mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling a gas turbine engine having in axial flow series, a booster compressor , a core compressor , combustion equipment , a core turbine , and a low-pressure turbine , the core turbine driving the core compressor via an interconnecting high-pressure shaft , the low-pressure turbine driving the booster compressor via an interconnecting low pressure shaft , and the low-pressure turbine also driving an external load having a defined speed characteristic that dictates the speed of the low-pressure turbine and booster compressor, the booster compressor having one or more rows of variable stator vanes, wherein the method includes: scheduling variation in the angle of the variable stator vanes as a function of the speed of the booster compressor such that the vanes open as the booster compressor speed increases; measuring or setting one or more operational parameters which are determinative of the temperature at entry to the core turbine; and biasing the scheduling of the angle variation of the variable stator vanes as a function of the operational parameter(s) across a range of engine power demand levels and/or across a range of air temperatures at the inlet of an air intake to the engine such that the angle of the variable stator vanes is changed whilst the speed of the booster compressor remains fixed, and regulating fuel flow, to maintain a constant temperature at entry to the core turbine. scheduling variation in the angle of the variable stator vanes as a function of the speed of the booster compressor such that the vanes open as the booster compressor speed increases; measuring or setting one or more operational parameters which are determinative of the temperature at entry to the core turbine; and biasing the scheduling of the angle variation of the variable stator vanes as a function of the operational parameter(s) across a range of engine power demand levels and/or across a range of air temperatures at the inlet of an air intake to the engine such that the angle of the variable stator vanes is changed whilst the speed of the booster compressor remains fixed, and regulating fuel flow, to maintain a constant temperature at entry to the core turbine.
A method of controlling an additive manufacturing process in which a directed energy source is used to selectively melt material to form a workpiece, forming a melt pool in the process of melting, the method comprising: using an imaging apparatus to generate an image of the melt pool comprising an array of individual image elements , the image including a measurement of at least one physical property for each of the individual image elements ; from the measurements, mapping a melt pool boundary of the melt pool ; computing a fractal dimension of the melt pool ; and controlling at least one aspect of the additive manufacturing process with reference to the fractal dimension. using an imaging apparatus to generate an image of the melt pool comprising an array of individual image elements , the image including a measurement of at least one physical property for each of the individual image elements ; from the measurements, mapping a melt pool boundary of the melt pool ; computing a fractal dimension of the melt pool ; and controlling at least one aspect of the additive manufacturing process with reference to the fractal dimension.
A syringe comprising: a body portion including an inner cavity capable of being filled with a medicinal solution; a female port nozzle portion that extends from a distal end of the body portion into which a male luer is inserted; and a proximal end opening formed on a proximal end portion of the body portion, wherein the female port nozzle portion includes a communication port through which an inner portion of the female port nozzle portion is communicated with the inner cavity of the body portion on a proximal end of the female port nozzle portion, the body portion includes a distal end wall surface that extends radially outward from the communication port of the female port nozzle portion and faces the inner cavity, and a side wall surface that extends from an outer edge of the distal end wall surface in a proximal end direction and faces the inner cavity, the distal end wall surface of the body portion includes an inner edge portion adjacent to the communication port of the female port nozzle portion, and wherein liquid lubricant (L) is applied on the side wall surface of the body portion, characterised in that the syringe further comprises a concave portion arranged radially outside the inner edge portion and is concave in a distal end direction more than at least a part of the inner edge portion, wherein the concave portion of the distal end wall surface is arranged so as to fully surround the communication port of the female port nozzle portion and is able to store the liquid lubricant. a body portion including an inner cavity capable of being filled with a medicinal solution; a female port nozzle portion that extends from a distal end of the body portion into which a male luer is inserted; and a proximal end opening formed on a proximal end portion of the body portion, wherein the female port nozzle portion includes a communication port through which an inner portion of the female port nozzle portion is communicated with the inner cavity of the body portion on a proximal end of the female port nozzle portion, the body portion includes a distal end wall surface that extends radially outward from the communication port of the female port nozzle portion and faces the inner cavity, and a side wall surface that extends from an outer edge of the distal end wall surface in a proximal end direction and faces the inner cavity, the distal end wall surface of the body portion includes an inner edge portion adjacent to the communication port of the female port nozzle portion, and wherein liquid lubricant (L) is applied on the side wall surface of the body portion, characterised in that the syringe further comprises a concave portion arranged radially outside the inner edge portion and is concave in a distal end direction more than at least a part of the inner edge portion, wherein the concave portion of the distal end wall surface is arranged so as to fully surround the communication port of the female port nozzle portion and is able to store the liquid lubricant.
A power allocation method performed by a network device , comprising: allocating transmission power with respect to downlink transmission on a second target Bandwidth Part, BWP, in accordance with one or more target downlink power adjustment parameters corresponding to the second target BWP, the power allocation method is characterized by the one or more target downlink power adjustment parameters comprise at least one of Energy Per Resource Element, EPRE, of an synchronization signal, EPRE of a reference signal, and a ratio of the EPRE of the reference signal to EPRE of a downlink data signal. allocating transmission power with respect to downlink transmission on a second target Bandwidth Part, BWP, in accordance with one or more target downlink power adjustment parameters corresponding to the second target BWP, the power allocation method is characterized by the one or more target downlink power adjustment parameters comprise at least one of Energy Per Resource Element, EPRE, of an synchronization signal, EPRE of a reference signal, and a ratio of the EPRE of the reference signal to EPRE of a downlink data signal.
Hob comprising a hob apparatus, in particular an induction hob apparatus, comprising at least one hob plate (12a-b) and comprising at least one extraction unit (14a-b) which has a fan wheel (16a-b) and which, by means of the fan wheel (16a-b), at least partially suctions fumes produced in at least one operating state from at least one cooking region (18a-b) through at least one extraction recess (20a-b) of the hob plate (12a-b), wherein the fan wheel (16a-b) is arranged below the extraction recess (20a-b) in an installed position, characterised by at least one heating element (38a-b) which, when viewed along a longitudinal extent (22a-b) of the hob plate (12a-b), is arranged so as to overlap with the fan wheel (16a-b) to a length portion of at least 10% of a maximum extent (42a-b) of the fan wheel (16a-b) along the longitudinal extent (22a-b) of the hob plate (12a-b), wherein at least one further heating element (40a-b) is provided, said further heating element, when viewed along the longitudinal extent (22a-b) of the hob plate (12a-b), being arranged on a side of the extraction recess (20a-b) opposing the heating element (38a-b) and, when viewed along the longitudinal extent (22a-b) of the hob plate (12a-b), having a spacing (44a-b) from the heating element (38a-b) of a maximum of 150 mm and, when viewed along a longitudinal extent (22a-b) of the hob plate (12a-b), being arranged so as to overlap with the fan wheel (16a-b) to a length portion of at least 10% of a maximum extent (42a-b) of the fan wheel (16a-b) along the longitudinal extent (22a-b) of the hob plate (12a-b), wherein the longitudinal extent (22a-b) of the hob plate (12a-b) is a maximum of 75 cm.
A passive dynamic inertial rotor balance system comprising: at least three balancing members fitted onto a rotor shaft at locations of predicted maximum shaft modal deflection, each of said balancing members including at least one chamber , said at least one chamber of each of said balancing members including: a plurality of movable weights ; and a viscous fluid located therein, wherein as the shaft accelerates toward an unbalance point, the weights are configured to move within the at least one chamber to a location which is opposite from the unbalance point, wherein at least one balancing member is located near a center portion for a first mode bending and at least two balancing members are located at approximately quarter spans for a second mode bending.
An air processing device comprising: a casing ; a component detachably provided on a body of the casing ; and an imaging device that acquires image data of at least one predetermined object to be imaged in the casing , the imaging device being supported by the component so as to be at a position at which the imaging device can image the at least one object to be imaged, wherein the casing includes a casing member detachably provided in the body , characterised in that the component is the casing member , being an inspection cover that opens and closes an inspection hole of the casing . a casing ; a component detachably provided on a body of the casing ; and an imaging device that acquires image data of at least one predetermined object to be imaged in the casing , the imaging device being supported by the component so as to be at a position at which the imaging device can image the at least one object to be imaged, wherein the casing includes a casing member detachably provided in the body , characterised in that the component is the casing member , being an inspection cover that opens and closes an inspection hole of the casing .
A downlink information processing method, comprising: determining , by user equipment, UE, a cell-specific frequency shift of downlink information, wherein the cell-specific frequency shift of downlink information is equal to a cell-specific frequency shift of a cell-specific reference signal, CRS, the CRS is a cell-specific reference signal of a cell in which the UE is located, a pattern of the CRS is one of three CRS patterns, and the downlink information comprises any one of a demodulation reference signal, DM-RS, a physical downlink control channel, PDCCH, or an enhanced physical downlink control channel, EPDCCH; determining , by the UE, a resource element location according to the cell-specific frequency shift of the downlink information, wherein duration of a transmission time interval, TTI, to which the resource element location belongs is less than or equal to a time length of one timeslot; receiving , by the UE, the downlink information at the resource element location; and demodulating , by the UE, downlink data according to the downlink information. determining , by user equipment, UE, a cell-specific frequency shift of downlink information, wherein the cell-specific frequency shift of downlink information is equal to a cell-specific frequency shift of a cell-specific reference signal, CRS, the CRS is a cell-specific reference signal of a cell in which the UE is located, a pattern of the CRS is one of three CRS patterns, and the downlink information comprises any one of a demodulation reference signal, DM-RS, a physical downlink control channel, PDCCH, or an enhanced physical downlink control channel, EPDCCH; determining , by the UE, a resource element location according to the cell-specific frequency shift of the downlink information, wherein duration of a transmission time interval, TTI, to which the resource element location belongs is less than or equal to a time length of one timeslot; receiving , by the UE, the downlink information at the resource element location; and demodulating , by the UE, downlink data according to the downlink information.
An article of manufacture comprising: a medical device; an active agent incorporated into the medical device, wherein the active agent comprises pentasilver hexaoxoiodate (Ag 5 IO 6 ). a medical device; an active agent incorporated into the medical device, wherein the active agent comprises pentasilver hexaoxoiodate (Ag 5 IO 6 ).
A phase change material (PCM) heat battery comprising: a PCM enclosure capable of holding PCM; PCM located in the PCM enclosure ; a heat exchanger located internally within the PCM heat battery and located inside the PCM enclosure and PCM; an electronic control system for controlling the PCM heat battery ; at least one or a plurality of heating devices located in the PCM heat battery ; wherein the at least one or plurality of heating devices are capable of heating and/or charging the PCM; a plurality of sensors located in different vertical locations in the PCM enclosure of the PCM heat battery capable of monitoring the physical characteristics and/or temperature of the PCM and other parts of the heat battery ; wherein the at least one or plurality of heating devices are located within the PCM enclosure and therefore in direct contact and immersed in the PCM; at least one or a plurality of thermal conductors substantially vertically inserted into the heat battery and which are immersed or partially immersed into the PCM; the at least one or a plurality of thermal conductors are substantially inserted vertically in the heat exchanger and extend into the PCM; and wherein the electronic control system controls the physical characteristics and/or temperature of the PCM by applying heat directly to the PCM through the at least one or plurality of heating devices . a PCM enclosure capable of holding PCM; PCM located in the PCM enclosure ; a heat exchanger located internally within the PCM heat battery and located inside the PCM enclosure and PCM; an electronic control system for controlling the PCM heat battery ; at least one or a plurality of heating devices located in the PCM heat battery ; wherein the at least one or plurality of heating devices are capable of heating and/or charging the PCM; a plurality of sensors located in different vertical locations in the PCM enclosure of the PCM heat battery capable of monitoring the physical characteristics and/or temperature of the PCM and other parts of the heat battery ; wherein the at least one or plurality of heating devices are located within the PCM enclosure and therefore in direct contact and immersed in the PCM; at least one or a plurality of thermal conductors substantially vertically inserted into the heat battery and which are immersed or partially immersed into the PCM; the at least one or a plurality of thermal conductors are substantially inserted vertically in the heat exchanger and extend into the PCM; and wherein the electronic control system controls the physical characteristics and/or temperature of the PCM by applying heat directly to the PCM through the at least one or plurality of heating devices .
A method of purifying a Sn-117m composition, comprising: extracting an iodide complex of Sn-117m with an organic solvent from an acidic aqueous cadmium solution, said cadmium solution comprising a dissolved irradiated cadmium target, an acid, and a source of iodide, to provide an organic solvent layer comprising the iodide complex of Sn-117m that is substantially reduced in cadmium content and an acidic cadmium aqueous layer.
A method for producing molten iron using an electric furnace comprising a melting chamber for melting iron scrap by arc heating and a shaft-type preheating chamber provided on and continuously with the melting chamber and used to preheat the iron scrap, in which the iron scrap is sequentially charged into the preheating chamber so that the preheating chamber is filled with the iron scrap, an exhaust gas generated in the melting chamber is passed through the preheating chamber filled with the iron scrap so as to preheat the iron scrap, the iron scrap thus preheated is sequentially caused to descend in the preheating chamber so as to be supplied into the melting chamber , and the iron scrap is melted in the melting chamber to obtain molten iron, characterized in that the iron scrap is charged into the preheating chamber so that an apparent bulk density (P) of the iron scrap filled in the preheating chamber is not less than 0.50 t/m 3 and less than 1.00 t/m 3 and an iron scrap filling ratio H SC /H SF in the preheating chamber (where Hsc denotes a filling height [m] of the iron scrap in the preheating chamber, and H SF denotes a preheating chamber interior height [m]) is 0.5 to 0.8, a carbonaceous material is used as an auxiliary heat source for melting the iron scrap in the melting chamber , and oxygen and the carbonaceous material are blown into the melting chamber so that a carbon-oxygen ratio C/O (where C denotes a carbon amount [kg] in the carbonaceous material, and O denotes an oxygen blowing amount [Nm 3 ]) is not less than 0.70. the iron scrap is charged into the preheating chamber so that an apparent bulk density (P) of the iron scrap filled in the preheating chamber is not less than 0.50 t/m 3 and less than 1.00 t/m 3 and an iron scrap filling ratio H SC /H SF in the preheating chamber (where Hsc denotes a filling height [m] of the iron scrap in the preheating chamber, and H SF denotes a preheating chamber interior height [m]) is 0.5 to 0.8, a carbonaceous material is used as an auxiliary heat source for melting the iron scrap in the melting chamber , and oxygen and the carbonaceous material are blown into the melting chamber so that a carbon-oxygen ratio C/O (where C denotes a carbon amount [kg] in the carbonaceous material, and O denotes an oxygen blowing amount [Nm 3 ]) is not less than 0.70.
A container treatment system which has a first container treatment unit for a process step and a second container treatment unit for said process step, and which comprises a transport device for transporting containers in the container treatment system , with a first receiving point for containers, a first delivery point for containers, characterized in that the transport device comprises a second receiving point for containers, and a second delivery point for containers, as well as a transport track , which connects said first container treatment unit and said second container treatment unit in series, where said transport track comprises: a first process path, which connects said first receiving point via said first container treatment unit to said first delivery point , and a return path for a transport element (310a-310d), where at least a section of said return path is formed as a second process path, which connects said second receiving point via said second container treatment unit to said second delivery point , and at least one transport element (310a-310d) for transporting at least one container being movably arranged on said transport track , where said transport track and said at least one transport element (310a-310d) are designed such that said at least one transport element (310a-310d) can be guided from a receiving point to a delivery point in an individually controllable manner.
A cleaning composition comprising: a) HF in an amount of from about 0.05 wt% to about 1 wt% of the composition; b) at least one organic solvent in an amount of at least 95 wt% of the composition; c) at least one corrosion inhibitor selected from the group consisting of triazoles, aromatic anhydrides, and combinations thereof, the at least one corrosion inhibitor being in an amount of from about 0.05% to about 1% by weight of the composition; and d) water in an amount of from about 0.5 wt% to about 2 wt% of the composition. a) HF in an amount of from about 0.05 wt% to about 1 wt% of the composition; b) at least one organic solvent in an amount of at least 95 wt% of the composition; c) at least one corrosion inhibitor selected from the group consisting of triazoles, aromatic anhydrides, and combinations thereof, the at least one corrosion inhibitor being in an amount of from about 0.05% to about 1% by weight of the composition; and d) water in an amount of from about 0.5 wt% to about 2 wt% of the composition.
A paver comprising a main vehicle body , said paver comprising a set of fore-wheels , said set of fore-wheels being connected to said main vehicle body via a hydraulic wheel suspension system which, in at least a paving mode of said paver , allows hydraulic level compensation for each wheel of said set of fore-wheels , said paver further comprising a hydraulic motion control assembly characterized in that the hydraulic motion control assembly is adapted to selectively provide hydraulic spring suspension, and preferably also hydraulic dampening, to at least one wheel, preferably at least two wheels, of said set of fore-wheels .
A data transmission method, performed by a terminal, characterized by comprising: obtaining , by the terminal, an acknowledgment/negative acknowledgment ACK/NACK sequence to be fed back; selecting , by the terminal, a machine learning model applied to the ACK/NACK sequence; wherein the machine learning model comprises an autoencoder; compressing , by the terminal, the ACK/NACK sequence through the machine learning model to obtain an indication sequence; and transmitting , by the terminal, the indication sequence to a network device. obtaining , by the terminal, an acknowledgment/negative acknowledgment ACK/NACK sequence to be fed back; selecting , by the terminal, a machine learning model applied to the ACK/NACK sequence; wherein the machine learning model comprises an autoencoder; compressing , by the terminal, the ACK/NACK sequence through the machine learning model to obtain an indication sequence; and transmitting , by the terminal, the indication sequence to a network device.