mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling the braking of a vehicle having a plurality of wheels, comprising: receiving one or more electrical signals each indicative of a value of a respective vehicle-related parameter; detecting that the vehicle is descending a slope based on the value(s) of one or more of the vehicle-related parameter(s); determining the type of terrain the vehicle is traversing; and when the terrain is one of one or more particular terrain types, automatically modifying an amount of brake torque being applied to at least certain of the wheels of the vehicle in response to the detection of the vehicle descending a slope by increasing the amount of brake torque being applied to one or more trailing wheels of the vehicle, and decreasing the amount of brake torque being applied to one or more leading wheels of the vehicle. receiving one or more electrical signals each indicative of a value of a respective vehicle-related parameter; detecting that the vehicle is descending a slope based on the value(s) of one or more of the vehicle-related parameter(s); determining the type of terrain the vehicle is traversing; and when the terrain is one of one or more particular terrain types, automatically modifying an amount of brake torque being applied to at least certain of the wheels of the vehicle in response to the detection of the vehicle descending a slope by increasing the amount of brake torque being applied to one or more trailing wheels of the vehicle, and decreasing the amount of brake torque being applied to one or more leading wheels of the vehicle.
A Coriolis flow sensor system comprising: a flow tube configured to provide a flow path through the flow tube; a plurality of actuators distributed radially about the flow tube , wherein a first actuator of the plurality of actuators is configured to drive a first oscillation in a first plane and a second actuator of the plurality of actuators is configured to drive a second oscillation in a second plane ; and a plurality of sensor sets disposed on the flow tube , wherein each sensor set comprises two or more sensors configured to sense the first oscillation, the second oscillation, or both; and wherein the flow tube is at least partially surrounded by a pressurized flow tube shell that is coaxial with the flow tube , wherein a third actuator of the plurality of actuators is configured to drive a third oscillation in a third plane , and characterised in that the second actuator is radially offset from the first actuator by about 45 degrees, and the third actuator is radially offset from the first actuator by about 90 degrees. a flow tube configured to provide a flow path through the flow tube; a plurality of actuators distributed radially about the flow tube , wherein a first actuator of the plurality of actuators is configured to drive a first oscillation in a first plane and a second actuator of the plurality of actuators is configured to drive a second oscillation in a second plane ; and a plurality of sensor sets disposed on the flow tube , wherein each sensor set comprises two or more sensors configured to sense the first oscillation, the second oscillation, or both; and wherein the flow tube is at least partially surrounded by a pressurized flow tube shell that is coaxial with the flow tube , wherein a third actuator of the plurality of actuators is configured to drive a third oscillation in a third plane , and characterised in that the second actuator is radially offset from the first actuator by about 45 degrees, and the third actuator is radially offset from the first actuator by about 90 degrees.
Surface heating element, adapted for use in buildings comprising - an open-pored, diffusion-open textile surface structure with a mass fraction of at least 70 wt. % mineral fibres, - a heating area (2.4) on an upper side (2.1) or a lower side (2.2) of the textile surface structure , wherein the heating area (2.4) corresponds to the surface of the upper and/or lower side (2.1, 2.2) of the textile surface structure , - at least one heating conductor configured as a foil, wherein the foil consists of an aluminium alloy with a mass fraction of aluminium of at least 98 wt. %, and - a firmly bonded connection by means of an adhesive between the at least one heating conductor and the heating area (2.4) of the textile surface structure , wherein the at least one heating conductor covers between 70 - 95% of the heating area (2.4). - an open-pored, diffusion-open textile surface structure with a mass fraction of at least 70 wt. % mineral fibres, - a heating area (2.4) on an upper side (2.1) or a lower side (2.2) of the textile surface structure , wherein the heating area (2.4) corresponds to the surface of the upper and/or lower side (2.1, 2.2) of the textile surface structure , - at least one heating conductor configured as a foil, wherein the foil consists of an aluminium alloy with a mass fraction of aluminium of at least 98 wt. %, and - a firmly bonded connection by means of an adhesive between the at least one heating conductor and the heating area (2.4) of the textile surface structure , wherein the at least one heating conductor covers between 70 - 95% of the heating area (2.4).
A photocurable ink composition for ink jet recording, comprising: polymerizable compounds; a photopolymerization initiator; and a colorant, wherein the polymerizable compounds include a vinyl ether group-containing (meth)acrylate represented by general formula (I): CH 2 =CR 1 -COOR 2 -O-CH=CH-R 3 ... (I) (wherein R 1 is a hydrogen atom or a methyl group, R 2 is a divalent organic residue having 2 to 20 carbon atoms, and R 3 is a hydrogen atom or a monovalent organic residue having 1 to 11 carbon atoms) and phenoxyethyl (meth)acrylate, characterized in that the content of the phenoxyethyl (meth)acrylate is 9 to 60% by mass relative to the total mass of the ink composition, and the photopolymerization initiator includes an acylphosphine oxide compound. polymerizable compounds; a photopolymerization initiator; and a colorant, wherein the polymerizable compounds include a vinyl ether group-containing (meth)acrylate represented by general formula (I): CH 2 =CR 1 -COOR 2 -O-CH=CH-R 3 ... (I) (wherein R 1 is a hydrogen atom or a methyl group, R 2 is a divalent organic residue having 2 to 20 carbon atoms, and R 3 is a hydrogen atom or a monovalent organic residue having 1 to 11 carbon atoms) and phenoxyethyl (meth)acrylate, characterized in that the content of the phenoxyethyl (meth)acrylate is 9 to 60% by mass relative to the total mass of the ink composition, and the photopolymerization initiator includes an acylphosphine oxide compound.
A multi-stage centrifugal pump, with which impellers of pump stages are arranged on a shaft which is rotatably arranged within a pump casing and at one end is sealingly led out of the pump casing for connection to a drive motor , wherein a chamber , through which the shaft passes is provided within the pump casing, and a shaft ring which is fixedly and sealingly connected to the shaft and whose one side at least in sections is subjected to the pressure of the pump is arranged in or on said shaft, wherein an axial seal is provided, whose rotating part is formed by a shaft ring or a seal part arranged thereon, and whose non-rotating part is formed by a counter-ring or a seal part which is arranged thereon, and wherein the counter-ring is radially sealed with respect to the chamber and is axially movably guided within the chamber , characterised in that a rotation lock is provided between the counter-ring and the chamber , said rotation lock comprising an annular sheet metal section which is positively connected to the chamber wall and to the counter-ring in a rotationally fixed manner, but is axially displaceably arranged in the chamber and is designed such that in its outer region it bears in a face side or a shoulder in the counter-ring and at its inner side surrounds the shaft at a small distance, wherein the dimensioning of the gap or other openings between the sheet-metal section and the shaft or the counter-ring is selected such that on running up the pump, thus given a pressure build-up, firstly the sheet-metal section and thus the counter-ring which bears thereon is displaced axially due to the pressure impingement, until the sealing surfaces of the axial seal bear on one another.
A method for detecting a contact fault in a photovoltaic system , wherein the photovoltaic system comprises an inverter and a photovoltaic generator connected to the inverter via DC current lines , wherein the inverter comprises coupling-in means for coupling a first AC voltage signal having communication frequencies in a first frequency range between 125 kHz and 150 kHz into the DC current lines , wherein the inverter communicates with the photovoltaic generator by way of the first AC voltage signal, wherein a coupling-out means for coupling out the first AC voltage signal is arranged at the photovoltaic generator and a decoupling means for decoupling the impedance of the photovoltaic generator is arranged between the inverter and the photovoltaic generator , such that the photovoltaic generator is decoupled from a transmission path between the inverter and the decoupling means , and wherein AC currents are measured in the DC current lines and AC voltages are measured between the DC current lines , characterized in that - a second AC voltage signal having measurement frequencies in a second frequency range is generated by way of the coupling-in means , - a frequency-dependent impedance profile is determined based on the second AC voltage signal and the measured AC currents in the second frequency range between 50 kHz and 350 kHz, preferably between 75 kHz and 200 kHz, wherein the second frequency range comprises the first frequency range, and - a contact fault in the photovoltaic system is detected by way of analyzing the frequency-dependent impedance profile . - a second AC voltage signal having measurement frequencies in a second frequency range is generated by way of the coupling-in means , - a frequency-dependent impedance profile is determined based on the second AC voltage signal and the measured AC currents in the second frequency range between 50 kHz and 350 kHz, preferably between 75 kHz and 200 kHz, wherein the second frequency range comprises the first frequency range, and - a contact fault in the photovoltaic system is detected by way of analyzing the frequency-dependent impedance profile .
A method performed by a core network node for handling an extended paging cycle, which extended paging cycle is used by a wireless communication device for receiving a paging message from the core network node comprised in a wireless communications network , and which extended paging cycle is longer than a frame number range of the wireless communications network , the method comprising: determining a parameter related to a length of the extended paging cycle; obtaining information about when the wireless communication device has entered an idle mode, which idle mode is related to a connection between the wireless communication device and the core network node ; and determining a time period when the wireless communication device is to monitor for the paging message, based on the parameter related to the length of the extended paging cycle and based on the obtained information about when the wireless communication device has entered the idle mode; determining a third time period, which third time period is related to when to send a paging request message to a radio access node , which paging request message comprises the paging message to the wireless communication device and an indication to the radio access node of how many times to repeat the paging message to the wireless communication device , wherein the determining a third time period is based on the length of the extended paging cycle and based on the stored information about when the wireless communication device enters the idle mode. determining a parameter related to a length of the extended paging cycle; obtaining information about when the wireless communication device has entered an idle mode, which idle mode is related to a connection between the wireless communication device and the core network node ; and determining a time period when the wireless communication device is to monitor for the paging message, based on the parameter related to the length of the extended paging cycle and based on the obtained information about when the wireless communication device has entered the idle mode; determining a third time period, which third time period is related to when to send a paging request message to a radio access node , which paging request message comprises the paging message to the wireless communication device and an indication to the radio access node of how many times to repeat the paging message to the wireless communication device , wherein the determining a third time period is based on the length of the extended paging cycle and based on the stored information about when the wireless communication device enters the idle mode.
A method, comprising: receiving at a controller a memory address range that corresponds to memory cells in an array , wherein the memory cells are coupled to a plurality of sense lines; accessing at the controller a first error code for data stored in the memory cells; calculating within a sensing circuitry , coupled to the plurality of sense lines, a second error code for the data without transferring data via an input/output, I/O, line of the sensing circuitry, wherein an execution of a plurality of operations to calculate the second error code are distributed between an execution of a different plurality of operations; determining at the sensing circuitry whether the first error code and the second error code are a same error code; and responsive to a determination that the first error code and the second error code are not the same error code, notifying, by the controller, a host that the first error code and the second error code are not the same error code. receiving at a controller a memory address range that corresponds to memory cells in an array , wherein the memory cells are coupled to a plurality of sense lines; accessing at the controller a first error code for data stored in the memory cells; calculating within a sensing circuitry , coupled to the plurality of sense lines, a second error code for the data without transferring data via an input/output, I/O, line of the sensing circuitry, wherein an execution of a plurality of operations to calculate the second error code are distributed between an execution of a different plurality of operations; determining at the sensing circuitry whether the first error code and the second error code are a same error code; and responsive to a determination that the first error code and the second error code are not the same error code, notifying, by the controller, a host that the first error code and the second error code are not the same error code.
A video transcoding method, being performed by a server, comprising: fragmenting a to-be-transcoded video source file into N to-be-transcoded video fragments, N being an integer greater than 1; generating a plurality of transcoding tasks each according to one of the N to-be-transcoded video fragments and one of a plurality of preset target definitions, the plurality of transcoding tasks each comprising the associated to-be-transcoded video fragment and an attribute parameter corresponding to the associated to-be-transcoded video fragment; obtaining, by parsing each of the transcoding tasks, the associated to-be-transcoded video fragment and the attribute parameter corresponding to the associated to-be-transcoded video fragment, the attribute parameter comprising a precoding parameter and a coding parameter corresponding to the respective preset target definition, wherein the same to-be-transcoded video fragment of different preset target definitions is assigned with the same precoding paramter; precoding the to-be-transcoded video fragment according to the precoding parameter, to obtain a first precoding result; coding the first precoding result according to the coding parameter corresponding to the target definition, to obtain a second coding result; and outputting the second coding result. fragmenting a to-be-transcoded video source file into N to-be-transcoded video fragments, N being an integer greater than 1; generating a plurality of transcoding tasks each according to one of the N to-be-transcoded video fragments and one of a plurality of preset target definitions, the plurality of transcoding tasks each comprising the associated to-be-transcoded video fragment and an attribute parameter corresponding to the associated to-be-transcoded video fragment; obtaining, by parsing each of the transcoding tasks, the associated to-be-transcoded video fragment and the attribute parameter corresponding to the associated to-be-transcoded video fragment, the attribute parameter comprising a precoding parameter and a coding parameter corresponding to the respective preset target definition, wherein the same to-be-transcoded video fragment of different preset target definitions is assigned with the same precoding paramter; precoding the to-be-transcoded video fragment according to the precoding parameter, to obtain a first precoding result; coding the first precoding result according to the coding parameter corresponding to the target definition, to obtain a second coding result; and outputting the second coding result.
A device guide , comprising a distal portion configured for insertion through a guide catheter so as to extend out of a distal end of the guide catheter into a branch blood vessel , and characterized in that the distal portion of the device guide has a semi-tubular shape chosen so as to guide an intravascular device inserted through the guide catheter into the branch blood vessel.
A pressure-sensitive adhesive film comprising (α) a layer of a polyvinyl chloride resin film and (β) a pressure-sensitive adhesive layer in this order from a surface layer side, wherein the pressure-sensitive adhesive layer (β) is formed from a pressure-sensitive adhesive comprising: (A) 100 parts by mass of an acrylic polymer that satisfies properties (a1) and (a2) shown below: (a1) an acid value of 18 to 26 mg KOH/g, and (a2) a mass-average molecular weight of 500,000 to 1,000,000; and (B) 1 to 1.6 parts by mass of a compound having two or more isocyanate groups per molecule, and wherein the polyvinyl chloride resin film has a yield point stress of less than 39 MPa as measured at a temperature of 5°C; and wherein the acid value, the mass-average molecular weight, and the yield point stress are measured as described in the description. wherein the pressure-sensitive adhesive layer (β) is formed from a pressure-sensitive adhesive comprising: (A) 100 parts by mass of an acrylic polymer that satisfies properties (a1) and (a2) shown below: (a1) an acid value of 18 to 26 mg KOH/g, and (a2) a mass-average molecular weight of 500,000 to 1,000,000; and (B) 1 to 1.6 parts by mass of a compound having two or more isocyanate groups per molecule, and (A) 100 parts by mass of an acrylic polymer that satisfies properties (a1) and (a2) shown below: (a1) an acid value of 18 to 26 mg KOH/g, and (a2) a mass-average molecular weight of 500,000 to 1,000,000; and (a1) an acid value of 18 to 26 mg KOH/g, and (a2) a mass-average molecular weight of 500,000 to 1,000,000; and (B) 1 to 1.6 parts by mass of a compound having two or more isocyanate groups per molecule, and wherein the polyvinyl chloride resin film has a yield point stress of less than 39 MPa as measured at a temperature of 5°C; and wherein the acid value, the mass-average molecular weight, and the yield point stress are measured as described in the description.
An assembled energy dissipator with variable stiffness for lateral connection of shear walls, comprising: an energy-dissipating zone ; a stiffness enhancing zone ; end plates for connecting shear walls; and high-strength binding stay bolts ; wherein the shear walls are connectable to the end plates via the high-strength binding stay bolts ; characterised in that the stiffness enhancing zone is independent from the energy-dissipating zone and comprises a plurality of steel plates arranged in a same plane and buckling-restrained plates which are respectively arranged on two sides of adjacent steel plates and are connected to the said adjacent steel plates via bolts; a gap is provided between the adjacent steel plates; and the stiffness enhancing zone is provided with a deformation threshold control device. an energy-dissipating zone ; a stiffness enhancing zone ; end plates for connecting shear walls; and high-strength binding stay bolts ; wherein the shear walls are connectable to the end plates via the high-strength binding stay bolts ; characterised in that the stiffness enhancing zone is independent from the energy-dissipating zone and comprises a plurality of steel plates arranged in a same plane and buckling-restrained plates which are respectively arranged on two sides of adjacent steel plates and are connected to the said adjacent steel plates via bolts; a gap is provided between the adjacent steel plates; and the stiffness enhancing zone is provided with a deformation threshold control device.
An insertion structure between a stationary spring and a bobbin , comprising: A stationary spring and a bobbin ; wherein the stationary spring is inserted into the bobbin by a flip-chip method, and the bobbin is provided with slots , each of the slots having a groove shape with a laterally open is formed by an L-shaped side wall connecting with a convex wall , and each of two sides of the stationary spring is provided with a convex part respectively, characterised in that two convex parts of the stationary spring are respectively fitted in two opposite slots ; wherein a first blocking wall is further provided along a horizontally extending direction of protruding of the convex wall of the bobbin , and a second blocking wall is further provided between the first blocking wall and the L-shaped side wall to connect the first blocking wall and the L-shaped side wall , and the convex parts of the stationary spring are mounted at the second blocking wall , so that shaving debris generated when the convex parts of the stationary spring are inserted into the slots of the bobbin falls into a cavity enclosed by the first blocking wall , the second blocking wall , the L-shaped side wall and the convex wall .
An aircraft structural component that is adapted for absorbing and transmitting forces in an aircraft , said aircraft structural component comprising at least one panel element and at least one reinforcing structure , said at least one reinforcing structure is rigidly attached to said at least one panel element to define at least one force-absorbing structure provided in use at a fuselage of an aircraft , such that at least one cavity is defined between said at least one panel element and said at least one reinforcing structure , said at least one force-absorbing structure defining the at least one cavity and being adapted for distributing forces that are absorbed by said aircraft structural component in operation; characterized in that said aircraft structural component being adapted for pivotally bearing a rotatable shaft of a wheel-type landing gear of the aircraft and said at least one panel element defines a longeron .