mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a fluid working machine , the machine comprising a rotatable shaft and a plurality of working chambers having working volumes which vary cyclically with rotation of the rotatable shaft, each working chamber having a low pressure valve which regulates the flow of working fluid between the working chamber and a low pressure manifold and a high pressure valve which regulates the flow of working fluid between the working chamber and a high pressure manifold, each low pressure valve being an electronically controlled valve having a valve actuator , the method comprising transmitting primary actuation signals to the actuators, in phased relationship to cycles of working chamber volume, to thereby actively control the said electronically controlled valves and so determine the net displacement of each working chamber on each cycle of working chamber volume, and selecting the net displacement of a group of one or more of the working chambers to follow a target, characterised by further determining whether a valve inactivity test is met in respect of a said low pressure valve of a said working chamber and, responsive to said determination, transmitting one or more additional actuator signals to the actuator of the said low pressure valve, which additional actuator signals do not significantly change the net displacement of working fluid by the respective working chamber.
Capacitive distance sensor with a sensor element , said sensor element comprising an electrically conductive, elongated, flat sensor surface , wherein a plurality of holes is introduced in the sensor surface for fastening the sensor element to an object, characterized in that the sensor surface is completely enclosed by an electrically non-conductive insulating body , so that the insulating body completely covers the edge regions of the holes .
A moving image coding apparatus which divides a moving image into macroblocks and codes each of the macroblocks, the apparatus comprising: a macroblock size determination means for determining a size of each of the macroblocks on a sequence by sequence basis or on a frame by frame basis, the sequence is a set of a plurality of continuous frames and each of the continuous frames is temporally divided from the moving image; a macroblock dividing means for dividing the moving image into the macroblocks each having the size determined by the macroblock size determination means ; a macroblock coding means for determining a coding mode for each of the macroblocks, and for coding pixel values in each of the macroblocks according to the determined coding mode, wherein the macroblocks are further divided into regions, the size of said regions being determined according to the macroblock size; and a multiplexing means for multiplexing information indicating whether to change the macroblock size information for each frame or each sequence into a bitstream in units of each sequence, and for multiplexing, when changing of the macroblock size information for each frame is selected, the macroblock size information determined by the macroblock size determination means into the bitstream in units of each frame, and for multiplexing, when changing of the macroblock size information for each sequence is selected, the macroblock size information into the bit stream in units of each sequence. a macroblock size determination means for determining a size of each of the macroblocks on a sequence by sequence basis or on a frame by frame basis, the sequence is a set of a plurality of continuous frames and each of the continuous frames is temporally divided from the moving image; a macroblock dividing means for dividing the moving image into the macroblocks each having the size determined by the macroblock size determination means ; a macroblock coding means for determining a coding mode for each of the macroblocks, and for coding pixel values in each of the macroblocks according to the determined coding mode, wherein the macroblocks are further divided into regions, the size of said regions being determined according to the macroblock size; and a multiplexing means for multiplexing information indicating whether to change the macroblock size information for each frame or each sequence into a bitstream in units of each sequence, and for multiplexing, when changing of the macroblock size information for each frame is selected, the macroblock size information determined by the macroblock size determination means into the bitstream in units of each frame, and for multiplexing, when changing of the macroblock size information for each sequence is selected, the macroblock size information into the bit stream in units of each sequence.
Connection joint for a motorcycle suitable for connecting together a first fixed portion and a second movable portion with respect to said fixed portion , comprising: a pair of washers with respective planar surfaces facing each other with respect to an axial direction (X-X), characterised by further comprising: a plurality of rolling balls interposed between said planar surfaces of said washers , an elastic spacer element connected to the pair of washers so as to space said washers to each other in a radial direction (R-R), perpendicular to said axial direction (X-X); wherein the rolling balls are radially external with respect to the elastic spacer element . a plurality of rolling balls interposed between said planar surfaces of said washers , an elastic spacer element connected to the pair of washers so as to space said washers to each other in a radial direction (R-R), perpendicular to said axial direction (X-X); wherein the rolling balls are radially external with respect to the elastic spacer element .
A hollow shaft formed by plastic working from a tubular blank, and subjected to quench hardening treatment, the quench hardening treatment comprising carburizing and quenching treatment, characterized in that the hollow shaft comprises a softened portion (M) formed by local heating treatment after carrying out the carburizing and quenching treatment in at least a part of the hollow shaft .
A cleansing device comprising: a handle ; a cleansing head having a first major surface and a second major surface, the first major surface comprising a plurality of elastomeric cleansing features extending away from the first major surface; an electric motor comprising a drive shaft , the drive shaft rotatable about a drive shaft axis; and an actuator coupled to the drive shaft, the actuator having an input axis aligned with the drive shaft axis and an output axis angled to the input axis, the actuator being operably coupled to the second major surface of the cleansing head and configured to convert continuous rotation of the drive shaft into an oscillating movement of at least a section of the cleansing head at a frequency of about 5 Hz to 30 Hz, wherein the actuator comprises: a driving member coupled to the drive shaft such that rotation of the drive shaft causes rotation of the driving member about the input axis ; an oscillating member having a longitudinal axis aligned with the output axis ; and a rotating arm connecting the driving member to the oscillating member to convert the rotation of the driving member to oscillations of the oscillating member , the rotating arm configured to traverse a conical path around the input axis . a handle ; a cleansing head having a first major surface and a second major surface, the first major surface comprising a plurality of elastomeric cleansing features extending away from the first major surface; an electric motor comprising a drive shaft , the drive shaft rotatable about a drive shaft axis; and an actuator coupled to the drive shaft, the actuator having an input axis aligned with the drive shaft axis and an output axis angled to the input axis, the actuator being operably coupled to the second major surface of the cleansing head and configured to convert continuous rotation of the drive shaft into an oscillating movement of at least a section of the cleansing head at a frequency of about 5 Hz to 30 Hz, wherein the actuator comprises: a driving member coupled to the drive shaft such that rotation of the drive shaft causes rotation of the driving member about the input axis ; an oscillating member having a longitudinal axis aligned with the output axis ; and a rotating arm connecting the driving member to the oscillating member to convert the rotation of the driving member to oscillations of the oscillating member , the rotating arm configured to traverse a conical path around the input axis . a driving member coupled to the drive shaft such that rotation of the drive shaft causes rotation of the driving member about the input axis ; an oscillating member having a longitudinal axis aligned with the output axis ; and a rotating arm connecting the driving member to the oscillating member to convert the rotation of the driving member to oscillations of the oscillating member , the rotating arm configured to traverse a conical path around the input axis .
A grid frame structure , for use in a warehousing environment, in which stackable containers are stacked on top of one another to form stacks , the frame structure having a top level and comprising: a plurality of upright members that support horizontal members , the horizontal members comprising a first set of parallel horizontal members being arranged perpendicularly to a second set of parallel horizontal members , wherein the upright members and the horizontal members are manufactured from metal, wherein the top level of the frame structure includes rails arranged in a grid pattern across the top of the stacks for supporting robotic load handling devices, the rails including a first set of parallel rails to guide movement of load handling devices in a first direction (X) across the top of the frame structure and a second set of parallel rails arranged perpendicular to the first set to guide movement of load handling devices in a second direction (Y), perpendicular to the first direction, across the top of the frame structure ; characterised in that each rail in the first set of rails , and each rail in the second set of rails , comprises a longitudinally-extending dividing structure, dividing the respective rail into two adjacent tracks. a plurality of upright members that support horizontal members , the horizontal members comprising a first set of parallel horizontal members being arranged perpendicularly to a second set of parallel horizontal members , wherein the upright members and the horizontal members are manufactured from metal, wherein the top level of the frame structure includes rails arranged in a grid pattern across the top of the stacks for supporting robotic load handling devices, the rails including a first set of parallel rails to guide movement of load handling devices in a first direction (X) across the top of the frame structure and a second set of parallel rails arranged perpendicular to the first set to guide movement of load handling devices in a second direction (Y), perpendicular to the first direction, across the top of the frame structure ; characterised in that each rail in the first set of rails , and each rail in the second set of rails , comprises a longitudinally-extending dividing structure, dividing the respective rail into two adjacent tracks.
An erection-free planting case, comprising at least one planting box, wherein each planting box is provided with a box body and a box cover ; a light source module is arranged on the box cover; a heat dissipation module is arranged on the box cover; the box body is provided with a connection port ; the box cover is provided with a connection portion ; the connection portion of the box cover matches the connection port of the box body; and the light source module and the heat dissipation module are arranged in a cavity, the cavity is formed inside each box cover; and the light source module and the heat dissipation module are arranged in the cavity, the light source module comprises a plurality of lamp tubes arranged in the cavity and characterized in that the heat dissipation module comprises heat dissipation passages arranged between the lamp tubes at intervals, heat dissipation fans and heat dissipation fins ; heat dissipation passages are respectively connected to the heat dissipation fins and communicate with the outside through heat dissipation passage inlet and outlet in a cavity wall; a coolant flows in the heat dissipation passages; the coolant enters through the inlet into the cavity via the heat dissipation passages, then absorbs heat in the cavity, and is discharged from the outlet.
A method for controlling use of a network slice, wherein the method comprises: receiving (S401), by a first network element, a first message, wherein the first message is used to request access of a terminal device to a target network slice, the target network slice covers a plurality of regions, the plurality of regions comprise a first region, and the first region is a region in which the terminal device is currently located; and determining (S402), by the first network element based on a first condition, whether to allow the terminal device to access the target network slice, wherein the first condition comprises: whether a service usage of the target network slice in the first region exceeds a first service limit and whether an overall service usage of the target network slice exceeds an overall limit. receiving (S401), by a first network element, a first message, wherein the first message is used to request access of a terminal device to a target network slice, the target network slice covers a plurality of regions, the plurality of regions comprise a first region, and the first region is a region in which the terminal device is currently located; and determining (S402), by the first network element based on a first condition, whether to allow the terminal device to access the target network slice, wherein the first condition comprises: whether a service usage of the target network slice in the first region exceeds a first service limit and whether an overall service usage of the target network slice exceeds an overall limit.
A composition for use in the treatment and/or prevention of chemo-induced peripheral neuropathies and their symptoms induced by an anti-cancer compound, said composition comprising an aqueous liquid extract, said aqueous liquid extract comprising Phycocyanin.
A delivery device, which comprises: a mounting part , is provided with a mounting slot of which an opening extends upward and is configured to hook an object to be delivered , a biasing part , is provided on the mounting part and is made to deform under the gravity of the object to be delivered when it is lifted, which resets to drive the object to be delivered out of the mounting slot when the object to be delivered falls to the ground, and characterized by a blocking part , which is connected to the biasing part and is constructed to seal the opening of the mounting slot when the object to be delivered is hooked but not lifted and to open the opening of the mounting slot when the object to be delivered is lifted. a mounting part , is provided with a mounting slot of which an opening extends upward and is configured to hook an object to be delivered , a biasing part , is provided on the mounting part and is made to deform under the gravity of the object to be delivered when it is lifted, which resets to drive the object to be delivered out of the mounting slot when the object to be delivered falls to the ground, and characterized by a blocking part , which is connected to the biasing part and is constructed to seal the opening of the mounting slot when the object to be delivered is hooked but not lifted and to open the opening of the mounting slot when the object to be delivered is lifted.
A metering valve for dispensing a metered dose of product from a canister, the valve including: a metering valve body comprising a propellant metering chamber with a propellant inlet and a product metering chamber with a product inlet ; and a metering valve stem with a dispensing nozzle , a propellant inlet plug and a product inlet plug , wherein the metering valve stem is movable within the metering valve body to a dispensing position in which: the propellant inlet is sealed by the propellant inlet plug and the product inlet is sealed by the product inlet plug ; and the propellant metering chamber and product metering chamber are in fluid communication with atmosphere via the dispensing nozzle , such that a metered dose of product and propellant can be dispensed from the canister; characterized in that the product inlet is positioned between an outlet of the dispensing nozzle and the product metering chamber . a metering valve body comprising a propellant metering chamber with a propellant inlet and a product metering chamber with a product inlet ; and a metering valve stem with a dispensing nozzle , a propellant inlet plug and a product inlet plug , wherein the metering valve stem is movable within the metering valve body to a dispensing position in which: the propellant inlet is sealed by the propellant inlet plug and the product inlet is sealed by the product inlet plug ; and the propellant metering chamber and product metering chamber are in fluid communication with atmosphere via the dispensing nozzle , such that a metered dose of product and propellant can be dispensed from the canister; characterized in that the product inlet is positioned between an outlet of the dispensing nozzle and the product metering chamber . the propellant inlet is sealed by the propellant inlet plug and the product inlet is sealed by the product inlet plug ; and the propellant metering chamber and product metering chamber are in fluid communication with atmosphere via the dispensing nozzle , such that a metered dose of product and propellant can be dispensed from the canister;
A processor comprising an ancillary print agent distribution module configured to determine instructions for a print control module , wherein the print control module is configured to: control the distribution of a coalescence agent onto a first region of a layer of powder-like granular build material in an object fabrication chamber in an additive manufacturing process in which at least one object is generated by selective solidification of each of a plurality of layers of build material and the selective solidification of build material is determined by the distribution of at least a coalescence agent; and cause the print control module to control the distribution of the coalescence agent onto a second region of a layer of build material in an object fabrication chamber as part of a process which is ancillary to object generation to perform a maintenance function and/or a temperature control process, wherein the first and second regions are spatially distinct. control the distribution of a coalescence agent onto a first region of a layer of powder-like granular build material in an object fabrication chamber in an additive manufacturing process in which at least one object is generated by selective solidification of each of a plurality of layers of build material and the selective solidification of build material is determined by the distribution of at least a coalescence agent; and cause the print control module to control the distribution of the coalescence agent onto a second region of a layer of build material in an object fabrication chamber as part of a process which is ancillary to object generation to perform a maintenance function and/or a temperature control process, wherein the first and second regions are spatially distinct.
Interconnection equipment for a high-voltage direct current network, comprising: - first and second terminals configured for connection to first and second lines of a high-voltage direct current network , a third terminal configured for connection to a local station or to a line of the high-voltage network; - a node connected to the first to third terminals ; characterised in that it comprises: - a first superconducting current limiter and a first controlled switch connected in series between the first terminal and said node; - a second superconducting current limiter and a second controlled switch connected in series between the second terminal and said node; - a third superconducting current limiter and a third controlled switch connected in series between the third terminal and said node; - a device configured to inject an electric current into said node during a voltage drop on said node. - first and second terminals configured for connection to first and second lines of a high-voltage direct current network , a third terminal configured for connection to a local station or to a line of the high-voltage network; - a node connected to the first to third terminals ; - a first superconducting current limiter and a first controlled switch connected in series between the first terminal and said node; - a second superconducting current limiter and a second controlled switch connected in series between the second terminal and said node; - a third superconducting current limiter and a third controlled switch connected in series between the third terminal and said node; - a device configured to inject an electric current into said node during a voltage drop on said node.
A zirconia-based porous body in the form of particles, the zirconia-based porous body having a pore diameter peak at 20 to 100 nm in the pore diameter distribution by BJH method, a P/W ratio of 0.05 or more wherein W represents half width of the peak and P represents height of the peak in the measured pore distribution curve, and a total pore volume of 0.5 cm 3 /g or more; and the zirconia-based porous body having a pore diameter peak at 20 to 100 nm, the P/W ratio of 0.03 or more, a specific surface area of at least 40 m 2 /g, and a total pore volume of 0.3 cm 3 /g or more, after heat treatment at 1000°C for 12 hours. the zirconia-based porous body having a pore diameter peak at 20 to 100 nm in the pore diameter distribution by BJH method, a P/W ratio of 0.05 or more wherein W represents half width of the peak and P represents height of the peak in the measured pore distribution curve, and a total pore volume of 0.5 cm 3 /g or more; and the zirconia-based porous body having a pore diameter peak at 20 to 100 nm, the P/W ratio of 0.03 or more, a specific surface area of at least 40 m 2 /g, and a total pore volume of 0.3 cm 3 /g or more, after heat treatment at 1000°C for 12 hours.