mhurhangee/patent-ind-claim-en huggingface dataset:
A blockchain event processing method, applied to a control component of distributed event processing centers coupled to a node device of a blockchain network, the distributed event processing centers obtaining respective blockchain event streams from the node device, and delivering the obtained respective blockchain event streams to respective triggers included in the distributed event processing centers, to push a blockchain event included in the blockchain event streams to a service system corresponding to a trigger of the triggers in response to the blockchain event meeting a trigger condition of the trigger, the method comprising: obtaining push speeds of a plurality of triggers included in an event processing center of the distributed event processing centers, wherein the plurality of triggers included in the event processing center share a same obtained blockchain event stream delivered by the event processing center within a predetermined duration during which the push speeds of the plurality of triggers are obtained; and in response to a difference among the push speeds of the plurality of triggers being greater than a predetermined first threshold, establishing a new event processing center, and moving, to the new event processing center, a trigger having a push speed that is different from a highest push speed of the push speeds by an amount greater than the first threshold or a trigger having a push speed that is different from a lowest push speed of the push speeds by an amount greater than the first threshold. obtaining push speeds of a plurality of triggers included in an event processing center of the distributed event processing centers, wherein the plurality of triggers included in the event processing center share a same obtained blockchain event stream delivered by the event processing center within a predetermined duration during which the push speeds of the plurality of triggers are obtained; and in response to a difference among the push speeds of the plurality of triggers being greater than a predetermined first threshold, establishing a new event processing center, and moving, to the new event processing center, a trigger having a push speed that is different from a highest push speed of the push speeds by an amount greater than the first threshold or a trigger having a push speed that is different from a lowest push speed of the push speeds by an amount greater than the first threshold.
Frame element for a two-wheeler frame , which frame element is provided for receiving at least part of an energy supply unit, in particular a battery, wherein the frame element • represents a seat tube , a down tube , a top tube or chainstays , and • has at least one first side wall and at least one further second side wall adjacent to the first side wall , and • has a recess for receiving at least part of the energy supply unit, and • has an opening for receiving at least part of the energy supply unit in the recess, wherein the opening at least partially extends over the first side wall and the adjacent further second side wall , characterized in that the frame element has at least two tube portions which run both in the longitudinal direction and in the transverse direction of the frame element and are delimited from one another by braces, stiffened portions and/or cross-sectional tapered portions, wherein an opening in the frame element extends over more than one tube portion. • represents a seat tube , a down tube , a top tube or chainstays , and • has at least one first side wall and at least one further second side wall adjacent to the first side wall , and • has a recess for receiving at least part of the energy supply unit, and • has an opening for receiving at least part of the energy supply unit in the recess,
A high-bypass ratio geared turbomachine, comprising: a compressor section , the compressor section providing at least a low-pressure compressor and a high-pressure compressor, wherein a rotor of the low-pressure compressor rotates together with a rotor of a fan ; and a turbine section ; and a turbine shaft that rotates a geared architecture to rotate the rotor of the low-pressure compressor and the rotor of the fan , wherein the turbine shaft is a low-pressure turbine shaft , wherein the rotor of the low-pressure compressor and the rotor of the fan rotate at the same speed and in the same direction; and wherein the fan rotor and the low-pressure compressor rotor rotate together at a first speed and the turbine shaft rotates at a second speed different than the first speed, characterized by : a mid-turbine frame arranged axially between a high-pressure turbine rotor and a low-pressure turbine rotor , wherein the mid-turbine frame supports a bearing system in the turbine section and the mid-turbine frame includes airfoils within a path of a core airflow. a compressor section , the compressor section providing at least a low-pressure compressor and a high-pressure compressor, wherein a rotor of the low-pressure compressor rotates together with a rotor of a fan ; and a turbine section ; and a turbine shaft that rotates a geared architecture to rotate the rotor of the low-pressure compressor and the rotor of the fan , wherein the turbine shaft is a low-pressure turbine shaft , wherein the rotor of the low-pressure compressor and the rotor of the fan rotate at the same speed and in the same direction; and wherein the fan rotor and the low-pressure compressor rotor rotate together at a first speed and the turbine shaft rotates at a second speed different than the first speed, wherein the rotor of the low-pressure compressor and the rotor of the fan rotate at the same speed and in the same direction; and wherein the fan rotor and the low-pressure compressor rotor rotate together at a first speed and the turbine shaft rotates at a second speed different than the first speed, characterized by : a mid-turbine frame arranged axially between a high-pressure turbine rotor and a low-pressure turbine rotor , wherein the mid-turbine frame supports a bearing system in the turbine section and the mid-turbine frame includes airfoils within a path of a core airflow.
A method of constructing a hingeable drywall apparatus comprising: providing a finishing drywall liner having an internal side and an external side ; pouring gypsum slurry onto the internal side of the finishing drywall liner ; forming a first groove on a framing drywall liner, the first groove having a shape; placing the framing drywall liner on the gypsum slurry so that the gypsum slurry is sandwiched between the finishing drywall liner and the framing drywall liner; and allowing the gypsum slurry to set to a hardened gypsum material, wherein, during the step of allowing, the shape of the first groove is impressed upon the slurry resulting in a second groove in the hardened gypsum material that mates with the first groove to thereby form a hinge at the first and second grooves, wherein a) the second groove extends to the finishing drywall liner and b) said first and second grooves give rise to two segments of the apparatus that can rotate about the hinge.
A secondary base station, BS, for performing a modification procedure with a master BS, comprising: a storage device ; and a processing circuit , coupled to the storage device , wherein the storage device stores, and the processing circuit is configured to execute, instructions of: transmitting a first message comprising a first radio resource control, RRC, message and a secondary BS configuration to the master BS, wherein the first RRC message comprises a plurality of configurations for a communication device and the secondary BS configuration comprises a plurality of configuration parameters for the master BS to check or understand information in the first RRC message; modifying the secondary BS configuration to a modified secondary BS configuration according to a master BS configuration, when receiving a second message comprising the master BS configuration from the master BS in response to the first message; and transmitting the modified secondary BS configuration to the master BS; wherein the secondary BS and the master BS are adapted to operate in different cellular radio access technologies, RATs. a storage device ; and a processing circuit , coupled to the storage device , wherein the storage device stores, and the processing circuit is configured to execute, instructions of: transmitting a first message comprising a first radio resource control, RRC, message and a secondary BS configuration to the master BS, wherein the first RRC message comprises a plurality of configurations for a communication device and the secondary BS configuration comprises a plurality of configuration parameters for the master BS to check or understand information in the first RRC message; modifying the secondary BS configuration to a modified secondary BS configuration according to a master BS configuration, when receiving a second message comprising the master BS configuration from the master BS in response to the first message; and transmitting the modified secondary BS configuration to the master BS; wherein the secondary BS and the master BS are adapted to operate in different cellular radio access technologies, RATs. transmitting a first message comprising a first radio resource control, RRC, message and a secondary BS configuration to the master BS, wherein the first RRC message comprises a plurality of configurations for a communication device and the secondary BS configuration comprises a plurality of configuration parameters for the master BS to check or understand information in the first RRC message; modifying the secondary BS configuration to a modified secondary BS configuration according to a master BS configuration, when receiving a second message comprising the master BS configuration from the master BS in response to the first message; and transmitting the modified secondary BS configuration to the master BS; wherein the secondary BS and the master BS are adapted to operate in different cellular radio access technologies, RATs.
A redox flow battery comprising: a cathode cell comprising a catholyte , and an anode cell comprising an anolyte , wherein the anolyte comprises an electrolyte solution comprising an aqueous solvent and an electrolyte which is a perylene diimide (PDI) or a derivative thereof, wherein the electrolyte is soluble in the solvent. a cathode cell comprising a catholyte , and an anode cell comprising an anolyte , wherein the anolyte comprises an electrolyte solution comprising an aqueous solvent and an electrolyte which is a perylene diimide (PDI) or a derivative thereof, wherein the electrolyte is soluble in the solvent.
A method of analyzing rare nucleic acid species comprising: (a) providing a library of double-stranded nucleic acids; (b) denaturing the library; (c) renaturing abundant nucleic acid species of the library, wherein a portion of the library comprising less abundant nucleic acid species does not renature; (d) contacting the library with a transposase that binds to double-stranded nucleic acids; and (e) separating renatured abundant nucleic acid species from the less abundant nucleic acid species. (a) providing a library of double-stranded nucleic acids; (b) denaturing the library; (c) renaturing abundant nucleic acid species of the library, wherein a portion of the library comprising less abundant nucleic acid species does not renature; (d) contacting the library with a transposase that binds to double-stranded nucleic acids; and (e) separating renatured abundant nucleic acid species from the less abundant nucleic acid species.
An ophthalmic apparatus comprising a light source configured to illuminate a spot on the back of an eye of a user of the apparatus such that wavefronts return from the eye , and a wavefront aberrometer configured to receive the wavefronts, wherein the apparatus is binocular, open-view, lightweight, portable, handheld, battery powered and self-contained, and includes: a pixelated optical sensor on which the wavefronts impinge, the pixelated optical sensor being configured to capture video data comprising a plurality of frames with a respective capture time; a prescription calculator being configured to receive signals from the optical sensor and to calculate a candidate prescription for each of at least some of the plurality of frames, by analysing each of said at least some frames to calculate at least x and y displacements of spots, in a respective spot diagram generated by wavefront aberrometry, from where the spots would be if the eye were normal; an accommodation filter configured to provide a filtered set of candidate prescriptions from a sub-set of said at least some of the plurality of frames when the patient is not accommodating; a final prescription calculator configured to generate a final corrective lens prescription based on the filtered set of candidate prescriptions; and an internal battery configured to power the prescription calculator , the light source , and the optical sensor . a pixelated optical sensor on which the wavefronts impinge, the pixelated optical sensor being configured to capture video data comprising a plurality of frames with a respective capture time; a prescription calculator being configured to receive signals from the optical sensor and to calculate a candidate prescription for each of at least some of the plurality of frames, by analysing each of said at least some frames to calculate at least x and y displacements of spots, in a respective spot diagram generated by wavefront aberrometry, from where the spots would be if the eye were normal; an accommodation filter configured to provide a filtered set of candidate prescriptions from a sub-set of said at least some of the plurality of frames when the patient is not accommodating; a final prescription calculator configured to generate a final corrective lens prescription based on the filtered set of candidate prescriptions; and an internal battery configured to power the prescription calculator , the light source , and the optical sensor .
An apparatus, comprising a control module configured to set up a multiflow connection for data units via at least one network transceiver device and via at least two different radio links towards a terminal , and characterized in that the control module is configured to, apply selection criteria, and dependent on the applied selection criteria, select data units of specific data for transmission by a process according to which each selected data unit is replicated and transmitted over each of the at least two radio links in parallel, and select other data units of specific data for dynamic flow switching according to which each selected data unit is transmitted using one of the at least two radio links.
A method of manufacturing a rolled wear-resistant aluminium alloy product comprising the steps of: (a) providing a rolling feedstock material of an aluminium alloy having a composition comprising of, in wt.%, Mg 4.20% to 5.5% Mn 0.50% to 1.1% Fe up to 0.40% Si up to 0.30% Cu up to 0.20% Cr up to 0.25% Zr up to 0.25% Zn up to 0.30% Ti up to 0.25%, unavoidable impurities each <0.05%, total <0.2%, balance aluminium; (b) heating the rolling feedstock to a temperature in a range of 475°C to 535°C; (c) hot-rolling of the feedstock in one or more rolling steps to an intermediate gauge in a range of 15 mm to 40 mm, preferably 15 mm to 30 mm, and wherein preferably the hot-mill exit temperature is in a range of 370°C to 495°C; (d) hot-rolling of the feedstock from intermediate gauge in one or more rolling steps to a final gauge in a range of 3 mm to 15 mm, wherein the average temperature of the hot rolled feedstock when the feedstock is inputted into process step (d) is maintained at a temperature of 370°C to 495°C, wherein the hot-mill exit temperature is in a range of 130°C to 285°C, and wherein following hot-rolling to final gauge the method is devoid of any cold rolling step(s); (e) cooling of the hot-rolled feedstock at final gauge from hot-mill exit temperature to ambient temperature, wherein following hot-rolled feedstock to final gauge and after cooling to ambient temperature the aluminium alloy product is not subjected to any further heat-treatment. (a) providing a rolling feedstock material of an aluminium alloy having a composition comprising of, in wt.%, Mg 4.20% to 5.5% Mn 0.50% to 1.1% Fe up to 0.40% Si up to 0.30% Cu up to 0.20% Cr up to 0.25% Zr up to 0.25% Zn up to 0.30% Ti up to 0.25%, unavoidable impurities each <0.05%, total <0.2%, balance aluminium; Mg 4.20% to 5.5% Mn 0.50% to 1.1% Fe up to 0.40% Si up to 0.30% Cu up to 0.20% Cr up to 0.25% Zr up to 0.25% Zn up to 0.30% Ti up to 0.25%, (b) heating the rolling feedstock to a temperature in a range of 475°C to 535°C; (c) hot-rolling of the feedstock in one or more rolling steps to an intermediate gauge in a range of 15 mm to 40 mm, preferably 15 mm to 30 mm, and wherein preferably the hot-mill exit temperature is in a range of 370°C to 495°C; (d) hot-rolling of the feedstock from intermediate gauge in one or more rolling steps to a final gauge in a range of 3 mm to 15 mm, wherein the average temperature of the hot rolled feedstock when the feedstock is inputted into process step (d) is maintained at a temperature of 370°C to 495°C, wherein the hot-mill exit temperature is in a range of 130°C to 285°C, and wherein following hot-rolling to final gauge the method is devoid of any cold rolling step(s); (e) cooling of the hot-rolled feedstock at final gauge from hot-mill exit temperature to ambient temperature, wherein following hot-rolled feedstock to final gauge and after cooling to ambient temperature the aluminium alloy product is not subjected to any further heat-treatment.
A total air temperature sensor comprising: a nose having an airfoil cross section with a leading edge and a trailing edge ; a sensor housing having a pass-through passage and the sensor housing is spaced from and downstream of the trailing edge to define a stagnation chamber between the trailing edge and the sensor housing ; a temperature sensor ; and at least one inlet to the stagnation chamber where air can enter the stagnation chamber and then flow out the pass-through passage ; characterised in that : an axial length of the airfoil cross section is less than 0.5 times a total length of the total air temperature sensor ; and the pass-through passage comprises a converging inlet fluidly coupled to the stagnation chamber and a diverging outlet fluidly coupled to the converging inlet , wherein the temperature sensor is located within the diverging outlet. a nose having an airfoil cross section with a leading edge and a trailing edge ; a sensor housing having a pass-through passage and the sensor housing is spaced from and downstream of the trailing edge to define a stagnation chamber between the trailing edge and the sensor housing ; a temperature sensor ; and at least one inlet to the stagnation chamber where air can enter the stagnation chamber and then flow out the pass-through passage ; characterised in that : an axial length of the airfoil cross section is less than 0.5 times a total length of the total air temperature sensor ; and the pass-through passage comprises a converging inlet fluidly coupled to the stagnation chamber and a diverging outlet fluidly coupled to the converging inlet , wherein the temperature sensor is located within the diverging outlet. an axial length of the airfoil cross section is less than 0.5 times a total length of the total air temperature sensor ; and the pass-through passage comprises a converging inlet fluidly coupled to the stagnation chamber and a diverging outlet fluidly coupled to the converging inlet , wherein the temperature sensor is located within the diverging outlet.
A bone plate comprising: a strip-shaped main-body portion that is securable, along a longitudinal direction of a tibia (X), to an oblique anterior inner surface of the tibia (X) below a cut formed in an inner surface of the tibia (X); a transverse portion that is securable to an inner surface of the tibia (X) above the cut along a direction that intersects the longitudinal direction of the tibia (X); and a joining portion that is configured to join the main-body portion and the transverse portion , wherein the transverse portion and the main-body portion are provided with a plurality of screw holes that are arrayed with spaces between each other and that pass therethrough in plate-thickness directions, characterized in that the joining portion is bent in one direction from one end of the main-body portion and is twisted by a twist angle of 10° to 25° about an axis parallel to the longitudinal axis of the main-body portion toward the transverse portion at the tip thereof. a strip-shaped main-body portion that is securable, along a longitudinal direction of a tibia (X), to an oblique anterior inner surface of the tibia (X) below a cut formed in an inner surface of the tibia (X); a transverse portion that is securable to an inner surface of the tibia (X) above the cut along a direction that intersects the longitudinal direction of the tibia (X); and a joining portion that is configured to join the main-body portion and the transverse portion , wherein the transverse portion and the main-body portion are provided with a plurality of screw holes that are arrayed with spaces between each other and that pass therethrough in plate-thickness directions, characterized in that the joining portion is bent in one direction from one end of the main-body portion and is twisted by a twist angle of 10° to 25° about an axis parallel to the longitudinal axis of the main-body portion toward the transverse portion at the tip thereof.
A tong assembly for handling preforms made of a thermoplastic material or containers produced therefrom, comprising a tong base comprising at least two tong arms pivotably fastened thereto, as well as comprising a tong support supporting the tong base , characterised in that the tongue base is connected to the tong support by means of a four joint , wherein the tong base and the tong support are each formed as opposite legs of the four joint , and wherein the four joint is in particular complemented by two swivel arms of equal length.
A cyclone dust collecting device , comprising: a dust collecting box comprising a dust entrance and a cavity formed by extension in a first direction (O1), wherein the dust entrance communicates with a dust exhaust channel of a host machine , and a dust exhaust airflow enters the cavity through the dust entrance; and a separator comprising a dust inlet and a cyclone tube , wherein the dust inlet communicates with the dust entrance, the dust inlet is configured to guide the dust exhaust airflow into the cyclone tube, the cyclone tube extends in a second direction (O2) and is at least partially disposed in the dust collecting box, the cyclone tube comprises a dust outlet and an air outlet disposed on the cyclone tube, the dust outlet is located in the cavity, and the air outlet communicates with an outside of the dust collecting box; wherein the air outlet is lower than the dust inlet, characterized in that the second direction obliquely intersects the first direction such that the dust outlet is higher than the dust inlet. a dust collecting box comprising a dust entrance and a cavity formed by extension in a first direction (O1), wherein the dust entrance communicates with a dust exhaust channel of a host machine , and a dust exhaust airflow enters the cavity through the dust entrance; and a separator comprising a dust inlet and a cyclone tube , wherein the dust inlet communicates with the dust entrance, the dust inlet is configured to guide the dust exhaust airflow into the cyclone tube, the cyclone tube extends in a second direction (O2) and is at least partially disposed in the dust collecting box, the cyclone tube comprises a dust outlet and an air outlet disposed on the cyclone tube, the dust outlet is located in the cavity, and the air outlet communicates with an outside of the dust collecting box; wherein the air outlet is lower than the dust inlet, characterized in that the second direction obliquely intersects the first direction such that the dust outlet is higher than the dust inlet.