulation device further comprises: a needle, the needle axis of which extends approximately in the axial direction in the initial position of the manipulation device, wherein the needle is movable toward an end of the inner conductor along the needle axis in the initial position of the manipulation device.
A recombinant adeno-associated viral (rAAV) nucleic acid vector of the AAV8 serotype comprising: a polynucleotide that includes a nucleic acid segment that encodes a full-length mammalian myelin basic protein, proteolipid protein, or myelin oligodendrocyte glycoprotein operably linked to a promoter that is capable of expressing the nucleic acid segment in one or more cells of a mammalian liver.
A system for calorimetry comprising: a microfluidic laminar flow channel a portion of which includes a reaction chamber; a first inlet coupled to the reaction chamber; a second inlet coupled to the reaction chamber; a plurality of microscale sensors disposed along the microfluidic reaction chamber; a first fluid injector coupled to the first inlet configured to inject a first reagent bolus of a first fluid into the reaction chamber; a second fluid injector coupled to the second inlet configured to inject a second fluid into the reaction chamber such that the volume of a second fluid in the reaction chamber is between about 4 and about 10 times greater than the volume of the first reagent bolus in the reaction chamber; and a processor configured to calculate a calorimetry value based on a plurality of temperature measurements made at each of two or more of the plurality of microscale sensors, the plurality of temperature measurements made over a plurality of first reagent concentrations as the first reagent bolus inter-diffuses with the second fluid and flows through the microfluidic reaction chamber. a microfluidic laminar flow channel a portion of which includes a reaction chamber; a first inlet coupled to the reaction chamber; a second inlet coupled to the reaction chamber; a plurality of microscale sensors disposed along the microfluidic reaction chamber; a first fluid injector coupled to the first inlet configured to inject a first reagent bolus of a first fluid into the reaction chamber; a second fluid injector coupled to the second inlet configured to inject a second fluid into the reaction chamber such that the volume of a second fluid in the reaction chamber is between about 4 and about 10 times greater than the volume of the first reagent bolus in the reaction chamber; and a processor configured to calculate a calorimetry value based on a plurality of temperature measurements made at each of two or more of the plurality of microscale sensors, the plurality of temperature measurements made over a plurality of first reagent concentrations as the first reagent bolus inter-diffuses with the second fluid and flows through the microfluidic reaction chamber.
A high-pressure pump equipped with a valve element configured to include: a seat portion that has a seat surface seated on a seating surface of a peripheral edge of an opening of a valve element insertion hole; a stem portion that extends in an axial direction from the seat portion; and a plurality of guide vane portions that have sliding contact surfaces in sliding contact with an inner peripheral surface of the valve element insertion hole and are placed at predetermined intervals apart from each other in a circumferential direction around the stem portion, wherein fuel flow paths are defined by the guide vane portions adjacent to each other in the circumferential direction and the inner peripheral surface of the valve element insertion hole, on one surface of both circumferential direction side surfaces of each of the guide vane portions, there are disposed projecting surfaces that are formed in such a way as to project toward the fuel flow paths and are for allowing fuel passing through the fuel flow paths to impact thereon to thereby convert the kinetic energy of the fuel into an axial rotational force on the valve element, and when the valve element is seen in the axial direction, centerlines of the width of sections of the guide vane portions at which the width is the narrowest are positioned on the projecting surface sides of parallel lines that are parallel to the centerlines and pass through a stem core of the stem portion, characterized in that the guide vane portions have same width from their axial direction lower end portions at least to their axial direction central portions, the width of the guide vane portions becomes larger approaching the seat portion.
A method comprising: tracking execution of a metadata operation to identify a set of objects that are modified by the execution of the metadata operation; storing a set of identifiers of the set of objects in association with the metadata operation; determining that the metadata operation is to be replayed for a target file system; querying, using the set of identifiers, a tracking data structure used to track identifiers of objects that will be modified by pending operations dispatched to the target file system, wherein during the initial execution of the metadata operations, the execution of the metadata operations is tracked to determine the data objects that are modified by the metadata operations, wherein the tracking data structure is populated with the corresponding set of identifiers corresponding to set of objects that are modified by each said metadata operation; dispatching the metadata operation to the target file system for replay based upon the set of identifiers not matching at least one identifier within the tracking data structure; and withholding dispatch of the metadata operation to the target file system for replay based upon the set of identifiers matching at least one identifier within the tracking data structure. tracking execution of a metadata operation to identify a set of objects that are modified by the execution of the metadata operation; storing a set of identifiers of the set of objects in association with the metadata operation; determining that the metadata operation is to be replayed for a target file system; querying, using the set of identifiers, a tracking data structure used to track identifiers of objects that will be modified by pending operations dispatched to the target file system, wherein during the initial execution of the metadata operations, the execution of the metadata operations is tracked to determine the data objects that are modified by the metadata operations, wherein the tracking data structure is populated with the corresponding set of identifiers corresponding to set of objects that are modified by each said metadata operation; dispatching the metadata operation to the target file system for replay based upon the set of identifiers not matching at least one identifier within the tracking data structure; and withholding dispatch of the metadata operation to the target file system for replay based upon the set of identifiers matching at least one identifier within the tracking data structure.
Basic part for an electrical connector comprising at least one or more basic parts, said part produced in a non-conductive material comprises contact fingers and a metal coating applied to at least a part of said part and contact fingers to form tracks for conveying electricity, characterized in that at least a part of tracks at the level of the fingers is an electrical contact.
A vehicle automatic transmission of a multistage type having a plurality of shift stages selectively established depending on a combination of engagement and release of multiple engagement elements (C1, C2, C3, B1, B2, B3), comprising: a torque converter coupled to an input rotating member of the automatic transmission; and an oil pump coupled to a pump side of the torque converter, the vehicle automatic transmission characterized in that at least one of the multiple engagement elements is a meshing engagement element, and the meshing engagement element is at least partially disposed on an inner circumferential side of the torque converter in a portion overlapping with the torque converter in a center axis direction and/or on an inner circumferential side of the oil pump in a portion overlapping with the oil pump in a center axis direction. a torque converter coupled to an input rotating member of the automatic transmission; and an oil pump coupled to a pump side of the torque converter, the vehicle automatic transmission characterized in that at least one of the multiple engagement elements is a meshing engagement element, and the meshing engagement element is at least partially disposed on an inner circumferential side of the torque converter in a portion overlapping with the torque converter in a center axis direction and/or on an inner circumferential side of the oil pump in a portion overlapping with the oil pump in a center axis direction.