mhurhangee/ep-ind-claims huggingface dataset:
An electricity supply element, comprising: a first electrode substrate, including a first current collector layer and a first active material layer, wherein the first current collector layer includes a first surface and a second surface opposed each other, the first active material layer is disposed on the first surface of the first current collector layer; and a second electrode substrate, including a second current collector layer and a second active material layer, wherein the second current collector layer includes a first surface and a second surface opposed each other, the second active material layer is disposed on the first surface of the second current collector layer, and a ceramic separator according to claim 17. a first electrode substrate, including a first current collector layer and a first active material layer, wherein the first current collector layer includes a first surface and a second surface opposed each other, the first active material layer is disposed on the first surface of the first current collector layer; and a second electrode substrate, including a second current collector layer and a second active material layer, wherein the second current collector layer includes a first surface and a second surface opposed each other, the second active material layer is disposed on the first surface of the second current collector layer, and a ceramic separator according to claim 17.
A cathode active material, comprising: a lithium nickel-manganese-cobalt oxide represented by Formula, wherein an ion-conductive solid compound and conductive carbon are applied to a surface of the foregoing oxide: Li x M y O 2 wherein M is Ni 1-a-b Mn a Co b (0.05≤a≤0.4, 0.1≤b≤0.4, 0.4≤ (1-a-b) ≤0.9), x + y is from 1.95 to 2.15 and 0.95≤x≤1.15, and wherein the lithium nickel-manganese-cobalt oxide has particles with an agglomerated structure consisting of an aggregate of microfine particles. a lithium nickel-manganese-cobalt oxide represented by Formula, wherein an ion-conductive solid compound and conductive carbon are applied to a surface of the foregoing oxide: Li x M y O 2 wherein M is Ni 1-a-b Mn a Co b (0.05≤a≤0.4, 0.1≤b≤0.4, 0.4≤ (1-a-b) ≤0.9), x + y is from 1.95 to 2.15 and 0.95≤x≤1.15, and wherein the lithium nickel-manganese-cobalt oxide has particles with an agglomerated structure consisting of an aggregate of microfine particles. wherein M is Ni 1-a-b Mn a Co b (0.05≤a≤0.4, 0.1≤b≤0.4, 0.4≤ (1-a-b) ≤0.9), x + y is from 1.95 to 2.15 and 0.95≤x≤1.15, and wherein the lithium nickel-manganese-cobalt oxide has particles with an agglomerated structure consisting of an aggregate of microfine particles.
Method for controlling a wiper system for a motor vehicle, the wiper system comprising at least: - one wiper of a windscreen capable of being displaced between an initial position and an extreme position, - a control unit of a drive motor of the wiper, the method comprising: - a first wiping mode in which the wiper is displaced at least between the initial position and the extreme position, said method being characterized in that: - on reception, by the control unit, of a signal originating from a triggering means, said signal being representative of a phenomenon of suction of a liquid by the wiper when the wiper is displaced from the extreme position to the initial position, the method executes a second wiping mode configured to limit the phenomenon of suction of the liquid by the wiper from an internal position situated between the initial position and the extreme position, and in that the triggering means is configured to automatically detect the phenomenon of suction of the liquid by the wiper. - one wiper of a windscreen capable of being displaced between an initial position and an extreme position, - a control unit of a drive motor of the wiper, - a first wiping mode in which the wiper is displaced at least between the initial position and the extreme position, - on reception, by the control unit, of a signal originating from a triggering means, said signal being representative of a phenomenon of suction of a liquid by the wiper when the wiper is displaced from the extreme position to the initial position, the method executes a second wiping mode configured to limit the phenomenon of suction of the liquid by the wiper from an internal position situated between the initial position and the extreme position, and in that the triggering means is configured to automatically detect the phenomenon of suction of the liquid by the wiper.
A user-input device comprising: a user-actuatable trigger; a posture sensor configured to determine a posture of the user-actuatable trigger; a force sensor configured to determine an actuation force applied to the user-actuatable trigger; and a force-feedback motor operatively coupled to the user-actuatable trigger and configured to selectively drive the user-actuatable trigger based on at least a force feedback signal; wherein the user-actuatable trigger includes a finger-interface portion and a motor-interface portion, and wherein the force sensor is operatively intermediate the finger-interface portion and the motor-interface portion. a user-actuatable trigger; a posture sensor configured to determine a posture of the user-actuatable trigger; a force sensor configured to determine an actuation force applied to the user-actuatable trigger; and a force-feedback motor operatively coupled to the user-actuatable trigger and configured to selectively drive the user-actuatable trigger based on at least a force feedback signal; wherein
A laser apparatus, comprising: an elongated, gas-filled resonator unit, extending in a direction of elongation along a longitudinal axis; an elongated radio-frequency, RF, power supply unit extending in the direction of elongation for energizing gas in the resonator unit, the resonator and power supply units aligned, spaced apart and parallel to each other; an elongated cooling unit including a plurality of elongated fins separating the power supply and resonator units, the fins being spaced and parallel to each other and extending in the direction of elongation of the power supply and resonator units, opposite upper and lower side edges of the fins being in direct thermal contact with the resonator unit and the power supply unit respectively; and at least one of fan arranged to drive air between the spaced-apart fins in the direction of elongation for cooling the power supply and resonator units. an elongated, gas-filled resonator unit, extending in a direction of elongation along a longitudinal axis; an elongated radio-frequency, RF, power supply unit extending in the direction of elongation for energizing gas in the resonator unit, the resonator and power supply units aligned, spaced apart and parallel to each other; an elongated cooling unit including a plurality of elongated fins separating the power supply and resonator units, the fins being spaced and parallel to each other and extending in the direction of elongation of the power supply and resonator units, opposite upper and lower side edges of the fins being in direct thermal contact with the resonator unit and the power supply unit respectively; and at least one of fan arranged to drive air between the spaced-apart fins in the direction of elongation for cooling the power supply and resonator units.
Rotor blade for a gas turbine, comprising a pressure-side wall and a suction-side wall, a tip cap, a cavity which is formed by the inner surface (20, 22, 24) of the pressure-side wall, the suction-side wall and the tip cap, and a squealer which extends radially from the pressure-side and suction-side walls (2, 4), a half-space formed by the outer surface of the tip cap and the squealer, and a cooling channel which leads from the cavity to the outside of the squealer, wherein the tip cap has a recess, wherein the recess divides the cooling channel into a first part that communicates with the cavity and a second part that communicates with the outside space, characterized in that the recess extends from the half-space into the tip cap.
A solid dispersion of dronedarone or a pharmaceutically acceptable salt thereof, wherein said solid dispersion is composed of dronaderone or a pharmaceutically acceptable salt thereof serving as an active ingredient, and a carrier material, wherein said carrier material is selected from the group consisting of povidone, copovidone, hydroxypropyl cellulose, or a mixture thereof.
A hockey stick blade system comprising: a. a cured composite hockey stick blade; and b. a logo system co-molded to an external surface of the cured composite hockey stick blade; characterized in that the logo system includes an encapsulant material, wherein one or more logo components of the logo system are at least partially encapsulated in the encapsulant material and have densities less than the density of the cured composite hockey stick blade. a. a cured composite hockey stick blade; and b. a logo system co-molded to an external surface of the cured composite hockey stick blade;
An oxabridged heterocyclic nicotine related compound, wherein, the compound is selected from the group consisting of 9-benzyl-4-nitro-8-oxa-10,11-dihydroimidazo-[2,3-a]-bicyclo-[3,2,1]-oct-3-ene; 9-(4-chloro-benzyl)-4-nitro-8-oxa-10,11-dihydroimidazo-[2,3-a]-bicyclo-[3,2,1]-oct-3-ene; 10-benzyl-4-nitro-9-oxa-11,12-dihydroimidazo-[2,3-a]-bicyclo-[3,3,1]-non-3-ene; and 10-(4-chlorobenzyl)-4-nitro-9-oxa-11,12-dihydroimidazo-[2,3-a]-bicyclo-[3,3,1]-non-3-ene. 9-benzyl-4-nitro-8-oxa-10,11-dihydroimidazo-[2,3-a]-bicyclo-[3,2,1]-oct-3-ene; 9-(4-chloro-benzyl)-4-nitro-8-oxa-10,11-dihydroimidazo-[2,3-a]-bicyclo-[3,2,1]-oct-3-ene; 10-benzyl-4-nitro-9-oxa-11,12-dihydroimidazo-[2,3-a]-bicyclo-[3,3,1]-non-3-ene; and 10-(4-chlorobenzyl)-4-nitro-9-oxa-11,12-dihydroimidazo-[2,3-a]-bicyclo-[3,3,1]-non-3-ene.
A fixing device for a secondary battery test, comprising: a seating stage on which the secondary battery to be tested is seated and which is provided as a ferromagnetic body made of a metal material; a cover unit provided as a ferromagnetic body made of a metal material to cover the secondary battery; and a magnetic force generation unit providing magnetic force to the seating stage and the cover unit and comprising a pair of ferromagnetic blocks and a cylindrical permanent magnet rotatably provided between the pair of ferromagnetic blocks, wherein, as the cylindrical permanent magnet rotates, magnetism of the magnetic force generation unit is turned on/off, and a non-magnetic block is disposed between the pair of ferromagnetic blocks to rotatably support the cylindrical permanent magnet, and wherein the magnetic force generation unit has one side seated on the seating stage and the other side on which the cover unit is provided to be vertically movable and the magnetic force generated in the magnetic force generation part is transmitted to the seating stage and the cover unit; and wherein, when the magnetic force is transmitted from the magnetic force generation unit to the seating stage and the cover unit, attractive magnetic force is generated between the cover unit and the seating stage to fix the secondary battery disposed between the cover unit and the seating stage without moving. a seating stage on which the secondary battery to be tested is seated and which is provided as a ferromagnetic body made of a metal material; a cover unit provided as a ferromagnetic body made of a metal material to cover the secondary battery; and a magnetic force generation unit providing magnetic force to the seating stage and the cover unit and comprising a pair of ferromagnetic blocks and a cylindrical permanent magnet rotatably provided between the pair of ferromagnetic blocks, wherein, as the cylindrical permanent magnet rotates, magnetism of the magnetic force generation unit is turned on/off, and a non-magnetic block is disposed between the pair of ferromagnetic blocks to rotatably support the cylindrical permanent magnet, and wherein the magnetic force generation unit has one side seated on the seating stage and the other side on which the cover unit is provided to be vertically movable and the magnetic force generated in the magnetic force generation part is transmitted to the seating stage and the cover unit; and wherein, when the magnetic force is transmitted from the magnetic force generation unit to the seating stage and the cover unit, attractive magnetic force is generated between the cover unit and the seating stage to fix the secondary battery disposed between the cover unit and the seating stage without moving.
A method of reducing ion concentration in an influent solution comprising: in a deionization phase of operation, feeding said influent to a electrodeionization stack comprising an array of alternating layers of porous anion exchange materials, AIX and porous cation exchange materials, CIX interposed between a cathode and an anode, the stack being devoid of ion exchange membranes therein, each layer of AIX contiguous with a respective one of the layers of CIX to define an interfacial area therebetween, the alternating layers thereby forming a plurality of the interfacial areas, the stack having one of the AIX layers next to the cathode and one of the CIX layers next to the anode, and passing said influent over said AIX and CIX whereby said ion concentration is reduced via ion exchange with said AIX and CIX, and where by the influent is fed over the entire surface of the array of alternating layers of porous anion and cation materials; collecting deionized product from said EDI stack; and in a regeneration phase of operation, imparting a voltage across said electrodes and feeding flush water as an influent stream to said EDI stack and across the entire surface of the alternating AIX and CIX materials, whereby water splitting occurs along at least one of said interfacial areas resulting in formation of H + and OH - ions which migrate to and replenish said AIX and CIX materials, and recovering a waste stream as effluent; said deionization phase and said regeneration phase alternating in time. in a deionization phase of operation, feeding said influent to a electrodeionization stack comprising an array of alternating layers of porous anion exchange materials, AIX and porous cation exchange materials, CIX interposed between a cathode and an anode, the stack being devoid of ion exchange membranes therein, each layer of AIX contiguous with a respective one of the layers of CIX to define an interfacial area therebetween, the alternating layers thereby forming a plurality of the interfacial areas, the stack having one of the AIX layers next to the cathode and one of the CIX layers next to the anode, and passing said influent over said AIX and CIX whereby said ion concentration is reduced via ion exchange with said AIX and CIX, and where by the influent is fed over the entire surface of the array of alternating layers of porous anion and cation materials; collecting deionized product from said EDI stack; and in a regeneration phase of operation, imparting a voltage across said electrodes and feeding flush water as an influent stream to said EDI stack and across the entire surface of the alternating AIX and CIX materials, whereby water splitting occurs along at least one of said interfacial areas resulting in formation of H + and OH - ions which migrate to and replenish said AIX and CIX materials, and recovering a waste stream as effluent; said deionization phase and said regeneration phase alternating in time.
A method for producing direct reduced iron, said method comprising producing direct reduced iron using a pre-treated make-up gas as a reducing agent in a direct reduced iron reactor, and wherein producing direct reduced iron is carried-out using a zero-reformer process in which catalytic reformation of the pre-treated make-up gas is carried-out "in situ" within the direct reduced iron reactor such that the pre-treated make-up gas is subjected to no further catalytic reaction besides the catalytic reactions that occur inside said direct reduced iron reactor, characterized in that said method comprises: - pre-treating a stream of said make-up gas containing heavy hydrocarbons by subjecting the stream of make-up gas to a low temperature adiabatic reforming at a temperature comprised between 300°C and 600°C, prior to using said stream of make-up gas as a reducing agent for producing direct reduced iron; - subjecting said pre-treated stream of make-up gas to adjusting humidity content of said stream of make-up gas after said low temperature adiabatic reforming by bypassing said stream of make-up gas to selectively split said stream into a first part of said stream of make-up gas and a second part of said stream of make-up gas and subjecting said first part to a water separation and then mixing said first part to said second part to obtain a reducing stream to be sent to direct reduced iron production. - pre-treating a stream of said make-up gas containing heavy hydrocarbons by subjecting the stream of make-up gas to a low temperature adiabatic reforming at a temperature comprised between 300°C and 600°C, prior to using said stream of make-up gas as a reducing agent for producing direct reduced iron; - subjecting said pre-treated stream of make-up gas to adjusting humidity content of said stream of make-up gas after said low temperature adiabatic reforming by bypassing said stream of make-up gas to selectively split said stream into a first part of said stream of make-up gas and a second part of said stream of make-up gas and subjecting said first part to a water separation and then mixing said first part to said second part to obtain a reducing stream to be sent to direct reduced iron production.
An electronically controlled V-belt continuously variable transmission mounted on a vehicle, comprising a fixed sheave that is fixed to a drive shaft having a rotational axis (Xis) being oriented in a vehicle width direction, a movable sheave that has a movable sheave boss for receiving the drive shaft and is supported on the drive shaft so as to be capable of moving in an axial direction of the drive shaft while facing the fixed sheave, a V-belt that is wound around between the fixed sheave and the movable sheave, a first shift mechanism that comprises a cam member having a cam face and formed so as to have a smaller external diameter than an external diameter of the movable sheave, that sandwiches a centrifugal weight between the cam face and a weight retaining plate disposed so as to oppose the cam member, and that drives the centrifugal weight by means of centrifugal force accompanying rotation of the drive shaft to thus move the movable sheave in the axial direction, and a second shift mechanism that comprises a drive arm relatively rotatably and axially non-movably fitted onto the movable sheave boss via a rolling bearing and that transmits the driving force of an actuator linked to the drive arm to the movable sheave to thus move the movable sheave in the axial direction, characterized in that the drive arm has a first arm part that extends toward a radially outer side of the movable sheave and a second arm part that bends from an extremity of the first arm part, extends in the vehicle width direction, and is disposed radially outside the cam member, and at least part of the second arm part overlaps the movable sheave as seen in a direction of the rotational axis (Xis) of the drive shaft.
A patient positioning system comprising: a base plate for securing to an operating table, said base plate adapted to be aligned with a plane of an operating table; a clamp assembly for operably coupling said base plate to a side rail of the operating table; characterized in that said clamp assembly configured with a set clamp assembly either for releasably engaging a transverse arm of said base plate disposed in arm slot to the side rail of the operating table or for releasably engaging end slot of a mount assembly and an arc lever clamp assembly to close a base clamp and a top clamp to the side rail of the operating table in plane, said base plate having a guide portion formed in an upper surface along a length thereof; a carriage supported on said base plate for selective movement along said guide portion, said carriage adapted to receive a holder for a patient limb, said holder being releasably engaged with said carriage by a selectively locking in a desired position. a base plate for securing to an operating table, said base plate adapted to be aligned with a plane of an operating table; a clamp assembly for operably coupling said base plate to a side rail of the operating table; characterized in that said clamp assembly configured with a set clamp assembly either for releasably engaging a transverse arm of said base plate disposed in arm slot to the side rail of the operating table or for releasably engaging end slot of a mount assembly and an arc lever clamp assembly to close a base clamp and a top clamp to the side rail of the operating table in plane, said base plate having a guide portion formed in an upper surface along a length thereof; a carriage supported on said base plate for selective movement along said guide portion, said carriage adapted to receive a holder for a patient limb, said holder being releasably engaged with said carriage by a selectively locking in a desired position.
A cooling apparatus for a metal strip, comprising a plurality of first nozzles and a plurality of second nozzles disposed on both sides of a metal strip in a strip thickness direction, respectively, across a pass line of the metal strip, wherein the plurality of first nozzles forms a staggered array having a pitch of Xn in a strip width direction of the metal strip, a pitch of Yn in a longitudinal direction of the metal strip, and a displacement amount of ΔXn in the strip width direction between a pair of the first nozzles adjacent to each other in the longitudinal direction, wherein the plurality of second nozzles forms a staggered array having a pitch of Xn in the strip width direction, a pitch of Yn in the longitudinal direction, and a displacement amount of ΔXn in the strip width direction between a pair of the second nozzles adj acent to each other in the longitudinal direction, wherein the staggered array of the first nozzles and the staggered array of the second nozzles are offset from each other such that, a center of each second nozzle is positioned in a region defined by an ellipse having a center at a position offset by a shift amount S from a center of an adjacent first nozzle in the strip width direction and having a semi-axis of ΔXn/4 in the strip width direction and a semi-axis of Yn/3 in the longitudinal direction, and wherein the shift amount S is represented by S = m×ΔXn/2, where m is an odd number such that S is closest to Xn/2. a plurality of first nozzles and a plurality of second nozzles disposed on both sides of a metal strip in a strip thickness direction, respectively, across a pass line of the metal strip, wherein the plurality of first nozzles forms a staggered array having a pitch of Xn in a strip width direction of the metal strip, a pitch of Yn in a longitudinal direction of the metal strip, and a displacement amount of ΔXn in the strip width direction between a pair of the first nozzles adjacent to each other in the longitudinal direction, wherein the plurality of second nozzles forms a staggered array having a pitch of Xn in the strip width direction, a pitch of Yn in the longitudinal direction, and a displacement amount of ΔXn in the strip width direction between a pair of the second nozzles adj acent to each other in the longitudinal direction, wherein the staggered array of the first nozzles and the staggered array of the second nozzles are offset from each other such that, a center of each second nozzle is positioned in a region defined by an ellipse having a center at a position offset by a shift amount S from a center of an adjacent first nozzle in the strip width direction and having a semi-axis of ΔXn/4 in the strip width direction and a semi-axis of Yn/3 in the longitudinal direction, and wherein the shift amount S is represented by S = m×ΔXn/2, where m is an odd number such that S is closest to Xn/2.