mhurhangee/ep-ind-claims huggingface dataset:
A method of producing a ceramic matrix composite material component, comprising: producing a preform having one or more ceramic constituents, the preform being porous with internal voids; applying at least one layer of a first material to the preform using an atomic layer deposition process to decrease a porosity of the preform; applying one or more layers of a second material to the preform subsequent to the ALD process using a deposition process that deposits the second material in a non-self-limiting process, wherein the deposition process that deposits the second material in said non-self-limiting process is at least one of a chemical vapor infiltration process, a chemical vapor deposition process, or a polymer infiltration and pyrolysis process; and characterized by applying at least one layer of a third material to the preform using said ALD process to decrease the porosity of the preform, wherein the step of applying the at least one layer of the third material to the preform using said ALD process is performed after the step of applying the one or more layers of the second material to the preform using the deposition process that deposits the second material in said non-self-limiting process. producing a preform having one or more ceramic constituents, the preform being porous with internal voids; applying at least one layer of a first material to the preform using an atomic layer deposition process to decrease a porosity of the preform; applying one or more layers of a second material to the preform subsequent to the ALD process using a deposition process that deposits the second material in a non-self-limiting process, wherein the deposition process that deposits the second material in said non-self-limiting process is at least one of a chemical vapor infiltration process, a chemical vapor deposition process, or a polymer infiltration and pyrolysis process; and characterized by applying at least one layer of a third material to the preform using said ALD process to decrease the porosity of the preform, wherein the step of applying the at least one layer of the third material to the preform using said ALD process is performed after the step of applying the one or more layers of the second material to the preform using the deposition process that deposits the second material in said non-self-limiting process.
A method for transmitting paging by a base station in a cellular wireless communication system supporting a plurality of services in a 5G communication network having a plurality of slices, the method comprising: transmitting, to a user equipment, UE, information on a paging slice corresponding to a service in which the paging is transmitted; and transmitting the paging to the UE in the paging slice. transmitting, to a user equipment, UE, information on a paging slice corresponding to a service in which the paging is transmitted; and transmitting the paging to the UE in the paging slice.
An acoustic wave element (10; 20) comprising: a lithium tantalate substrate (11; 21) having Euler angles (φ, θ, ψ), a first component φ satisfying 10° < φ ≤ 50° and a third component ψ satisfying -16° ≤ ψ ≤ -2.5°; and an electrode (12; 22) disposed on the lithium tantalate substrate (11; 21) and configured to excite a main acoustic wave of wavelength λ, the electrode (12; 22) having a density ρ M satisfying ρ M ≥ ρ Ti, where ρ Ti represents a density of titanium, and a thickness h M of the electrode (12; 22) satisfies 0.141 × exp(-0.075ρ M)λ ≤ h M ≤ 0.134λ. a lithium tantalate substrate (11; 21) having Euler angles (φ, θ, ψ), a first component φ satisfying 10° < φ ≤ 50° and a third component ψ satisfying -16° ≤ ψ ≤ -2.5°; and an electrode (12; 22) disposed on the lithium tantalate substrate (11; 21) and configured to excite a main acoustic wave of wavelength λ, the electrode (12; 22) having a density ρ M satisfying ρ M ≥ ρ Ti, where ρ Ti represents a density of titanium, and a thickness h M of the electrode (12; 22) satisfies 0.141 × exp(-0.075ρ M)λ ≤ h M ≤ 0.134λ.
A plastic overmold aluminum extrusion comprising: at least one aluminum extrusion comprising an internal web structure, said at least one aluminum extrusion operable to withstand predetermined injection and/or compression molding pressures; and a plastic overmold; characterized in that the at least one aluminum extrusion has an outer wall thickness operable to allow, under pressure, localized deformations from a combination of the applied plastic pressure under injection or compression molding pressures and the proximity of outer gaps that are located between an inner wall and an outer wall of the at least one aluminum extrusion for forming mechanical interfaces with the plastic overmold. at least one aluminum extrusion comprising an internal web structure, said at least one aluminum extrusion operable to withstand predetermined injection and/or compression molding pressures; and a plastic overmold; characterized in that the at least one aluminum extrusion has an outer wall thickness operable to allow, under pressure, localized deformations from a combination of the applied plastic pressure under injection or compression molding pressures and the proximity of outer gaps that are located between an inner wall and an outer wall of the at least one aluminum extrusion for forming mechanical interfaces with the plastic overmold.
A therapeutically effective amount of acamprosate or a pharmaceutically acceptable salt thereof for use in a method of treating a patient diagnosed with autistic spectrum disorder or fragile X syndrome, wherein the method comprises the steps of: administering the therapeutically effective amount of acamprosate or the pharmaceutically acceptable salt thereof to the patient; monitoring the patient's peripheral blood for a change in extracellular signal related kinase (ERK 1) or (ERK 2) levels in the patient's peripheral blood; and increasing the therapeutically effective amount of the acamprosate or the pharmaceutically acceptable salt thereof such that the level of at least one of ERK 1 and ERK 2 in the patient's peripheral blood decreases. administering the therapeutically effective amount of acamprosate or the pharmaceutically acceptable salt thereof to the patient; monitoring the patient's peripheral blood for a change in extracellular signal related kinase (ERK 1) or (ERK 2) levels in the patient's peripheral blood; and increasing the therapeutically effective amount of the acamprosate or the pharmaceutically acceptable salt thereof such that the level of at least one of ERK 1 and ERK 2 in the patient's peripheral blood decreases.
A sample container for microbial detection processes comprising: a. a container having a top opening and an opposed bottom opening; b. a top cap sealing said top opening, said top cap comprising a sealing lid including a recessed lid portion comprising a multiplicity of fluid flow apertures therein, and a membrane filtration layer underlying said flow apertures; c. a bottom cap assembly sealing said bottom opening wherein said bottom cap assembly comprises a removable outer cap member and a fluid impervious elastomeric layer underlining said removable outer cap; and the container having a cylindrically cross sectioned body, a neck portion having a smaller diameter than said body and a tapered diameter section, intermediate said body portion and said neck portion, said top cap being detachably fit over said neck portion and said bottom cap assembly being detachably fit over said bottom opening, wherein the container is disposable. a. a container having a top opening and an opposed bottom opening; b. a top cap sealing said top opening, said top cap comprising a sealing lid including a recessed lid portion comprising a multiplicity of fluid flow apertures therein, and a membrane filtration layer underlying said flow apertures; c. a bottom cap assembly sealing said bottom opening wherein said bottom cap assembly comprises a removable outer cap member and a fluid impervious elastomeric layer underlining said removable outer cap; and the container having a cylindrically cross sectioned body, a neck portion having a smaller diameter than said body and a tapered diameter section, intermediate said body portion and said neck portion, said top cap being detachably fit over said neck portion and said bottom cap assembly being detachably fit over said bottom opening, wherein the container is disposable.
An electrolyzer plant comprising a plurality of electrolyzer modules (2a, 2b, 2c, 2d, 2e) and a system for controlling operation of the electrolyzer plant, the system comprising a processing unit and configured to: determine, for each of the plurality of electrolyzer modules (2a, 2b, 2c, 2d, 2e), an electrolyzer module set point at which the electrolyzer module (2a, 2b, 2c, 2d, 2e) is to be operated, wherein the electrolyzer module set points are determined such that their sum equals a prescribed overall plant set point of the electrolyzer plant, and control operation of each of the plurality of electrolyzer modules (2a, 2b, 2c, 2d, 2e) at the respective electrolyzer module set point, wherein the determining comprises inputting data representative of operation characteristics of each of the plurality of electrolyzer modules (2a, 2b, 2c, 2d, 2e) into the processing unit and the processing unit performing an optimization procedure that outputs the electrolyzer module set points, the optimization procedure comprising an optimization for one or more of overall electrolyzer plant efficiency, electrolyzer plant lifetime, lifetime of each of the electrolyzer modules (2a, 2b, 2c, 2d, 2e), operational safety, and maintenance patterns. determine, for each of the plurality of electrolyzer modules (2a, 2b, 2c, 2d, 2e), an electrolyzer module set point at which the electrolyzer module (2a, 2b, 2c, 2d, 2e) is to be operated, wherein the electrolyzer module set points are determined such that their sum equals a prescribed overall plant set point of the electrolyzer plant, and control operation of each of the plurality of electrolyzer modules (2a, 2b, 2c, 2d, 2e) at the respective electrolyzer module set point, wherein the determining comprises inputting data representative of operation characteristics of each of the plurality of electrolyzer modules (2a, 2b, 2c, 2d, 2e) into the processing unit and the processing unit performing an optimization procedure that outputs the electrolyzer module set points, the optimization procedure comprising an optimization for one or more of overall electrolyzer plant efficiency, electrolyzer plant lifetime, lifetime of each of the electrolyzer modules (2a, 2b, 2c, 2d, 2e), operational safety, and maintenance patterns.
A universal joint comprising a cover assembly for a circular bearing port in the yoke of said universal joint, characterized in that said cover assembly comprises: a plurality of separate cover segments (30a, 30b, 30c, 30d) configured and dimensioned for insertion into said port in positions coacting with each other to close said port, each of said cover segments having an outer edge seated in a locking groove circumscribing an interior surface of said port; means for interconnecting said cover segments to thereby form an integral circular cover and; means for rotationally fixing said cover with respect to said yoke.
Electromechanical actuator for locking a charging cable in a charging receptacle, wherein the actuator comprises a housing, a locking pin, and a drive, wherein the drive is configured to move the locking pin from a first position, in which the locking pin releases the charging cable, to a second position, in which the locking pin engages in an opening of the charging cable inserted into the charging receptacle, wherein the housing of the actuator comprises a window through which the locking pin or the drive can be accessed for moving the locking pin from the second position to the first position, characterised in that the window is sealed by means of a breakable barrier. wherein the housing of the actuator comprises a window through which the locking pin or the drive can be accessed for moving the locking pin from the second position to the first position, characterised in that the window is sealed by means of a breakable barrier.
A paper container comprising a container main body (50, 250) formed by folding a blank (1, 201, 301) formed of a sheet-shaped material, wherein the container main body (50, 250) comprises: a bottom surface section; a plurality of side surface sections (11, 12, 13, 14, 211, 212, 213, 214) standing upward from the bottom surface section; joining sections (21, 22, 23, 24, 221, 222, 223, 224) formed between the side surface sections (11, 12, 13, 14, 211, 212, 213, 214); flange sections (31, 32, 33, 34 extending from the side surface sections (11, 12, 13, 14, 211, 212, 213, 214) toward circumferential edges of the container main body (50, 250); and assistant flanges (21a, 22a, 23a, 24a, 221a, 222a, 223a, 224a) extending from parts of the joining sections (21, 22, 23, 24, 221, 222, 223, 224) toward the circumferential edges of the container main body (50, 250), the sheet-shaped material comprises: a base material of paper; a sealant layer formed of polypropylene as a main ingredient on the side of a first surface of the base material; characterized by a heat seal layer formed on at least a part of the flange section above a second surface opposite to the first surface and containing acid-modified polypropylene, and a melting point of polypropylene in the heat seal layer is 100 °C or more. a bottom surface section; a plurality of side surface sections (11, 12, 13, 14, 211, 212, 213, 214) standing upward from the bottom surface section; joining sections (21, 22, 23, 24, 221, 222, 223, 224) formed between the side surface sections (11, 12, 13, 14, 211, 212, 213, 214); flange sections (31, 32, 33, 34 extending from the side surface sections (11, 12, 13, 14, 211, 212, 213, 214) toward circumferential edges of the container main body (50, 250); and assistant flanges (21a, 22a, 23a, 24a, 221a, 222a, 223a, 224a) extending from parts of the joining sections (21, 22, 23, 24, 221, 222, 223, 224) toward the circumferential edges of the container main body (50, 250), the sheet-shaped material comprises: a base material of paper; a sealant layer formed of polypropylene as a main ingredient on the side of a first surface of the base material; characterized by a heat seal layer formed on at least a part of the flange section above a second surface opposite to the first surface and containing acid-modified polypropylene, and a melting point of polypropylene in the heat seal layer is 100 °C or more. a base material of paper; a sealant layer formed of polypropylene as a main ingredient on the side of a first surface of the base material; characterized by a heat seal layer formed on at least a part of the flange section above a second surface opposite to the first surface and containing acid-modified polypropylene, and a melting point of polypropylene in the heat seal layer is 100 °C or more.
An ophthalmological surgical apparatus for making a cut in an ocular biological tissue, such as a cornea or a crystalline lens, comprising: - a laser source (1.1, 1.2) suitable for delivering a pulsed laser beam, - a focusing optical system for focusing the pulsed laser beam to a focal point in the ocular biological tissue; - an optical system (3, 4) for moving the pulsed laser beam, said system being configured to move the focal point along a predetermined three-dimensional path; - a control unit configured to control the laser source (1.1, 1.2) and the optical system (3, 4) for moving the pulsed laser beam so that the parameters of the pulsed laser beam and the parameters of the optical system for moving the pulsed laser beam are adjusted with respect to the position of the focal point on the path during cutting; - the parameters being the pulse duration of the laser beam, the energy per pulse, the pulse rate of the laser beam and the scan speed of the laser beam; - said control unit being configured to synchronously control the laser source and the moving optical system so that the pulse duration of the laser source varies with respect to the position of the focal point on the predetermined three-dimensional path. - a laser source (1.1, 1.2) suitable for delivering a pulsed laser beam, - a focusing optical system for focusing the pulsed laser beam to a focal point in the ocular biological tissue; - an optical system (3, 4) for moving the pulsed laser beam, said system being configured to move the focal point along a predetermined three-dimensional path; - a control unit configured to control the laser source (1.1, 1.2) and the optical system (3, 4) for moving the pulsed laser beam so that the parameters of the pulsed laser beam and the parameters of the optical system for moving the pulsed laser beam are adjusted with respect to the position of the focal point on the path during cutting; - the parameters being the pulse duration of the laser beam, the energy per pulse, the pulse rate of the laser beam and the scan speed of the laser beam; - said control unit being configured to synchronously control the laser source and the moving optical system so that the pulse duration of the laser source varies with respect to the position of the focal point on the predetermined three-dimensional path.
A method for identifying at least one cylinder in an internal combustion piston engine, the power output of which deviates substantially from power outputs of the other cylinder the method comprises stages of measuring angular velocity of the engine shaft and angular velocity of the shaft of a load connected to the engine shaft, determining amplitudes and phases of harmonic waves under examination on the basis of the angular velocity measurement data, determining an offset and angular acceleration of the engine shaft, as well as an offset of the load shaft at each harmonic wave of the angular velocities under examination, determining parameters of the coupling between the engine shaft and the load shaft at the harmonic frequencies under examination, calculating torques at the harmonic waves under examination by using the measured angular velocities, the determined offsets and angular accelerations of said shafts, as well as the coupling parameters, and identifying the cylinder or cylinders by comparing the calculated torques with a firing order of the engine's cylinders, characterised in that the coupling parameters to be determined are frequency-dependent rigidity and frequency-dependent damping of the coupling, and during the cylinder identification stage, the torque calculated at each harmonic wave is compared with ignition times of the cylinders in order to detect the cylinders that produce the most deviating amount of power at the harmonic wave in question, and the cylinder that is found to produce too much or too little power at all of the harmonic waves under examination is selected as the identified cylinder.
A combination product for dyeing hair in one step, which comprises a hair softening preparation, including a disulfide linkage reducing agent; a dye preparation, wherein the dye preparation comprises an effective amount of tea-polyphenol and/or its oxidation product, tea-pigment; a mordant preparation, which comprises an effective amount of a ferrous salt and an antioxidant; as well as auxiliary components acceptable in hair dyeing product; wherein the amount of the tea-polyphenol, based on catechin, relative to the total weight of the product, is 0.5∼15% by weight; wherein the amount of the tea-pigment, based on theaflavins, relative to the total weight of the product, is 0.5∼15% by weight; wherein the amount of the ferrous salt, based on ferrous ion, relative to the total weight of the product, is 1∼10% by weight.
Mount, which has a holder for attaching an electronic device, and in particular a camera, wherein the holder has a device receptacle, which has a slot between two walls, characterized in that the two walls each have a through hole in which a rotation device is guided, which connects the walls of the slot to one another, wherein a wall of the slot has a notch on a side of the wall facing away from the slot.
A communications method, comprising: receiving, by a session initiation protocol server, a registration request from a device; and in response to receiving the registration request, sending a SIP message from the SIP server to the device comprising an address of a storage location for the device to send information to be referenced by a subsequent content indirection operation. receiving, by a session initiation protocol server, a registration request from a device; and in response to receiving the registration request, sending a SIP message from the SIP server to the device comprising an address of a storage location for the device to send information to be referenced by a subsequent content indirection operation.
A method of re-laminarizing a turbulent flow of a fluid flowing through a duct in a main flow direction, a wall of the duct bounding the flow, the method comprising - injecting additional fluid into the duct in the main flow direction as a sheet of fluid covering the wall in a circumferential direction around the main flow direction by means of a pump, - wherein the additional fluid is injected through a slotted ring nozzle extending along the wall in the circumferential direction around the main flow direction, and - the additional fluid is withdrawn from the duct, characterized in - that the velocity of the injected additional fluid is at least 80 % and not more than 150 % of the average velocity of the fluid in the main flow direction, and - that a volume flow rate of the injected additional fluid is at least 5 % of a volume flow rate of the fluid not including the additional fluid and not more than 20 % of the volume flow rate of the fluid not including the additional fluid. - injecting additional fluid into the duct in the main flow direction as a sheet of fluid covering the wall in a circumferential direction around the main flow direction by means of a pump, - wherein the additional fluid is injected through a slotted ring nozzle extending along the wall in the circumferential direction around the main flow direction, and - the additional fluid is withdrawn from the duct, characterized in - that the velocity of the injected additional fluid is at least 80 % and not more than 150 % of the average velocity of the fluid in the main flow direction, and - that a volume flow rate of the injected additional fluid is at least 5 % of a volume flow rate of the fluid not including the additional fluid and not more than 20 % of the volume flow rate of the fluid not including the additional fluid.
A process for the preparation of 2-(5-methoxyisochroman-1-yl)-4,5-dihydro-1H-imidazole of formula or a pharmaceutically acceptable salt thereof by reacting N -(2-aminoethyl)-5-methoxyisochroman-1-carboxamide monohydrate of formula with hexamethyldisilazane under acidic conditions and in the presence of a non-reactive solvent, to obtain 2-(5-methoxyisochroman-1-yl)-4,5-dihydro-1H-imidazole of formula, which is optionally converted to its pharmaceutically acceptable salt.