mhurhangee/patent-ind-claim-en huggingface dataset:
A process for forming a curved glass laminate article comprising: applying a separation material onto at least one of a surface of a first sheet of glass material or a surface of a second sheet of glass material; placing an outer region of the first sheet of glass material into contact with a support surface of a shaping frame, the shaping frame defining an open central cavity surrounded at least in part by the support surface; placing the second sheet of glass material onto the first sheet of glass material such that the separation material is located between an upper surface of the first sheet of glass material and a lower surface of the second sheet of glass material, wherein the first sheet of glass material and the second sheet of glass material are both supported by the shaping frame; and heating the first sheet of glass material, the separation material and the second sheet of glass material together while supported by the shaping frame such that central regions of the first and second sheets of glass material deform downward into the open central cavity of the shaping frame; wherein the first sheet of glass material has an average thickness, Tl, and the second sheet of glass material has an average thickness, T2, wherein Tl is at least 2.5 times T2; and wherein the separation material comprises a solid lubricating material that decreases friction between the first and second sheets of glass material, the solid lubricating material comprising a lamellar structure. applying a separation material onto at least one of a surface of a first sheet of glass material or a surface of a second sheet of glass material; placing an outer region of the first sheet of glass material into contact with a support surface of a shaping frame, the shaping frame defining an open central cavity surrounded at least in part by the support surface; placing the second sheet of glass material onto the first sheet of glass material such that the separation material is located between an upper surface of the first sheet of glass material and a lower surface of the second sheet of glass material, wherein the first sheet of glass material and the second sheet of glass material are both supported by the shaping frame; and heating the first sheet of glass material, the separation material and the second sheet of glass material together while supported by the shaping frame such that central regions of the first and second sheets of glass material deform downward into the open central cavity of the shaping frame; wherein the first sheet of glass material has an average thickness, Tl, and the second sheet of glass material has an average thickness, T2, wherein Tl is at least 2.5 times T2; and wherein the separation material comprises a solid lubricating material that decreases friction between the first and second sheets of glass material, the solid lubricating material comprising a lamellar structure.
A printing unit , comprising: a platen roller configured to convey a recording sheet (P); a thermal head configured to perform printing on the recording sheet (P) through press contact with an outer peripheral surface of the platen roller ; a sensor , which is arranged in such a manner as to face the platen roller , and is configured to detect the recording sheet (P); a flexible printed board including a sensor mounting portion on which the sensor is mounted; and a frame , which is configured to support the platen roller in a rotatable manner, characterized in that the frame includes a locking projection to which the sensor mounting portion is to be locked. a platen roller configured to convey a recording sheet (P); a thermal head configured to perform printing on the recording sheet (P) through press contact with an outer peripheral surface of the platen roller ; a sensor , which is arranged in such a manner as to face the platen roller , and is configured to detect the recording sheet (P); a flexible printed board including a sensor mounting portion on which the sensor is mounted; and a frame , which is configured to support the platen roller in a rotatable manner, characterized in that the frame includes a locking projection to which the sensor mounting portion is to be locked.
A method in a wireless Local Area Network, LAN, system, the method comprising: receiving, by a receiving station, STA, a Physical Protocol Data Unit, PPDU, including a control field and a data field through a broadband from a transmitting STA (S3310); obtaining, by the receiving STA, the control field (S3320); and decoding, by the receiving STA, the data field based on the control field (S3320), wherein the control field includes allocation information on multiple resource units, RUs, wherein when the broadband is a 320MHz band including first to fourth 80MHz subchannels, the first 80MHz subchannel includes a first 996RU, the second 80MHz subchannel includes a second 996RU, the third 80MHz subchannel includes a third 996RU, the fourth 80MHz subchannel includes a first 484RU, wherein the data field is received through the multiple RUs in which the first to third 996RUs and the first 484RU are aggregated, wherein the PPDU is received based on a non-Orthogonal Frequency Division Multiple Access, non-OFDMA, scheme, and wherein the multiple RUs are obtained when 484RU is punctured in the fourth 80MHz subchannel of the 320MHz band. receiving, by a receiving station, STA, a Physical Protocol Data Unit, PPDU, including a control field and a data field through a broadband from a transmitting STA (S3310); obtaining, by the receiving STA, the control field (S3320); and decoding, by the receiving STA, the data field based on the control field (S3320), wherein the control field includes allocation information on multiple resource units, RUs, wherein when the broadband is a 320MHz band including first to fourth 80MHz subchannels, the first 80MHz subchannel includes a first 996RU, the second 80MHz subchannel includes a second 996RU, the third 80MHz subchannel includes a third 996RU, the fourth 80MHz subchannel includes a first 484RU, wherein the data field is received through the multiple RUs in which the first to third 996RUs and the first 484RU are aggregated, wherein the PPDU is received based on a non-Orthogonal Frequency Division Multiple Access, non-OFDMA, scheme, and wherein the multiple RUs are obtained when 484RU is punctured in the fourth 80MHz subchannel of the 320MHz band.
A radio access network node for a wireless communication system, wherein the radio access network node is configured to be implemented as a clustered system comprising a cluster of at least two interconnected network node sub-modules , each of which comprises a processing unit and memory , and the memory comprises a data structure, wherein at least one of the network node sub-modules is configured to manage at least one radio and/or antenna unit , wherein the radio access network node has a communication mechanism for communication between the network node sub-modules , and the communication mechanism is configured to enable a remote direct memory write operation from at least one network node sub-module into the data structure of at least one other network node sub-module, wherein the processing unit of at least one of said network node sub-modules is configured to directly address a storage location in the data structure of at least one other network node sub-module and perform a remote direct memory write operation for storing data into the data structure of said at least one other network node sub-module. wherein the radio access network node is configured to be implemented as a clustered system comprising a cluster of at least two interconnected network node sub-modules , each of which comprises a processing unit and memory , and the memory comprises a data structure, wherein at least one of the network node sub-modules is configured to manage at least one radio and/or antenna unit , wherein the radio access network node has a communication mechanism for communication between the network node sub-modules , and the communication mechanism is configured to enable a remote direct memory write operation from at least one network node sub-module into the data structure of at least one other network node sub-module, wherein the processing unit of at least one of said network node sub-modules is configured to directly address a storage location in the data structure of at least one other network node sub-module and perform a remote direct memory write operation for storing data into the data structure of said at least one other network node sub-module.
Computer-implemented method for optimizing marine vessel thrust allocation for a plurality of thruster units (291, 310, 320, 510-517), the method comprising: receiving marine vessel characteristics and thruster unit location information; determining performance profile in view of different azimuth degrees for each thruster unit (291, 310, 320, 510-517) based on the marine vessel characteristics and thruster unit location information; receiving environmental information ; generating a hydrodynamic thrust model by combining performance profiles of active thruster units (291, 310, 320, 510-517) and the environmental information ; and determining thrust vector information for each active thruster unit (291, 310, 320, 510-517) based on the hydrodynamic thrust model , characterized in that the performance profile comprises thruster restriction zone information and wherein the method comprises determining thruster-hull interference values through 360 azimuth degrees for each thruster unit based on the hydrodynamic thrust model. receiving marine vessel characteristics and thruster unit location information; determining performance profile in view of different azimuth degrees for each thruster unit (291, 310, 320, 510-517) based on the marine vessel characteristics and thruster unit location information; receiving environmental information ; generating a hydrodynamic thrust model by combining performance profiles of active thruster units (291, 310, 320, 510-517) and the environmental information ; and determining thrust vector information for each active thruster unit (291, 310, 320, 510-517) based on the hydrodynamic thrust model ,
Elongate flexible container, for example for solid liquid separation and/or dewatering and/or consolidation, wherein said container is made of a liquid permeable material, and said container comprising at least one filling opening for filling the container with a material, for example a material to be separated and/or dewatered and/or consolidated, wherein said container comprises at least two elongate container parts that extend in a longitudinal direction, which container parts are joined to each other over a circumferential seam that extends substantially orthogonal to the longitudinal direction of the container parts , and wherein the at least one filling opening is arranged between the two container parts by locally not directly joining the two container parts to each other by said circumferential seam in a filling opening area , and in that the container comprises at least one material insert joined to said container parts in said filling opening area , said material insert defining said at least one filling opening .
A pot spinning machine comprising: a pot having an opening that opens downward; a yarn introduction pipe introducing a yarn into the pot and having a yarn outlet from which the yarn is discharged into the pot at a bottom end of the yarn introduction pipe ; a fixed cover surrounding the pot and having an opening that opens downward; and a lid opening and closing the opening of the fixed cover , characterized in that the lid has a projecting portion that is inserted into the pot through the opening of the pot when the opening of the fixed cover is closed by the lid , and the projecting portion guides the yarn discharged from the yarn outlet of the yarn introduction pipe at yarn cutting to an inside wall of the pot . a pot having an opening that opens downward; a yarn introduction pipe introducing a yarn into the pot and having a yarn outlet from which the yarn is discharged into the pot at a bottom end of the yarn introduction pipe ; a fixed cover surrounding the pot and having an opening that opens downward; and a lid opening and closing the opening of the fixed cover , characterized in that the lid has a projecting portion that is inserted into the pot through the opening of the pot when the opening of the fixed cover is closed by the lid , and the projecting portion guides the yarn discharged from the yarn outlet of the yarn introduction pipe at yarn cutting to an inside wall of the pot .
An aqueous solution for surface treatment, for treating a surface of an alloy, the aqueous solution comprising: a copper compound at a copper ion concentration of 20000 ppm or more and 50000 ppm or less; a heterocyclic nitrogen compound at a concentration of 200 ppm or more and 3000 ppm or less; and a halide ion at a concentration of 2000 ppm or more and 70000 ppm or less, wherein the heterocyclic nitrogen compound is an azole compound, wherein the azole compound is one or more selected from the group consisting of pyrazole, 5-aminotetrazole and imidazole, and wherein the copper compound is one or more selected from the group consisting of copper (II) sulfate and copper (II) bromide. a copper compound at a copper ion concentration of 20000 ppm or more and 50000 ppm or less; a heterocyclic nitrogen compound at a concentration of 200 ppm or more and 3000 ppm or less; and a halide ion at a concentration of 2000 ppm or more and 70000 ppm or less, wherein the heterocyclic nitrogen compound is an azole compound, wherein the azole compound is one or more selected from the group consisting of pyrazole, 5-aminotetrazole and imidazole, and wherein the copper compound is one or more selected from the group consisting of copper (II) sulfate and copper (II) bromide.
A chiller system comprising: a vapor compression circuit including in the direction of flow of a circulating refrigerant (R): a compressor , a condenser , an ejector comprising a first inlet fluidly connected to an outlet of the condenser , a second inlet , and an outlet; an expansion valve fluidly coupled to the outlet of the ejector , an evaporator , a separator configured to separate the two-phase mixture into liquid refrigerant and vapor refrigerant, wherein the evaporator is a direct exchange heat exchanger such that during operation of the chiller system , the refrigerant provided at an outlet of the evaporator is a two-phase mixture of liquid refrigerant and vapor refrigerant, and the vapor refrigerant comprises less than or equal to about 85% of the two-phase mixture; and wherein the separator is part of a so-called efficiency circuit configured for improving the efficiency of the chiller system and comprises an inlet fluidly coupled to an outlet of the evaporator , a first outlet fluidly coupled to the second inlet of the ejector and configured to supply liquid refrigerant to the second inlet of the ejector , and a second outlet fluidly coupled to an inlet side of the compressor . a compressor , a condenser , an ejector comprising a first inlet fluidly connected to an outlet of the condenser , a second inlet , and an outlet; an expansion valve fluidly coupled to the outlet of the ejector , an evaporator , a separator configured to separate the two-phase mixture into liquid refrigerant and vapor refrigerant, wherein the evaporator is a direct exchange heat exchanger such that during operation of the chiller system , the refrigerant provided at an outlet of the evaporator is a two-phase mixture of liquid refrigerant and vapor refrigerant, and the vapor refrigerant comprises less than or equal to about 85% of the two-phase mixture; and wherein the separator is part of a so-called efficiency circuit configured for improving the efficiency of the chiller system and comprises an inlet fluidly coupled to an outlet of the evaporator , a first outlet fluidly coupled to the second inlet of the ejector and configured to supply liquid refrigerant to the second inlet of the ejector , and a second outlet fluidly coupled to an inlet side of the compressor .
A magnetic marker for marking a site in tissue in the body, the marker comprising at least one magnetically soft material having a magnetic coercivity of less than 7,96 kA/m (100 Oe) with a magnetic mass susceptibility of >0.05 m 3 kg -1 and being elastically or resiliently deformable between a packed non-spherical configuration prior to deployment having a higher ratio of maximum magnetic response to minimum magnetic response (anisotropy of magnetic susceptibility) and a deployed, unpacked configuration after deployment wherein the marker has a lower anisotropy of magnetic susceptibility of less than 5.
A power plant early warning device employing a multiple prediction model, the device comprising: a multiple prediction model comprising a plurality of prediction models which receives information on operating states of equipment of a power plant and outputs prediction values and reliabilities of the prediction values; a reliability analysis module for calculating a final prediction value; a comparison module which compares the final prediction value with an actual measurement value and outputs a residual; and a determination module which analyzes the residual and determines whether there are defects in the operating states of the equipment of the power plant, characterized in that calculating the final prediction value by the reliability analysis module comprises: quantifying and analyzing the reliabilities output from the multiple prediction model to determine ranks of the plurality of prediction models included in the multiple prediction model , and calculating the final prediction value, by using prediction values output by the multiple prediction model weighted according to the ranks determined of the plurality of prediction models . a multiple prediction model comprising a plurality of prediction models which receives information on operating states of equipment of a power plant and outputs prediction values and reliabilities of the prediction values; a reliability analysis module for calculating a final prediction value; a comparison module which compares the final prediction value with an actual measurement value and outputs a residual; and a determination module which analyzes the residual and determines whether there are defects in the operating states of the equipment of the power plant, characterized in that calculating the final prediction value by the reliability analysis module comprises: quantifying and analyzing the reliabilities output from the multiple prediction model to determine ranks of the plurality of prediction models included in the multiple prediction model , and calculating the final prediction value, by using prediction values output by the multiple prediction model weighted according to the ranks determined of the plurality of prediction models . quantifying and analyzing the reliabilities output from the multiple prediction model to determine ranks of the plurality of prediction models included in the multiple prediction model , and calculating the final prediction value, by using prediction values output by the multiple prediction model weighted according to the ranks determined of the plurality of prediction models .
Trailer coupling comprising a mounting unit mounted securely on the vehicle, a bearing unit held on the mounting unit , a first end area of a carrier structure of a ball neck being connected to said bearing unit, and a domed element , designed, in particular, as a coupling ball, arranged at a second end area of the carrier structure of the ball neck , wherein the carrier structure of the ball neck comprises a strut structure connecting the first end area to the second end area and supporting the second end area relative to the first end area , said strut structure extending on both sides of a geometrical central area running parallel to a central axis of the coupling element in the operative position of the ball neck and said strut structure having longitudinal struts each extending from one end area to the other end area , at least two connecting elements running transversely to the longitudinal struts extending between said longitudinal struts and wherein at least two free spaces extending transversely to the geometrical central area are located between the longitudinal struts , characterized in that the strut structure is provided with a casing , that the casing comprises at least one structure-rigid cover , and that the at least one cover is held on the strut structure.
A control system of a gas turbine engine having a fuel flow metering valve configured to regulate a fuel flow to the engine, and one or more variable geometry components which are movable between different set points to vary an operating configuration of the engine, the control system having: an engine fuel control sub-system configured to provide a fuel flow demand signal for controlling the fuel flow metering valve; and a variable geometry control sub-system configured to determine current set points to be adopted by the variable geometry components given the current engine operating condition in order to comply with one or more engine constraints; wherein the control system further has an optimiser that is configured to receive the current set points and to determine adjusted values of the set points which optimise, while complying with the engine constraints, an objective function modelling a performance characteristic of the engine, the objective function adapting to change in engine performance with time; and wherein the control system further has a feedback loop in which the adjusted values of the set points thus-determined are sent to the variable geometry control sub-system to vary the current set points. an engine fuel control sub-system configured to provide a fuel flow demand signal for controlling the fuel flow metering valve; and a variable geometry control sub-system configured to determine current set points to be adopted by the variable geometry components given the current engine operating condition in order to comply with one or more engine constraints; wherein the control system further has an optimiser that is configured to receive the current set points and to determine adjusted values of the set points which optimise, while complying with the engine constraints, an objective function modelling a performance characteristic of the engine, the objective function adapting to change in engine performance with time; and wherein the control system further has a feedback loop in which the adjusted values of the set points thus-determined are sent to the variable geometry control sub-system to vary the current set points.
A cooling element for a modular lighting device comprising a main body comprising - a circular bottom section on a lower end of the main body, and - a plurality of fins extending radially to match the diameter of the bottom section; each fin extending longitudinally from the bottom section to an upper end of the main body , the main body having a threaded outer surface such that the entire outer surface of the bottom section and the fins are threaded. - a circular bottom section on a lower end of the main body, and - a plurality of fins extending radially to match the diameter of the bottom section; each fin extending longitudinally from the bottom section to an upper end of the main body , the main body having a threaded outer surface such that the entire outer surface of the bottom section and the fins are threaded.