mhurhangee/patent-ind-claim-en huggingface dataset:
A data processing system , comprising a central processing unit, CPU , memory , a Peripheral Component Interconnect Express, PCIe, controller , a network adapter , and at least one PCIe storage device , and further comprising: a management unit , configured to obtain, when the data processing system receives a data request, a first storage address of requested data in the PCIe storage device according to first address information carried in the data request, wherein the first storage address is a memory mapping input/output MMIO address, wherein the network adapter directly reads data from the PCIe storage device according to the first storage address, and transmits the data to a second data processing system, or directly writes the data received from the second data processing system into the PCIe storage device , wherein the second data processing system is a data processing system that communicates with the first data processing system through a network; characterized in that : the PCIe controller comprises an address translating unit , configured to obtain a second storage address of the data requested by the data request in the PCIe storage device according to the first storage address; and the second storage address is a logical address, wherein the logical address is an address which is obtained after linear ordering is performed on a nonlinear continuous physical address. a management unit , configured to obtain, when the data processing system receives a data request, a first storage address of requested data in the PCIe storage device according to first address information carried in the data request, wherein the first storage address is a memory mapping input/output MMIO address, wherein the network adapter directly reads data from the PCIe storage device according to the first storage address, and transmits the data to a second data processing system, or directly writes the data received from the second data processing system into the PCIe storage device , wherein the second data processing system is a data processing system that communicates with the first data processing system through a network; characterized in that : the PCIe controller comprises an address translating unit , configured to obtain a second storage address of the data requested by the data request in the PCIe storage device according to the first storage address; and the second storage address is a logical address, wherein the logical address is an address which is obtained after linear ordering is performed on a nonlinear continuous physical address. the PCIe controller comprises an address translating unit , configured to obtain a second storage address of the data requested by the data request in the PCIe storage device according to the first storage address; and the second storage address is a logical address, wherein the logical address is an address which is obtained after linear ordering is performed on a nonlinear continuous physical address.
A blade guard of a lawnmower comprising a blade disk to be rotationally driven and at least one cutting blade piece attached to an outer peripheral portion of the blade disk , wherein the blade guard is configured to prevent contact of an obstacle to a blade portion of the cutting blade piece by providing on the cutting blade piece , and wherein the blade guard is configured to be attachable to and detachable from the cutting blade piece , characterized in that the blade guard is further configured to rotate integrally with the cutting blade piece during lawn mowing work when the blade disc is rotated. the blade guard is configured to prevent contact of an obstacle to a blade portion of the cutting blade piece by providing on the cutting blade piece , and wherein the blade guard is configured to be attachable to and detachable from the cutting blade piece , characterized in that the blade guard is further configured to rotate integrally with the cutting blade piece during lawn mowing work when the blade disc is rotated.
A variable vane actuation system of a gas turbine engine, comprising: a vane arm having a radially inward facing surface , a radially outward surface opposite the radially inward facing surface , a wedge projecting away from the radially outward facing surface , an aperture extending from the radially outward surface to the radially inward surface , and an interlocking feature (92; 192) located in the aperture and circumferentially opposite the wedge relative to the aperture ; a vane stem having a first end , a second end opposite the first end , a seat surface interposed between the first end and the second end , a primary portion extending from the first end to the seat surface , a secondary portion extending from the seat surface to the second end , and a stem notch configured to interlock with the interlocking feature (92; 192) of the vane arm to prevent radial motion between the vane stem and the vane arm along the axis (R) of the vane stem ; and a locking nut having internal threads configured to mesh with external threads located on the primary portion of the vane stem , wherein the wedge interacts with the locking nut when the locking nut is threaded onto the vane stem to move the vane arm in the axial direction (T) and retain the vane stem notch of the vane stem in the interlocking feature (92; 192) of the vane arm. a vane arm having a radially inward facing surface , a radially outward surface opposite the radially inward facing surface , a wedge projecting away from the radially outward facing surface , an aperture extending from the radially outward surface to the radially inward surface , and an interlocking feature (92; 192) located in the aperture and circumferentially opposite the wedge relative to the aperture ; a vane stem having a first end , a second end opposite the first end , a seat surface interposed between the first end and the second end , a primary portion extending from the first end to the seat surface , a secondary portion extending from the seat surface to the second end , and a stem notch configured to interlock with the interlocking feature (92; 192) of the vane arm to prevent radial motion between the vane stem and the vane arm along the axis (R) of the vane stem ; and a locking nut having internal threads configured to mesh with external threads located on the primary portion of the vane stem , wherein the wedge interacts with the locking nut when the locking nut is threaded onto the vane stem to move the vane arm in the axial direction (T) and retain the vane stem notch of the vane stem in the interlocking feature (92; 192) of the vane arm.
A method for preparing wholly aromatic polyimide resin, comprising: liquid polymerizing a mixed monomer of 65∼75 mole% of 3,3',4,4'-biphenyltetracarboxylic dianhydride (BPDA) and 25∼35 mole% of pyromelitic dianhydride (PMDA) with aromatic diamine, wherein the aromatic diamine contains 15∼60 mole% of para-phenylenediamine (p-PDA) and 40∼85 mole% of meta-phenylenediamine (m-PDA), wherein the solution(liquid)-polymerization is one step direct polymerization in the presence of a phenolic polar organic solvent having a high boiling point, wherein the phenolic polar organic solvent is meta-cresol or mixed cresol in which ortho-, meta- and para-isomers are uniformly or nonuniformly mixed. liquid polymerizing a mixed monomer of 65∼75 mole% of 3,3',4,4'-biphenyltetracarboxylic dianhydride (BPDA) and 25∼35 mole% of pyromelitic dianhydride (PMDA) with aromatic diamine, wherein the aromatic diamine contains 15∼60 mole% of para-phenylenediamine (p-PDA) and 40∼85 mole% of meta-phenylenediamine (m-PDA), wherein the solution(liquid)-polymerization is one step direct polymerization in the presence of a phenolic polar organic solvent having a high boiling point, wherein the phenolic polar organic solvent is meta-cresol or mixed cresol in which ortho-, meta- and para-isomers are uniformly or nonuniformly mixed.
A method of making an electrocaloric article, comprising: mounting a supported electrocaloric film to a frame , said supported electrocaloric film comprising an electrocaloric film and a first support film disposed on a first side of the electrocaloric film ; providing an active area of the electrocaloric film not covered by the first support film on the first side of the electrocaloric film , wherein the providing comprises exposing the active area of the electrocaloric film by removing the first support film from the active area of the electrocaloric film ; and providing electrical connections to electrodes disposed on opposing sides of the electrocaloric film in the active area. mounting a supported electrocaloric film to a frame , said supported electrocaloric film comprising an electrocaloric film and a first support film disposed on a first side of the electrocaloric film ; providing an active area of the electrocaloric film not covered by the first support film on the first side of the electrocaloric film , wherein the providing comprises exposing the active area of the electrocaloric film by removing the first support film from the active area of the electrocaloric film ; and providing electrical connections to electrodes disposed on opposing sides of the electrocaloric film in the active area.
A cloud-based gaming method, comprising: comparing a first-pass resolution of a first pass encoding of a multi-pass encoding process to a second-pass resolution of a second pass encoding of the multi-pass encoding process; producing a shared reference frame from a second-pass reference frame used in the second pass encoding based on the comparison; performing the first pass encoding on a first game frame of a stream of game frames at the first-pass resolution using the shared reference frame to determine an estimated complexity of the first game frame ; and performing the second pass encoding on the first game frame at the second-pass resolution using the second-pass reference frame and according to the estimated complexity to generate an encoded frame . comparing a first-pass resolution of a first pass encoding of a multi-pass encoding process to a second-pass resolution of a second pass encoding of the multi-pass encoding process; producing a shared reference frame from a second-pass reference frame used in the second pass encoding based on the comparison; performing the first pass encoding on a first game frame of a stream of game frames at the first-pass resolution using the shared reference frame to determine an estimated complexity of the first game frame ; and performing the second pass encoding on the first game frame at the second-pass resolution using the second-pass reference frame and according to the estimated complexity to generate an encoded frame .
A remote monitoring system configured to non-invasively measure a cell culture, the system comprising: a plurality of cell culture layers comprising a cell culture chamber configured to operate as a closed-system, the at least one cell culture chamber having at least one surface to which cells adhere; at least one monitoring layer comprising an outer wall surrounding a monitoring layer cell culture chamber configured to operate as a closed-system and having at least one surface to which cells adhere, the at least one monitoring layer comprising at least one indentation in the outer wall; and at least one monitoring module disposed in at least one of the at least one indentation and comprising at least one of a confluence monitor and an analyte monitor. a plurality of cell culture layers comprising a cell culture chamber configured to operate as a closed-system, the at least one cell culture chamber having at least one surface to which cells adhere; at least one monitoring layer comprising an outer wall surrounding a monitoring layer cell culture chamber configured to operate as a closed-system and having at least one surface to which cells adhere, the at least one monitoring layer comprising at least one indentation in the outer wall; and at least one monitoring module disposed in at least one of the at least one indentation and comprising at least one of a confluence monitor and an analyte monitor.
A system comprising: a layup tool with a forming surface designed to form an outer mold line for a composite material ; and a slip sheet with a compensation surface configured to provide a modified outer mold line for the composite material and a complementary surface configured to rest on the forming surface , wherein the compensation surface differs from the forming surface due to differences in thickness of the slip sheet , and wherein the compensation surface is opposite the complementary surface . a layup tool with a forming surface designed to form an outer mold line for a composite material ; and a slip sheet with a compensation surface configured to provide a modified outer mold line for the composite material and a complementary surface configured to rest on the forming surface , wherein the compensation surface differs from the forming surface due to differences in thickness of the slip sheet , and wherein the compensation surface is opposite the complementary surface .
A method for controlling fluid flow within a liquid chromatography system, said system comprising a fluid valve in fluid communication with a makeup pump , an output of a chromatography column , and a channel to waste , said method comprising: operating said fluid valve in a first position configured to divert said makeup fluid through the fluid valve to join the output of the chromatography column and configured to direct the output of the chromatography column to bypass the fluid valve and flow through a restrictor and to a detector , wherein the restrictor is located downstream of the column, downstream of the fluid valve, and upstream of the detector; operating the fluid valve in a second position configured to divert the makeup fluid through the fluid valve directly upstream of the restrictor and configured to create a backflow of the makeup fluid at the restrictor to divert the output of the chromatography column to waste via the fluid valve. operating said fluid valve in a first position configured to divert said makeup fluid through the fluid valve to join the output of the chromatography column and configured to direct the output of the chromatography column to bypass the fluid valve and flow through a restrictor and to a detector , wherein the restrictor is located downstream of the column, downstream of the fluid valve, and upstream of the detector; operating the fluid valve in a second position configured to divert the makeup fluid through the fluid valve directly upstream of the restrictor and configured to create a backflow of the makeup fluid at the restrictor to divert the output of the chromatography column to waste via the fluid valve.
Disassemblable hinge comprising: - a fixed assembly , for being associated with a frame and comprises a pin defining a rotation axis of the hinge; and - a movable assembly , for being associated with a door and is mounted in a rotary manner on said fixed assembly according to said rotation axis of the hinge; said movable assembly comprising: - a hooking portion , for being fixed to a door, - a first actuator, which can be operated by a user and is located on a first side of the hinge, wherein said first actuator is suited to be placed on a first side of the door, - a slide , which is fitted to the hooking portion in a sliding manner; wherein said movable assembly is configured to assume at least: - a hinging configuration, in which the slide and the hooking portion surround the pin creating a seat for the pin , wherein the movable assembly can only rotate around said pin ; - a complete opening configuration, wherein the slide is totally set back relative to pin and the pin can be completely released, in which the movable assembly can be removed from the fixed assembly ; wherein the first actuator is designed to move the slide , thus moving the movable assembly away from the hinging configuration; characterized in that the movable assembly comprises a second actuator, which can be operated by a user, is located on a second side of the hinge, and is configured to move the slide , thus moving the movable assembly away from the hinging configuration; wherein the second actuator is suited to be placed on a second side of the door, and wherein the first and the second actuator are arranged on two opposite sides of the hinge; the hinge being configured in such a manner that, when the hinge is applied to the door, the user can open the door from both sides, wherein the first side of the door is an outer side of a compartment, and the second side of the door is an inner side of the compartment. - a fixed assembly , for being associated with a frame and comprises a pin defining a rotation axis of the hinge; and - a movable assembly , for being associated with a door and is mounted in a rotary manner on said fixed assembly according to said rotation axis of the hinge; said movable assembly comprising: - a hooking portion , for being fixed to a door, - a first actuator, which can be operated by a user and is located on a first side of the hinge, wherein said first actuator is suited to be placed on a first side of the door, - a slide , which is fitted to the hooking portion in a sliding manner; - a hinging configuration, in which the slide and the hooking portion surround the pin creating a seat for the pin , wherein the movable assembly can only rotate around said pin ; - a complete opening configuration, wherein the slide is totally set back relative to pin and the pin can be completely released, in which the movable assembly can be removed from the fixed assembly ;
A computer-implemented method for extrapolating a wavefield to be carried out by a computer system that includes one or more processors (1402-1405) and one or more data-storage devices , the method comprising: receiving a measured pressure wavefield, a measured vertical velocity wavefield, and two measured horizontal velocity wavefields, the pressure and velocity wavefields being measured by a plurality of spaced-apart receivers, each including a pressure sensor and a three-dimensional velocity sensor, and said wavefields being associated with soundwaves reflected in a subterranean formation in response to a pressure impulse emitted by an acoustic source; decomposing one of the pressure wavefield and the vertical velocity wavefield into an up-going wavefield and a down-going wavefield; the method characterized by calculating components of a slowness vector from the speed of sound in a fluid, density of the fluid, the measured pressure wavefield, and the two horizontal velocity wavefields; and extrapolating by the computer system one of the up-going and down-going wavefields using an extrapolator that depends on the components of the slowness vector. decomposing one of the pressure wavefield and the vertical velocity wavefield into an up-going wavefield and a down-going wavefield; the method characterized by calculating components of a slowness vector from the speed of sound in a fluid, density of the fluid, the measured pressure wavefield, and the two horizontal velocity wavefields; and extrapolating by the computer system one of the up-going and down-going wavefields using an extrapolator that depends on the components of the slowness vector.
A method for transmitting and receiving a vehicle to everything, V2X, message by a user equipment, UE, in a wireless communication system, the method comprising: transmitting and receiving a V2X message via a long term evolution, LTE, Uu interface of a first local network; receiving local network boundary-related information from a first base station, BS, of the first local network; and determining to perform one or more of V2X message transmission or V2X message reception via a PC5 interface during a selected IP traffic offload at local network, SIPTO, period on the basis of the local network boundary-related information. transmitting and receiving a V2X message via a long term evolution, LTE, Uu interface of a first local network; receiving local network boundary-related information from a first base station, BS, of the first local network; and determining to perform one or more of V2X message transmission or V2X message reception via a PC5 interface during a selected IP traffic offload at local network, SIPTO, period on the basis of the local network boundary-related information.
A patient side cart for a teleoperated surgical system, comprising: a base ; a main column ; and an arm connected to the main column, the arm comprising a mount and an array of sensors ; wherein the mount is configured to support a cannula in a mounted position on the arm; and wherein each sensor (920 to 923, 1010 to 1040, 1210 to 1230, 1310 to 1320, 1410) of the array of sensors is configured to sense a presence, a polarity, and an orientation of a magnet (714, 820 to 823) of one or more magnets positioned at a corresponding position (810 to 813, 1614) of an array of magnet positions at a cannula supported in the mounted position on the arm so as to receive information associated with the cannula. a base ; a main column ; and an arm connected to the main column, the arm comprising a mount and an array of sensors ; wherein the mount is configured to support a cannula in a mounted position on the arm; and wherein each sensor (920 to 923, 1010 to 1040, 1210 to 1230, 1310 to 1320, 1410) of the array of sensors is configured to sense a presence, a polarity, and an orientation of a magnet (714, 820 to 823) of one or more magnets positioned at a corresponding position (810 to 813, 1614) of an array of magnet positions at a cannula supported in the mounted position on the arm so as to receive information associated with the cannula.
A gas turbine engine comprising: a low speed spool and a high speed spool , with each of said spools including a turbine to drive a respective one of said spools , wherein said high speed spool rotates at a higher speed than said low speed spool ; and a high speed power takeoff driven to be rotated by said high speed spool , and a low speed power takeoff driven to be rotated by said low speed spool , wherein said low speed power takeoff drives a variable frequency generator , characterised in that : said high speed power takeoff drives a starter generator and a permanent magnet alternator . a low speed spool and a high speed spool , with each of said spools including a turbine to drive a respective one of said spools , wherein said high speed spool rotates at a higher speed than said low speed spool ; and a high speed power takeoff driven to be rotated by said high speed spool , and a low speed power takeoff driven to be rotated by said low speed spool , wherein said low speed power takeoff drives a variable frequency generator , characterised in that : said high speed power takeoff drives a starter generator and a permanent magnet alternator .