mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a panel for covering an interior of a vehicle for dressing and/or soundproofing a wall of a vehicle, characterized in that it comprises the following steps successively performed: - depositing a thermoformable resin in powder form onto a flexible and porous material , - impregnating the thermoformable resin deeply into the flexible and porous material by applying an alternating electric field through the flexible and porous material , - assembling a lower reinforcement layer made from a flexible or semi-rigid material onto a lower face of the flexible and porous material , - assembling an upper reinforcement layer made from a flexible or semi-rigid material onto an upper face of the flexible and porous material , and - fixing by softening the thermoformable resin in the flexible and porous material ; the reinforcement layers being previously made from a second porous material by means of the following steps successively performed for each reinforcement layer : - depositing a thermoformable resin in powder form onto the second porous material , - impregnating the thermoformable resin deeply into the second porous material by applying an alternating electric field through the second porous material , and - fixing by softening the thermoformable resin in the second porous material . - depositing a thermoformable resin in powder form onto a flexible and porous material , - impregnating the thermoformable resin deeply into the flexible and porous material by applying an alternating electric field through the flexible and porous material , - assembling a lower reinforcement layer made from a flexible or semi-rigid material onto a lower face of the flexible and porous material , - assembling an upper reinforcement layer made from a flexible or semi-rigid material onto an upper face of the flexible and porous material , and - fixing by softening the thermoformable resin in the flexible and porous material ; - depositing a thermoformable resin in powder form onto the second porous material , - impregnating the thermoformable resin deeply into the second porous material by applying an alternating electric field through the second porous material , and - fixing by softening the thermoformable resin in the second porous material .
A lighting device , comprising: a first magnet that is movable; a lighting component that connects with the first magnet to project light on a flame sheet from different positions; a first coil that is disposed adjacent to the magnet to apply a magnetic force to move the first magnet in response to a driving current in the first coil ; a sensing unit that acquires an audio signal from an environmental sound and converts the audio signal into an electronic signal; and a driving circuit that connects with the first coil and the lighting component , the lighting device being characterized by the fact that: the driving circuit provides the driving current to the first coil according to a characteristic parameter of the electronic signal such that the lighting component moves with a speed and a direction in response to an intensity, a speed and a tune of a piece of music in the environmental sound, wherein the characteristic parameter includes one or more of an amplitude, a frequency and an envelope of the electronic signal, and the characteristic parameter corresponds to the intensity, speed and tune of the music. a first magnet that is movable; a lighting component that connects with the first magnet to project light on a flame sheet from different positions; a first coil that is disposed adjacent to the magnet to apply a magnetic force to move the first magnet in response to a driving current in the first coil ; a sensing unit that acquires an audio signal from an environmental sound and converts the audio signal into an electronic signal; and a driving circuit that connects with the first coil and the lighting component , the lighting device being characterized by the fact that: the driving circuit provides the driving current to the first coil according to a characteristic parameter of the electronic signal such that the lighting component moves with a speed and a direction in response to an intensity, a speed and a tune of a piece of music in the environmental sound, wherein the characteristic parameter includes one or more of an amplitude, a frequency and an envelope of the electronic signal, and the characteristic parameter corresponds to the intensity, speed and tune of the music. the driving circuit provides the driving current to the first coil according to a characteristic parameter of the electronic signal such that the lighting component moves with a speed and a direction in response to an intensity, a speed and a tune of a piece of music in the environmental sound, wherein the characteristic parameter includes one or more of an amplitude, a frequency and an envelope of the electronic signal, and the characteristic parameter corresponds to the intensity, speed and tune of the music.
A flame-resistant heat treatment furnace comprising: a heat treatment chamber that causes hot air to flow in a direction parallel to a running direction of a precursor fiber strand and heats the precursor fiber strand; the hot air blowing nozzle that introduces the hot air into the heat treatment chamber; and a hot air suctioning nozzle that is installed at a position away from the hot air blowing nozzle and suctions the hot air, wherein the hot air blowing nozzle includes a porous plate and a rectifying member that satisfy the following conditions 1) to 4), and the hot air is sent to the heat treatment chamber through the porous plate and the rectifying member, and wherein the conditions are set as follows: 1) A / B ≥ 4.0 ; 2) 0.15 ≤ α ≤ 0.35 ; 3) 0 ≤ B − d ≤ 20 ; and 4) 80% or more of an area of one opening of the porous plate when causing facing surfaces of the porous plate and the rectifying member to overlap each other is included in one opening of the rectifying member , A indicating a hot air passage distance (mm) of the rectifying member, B indicating a horizontal maximum distance (mm) of one opening of the rectifying member, α indicating a rate of hole area of the porous plate, and d indicating an equivalent diameter (mm) of the porous plate. a heat treatment chamber that causes hot air to flow in a direction parallel to a running direction of a precursor fiber strand and heats the precursor fiber strand; the hot air blowing nozzle that introduces the hot air into the heat treatment chamber; and a hot air suctioning nozzle that is installed at a position away from the hot air blowing nozzle and suctions the hot air, wherein the hot air blowing nozzle includes a porous plate and a rectifying member that satisfy the following conditions 1) to 4), and the hot air is sent to the heat treatment chamber through the porous plate and the rectifying member, and wherein the conditions are set as follows: 1) A / B ≥ 4.0 ; 2) 0.15 ≤ α ≤ 0.35 ; 3) 0 ≤ B − d ≤ 20 ; and 4) 80% or more of an area of one opening of the porous plate when causing facing surfaces of the porous plate and the rectifying member to overlap each other is included in one opening of the rectifying member , 1) A / B ≥ 4.0 ; 2) 0.15 ≤ α ≤ 0.35 ; 3) 0 ≤ B − d ≤ 20 ; and 4) 80% or more of an area of one opening of the porous plate when causing facing surfaces of the porous plate and the rectifying member to overlap each other is included in one opening of the rectifying member ,
A calibration device of a fluid replacement pump in a hemodialysis system comprising a dialysate chamber divided into a supply chamber and a recovery chamber by a diaphragm (D), a dialysate supply passage connecting the supply chamber and a dialyzer , a dialysate recovery passage connecting the dialyzer and the recovery chamber , a dialysate pump provided in the dialysate recovery passage , a blood circuit connected to the dialyzer , a fluid replacement passage connected to the dialysate supply passage and the blood circuit , the fluid replacement pump provided in the fluid replacement passage , and control means (C) for controlling the dialysate pump and the fluid replacement pump , characterized in that the control means (C) executes: a first operation of operating the dialysate pump at a predetermined set flow rate to obtain total discharge time until dialysate supplied to fill the supply chamber runs out, a second operation of operating the fluid replacement pump at a predetermined set flow rate only for predetermined time, to discharge a part of the dialysate supplied to fill the supply chamber , a third operation of operating the dialysate pump at the same set flow rate as in the first operation, to obtain remaining discharge time until residual dialysate remaining in the supply chamber runs out after the end of the second operation, and a fluid replacement pump calibrating operation of calculating a substantial flow rate of the fluid replacement pump from the total discharge time and the remaining discharge time, and adjusting setting of the fluid replacement pump to eliminate a difference in a case where there is the difference between the set flow rate and the substantial flow rate in the fluid replacement pump . a first operation of operating the dialysate pump at a predetermined set flow rate to obtain total discharge time until dialysate supplied to fill the supply chamber runs out, a second operation of operating the fluid replacement pump at a predetermined set flow rate only for predetermined time, to discharge a part of the dialysate supplied to fill the supply chamber , a third operation of operating the dialysate pump at the same set flow rate as in the first operation, to obtain remaining discharge time until residual dialysate remaining in the supply chamber runs out after the end of the second operation, and a fluid replacement pump calibrating operation of calculating a substantial flow rate of the fluid replacement pump from the total discharge time and the remaining discharge time, and adjusting setting of the fluid replacement pump to eliminate a difference in a case where there is the difference between the set flow rate and the substantial flow rate in the fluid replacement pump .
An in-mould, handle movement mechanism for repositioning a handle of a stretch blow-moulded container from its initial, as injected moulded location on a body of an injection moulded preform , to a desired integrally attached position (188 1 ) on said stretch blow-moulded container , wherein said mechanism comprises two mirror reversed insert portions , each insert portion inserted into one half of a stretch blow-moulding die, wherein each said insert portion is provided with a channel ; said channel being adapted such that said handle portion of said preform can nest in said channel when a said preform is introduced into said stretch blow-moulding die, wherein said channel comprises a first fixed section located in a main block of said insert portion, and a second pivoting section formed in a pivoting block of said insert portion, wherein said second pivoting section is rotatable between a first initial position conforming to said handle as injection moulded with said preform, and a second position; rotation of said pivoting block effectable by a linkage connection to a linear actuator, wherein each said insert portion is further provided with a forming block ; said forming block moveable between a retracted nested position below said second pivoting block and an extended position at which an outer surface of said forming block is flush with outer surfaces of said main block of said insert portion and of said pivoting block, and wherein said forming block when in said extended position completes a contour surface of the container forming cavity of said stretch blow- moulding die.
An austenitic stainless steel alloy, comprising, by weight: 24% to 26% chromium; 11% to 13% nickel; 4.5% to 5.5% manganese; 1.3% to 1.7% silicon; 1.2% to 1.6% niobium; 0.40% to 0.50% carbon; 0.2% to 0.4% nitrogen; from 0% to 0.02% sulphur; from 0% to 0.02% phosphorus; from 0% to 0.01% boron; from 0% to 0.01% cerium; from 0% to 0.01% calcium; and a balance of iron with inevitable / unavoidable impurities. 24% to 26% chromium; 11% to 13% nickel; 4.5% to 5.5% manganese; 1.3% to 1.7% silicon; 1.2% to 1.6% niobium; 0.40% to 0.50% carbon; 0.2% to 0.4% nitrogen; from 0% to 0.02% sulphur; from 0% to 0.02% phosphorus; from 0% to 0.01% boron; from 0% to 0.01% cerium; from 0% to 0.01% calcium; and a balance of iron with inevitable / unavoidable impurities.
A method for forwarding a packet, comprising: receiving, by a first node, a packet to be forwarded, wherein a destination address of the packet is a second node; searching, by the first node, for a target topology corresponding to the packet in previously generated topologies, wherein the previously generated topologies comprise: a first topology and a second topology generated according to a maximum redundancy tree, MRT, algorithm, and a third topology generated according to a Shortest Path First, SPF, algorithm, and the first topology, the second topology and the third topology are different from one another; and searching, by the first node, for a next hop node for forwarding to the second node in the target topology, and forwarding the packet to the next hop node according to a predetermined forwarding mechanism, wherein the predetermined forwarding mechanism is a segment routing, SR, forwarding mechanism based on a segment routing global block, SRGB, in a non-tunnel nesting manner for each of the first, second and third topologies and each segment route, wherein the non-tunnel nesting manner comprises packing a label in the packet where the label directly indicates that the packet is forwarded to the second node. receiving, by a first node, a packet to be forwarded, wherein a destination address of the packet is a second node; searching, by the first node, for a target topology corresponding to the packet in previously generated topologies, wherein the previously generated topologies comprise: a first topology and a second topology generated according to a maximum redundancy tree, MRT, algorithm, and a third topology generated according to a Shortest Path First, SPF, algorithm, and the first topology, the second topology and the third topology are different from one another; and searching, by the first node, for a next hop node for forwarding to the second node in the target topology, and forwarding the packet to the next hop node according to a predetermined forwarding mechanism, wherein the predetermined forwarding mechanism is a segment routing, SR, forwarding mechanism based on a segment routing global block, SRGB, in a non-tunnel nesting manner for each of the first, second and third topologies and each segment route, wherein the non-tunnel nesting manner comprises packing a label in the packet where the label directly indicates that the packet is forwarded to the second node.
An anisotropic composite structure for impact energy absorption, said anisotropic structure comprising a plurality of core structures, each core structure of the plurality of core structures comprising a first cellular material, each core structure of the plurality of core structures configured as a column having a column axis; and a support material surrounding each core structure of the plurality of core structures, the support material comprising a unitary body of a second cellular material having a plurality of recesses therein, each core structure of the plurality of core structures disposed respectively within a recess of the plurality of recesses in the unitary body of the support material, characterized in that the cellular materials have when loaded in compression an elasto-plastic behavior with a plateau stress, followed by densification and when loaded in shear show plastic behavior with a strain at maximum load or failure strain larger than 8%, preferably more than 15%, and whereby the first cellular material has a higher compressive yield and plateau stress as compared to the second cellular material.
A no-back device (10; 20; 30) for an aircraft screw actuator , the screw actuator comprising: a screw shaft for threaded engagement with an actuator output device such that rotation of the screw shaft causes linear movement of the actuator output device ; and a motor for driving rotation of the screw shaft ; the no-back device (10;20;30) being for restricting movement of the screw shaft in response to feedback torque applied due to external forces on the actuator output device , and the no-back device comprising a brake (104, 108; 314, 308) and a brake controller (22; 212); the brake (104, 108; 314, 308) comprising a no-back device brake member (104; 314) for engagement with a screw shaft brake member (108; 308) connected to the screw shaft in order to generate a braking torque on the screw shaft when the brake members (104, 108; 314, 308) engage with one another, and a biasing device (102; 202; 302) for providing a force to urge the brake members (104, 108; 314, 308) to engage with one another when the motor is not activated, this force hence resulting in a braking torque that resists rotation of the screw shaft under feedback torque; and the brake controller (22; 212) being arranged to provide a force to urge the brake members (104, 108; 314, 308) to disengage with one another, this force being applied upon activation of the motor for rotating the screw shaft , in order that the braking torque is reduced when the motor is activated.
A runner for a hydraulic turbine, comprising: a hub ; and a plurality of blades extending from the hub , wherein each blade of the plurality of blades comprises a root located at the hub , a tip opposite the root , a leading edge , and a trailing edge opposite the leading edge , and characterised in that a ratio of a maximum thickness of the leading edge at the tip of a blade of the plurality of blades to a diameter of the runner measured from the tips of the plurality of blades , T LE /D t , is greater than about 0.06. a hub ; and a plurality of blades extending from the hub , wherein each blade of the plurality of blades comprises a root located at the hub , a tip opposite the root , a leading edge , and a trailing edge opposite the leading edge , and characterised in that a ratio of a maximum thickness of the leading edge at the tip of a blade of the plurality of blades to a diameter of the runner measured from the tips of the plurality of blades , T LE /D t , is greater than about 0.06.
A drip chamber device , comprising: A housing having a top end including an inlet , and a bottom end including an outlet disposed downstream of the inlet ; a chamber defined by an inner circumferential surface of the housing, the chamber fluidly connecting the inlet with the outlet , and the inner circumferential surface having a first sidewall extending radially outward and distally from the top end of the housing and a second sidewall extending radially inward and distally from the first sidewall to the bottom end of the housing; and a valve member disposed in the chamber to move between (i) a closed state where fluid communication between the inlet and the chamber is blocked, and (ii) an open state where fluid communication between the inlet and the chamber is not blocked, based on a level of fluid within the chamber . A housing having a top end including an inlet , and a bottom end including an outlet disposed downstream of the inlet ; a chamber defined by an inner circumferential surface of the housing, the chamber fluidly connecting the inlet with the outlet , and the inner circumferential surface having a first sidewall extending radially outward and distally from the top end of the housing and a second sidewall extending radially inward and distally from the first sidewall to the bottom end of the housing; and a valve member disposed in the chamber to move between (i) a closed state where fluid communication between the inlet and the chamber is blocked, and (ii) an open state where fluid communication between the inlet and the chamber is not blocked, based on a level of fluid within the chamber .
A vehicle system, comprising: a power source to drive a vehicle ; a front wheel and a rear wheel ; a suspension device ; a torque distributing mechanism to distribute a torque of the power source to the front wheel and the rear wheel ; a steering wheel to be operated by a driver; a steering angle sensor to detect a steering angle which corresponds to operation of the steering wheel ; and a controller to control the power source and the torque distributing mechanism , wherein said controller is configured to control said torque distributing mechanism such that the torque distributed to said rear wheel is increased in accordance with a turn-in operation of the steering wheel which is detected by said steering angle sensor , characterized in that said controller is configured to control said power source and said torque distributing mechanism such that when the torque of the power source is at a specified value or larger and/or an accelerator is ON, and the turn-in operation of said steering wheel is performed, the torque generated by the power source is decreased by a torque decrease amount which is set in accordance with the turn-in operation of the steering wheel and said performance of the torque distributing mechanism for increasing the torque distributed to the rear wheel in accordance with the turn-in operation of the steering wheel is suppressed. a power source to drive a vehicle ; a front wheel and a rear wheel ; a suspension device ; a torque distributing mechanism to distribute a torque of the power source to the front wheel and the rear wheel ; a steering wheel to be operated by a driver; a steering angle sensor to detect a steering angle which corresponds to operation of the steering wheel ; and a controller to control the power source and the torque distributing mechanism , wherein said controller is configured to control said torque distributing mechanism such that the torque distributed to said rear wheel is increased in accordance with a turn-in operation of the steering wheel which is detected by said steering angle sensor , characterized in that said controller is configured to control said power source and said torque distributing mechanism such that when the torque of the power source is at a specified value or larger and/or an accelerator is ON, and the turn-in operation of said steering wheel is performed, the torque generated by the power source is decreased by a torque decrease amount which is set in accordance with the turn-in operation of the steering wheel and said performance of the torque distributing mechanism for increasing the torque distributed to the rear wheel in accordance with the turn-in operation of the steering wheel is suppressed.