mhurhangee/ep-ind-claims huggingface dataset:
An electrochemical cell, comprising: a membrane electrode assembly comprising a cathode catalyst layer, an anode catalyst layer, and a polymer membrane interposed between the cathode catalyst layer and the anode catalyst layer; an anode plate and a cathode plate with the membrane electrode assembly interposed therebetween, and the anode plate defines a plurality of channels that form an anode flow field facing the anode catalyst layer; a cathode flow field positioned between the cathode plate and the cathode catalyst layer, wherein the cathode flow field comprises a porous structure; a first manifold section that includes an anode feed manifold and a second manifold section that includes an anode discharge manifold; a first anode distribution channel positioned between the first manifold section and the anode flow field configured to distribute fuel supplied from the anode feed manifold to the anode flow field; a second anode distribution channel positioned between the second manifold section and the anode flow field configured to collect fuel from the anode flow field and direct the fuel to the anode discharge manifold; and a plurality of orifice openings fluidly connecting the first anode distribution channel with the anode flow field, wherein the number of orifice openings corresponds to the number of channels in the anode flow field. a membrane electrode assembly comprising a cathode catalyst layer, an anode catalyst layer, and a polymer membrane interposed between the cathode catalyst layer and the anode catalyst layer; an anode plate and a cathode plate with the membrane electrode assembly interposed therebetween, and the anode plate defines a plurality of channels that form an anode flow field facing the anode catalyst layer; a cathode flow field positioned between the cathode plate and the cathode catalyst layer, wherein the cathode flow field comprises a porous structure; a first manifold section that includes an anode feed manifold and a second manifold section that includes an anode discharge manifold; a first anode distribution channel positioned between the first manifold section and the anode flow field configured to distribute fuel supplied from the anode feed manifold to the anode flow field; a second anode distribution channel positioned between the second manifold section and the anode flow field configured to collect fuel from the anode flow field and direct the fuel to the anode discharge manifold; and a plurality of orifice openings fluidly connecting the first anode distribution channel with the anode flow field, wherein the number of orifice openings corresponds to the number of channels in the anode flow field.
Shock-absorber bearing for a staff of a moving part of a timepiece, said bearing comprising a support provided with a housing which is intended to receive a pivot module designed to cooperate with said staff, said bearing comprising furthermore elastic means designed to exert at least one axial force on said pivot module in order to retain said module in its housing, wherein the elastic means comprise a annular spring made in single piece fixed to the superior face of the support permanently by a material linkage between the annular spring and the superior face of the support, said annular spring comprising two internal radial extensions and at least two external radial extensions extending towards the outside of said annular spring forming specific attachment zones on the superior face of the support to place the annular spring, the distance between the ends of the external radial extensions and the strip forming the ring is larger than the distance between the ends of the internal radial extensions and said strip forming the ring.
A method of operating a wireless station in a multiple basic service set identifier, BSSID, set including a transmitted BSSID, Tx BSSID, and a number of non-transmitted BSSIDs, non-Tx BSSIDs, the method performed by the wireless station and comprising: receiving a trigger frame containing a number of association identifier, AID, values based on a group AID mapping contained in a partial virtual bitmap of a traffic indication map, TIM, element; and determining whether the trigger frame allocates one or more random resource units, RUs, for use by the station based on one or more of the AID values contained in the trigger frame. receiving a trigger frame containing a number of association identifier, AID, values based on a group AID mapping contained in a partial virtual bitmap of a traffic indication map, TIM, element; and determining whether the trigger frame allocates one or more random resource units, RUs, for use by the station based on one or more of the AID values contained in the trigger frame.
A pneumatic radial tire for a passenger vehicle comprising a pair of bead portions, a carcass formed by a ply of radially arranged cords extending toroidally between the pair of bead portions, a belt (3, 8) formed by one or more belt plies disposed outside of the carcass in a radial direction, and a tread disposed outside of the belt in a radial direction, wherein a ratio W/L is 0.25 or less wherein W is a section width and L is an outer diameter of the tire, and a belt reinforcing layer (5, 7) having a high rigidity is disposed between the belt and the tread.
A vehicle seat structure comprising: a seat cushion frame; a seat back frame connected to the seat cushion frame, the seat back frame having a seat back side frame and a seat back member, wherein the seat back side frame is formed of a magnesium plate; and a recliner, which is connected to the seat cushion frame and the seat back side frame, to adjust a seat angle, wherein the recliner is connected to the seat cushion frame through an outer recliner bracket, characterised in that the outer recliner bracket comprises a first deformation control portion formed on a first edge portion that receives a tensile force when impacted and a second deformation control portion formed on a second edge portion that receives a compressive force when impacted, and in that the first and second deformation control portions (166,167) convert impact energy into deformation energy. a seat cushion frame; a seat back frame connected to the seat cushion frame, the seat back frame having a seat back side frame and a seat back member, wherein the seat back side frame is formed of a magnesium plate; and a recliner, which is connected to the seat cushion frame and the seat back side frame, to adjust a seat angle, wherein the recliner is connected to the seat cushion frame through an outer recliner bracket, characterised in that the outer recliner bracket comprises a first deformation control portion formed on a first edge portion that receives a tensile force when impacted and a second deformation control portion formed on a second edge portion that receives a compressive force when impacted, and in that the first and second deformation control portions (166,167) convert impact energy into deformation energy.
A device for stabilizing a patient catheter, the device comprising: a docking means having a body, an inlet, an outlet, an internal fluid path between the inlet and the outlet, and a securement surface located on an underside of the docking means, the inlet configured to connect to a medical implement (140, 610) directly or via a section of tubing; a securement means for securing the docking means to the patient, the securement means located at least partially on the securement surface of the docking means; a connection means for connecting the catheter to the docking means, the connection means fluidly connected to the outlet of the docking means; and a grasping means extending at least partially from the docking means, the grasping means configured to provide a surface for grasping and manipulating the docking means to facilitate connection of the connection means to the patient catheter. a docking means having a body, an inlet, an outlet, an internal fluid path between the inlet and the outlet, and a securement surface located on an underside of the docking means, the inlet configured to connect to a medical implement (140, 610) directly or via a section of tubing; a securement means for securing the docking means to the patient, the securement means located at least partially on the securement surface of the docking means; a connection means for connecting the catheter to the docking means, the connection means fluidly connected to the outlet of the docking means; and a grasping means extending at least partially from the docking means, the grasping means configured to provide a surface for grasping and manipulating the docking means to facilitate connection of the connection means to the patient catheter.
A one-hand handled riveter comprising a cover housing with a left handle on the bottom, and a right handle, the mentioned left handle and right handle being both covered by a handle housing /, the mentioned cover housing being installed with a riveter head and the riveter head being equipped with a pull rod on the rear end, the right handle being connected to the pull rod by the top end; both sides of the top end of the right handle are equipped with a support arm, the support arms are connected with the pull rod through a positioning shaft by the top end, and the two support arms are connected to a connecting rod through a pin shaft by the bottom end; a connecting shaft is arranged to the end of the two connecting rods far away from the support arm, characterised in that: two L-shaped connecting pieces are respectively connected to two ends of the connecting shaft, a connecting hole is arranged to the front and rear ends of the L-shaped connecting piece, and the connecting shaft passes one of the holes, and the rear end of the L-shaped connecting piece is connected by screw connection to a fixing seat arranged on the rear end of the pull rod.
An austenitic-ferritic stainless steel showing excellent resistance to intergranular corrosion, comprising 0.2% or less C, 0.38% or less Si, 2.2 to 3.8% Mn, 0.1% or less P, 0.03% or less S, 15 to 35% Cr, 1% or less Ni, 0.05 to 0.6% N, 2% or less Mo, optionally 4% or less Cu, optionally 0.5% or less V, optionally 0.1% or less Al, and optionally one or more of 0.01% or less B, 0.01% or less Ca, 0.01% or less Mg, 0.1% or less REM, and 0.1% or less Ti, by mass, wherein the amount of (C + N) in the austenite phase is in a range from 0.16 to 2% by mass, and balance of Fe and inevitable impurities, the percentage of the austenitic phase being in a range from 10 to 85% by volume.
A method for producing H-shaped steel, the method comprising: a rough rolling step; an intermediate rolling step; and a finish rolling step, wherein in a rolling mill (3, 4) that performs the rough rolling step, a plurality of calibers K1, K2, K3, K4 to shape a material to be rolled are engraved, the number of the plurality of calibers being four or more, shaping of one or a plurality of passes is performed on the material to be rolled in the plurality of calibers, in a first caliber K1 and a second caliber K2 among the plurality of calibers, projections (25, 26, 35, 36) to create splits (28, 29, 38, 39) vertically with respect to a width direction of the material to be rolled are formed, in a second caliber and subsequent calibers among the plurality of calibers, reduction is performed in a state where end surfaces of the material to be rolled are in contact with caliber peripheral surfaces in shaping of at least one pass, the method characterised in that: in two or more of a third caliber K3 and subsequent calibers among the plurality of calibers, a step of sequentially bending divided parts formed by the splits is performed, and the projections formed in the first caliber and the second caliber have a tip angle of 40° or less. a rough rolling step; an intermediate rolling step; and a finish rolling step, wherein in a rolling mill (3, 4) that performs the rough rolling step, a plurality of calibers K1, K2, K3, K4 to shape a material to be rolled are engraved, the number of the plurality of calibers being four or more, shaping of one or a plurality of passes is performed on the material to be rolled in the plurality of calibers, in a first caliber K1 and a second caliber K2 among the plurality of calibers, projections (25, 26, 35, 36) to create splits (28, 29, 38, 39) vertically with respect to a width direction of the material to be rolled are formed, in a second caliber and subsequent calibers among the plurality of calibers, reduction is performed in a state where end surfaces of the material to be rolled are in contact with caliber peripheral surfaces in shaping of at least one pass, the method characterised in that: in two or more of a third caliber K3 and subsequent calibers among the plurality of calibers, a step of sequentially bending divided parts formed by the splits is performed, and the projections formed in the first caliber and the second caliber have a tip angle of 40° or less. in two or more of a third caliber K3 and subsequent calibers among the plurality of calibers, a step of sequentially bending divided parts formed by the splits is performed, and the projections formed in the first caliber and the second caliber have a tip angle of 40° or less.
Measuring arrangement comprising - a magnetic field-sensitive sensor comprising a body composed of magnetic material, said body having a continuous cutout and a wall, wherein the wall delimits said cutout, the sensor furthermore comprising at least one electrical conductor which extends between its two ends and is led through the cutout, wherein the wall forms a ring enclosing the cutout, so that the body is configured as a toroidal core of a coil, wherein the coil has only one winding, wherein the winding is realized by the conductor being simply led through the cutout, - a magnet movable relative to the body, by the magnetic field of which magnet the permeability of the body is variable depending on the distance between the body and the magnet, and - an evaluation device, which is connectable or connected to the conductor and by means of which the change in the permeability of the body is detectable. - a magnetic field-sensitive sensor comprising a body composed of magnetic material, said body having a continuous cutout and a wall, wherein the wall delimits said cutout, the sensor furthermore comprising at least one electrical conductor which extends between its two ends and is led through the cutout, wherein the wall forms a ring enclosing the cutout, so that the body is configured as a toroidal core of a coil, wherein the coil has only one winding, wherein the winding is realized by the conductor being simply led through the cutout, - a magnet movable relative to the body, by the magnetic field of which magnet the permeability of the body is variable depending on the distance between the body and the magnet, and - an evaluation device, which is connectable or connected to the conductor and by means of which the change in the permeability of the body is detectable.
A vibration-generating device for generating haptic feedback in a user device, the vibration-generating device comprising: a first actuator for generating a first vibration in response to a first control signal, the first vibration (5 10a) having a driven portion when the first actuator is driven by the first control signal and a decaying portion when the first actuator is not driven by the first control signal; a second actuator for generating a second vibration in response to a second control signal; and a controller configured to control the generation of the second vibration by the second actuator such that the second vibration destructively interferes with the decaying portion of the first vibration; wherein the controller is configured to control the second actuator to begin generating the second vibration before the first control signal ends; and characterized in that: the controller is configured to control the generation of the first vibration by the first actuator such that the amplitude of vibration of the driven portion of the first vibration increases as the second actuator begins generating the second vibration. a first actuator for generating a first vibration in response to a first control signal, the first vibration (5 10a) having a driven portion when the first actuator is driven by the first control signal and a decaying portion when the first actuator is not driven by the first control signal; a second actuator for generating a second vibration in response to a second control signal; and a controller configured to control the generation of the second vibration by the second actuator such that the second vibration destructively interferes with the decaying portion of the first vibration; wherein the controller is configured to control the second actuator to begin generating the second vibration before the first control signal ends; and characterized in that: the controller is configured to control the generation of the first vibration by the first actuator such that the amplitude of vibration of the driven portion of the first vibration increases as the second actuator begins generating the second vibration.
A metal gasket, comprising: a gasket sheet made from an iron nickel-chromium alloy comprising, by weight: greater than 18% nickel; greater than 14% Cr; 0.1-10% of at least one element selected from the group consisting of Mo, Ti, V, Al, Co, Nb, Ta and Cu; and the balance Fe; said gasket sheet having a cold-rolled microstructure; characterized by said gasket sheet having at least one embossed sealing bead and said embossed sealing bead being work hardened and without post-embossment heat treating, adapted to be sealably operable with full functional recovery and retained stress in a fully-clamped, sealed joint at an operating temperature up to 537,8 °C (1000 °F). a gasket sheet made from an iron nickel-chromium alloy comprising, by weight: greater than 18% nickel; greater than 14% Cr; 0.1-10% of at least one element selected from the group consisting of Mo, Ti, V, Al, Co, Nb, Ta and Cu; and the balance Fe; said gasket sheet having a cold-rolled microstructure; characterized by said gasket sheet having at least one embossed sealing bead and said embossed sealing bead being work hardened and without post-embossment heat treating, adapted to be sealably operable with full functional recovery and retained stress in a fully-clamped, sealed joint at an operating temperature up to 537,8 °C (1000 °F). greater than 18% nickel; greater than 14% Cr; 0.1-10% of at least one element selected from the group consisting of Mo, Ti, V, Al, Co, Nb, Ta and Cu; and the balance Fe; said gasket sheet having a cold-rolled microstructure; characterized by said gasket sheet having at least one embossed sealing bead and said embossed sealing bead being work hardened and without post-embossment heat treating, adapted to be sealably operable with full functional recovery and retained stress in a fully-clamped, sealed joint at an operating temperature up to 537,8 °C (1000 °F).
A throttle valve control device comprising a throttle body having an intake passage, the throttle valve control device driving a throttle valve for controlling an intake air flow rate or a pressure, disposed in the intake passage, with a motor via a throttle gear, and the throttle valve control device being attached externally with a bolt inserted into an attachment hole (19, 20, 21) formed in the throttle body, wherein only three attachment holes (19, 20, 21) are formed in the throttle body, one attachment hole among the three attachment holes (19, 20, 21) is formed closer to a center of gravity of the throttle valve control device than the other two attachment holes (20, 21), and the one attachment hole is formed between the motor and a throttle shaft, characterized in that in a case where the throttle valve control device is divided into first to fourth quadrants in a counterclockwise direction based on a center of the intake passage when the intake passage is viewed in a penetration direction of the intake passage, in case the motor is located on the second and third quadrant side, the three attachment holes (19, 20, 21) are formed in the first quadrant, the third quadrant, and the fourth quadrant, or in case the motor is located on the first and fourth quadrant side, the attachment holes (19, 20, 21) are formed in the second quadrant, the third quadrant and the fourth quadrant, and the motor is disposed in the same quadrant as the one attachment hole.
A method for shear processing to shear a workpiece so as to cross a weld zone of the workpiece by using a shear processing device comprising a die, a stopper, and a punch, the workpiece obtained by welding two metal sheets, the weld zone comprising a weld metal and heat affected zone, wherein the punch has a cutting edge and two protrusions (2b, 2c) protruding from the cutting edge of the punch in the movement direction of the punch, and all or a part of the weld zone of the workpiece are positioned between the two protrusions of the punch, wherein in the shear processing, the workpiece is curved with a part including the weld zone sandwiched by the two protrusions being warped downward, and the workpiece is sheared upon receiving the shearing action by the punch and the die in a curved state warped downward. wherein the punch has a cutting edge and two protrusions (2b, 2c) protruding from the cutting edge of the punch in the movement direction of the punch, and all or a part of the weld zone of the workpiece are positioned between the two protrusions of the punch, wherein in the shear processing, the workpiece is curved with a part including the weld zone sandwiched by the two protrusions being warped downward, and the workpiece is sheared upon receiving the shearing action by the punch and the die in a curved state warped downward.
An assembly of a manufacturing carrier (804, 900) and a packaged article of manufacture, wherein the packaged article of manufacturing comprises an article of manufacture (701, 810) packaged in an associated packaging having a body, said body including an alignment cutout that exposes a portion of the article of manufacture; and wherein the packaged article of manufacture is loaded in a seat of the manufacturing carrier, the seat having an alignment prong, the alignment cutout corresponding to the position of the alignment prong when the article of manufacture is properly seated in the carrier, such that the alignment prong engages the portion of the article of manufacture that is exposed by the alignment cutout so as to fix the article of manufacture in a rigid position within the carrier.
Drive for a belt conveyor system, comprising a permanently excited synchronous motor having a stator and a rotor, wherein a gap size is formed between the rotor and the stator, wherein a holding device is provided which is secured to the stator by way of first securing means and to the rotor by way of second securing means, wherein the first securing means and/or the second securing means are designed to be releasable, wherein the holding device is designed in such a manner that an air gap is created between the holding device and the stator or rotor when the first or second securing means (15a,15b) are released, characterised in that the holding device is designed in the form of an angled flange ring which in particular has a continuous circumference.
A composition comprising a therapeutically effective amount of a combination of retinoic acid and an agonist of proliferator-activated receptor α ("PPARα"), wherein the agonist of PPARα is gemfibrozil; for use in treating a disease associated with aggregation of amyloid-β protein in the brain of a subject by reducing amyloid-β protein aggregates in the brain of a subject; wherein the therapeutically effective amount is an amount that stimulates the uptake of amyloid-β protein by astrocytes; or wherein the therapeutically effective amount is an amount that stimulates degradation of amyloid-β protein by astrocytes.