mhurhangee/ep-ind-claims huggingface dataset:
A crystal material manufacturing method comprising: a first step of preparing a raw material mixture by mixing an alkaline-earth metal or a carbonate or oxide thereof, Nb or Ta or an oxide thereof, Ga or an oxide thereof, Al or an oxide thereof, and Si or an oxide thereof, so as to obtain each cation ratio indicated by any desired congruent composition of AE 3 ME 1+a (Ga 1-x Al x) 3+b Si 2+c O 14 (AE is an alkaline-earth metal, ME is Nb or Ta, 0 ≤ x ≤ 1, -0.5 < a < 0.5, -0.5 < b < 0.5, and -0.5 < c < 0.5, excluding a = b = c = 0); a second step of melting the raw material mixture; and a third step of forming a crystal material made of a langasite-based oxide having the desired congruent composition by cooling the melted raw material mixture. a first step of preparing a raw material mixture by mixing an alkaline-earth metal or a carbonate or oxide thereof, Nb or Ta or an oxide thereof, Ga or an oxide thereof, Al or an oxide thereof, and Si or an oxide thereof, so as to obtain each cation ratio indicated by any desired congruent composition of AE 3 ME 1+a (Ga 1-x Al x) 3+b Si 2+c O 14 (AE is an alkaline-earth metal, ME is Nb or Ta, 0 ≤ x ≤ 1, -0.5 < a < 0.5, -0.5 < b < 0.5, and -0.5 < c < 0.5, excluding a = b = c = 0); a second step of melting the raw material mixture; and a third step of forming a crystal material made of a langasite-based oxide having the desired congruent composition by cooling the melted raw material mixture.
A method of rotating a hub to achieve a required installation position of the hub of a wind turbine rotor in a direct drive wind turbine comprising a generator with a generator rotor and a generator stator, wherein the hub is rotatably mounted on a frame extending forward into the hub and the method comprises providing an auxiliary driving system having a fixed part connected to the frame extending forward into the hub and a rotatable part operatively coupled to the hub; and activating the auxiliary driving system such that the rotatable part of the auxiliary driving system rotates the hub to achieved the required installation position.
Process for obtaining a system for the controlled delivery of a biologically active substance, characterized in that it comprises at least the steps of: - providing one or more alginates; - submitting said one or more alginates consisting of G blocks and M blocks to a hydrolysis process in acid medium, thus obtaining a depolymerization of said alginates and formation of flat structures of G blocks and M blocks; - adding monomers or polymers of cellulose substituted with functional groups; - adding said biologically active substance; - adding a polymerizing agent and carrying out polymerization; - adding mannose accompanied by a polymerizing agent. - providing one or more alginates; - submitting said one or more alginates consisting of G blocks and M blocks to a hydrolysis process in acid medium, thus obtaining a depolymerization of said alginates and formation of flat structures of G blocks and M blocks; - adding monomers or polymers of cellulose substituted with functional groups; - adding said biologically active substance; - adding a polymerizing agent and carrying out polymerization; - adding mannose accompanied by a polymerizing agent.
A steering assembly for a vehicle steering system comprising a steering wheel including a steering wheel skeleton, an airbag module for an occupant restraint system and a steering wheel-side mounting plate for securing the airbag module to the steering wheel skeleton, wherein the airbag module includes a module cap, which in the mounted condition of the airbag module faces an occupant, and a module bottom, which includes a latch means for securing the airbag module to a vehicle component, wherein the module cap and the module bottom are movable toward each other along a mounting axis until they reach at first an axial pre-mounting position and then an axial final mounting position, wherein the module cap and the module bottom include interacting pre-fixing elements which captively secure the module cap and the module bottom to each other in the pre-mounting position, wherein the module cap and the module bottom have interacting resistance contours which in an axial relative movement of the module cap and the module bottom from the pre-mounting position to the final mounting position have a predetermined mounting resistance, wherein the latch means on the module bottom of the airbag module is a first latch means which latches with a second latch means provided on the mounting plate during an axial movement relative to the mounting plate, characterized in that the mounting resistance for latching the first and second latch means is lower than a mounting resistance of the resistance contours when transferring the airbag module from the pre-mounting position to the final mounting position. a steering wheel including a steering wheel skeleton, an airbag module for an occupant restraint system and a steering wheel-side mounting plate for securing the airbag module to the steering wheel skeleton, wherein the airbag module includes a module cap, which in the mounted condition of the airbag module faces an occupant, and a module bottom, which includes a latch means for securing the airbag module to a vehicle component, wherein the module cap and the module bottom are movable toward each other along a mounting axis until they reach at first an axial pre-mounting position and then an axial final mounting position, wherein the module cap and the module bottom include interacting pre-fixing elements which captively secure the module cap and the module bottom to each other in the pre-mounting position, wherein the module cap and the module bottom have interacting resistance contours which in an axial relative movement of the module cap and the module bottom from the pre-mounting position to the final mounting position have a predetermined mounting resistance, wherein the latch means on the module bottom of the airbag module is a first latch means which latches with a second latch means provided on the mounting plate during an axial movement relative to the mounting plate, characterized in that the mounting resistance for latching the first and second latch means is lower than a mounting resistance of the resistance contours when transferring the airbag module from the pre-mounting position to the final mounting position.
Method for cutting a food product, comprising a cutting unit with at least one cutting tool, a push unit with at least one push device, at least one drive device (12, 22) for driving the cutting tool and the push device, and a conveyor table, on which the food product is placed and pushed towards the cutting tool by means of the push device, characterised in that the drive device (12, 22) is controlled during a duty cycle in such a way that in a first section of the duty cycle the push device seizes the food product at its rear side and pushes it towards the cutting tool and then is released again from the food product and withdrawn, whereafter, in a second section of the duty cycle, the cutting tool is guided towards the food product and a slice of the food product is cut at the front side of the food product, wherein the food product is supported fully or partially on a support section of at least one elastic element (34, 340), which is compressed in the support section during the feed motion of the food product and is expanding after the release of the push device.
A method for fabricating non-planar transistors, comprising: forming a non-planar transistor having a plurality of transistor fins; forming a conformal blocking material layer on the plurality of transistor fins such that at least one of the plurality of transistor fins is covered by the conformal blocking material layer for blocking implantation thereof and at least one of the plurality of transistor fins is not covered by the conformal blocking material layer; and performing an angled ion implantation on opposing sidewalls of the at least one transistor fin not covered by the conformal blocking material layer. forming a non-planar transistor having a plurality of transistor fins; forming a conformal blocking material layer on the plurality of transistor fins such that at least one of the plurality of transistor fins is covered by the conformal blocking material layer for blocking implantation thereof and at least one of the plurality of transistor fins is not covered by the conformal blocking material layer; and performing an angled ion implantation on opposing sidewalls of the at least one transistor fin not covered by the conformal blocking material layer.
A process of making a chemically sterilized bioimplant comprising a biological tissue and heparin, wherein the heparin is covalently conjugated directly to the biological tissue, and the bioimplant is sterilized using a carbodiimide, the method comprising: (a) contacting a biological tissue with heparin to form a combination; and (b) simultaneously sterilizing the combination using a carbodiimide and directly conjugating heparin to the biological tissue using the carbodiimide. (a) contacting a biological tissue with heparin to form a combination; and (b) simultaneously sterilizing the combination using a carbodiimide and directly conjugating heparin to the biological tissue using the carbodiimide.
A method for producing a polyether diol, comprising subjecting a compound represented by the following general formula to hydrogenation reduction in the presence of a hydrogenation catalyst to provide at least one polyether diol selected from the group consisting of compounds represented by the following general formulae,,,, and: wherein in the formulae,,,,, and, R 1, R 2, R 3, and R 4 may be the same or different, and represent a linear or branched alkyl group having 1 to 6 carbon atoms; and in each of R 1, R 2, R 3, and R 4, independently, one or two or more hydrogen atoms contained in the alkyl group may be replaced with an alkoxy group having 6 or less carbon atoms or a functional group inactive for a hydrogenation reduction reaction.
An oral pharmaceutical composition for use in reducing cardiovascular-related disease symptoms relative to baseline with minimal incidence of one or more of eructation, abdominal discomfort, nausea, diarrhea, or fishy odor comprising an enteric soft capsule shell consisting essentially of (weight percentages): 25% to 40% gelatin; 9% to 11% acrylic and methacrylic acid copolymers; 10% to 20% glycerol; 1% to 3% triethyl citrate; 1% to 4% ammonium hydroxide; and at least 19% water; and wherein the shell encapsulates a fill comprising from 70% to 99% by weight eicosapentaenoic free fatty acid of all the fatty acids present; and upon administration to a subject, the subject exhibits a mean plasma EPA C max of 100 mg/L to 250 mg/L. 25% to 40% gelatin; 9% to 11% acrylic and methacrylic acid copolymers; 10% to 20% glycerol; 1% to 3% triethyl citrate; 1% to 4% ammonium hydroxide; and at least 19% water; and wherein the shell encapsulates a fill comprising from 70% to 99% by weight eicosapentaenoic free fatty acid of all the fatty acids present; and upon administration to a subject, the subject exhibits a mean plasma EPA C max of 100 mg/L to 250 mg/L.
A device for dosing an additive into rinsing water of a bowl of a sanitary room, in particular of a vehicle, preferably of a railway vehicle, in which: - the rinsing water flows from a supply container, belonging to machinery of the sanitary room, to the bowl via a water conduit, the flow in the water conduit being regulated by a pneumatic valve of the machinery, the pneumatic valve being supplied by a first air circuit of a rinsing device belonging to the machinery, the valve being open when the first air circuit is pressurised and a control is activated, - the dosing device is configured so as, in a so-called "activated" configuration of the dosing device, to mix a quantity of additive with the rinsing water, following initiation of rinsing by a user via activation of the control, - the dosing device comprises a second air circuit, fluidly connectable to the first air circuit, - the dosing device is configured to be in the activated configuration when the second air circuit is pressurised by the first air circuit, and - when the second air circuit is not pressurised, the dosing device is configured to be in a deactivated configuration, in which the additive cannot be mixed with the rinse water, characterised in that the dosing device comprises an additive channel and a water channel (88, 84, 90), the additive channel comprising a first end, which is fluidly connected to an additive reservoir, and a second end, which opens out via a passage into a mixing chamber of the water channel, the dosing device further comprising a piston secured to a rod, the piston being movable between a closed position in which the rod blocks the passage and the dosing device is in its deactivated configuration, and an open position, in which the rod does not block the passage and the dosing device is in its activated configuration, and in that the piston is driven by pressurised air from the second air circuit from its closed position to its open position when the second air circuit is pressurised. - the rinsing water flows from a supply container, belonging to machinery of the sanitary room, to the bowl via a water conduit, the flow in the water conduit being regulated by a pneumatic valve of the machinery, the pneumatic valve being supplied by a first air circuit of a rinsing device belonging to the machinery, the valve being open when the first air circuit is pressurised and a control is activated, - the dosing device is configured so as, in a so-called "activated" configuration of the dosing device, to mix a quantity of additive with the rinsing water, following initiation of rinsing by a user via activation of the control, - the dosing device comprises a second air circuit, fluidly connectable to the first air circuit, - the dosing device is configured to be in the activated configuration when the second air circuit is pressurised by the first air circuit, and - when the second air circuit is not pressurised, the dosing device is configured to be in a deactivated configuration, in which the additive cannot be mixed with the rinse water,
A multifunctional safety valve device with an incorporated proportional pressure regulator, to be used in a line feeding an aeriform fluid to a user, such as a generic gas feeding a gas appliance, said device comprising a body in which a conduit for said fluid or gas is defined, said conduit being connected to a gas feed line and to a line delivering the gas to the user, said conduit comprising a first passage to be intercepted by a first valving element of a first valve member and a second passage to be intercepted or selectively restricted by second valving element of a second valve member, positioned downstream of the first, to act as a gas pressure regulator and modulator, said valving elements (4A, 5A) being operated by corresponding electromagnetic actuators (15, 16) and urged into closure, i.e. into the position in which they intercept the respective passages, at least by a corresponding spring (30,31), the second valving element cooperating with a membrane subjected to the gas pressure so as to urge said second valving element into the closed position, the membrane having a surface subjected to the pressure of the gas moving towards said second valve member which is greater than the surface of the valving element subjected to the same gas pressure, to hence maintain the valving element closed, this latter presenting, downstream of the second passage, a portion arranged to sealedly close this latter when intercepted by the second valving element, wherein the electromagnetic actuator of the second valve member includes a movable core which is coupled to support means for the valving element of said member, said membrane subjected to the gas pressure also being associated with said support means, the device being characterized in that it comprises means for compensating the action of the electromagnetic actuator of the second valve member on the basis of the thrust exerted by the spring on the corresponding valving element, said means allowing any variation in the spring thrust force to be compensated such as to maintain the gas flow regulating action by the regulator constant with time, the compensator means comprising a profiled end of a movable core of said electromagnetic actuator, and in that said profiled end of the core is present, in an actuator chamber containing said core, in a position corresponding with a cylindrical element inserted into and fixed in said chamber, said profiled end being close to or at most disposed in correspondence with the end of said element present in said chamber when the valve is in its closed position, said profiled end comprising at least two successive portions (89A, 89B) of different section, the smaller section being the most end portion.
. An installation (10,50,60) for destroying waste comprising at least traces of energetic materials, preferably propellant, characterized in that it comprises: - an enclosure delimited by lateral walls, a base and a roof, the enclosure being at least partially filled with a liquid medium, preferably water, up to a first level; - a chamber comprising: ∘ an inlet, said inlet being intended to supply the chamber with waste to be destroyed by combustion in the chamber; ∘ an outlet; the chamber being immersed in the liquid medium of the enclosure, the inlet of the chamber opening to one of the lateral walls of the enclosure, - a discharge line extending between a first end and a second end, the first end being connected to the outlet of the chamber, the second end being situated in the liquid medium, preferably in the vicinity of the base of the enclosure, the discharge line rising between its first end and its second end to a second level which is higher than the first level, the discharge line being configured to discharge, at the second end in the liquid medium, gases and volatile solid residues which are produced in the chamber during combustion. - an enclosure delimited by lateral walls, a base and a roof, the enclosure being at least partially filled with a liquid medium, preferably water, up to a first level; - a chamber comprising: ∘ an inlet, said inlet being intended to supply the chamber with waste to be destroyed by combustion in the chamber; ∘ an outlet; the chamber being immersed in the liquid medium of the enclosure, the inlet of the chamber opening to one of the lateral walls of the enclosure, ∘ an inlet, said inlet being intended to supply the chamber with waste to be destroyed by combustion in the chamber; ∘ an outlet; - a discharge line extending between a first end and a second end, the first end being connected to the outlet of the chamber, the second end being situated in the liquid medium, preferably in the vicinity of the base of the enclosure, the discharge line rising between its first end and its second end to a second level which is higher than the first level, the discharge line being configured to discharge, at the second end in the liquid medium, gases and volatile solid residues which are produced in the chamber during combustion.
An uplink synchronization processing method, comprising: receiving an uplink synchronization indication message sent by a base station, wherein the uplink synchronization indication message is carried in an RRC connection reconfiguration message, and the uplink synchronization indication message carries identification information of one or multiple newly configured component carriers, CCs; sending synchronization signaling to the base station when knowing that uplink synchronization needs to be executed on all or a part of the one or multiple newly configured CCs corresponding to the identification information; and receiving a time advanced TA adjusting message from the base station, and applying a TA value carried in the TA adjusting message to a CC on which the uplink synchronization needs to be executed; wherein the knowing that the uplink synchronization needs to be executed on all or a part of the one or multiple newly configured CCs corresponding to the identification information comprises: knowing that the uplink synchronization needs to be executed on all or a part of the one or multiple newly configured CCs, according to bit indication information in the uplink synchronization indication message, wherein the bit indication information is used to indicate that the uplink synchronization needs to be executed on all or a part of the one or multiple newly configured, CCs. receiving an uplink synchronization indication message sent by a base station, wherein the uplink synchronization indication message is carried in an RRC connection reconfiguration message, and the uplink synchronization indication message carries identification information of one or multiple newly configured component carriers, CCs; sending synchronization signaling to the base station when knowing that uplink synchronization needs to be executed on all or a part of the one or multiple newly configured CCs corresponding to the identification information; and receiving a time advanced TA adjusting message from the base station, and applying a TA value carried in the TA adjusting message to a CC on which the uplink synchronization needs to be executed; wherein the knowing that the uplink synchronization needs to be executed on all or a part of the one or multiple newly configured CCs corresponding to the identification information comprises: knowing that the uplink synchronization needs to be executed on all or a part of the one or multiple newly configured CCs, according to bit indication information in the uplink synchronization indication message, wherein the bit indication information is used to indicate that the uplink synchronization needs to be executed on all or a part of the one or multiple newly configured, CCs.
An on frequency repeater for a wireless network, comprising: a first antenna that is directed toward a first selected location in the wireless network to receive RF signals from said first selected location; an amplification chain coupled to the received signal and adapted to amplify the level of the received signal to generate an amplified RF signal; a second antenna spaced apart from the first antenna and adapted to receive and transmit the amplified RF signal to a second location in the wireless network; and characterized by a feedback oscillation detection circuit (28, 36) coupled to the amplification chain in a gain control loop including a gain adjustment circuit and a gain control circuit, wherein the feedback oscillation detection circuit (28, 36) is adapted to detect a periodic nonlinear pattern in a gain control signal to detect an onset of feedback oscillation between the first and second antennas. a first antenna that is directed toward a first selected location in the wireless network to receive RF signals from said first selected location; an amplification chain coupled to the received signal and adapted to amplify the level of the received signal to generate an amplified RF signal; a second antenna spaced apart from the first antenna and adapted to receive and transmit the amplified RF signal to a second location in the wireless network; and a feedback oscillation detection circuit (28, 36) coupled to the amplification chain in a gain control loop including a gain adjustment circuit and a gain control circuit, wherein the feedback oscillation detection circuit (28, 36) is adapted to detect a periodic nonlinear pattern in a gain control signal to detect an onset of feedback oscillation between the first and second antennas.