mhurhangee/patent-ind-claim-en huggingface dataset:
A combine comprising: a vehicle body frame mounting an engine ; an engine controlling section for controlling a rotational speed of the engine ; a position changing mechanism for varying a position of the vehicle body frame by an operation of an actuator that uses power from the engine ; a horizontal position controlling section for setting the vehicle body frame to a horizontal position by controlling the position changing mechanism ; a grain tank mounted on the vehicle body frame and configured to store grains conveyed from a threshing device ; a load cell for measuring a weight of the grain tank ; a yield measuring section for measuring a yield of the grains stored in the grain tank based on measurement result of the load cell ; an activation operational tool that outputs an activation signal for activating yield measurement by the yield measuring section ; and a yield controlling section configured to provide a high-speed rotation instruction for causing the engine to be driven at a rated rotational speed to the engine controlling section , in response to the activation signal and configured also to provide a horizontal position instruction for setting the vehicle body frame to a horizontal position to the horizontal position controlling section by an operation of the position changing mechanism . a vehicle body frame mounting an engine ; an engine controlling section for controlling a rotational speed of the engine ; a position changing mechanism for varying a position of the vehicle body frame by an operation of an actuator that uses power from the engine ; a horizontal position controlling section for setting the vehicle body frame to a horizontal position by controlling the position changing mechanism ; a grain tank mounted on the vehicle body frame and configured to store grains conveyed from a threshing device ; a load cell for measuring a weight of the grain tank ; a yield measuring section for measuring a yield of the grains stored in the grain tank based on measurement result of the load cell ; an activation operational tool that outputs an activation signal for activating yield measurement by the yield measuring section ; and a yield controlling section configured to provide a high-speed rotation instruction for causing the engine to be driven at a rated rotational speed to the engine controlling section , in response to the activation signal and configured also to provide a horizontal position instruction for setting the vehicle body frame to a horizontal position to the horizontal position controlling section by an operation of the position changing mechanism .
An electronic-grade glass fiber composition, comprising the following components with corresponding amounts by weight percentages: SiO 2 54.2-60% Al 2 O 3 11-17.5% B 2 O 3 0.7-4.5% CaO 18-23.8% MgO 1-5.5% RO=CaO+MgO less than or equal to 24.8% R 2 O=Na 2 O+K 2 O+Li 2 O less than 1% Na 2 O+K 2 O 0.1-0.65% TiO 2 0.05-0.8% Fe 2 O 3 0.05-0.7% F 2 0.01-1.2% wherein a weight percentage ratio C1=SiO 2 /(RO+R 2 O) is greater than or equal to 2.20, and a total weight percentage of the above components is greater than or equal to 98.5%.
A method performed by a network node of a wireless network, for indicating assignment of measurement resources in a predefined region of a resource block transmitted by the network node , the method comprising: - identifying at least one wireless device that is required to perform measurements on signals transmitted by the network node and/or measurements of interference, - assigning to the at least one identified wireless device usage of the measurement resources in the predefined region, and - signalling an indication of the assigned usage of the measurement resources to the at least one wireless device , said indication specifying how the respective measurement resources should be used by the at least one wireless device , wherein the assigning of the usage of the measurement resources and the signaling of the indication is performed dynamically such that the usage of the measurement resources is valid for a limited number of transmitted resource blocks, and wherein the assigning can be changed on a per resource block basis depending on the at least one identified wireless device and the indication of the changed assigned usage is signalled from the network node to the at least one wireless device . - identifying at least one wireless device that is required to perform measurements on signals transmitted by the network node and/or measurements of interference, - assigning to the at least one identified wireless device usage of the measurement resources in the predefined region, and - signalling an indication of the assigned usage of the measurement resources to the at least one wireless device , said indication specifying how the respective measurement resources should be used by the at least one wireless device ,
A control valve assembly for a fluid treatment system comprising: a housing having a top portion and a bottom portion secured to the top portion , the housing including an inlet and an outlet ; at least two modular chambers secured in the housing , a first chamber configured to receive fluid from the inlet and a second chamber configured to provide fluid to the outlet ; said modular chambers being engaged with each other using seals between adjacent chambers, said modular chambers engage slots and pins located on adjacent chambers to form a cylinder , once assembled, the cylinder is inserted into the housing and the chambers include engagement portions configured to engage one of the top and bottom housing portions so that each said modular chamber is removable from said housing without the use of tools; a piston comprising a shaft with a plurality of sealing rings , the piston extending through the housing and through the first chamber and the second chamber and being configured to move in a direction along its longitudinal axis to control a flow of fluid in the control valve assembly . a housing having a top portion and a bottom portion secured to the top portion , the housing including an inlet and an outlet ; at least two modular chambers secured in the housing , a first chamber configured to receive fluid from the inlet and a second chamber configured to provide fluid to the outlet ; said modular chambers being engaged with each other using seals between adjacent chambers, said modular chambers engage slots and pins located on adjacent chambers to form a cylinder , once assembled, the cylinder is inserted into the housing and the chambers include engagement portions configured to engage one of the top and bottom housing portions so that each said modular chamber is removable from said housing without the use of tools; a piston comprising a shaft with a plurality of sealing rings , the piston extending through the housing and through the first chamber and the second chamber and being configured to move in a direction along its longitudinal axis to control a flow of fluid in the control valve assembly .
A method for recovering lithium from lithium-containing wastewater, comprising the following steps: adjusting a pH of the lithium-containing wastewater to be 2-7; and preparing and saponifying an organic phase successively, adding a saponified organic phase to the lithium-containing wastewater for extraction, and separating an aqueous phase to obtain a loaded organic phase containing lithium ions; wherein a solution for adjusting the pH of the lithium-containing wastewater is sulfuric acid; the organic phase comprises the following components: an extractant, a co-extractant and a diluent; wherein, the organic phase consists of the following components by mass percentage: 10%-40% of the extractant, 10%-40% of the co-extractant and 20%-70% of the diluent; the extractant is bis(2,4,4-trimethylpentyl) phosphinic acid; the co-extractant is tributyl phosphate; the diluent is sulfonated kerosene; a solution used for saponifying is sodium hydroxide; the saponified organic phase and the lithium-containing wastewater are in a volume ratio of 1 : (0.5-4) for extraction; the extraction is multi-stage countercurrent extraction; wherein in step , the lithium-containing wastewater mainly comprises Li + , Na + and SO 4 2- ; the Li + concentration of the lithium-containing wastewater is 0.5-4.0 g/L; the Na + concentration of the lithium-containing wastewater is 15-40 g/L. adjusting a pH of the lithium-containing wastewater to be 2-7; and preparing and saponifying an organic phase successively, adding a saponified organic phase to the lithium-containing wastewater for extraction, and separating an aqueous phase to obtain a loaded organic phase containing lithium ions; wherein a solution for adjusting the pH of the lithium-containing wastewater is sulfuric acid; the organic phase comprises the following components: an extractant, a co-extractant and a diluent; wherein, the organic phase consists of the following components by mass percentage: 10%-40% of the extractant, 10%-40% of the co-extractant and 20%-70% of the diluent; the extractant is bis(2,4,4-trimethylpentyl) phosphinic acid; the co-extractant is tributyl phosphate; the diluent is sulfonated kerosene; a solution used for saponifying is sodium hydroxide; the saponified organic phase and the lithium-containing wastewater are in a volume ratio of 1 : (0.5-4) for extraction; the extraction is multi-stage countercurrent extraction; wherein in step , the lithium-containing wastewater mainly comprises Li + , Na + and SO 4 2- ; the Li + concentration of the lithium-containing wastewater is 0.5-4.0 g/L; the Na + concentration of the lithium-containing wastewater is 15-40 g/L.
A flange for a gas turbine engine case , the flange comprising: a flange body ; a plurality of fastener holes formed through the flange body , each of the plurality of fastener holes configured to receive a fastener ; a plurality of radial slots formed through the flange body , wherein each of the plurality of radial slots is adjacent to and extends to one of the plurality of fastener holes and extends to an outer edge of the flange body , each of the plurality of radial slots defining a first portion of the flange body and a second portion of the flange body, and each of the plurality of radial slots preventing a transfer of a hoop stress between a respective first portion and a respective second portion ; and a scallop feature defined between at least two of the plurality of radial slots . a flange body ; a plurality of fastener holes formed through the flange body , each of the plurality of fastener holes configured to receive a fastener ; a plurality of radial slots formed through the flange body , wherein each of the plurality of radial slots is adjacent to and extends to one of the plurality of fastener holes and extends to an outer edge of the flange body , each of the plurality of radial slots defining a first portion of the flange body and a second portion of the flange body, and each of the plurality of radial slots preventing a transfer of a hoop stress between a respective first portion and a respective second portion ; and a scallop feature defined between at least two of the plurality of radial slots .
A fume capture and removal system for capturing and removing welding fumes generated when mounted to a welding torch , comprising (a) a fume diverter , (b) a boot assembly , and (c) a vacuum hose assembly , characterized in that the boot assembly comprises a boot mount , a boot positioner and a boot and that the boot positioner is a clamping device comprising a clip and a clamp spring , wherein the connection between the boot mount and the fume diverter is rotatable such that the boot mount is free to rotate relative to the fume diverter , and whereby, in use, the fume diverter is installed over the torch neck and, in use, the boot positioner is clipped onto the neck of the welding torch . (a) a fume diverter , (b) a boot assembly , and (c) a vacuum hose assembly , characterized in that the boot assembly comprises a boot mount , a boot positioner and a boot and that the boot positioner is a clamping device comprising a clip and a clamp spring , wherein the connection between the boot mount and the fume diverter is rotatable such that the boot mount is free to rotate relative to the fume diverter , and whereby, in use, the fume diverter is installed over the torch neck and, in use, the boot positioner is clipped onto the neck of the welding torch .
A system for inspecting a rail wheel , the system comprising at least one phased array probe for inspecting the rail wheel , the at least one phased array probe being configured for inspecting, upon rotation of the rail wheel , multiple annular portions of the rail wheel , including a web portion , from multiple radial positions of the at least one phased array probe ; characterized by a pair of opposing phased array probes for inspecting opposite sides of the rail wheel , automated arms connected to the phased array probes for moving each of the opposing phased array probes along corresponding radial tracks with multiple radial positions and a gantry system for supporting and rotating the rail wheel .
A method for the recovery of precipitates selected from the group of calcium nitrate, calcium phosphate, calcium sulphate and aluminium hydroxophosphate of phosphate-containing ashes from waste incineration plants and for the optional manufacture of phosphoric acid, the method at least comprising the recovery of calcium sulphate, characterized in that a) the solids/ashes are reacted with nitric acid or phosphoric acid or a mineral acid mixture of the two acids, b) the acid-insoluble part of the solids is separated, c) a pH value of <1 is set by adding sulfuric acid to the filtrate or supernatant, and calcium sulphate-precipitate is recovered and separated, and d) the filtrate or the supernatant is at least partially returned for use in step a), e) optionally, the filtrate or the supernatant is concentrated, preferably by evaporation, to recover phosphoric acid or nitrous phosphoric acid, f) optionally, calcium phosphate-precipitate and calcium nitrate-precipitate are recovered and separated by adding calcium oxide or calcium carbonate to the filtrate or to the supernatant. a) the solids/ashes are reacted with nitric acid or phosphoric acid or a mineral acid mixture of the two acids, b) the acid-insoluble part of the solids is separated, c) a pH value of <1 is set by adding sulfuric acid to the filtrate or supernatant, and calcium sulphate-precipitate is recovered and separated, and d) the filtrate or the supernatant is at least partially returned for use in step a), e) optionally, the filtrate or the supernatant is concentrated, preferably by evaporation, to recover phosphoric acid or nitrous phosphoric acid, f) optionally, calcium phosphate-precipitate and calcium nitrate-precipitate are recovered and separated by adding calcium oxide or calcium carbonate to the filtrate or to the supernatant.
A system information, SI, transmission method, performed by a base station, characterized in that the method comprises: sending (S11) a paging message that comprises indication information configured to indicate that other SI is to be broadcast in a specified time period; wherein the specified time period comprises at least two SI windows from a SI window after a radio subframe where the paging message is located; wherein the paging message is a short message included in downlink control information, DCI; and broadcasting (S12) the other SI indicated by the indication information in the specified time period; wherein two continuous SI windows comprise a same system information block, SIB. sending (S11) a paging message that comprises indication information configured to indicate that other SI is to be broadcast in a specified time period; wherein the specified time period comprises at least two SI windows from a SI window after a radio subframe where the paging message is located; wherein the paging message is a short message included in downlink control information, DCI; and broadcasting (S12) the other SI indicated by the indication information in the specified time period; wherein two continuous SI windows comprise a same system information block, SIB.
A multi-purpose selective solid culture medium for isolating and selecting, from samples containing it, bacteria selected from (a) colistin-resistant fermenting and non-fermenting Gram-negative bacteria and (b) vancomycin-resistant Gram-positive bacteria, characterized in that it consists essentially of an agar-agar to which is added a chromogenic agent consisting of bromocresol purple, a sugar and two antibiotic compounds consisting of vancomycin and colistin.
A flying object system comprising: a flying object ; and a master unit configured to be detachably connectable with the flying object , wherein the flying object comprises: a rotor blade configured to generate lift or thrust by rotating; and a rotating electrical machine unit configured to rotate the rotor blade , wherein the rotor blade is configured to receive wind power and rotate when not flying, and wherein the rotating electrical machine unit is configured to generate electric power based on a power that rotates the rotor blade when not flying, and wherein the master unit comprises a departure/arrival device configured to rotate the flying object around an axis in a horizontal direction, characterized in that the departure/arrival device is configured to: make a rotation axis of the rotor blade to rotate in a direction in which the rotor blade receives the wind power and rotates to generate electric power with the rotating electrical machine unit ; and make, when the flying object takes off, the rotation axis of the rotor blade to rotate in a direction in which the flying object can take off. a flying object ; and a master unit configured to be detachably connectable with the flying object , wherein the flying object comprises: a rotor blade configured to generate lift or thrust by rotating; and a rotating electrical machine unit configured to rotate the rotor blade , wherein the rotor blade is configured to receive wind power and rotate when not flying, and wherein the rotating electrical machine unit is configured to generate electric power based on a power that rotates the rotor blade when not flying, and a rotor blade configured to generate lift or thrust by rotating; and a rotating electrical machine unit configured to rotate the rotor blade , wherein the rotor blade is configured to receive wind power and rotate when not flying, and wherein the rotating electrical machine unit is configured to generate electric power based on a power that rotates the rotor blade when not flying, and wherein the master unit comprises a departure/arrival device configured to rotate the flying object around an axis in a horizontal direction, characterized in that the departure/arrival device is configured to: make a rotation axis of the rotor blade to rotate in a direction in which the rotor blade receives the wind power and rotates to generate electric power with the rotating electrical machine unit ; and make, when the flying object takes off, the rotation axis of the rotor blade to rotate in a direction in which the flying object can take off. make a rotation axis of the rotor blade to rotate in a direction in which the rotor blade receives the wind power and rotates to generate electric power with the rotating electrical machine unit ; and make, when the flying object takes off, the rotation axis of the rotor blade to rotate in a direction in which the flying object can take off.
A method of operating a gas turbine combustor which includes a pilot burner and a main burner (39A-39F) arranged around an outer circumference of the pilot burner , the pilot burner being configured to be capable of performing an oil burning and a gas burning, and the main burner (39A-39F) being configured to be capable of performing at least the gas burning, wherein upon switching of a combustion by the pilot burner from the oil burning to the gas burning, a gas fuel is supplied to the main burner (39A-39F) to start the gas burning, and subsequently the gas fuel is supplied to the pilot burner to start the gas burning.
A mobile phone , comprising: a processor ; and a memory with instructions stored therein which are accessible and processable by said processor, which, when processed by the processor, cause said processor to obtain a concurrently combined antenna subset list from a base station which identifies a configuration of virtual antennas , which represent a mapping of signals to physical antenna elements, associated with a scheduling unit that is associated with an at least one base station ; measure pilot signals from the physical antenna elements; use the concurrently combined antenna subset list and the measured pilot signals for selecting which configuration of at least one of the virtual antennas (VA1a...VA4a, VA1b...VA4b, VA1c...VA8c, VA1d...VA8d) should be used for transmissions; and send an antenna selection signal to said base station which contains information requesting a scheduling unit to use said selected at least one virtual antennas for transmissions, wherein said concurrently combined antenna subset list is: a concurrent combination of a first antenna subset list and a second antenna subset list that allows up to one virtual antenna to be selected from the first antenna subset list and up to one virtual antenna to be selected from the second antenna subset list. a processor ; and a memory with instructions stored therein which are accessible and processable by said processor, which, when processed by the processor, cause said processor to obtain a concurrently combined antenna subset list from a base station which identifies a configuration of virtual antennas , which represent a mapping of signals to physical antenna elements, associated with a scheduling unit that is associated with an at least one base station ; measure pilot signals from the physical antenna elements; use the concurrently combined antenna subset list and the measured pilot signals for selecting which configuration of at least one of the virtual antennas (VA1a...VA4a, VA1b...VA4b, VA1c...VA8c, VA1d...VA8d) should be used for transmissions; and send an antenna selection signal to said base station which contains information requesting a scheduling unit to use said selected at least one virtual antennas for transmissions, wherein said concurrently combined antenna subset list is: a concurrent combination of a first antenna subset list and a second antenna subset list that allows up to one virtual antenna to be selected from the first antenna subset list and up to one virtual antenna to be selected from the second antenna subset list. a concurrent combination of a first antenna subset list and a second antenna subset list that allows up to one virtual antenna to be selected from the first antenna subset list and up to one virtual antenna to be selected from the second antenna subset list.