mhurhangee/patent-ind-claim-en huggingface dataset:
A network entity for managing communications of a plurality of communication devices over a communication network , the network entity comprising: a communication interface being configured to receive an energy efficiency indicator over the communication network from a communication device of the plurality of communication devices, which is configured to transmit a multi-carrier communication signal comprising a plurality of sub-carriers in a resource block allocated to the communication device , wherein the energy efficiency indicator indicates an energy efficiency specification of the communication device , wherein the energy efficiency specification is derived upon the basis of a battery status of the communication device or the energy efficiency specification of the communication device is predetermined; and a processor being configured to determine a sub-carrier frequency spacing of the plurality of sub-carriers upon the basis of the energy efficiency indicator, wherein the sub-carrier frequency spacing of the plurality of sub-carriers and thus a peak-to-average power ratio of the corresponding multi-carrier communication signal matches the energy efficiency specification of the communication device , and to generate a resource block indicator associated with the communication device , wherein the resource block indicator indicates the sub-carrier frequency spacing; wherein the communication interface is further configured to transmit the resource block indicator over the communication network to the communication device . a communication interface being configured to receive an energy efficiency indicator over the communication network from a communication device of the plurality of communication devices, which is configured to transmit a multi-carrier communication signal comprising a plurality of sub-carriers in a resource block allocated to the communication device , wherein the energy efficiency indicator indicates an energy efficiency specification of the communication device , wherein the energy efficiency specification is derived upon the basis of a battery status of the communication device or the energy efficiency specification of the communication device is predetermined; and a processor being configured to determine a sub-carrier frequency spacing of the plurality of sub-carriers upon the basis of the energy efficiency indicator, wherein the sub-carrier frequency spacing of the plurality of sub-carriers and thus a peak-to-average power ratio of the corresponding multi-carrier communication signal matches the energy efficiency specification of the communication device , and to generate a resource block indicator associated with the communication device , wherein the resource block indicator indicates the sub-carrier frequency spacing; wherein the communication interface is further configured to transmit the resource block indicator over the communication network to the communication device .
Continuous operation method for the microwave high-temperature pyrolysis of a solid material comprising an organic matter, characterized in that the method comprises the following continuously performed steps: mixing the solid material comprising an organic matter with a liquid organic medium; transferring the resulting mixture to a microwave field; and in the microwave field, under an inert atmosphere or under vacuum, continuously contacting the mixture with a strongly wave-absorbing material, wherein the strongly wave-absorbing material continuously generates a high temperature of 500-3000°C in the microwave field, so that the solid material comprising an organic matter and the liquid organic medium are continuously pyrolyzed together wherein the strongly wave-absorbing material is a porous composite material that can generate electric arcs in a microwave field, and the liquid organic medium refers to a medium that is liquid at a temperature of 60°C and contains at least one carbon atom and is one selected from the group consisting of hydrocarbon oils, vegetable oils, silicone oils, ester oils, phosphate esters and alcohols, or a mixture thereof. mixing the solid material comprising an organic matter with a liquid organic medium; transferring the resulting mixture to a microwave field; and in the microwave field, under an inert atmosphere or under vacuum, continuously contacting the mixture with a strongly wave-absorbing material, wherein the strongly wave-absorbing material continuously generates a high temperature of 500-3000°C in the microwave field, so that the solid material comprising an organic matter and the liquid organic medium are continuously pyrolyzed together wherein the strongly wave-absorbing material is a porous composite material that can generate electric arcs in a microwave field, and the liquid organic medium refers to a medium that is liquid at a temperature of 60°C and contains at least one carbon atom and is one selected from the group consisting of hydrocarbon oils, vegetable oils, silicone oils, ester oils, phosphate esters and alcohols, or a mixture thereof.
A curable composition comprising (A) an organic polymer which is at least one selected from the group consisting of polyoxyalkylene polymers, saturated hydrocarbon polymers and (meth)acrylate polymers and which has a hydrolyzable trialkoxysilyl group represented by the general formula : -Si(OR 16 ) 3 wherein R 16 is a substituted or unsubstituted hydrocarbon group, and three R 16 s may be each the same or different, (B) one or more kinds selected from a titanium catalyst, an aluminum catalyst and a zirconium catalyst and (C) a low molecular weight compound containing a hydrolyzable silicon group and having a molecular weight of from 100 to 1,000, wherein a ratio (a/b) of the total mole (a) of titanium atoms, aluminum atoms and zirconium atoms of the component (B) to the total mole (b) of silicon atoms of the component (C) is larger than 0.08, characterized in that said organic polymer (A) is obtained by reacting an organic polymer having an active hydrogen-containing group at the terminal with a reactive silicon group-containing isocyanate compound represented by the general formula : O=C=N-R 22 -SiX 3 wherein R 22 is a divalent organic group and X represents a hydroxyl group or a hydrolyzable group and three Xs may be each the same or different.
An electrode assembly for a flow battery, comprising: - a porous electrode material; - a frame surrounding the porous electrode material; - at least a first distributor tube at least partially embedded in the porous electrode material, the first distributor tube having an inlet for supplying electrolyte to the porous electrode material; and - at least a second distributor tube at least partially embedded in the porous electrode material, the second distributor tube having an outlet for discharging electrolyte out of the porous electrode material, wherein the frame and the distributor tubes are made of an electrically non-conductive plastic material. - a porous electrode material; - a frame surrounding the porous electrode material; - at least a first distributor tube at least partially embedded in the porous electrode material, the first distributor tube having an inlet for supplying electrolyte to the porous electrode material; and - at least a second distributor tube at least partially embedded in the porous electrode material, the second distributor tube having an outlet for discharging electrolyte out of the porous electrode material,
Method for producing an electromechanical component comprising layered metal laminations, in which - the powdery material has a binder and magnetic particles in a predetermined manner is filled into a pressing chamber arrangement of a die and is pressed therein between a lower punch and an upper punch with a coordinated pressure in order to form pressed permanent magnet bodies , - before or after pressing, the component with cavities of a cavity arrangement whose cross-sectional contour is adapted to pressing chambers to be assigned of the pressing chamber arrangement, which cavities have been introduced into said component by punching and extend axially with a constant cross-section in the pressing direction, is brought into alignment with the assigned pressing chambers with respect to an axial projection so that the cavities in the projection surround the respective pressing chambers with their inner surface in circumferential alignment, - the pressed permanent magnet bodies are subsequently pushed in the punching direction into the assigned cavities by means of the lower punch, and - the permanent magnet bodies inserted by pushing, assembled in the predetermined manner and pressed with the coordinated pressure are automatically fixed by their expansion in the respective cavities in a force-fitting manner. - the powdery material has a binder and magnetic particles in a predetermined manner is filled into a pressing chamber arrangement of a die and is pressed therein between a lower punch and an upper punch with a coordinated pressure in order to form pressed permanent magnet bodies , - before or after pressing, the component with cavities of a cavity arrangement whose cross-sectional contour is adapted to pressing chambers to be assigned of the pressing chamber arrangement, which cavities have been introduced into said component by punching and extend axially with a constant cross-section in the pressing direction, is brought into alignment with the assigned pressing chambers with respect to an axial projection so that the cavities in the projection surround the respective pressing chambers with their inner surface in circumferential alignment, - the pressed permanent magnet bodies are subsequently pushed in the punching direction into the assigned cavities by means of the lower punch, and - the permanent magnet bodies inserted by pushing, assembled in the predetermined manner and pressed with the coordinated pressure are automatically fixed by their expansion in the respective cavities in a force-fitting manner.
The non-therapeutic cosmetic use of fructans of Agave tequilana comprising natural inulins for protecting the hair fiber by improving the hydrophobicity of the hair fiber.
A method for preparing a tricyclic lactam of formula 400, stereoisomers thereof, geometric isomers thereof, tautomers thereof, and salts thereof, the method comprising forming a reaction mixture comprising an organic solvent, an organic base, and formulas 300 and 310 and reacting the reaction mixture to form a reaction product mixture comprising the tricyclic lactam of formula 400, wherein: R 1a , R 1b , R 2a , R 2b , R 3a , R 3b , R 4a and R 4b are independently selected from H, and C 1-6 alkyl; R 5 is selected from H, C 1-6 alkyl, cycloalkyl, aryl, substituted aryl, benzyl, substituted benzyl, heteroaryl, substituted heteroaryl; p is 1,2, 3 or 4; and q is 1, 2, 3 or 4. R 1a , R 1b , R 2a , R 2b , R 3a , R 3b , R 4a and R 4b are independently selected from H, and C 1-6 alkyl; R 5 is selected from H, C 1-6 alkyl, cycloalkyl, aryl, substituted aryl, benzyl, substituted benzyl, heteroaryl, substituted heteroaryl; p is 1,2, 3 or 4; and q is 1, 2, 3 or 4.
An atomizer with adjustable air intake quantity, comprising: an atomizer body , having a liquid storage chamber formed therein for storing tobacco liquid; an aerosol generator configured for aerosolizing the tobacco liquid from the liquid storage chamber to generate an aerosol; at least one air inlet formed on the atomizer body ; an air pipe disposed inside of the atomizer body and configured for conducting the aerosol to flow along the air pipe , the air inlet being in communication with the air pipe ; and an adjusting cover connected with the atomizer body by a thread to cover the air inlet , the adjusting cover configured for being rotated to move up and down along an axial direction of the atomizer body , to adjust a clearance between an edge of the adjusting cover and the atomizer body ; wherein the atomizer body comprises an end cover disposed on one end thereof, and a base connected with the end cover , wherein the adjusting cover is sleeved on the base and connected with the base by a thread; wherein the end cover comprises a circular stair and the edge of the adjusting cover abuts against the circular stair ; characterized in that when the adjusting cover is moving up and down, a clearance is defined between the edge of the adjusting cover and the stair for allowing air to flow into the air inlet . an aerosol generator configured for aerosolizing the tobacco liquid from the liquid storage chamber to generate an aerosol; at least one air inlet formed on the atomizer body ; an air pipe disposed inside of the atomizer body and configured for conducting the aerosol to flow along the air pipe , the air inlet being in communication with the air pipe ; and at least one air inlet formed on the atomizer body ; an air pipe disposed inside of the atomizer body and configured for conducting the aerosol to flow along the air pipe , the air inlet being in communication with the air pipe ; and an adjusting cover connected with the atomizer body by a thread to cover the air inlet , the adjusting cover configured for being rotated to move up and down along an axial direction of the atomizer body , to adjust a clearance between an edge of the adjusting cover and the atomizer body ; wherein the atomizer body comprises an end cover disposed on one end thereof, and a base connected with the end cover , wherein the adjusting cover is sleeved on the base and connected with the base by a thread; wherein the end cover comprises a circular stair and the edge of the adjusting cover abuts against the circular stair ; characterized in that when the wherein the atomizer body comprises an end cover disposed on one end thereof, and a base connected with the end cover , wherein the adjusting cover is sleeved on the base and connected with the base by a thread; wherein the end cover comprises a circular stair and the edge of the adjusting cover abuts against the circular stair ; characterized in that when the adjusting cover is moving up and down, a clearance is defined between the edge of the adjusting cover and the stair for allowing air to flow into the air inlet .
A method for adjusting a device voltage (VB) of a power storage device , wherein when the power storage device is represented as an equivalent circuit (Ec) in which a parallel circuit (Pc) constituted by a capacitive device component and a short-circuit resistance (Rp) indicating a magnitude of self-discharge of the device component is connected in series with a DC resistance (Rs) of the power storage device , the power storage device has a property that, while the power storage device is pressed under a load (BL) and the device component is charged to generate a component voltage (VBB), the component voltage (VBB) lowers when the load (BL) is reduced, whereas the component voltage (VBB) rises when the load (BL) is increased, and characterized in that the method comprises: a) component-voltage changing by load change (S8, S19, S24, S33) of changing the load (BL) applied to the power storage device , which is pressed under a first load (BL1) and generates a first component voltage (VBB1) in the device component , from the first load (BL1) to change the component voltage (VBB) from the first component voltage (VBB1). wherein when the power storage device is represented as an equivalent circuit (Ec) in which a parallel circuit (Pc) constituted by a capacitive device component and a short-circuit resistance (Rp) indicating a magnitude of self-discharge of the device component is connected in series with a DC resistance (Rs) of the power storage device , the power storage device has a property that, while the power storage device is pressed under a load (BL) and the device component is charged to generate a component voltage (VBB), the component voltage (VBB) lowers when the load (BL) is reduced, whereas the component voltage (VBB) rises when the load (BL) is increased, and characterized in that the method comprises: a) component-voltage changing by load change (S8, S19, S24, S33) of changing the load (BL) applied to the power storage device , which is pressed under a first load (BL1) and generates a first component voltage (VBB1) in the device component , from the first load (BL1) to change the component voltage (VBB) from the first component voltage (VBB1). a) component-voltage changing by load change (S8, S19, S24, S33) of changing the load (BL) applied to the power storage device , which is pressed under a first load (BL1) and generates a first component voltage (VBB1) in the device component , from the first load (BL1) to change the component voltage (VBB) from the first component voltage (VBB1).
A lithium ion secondary battery comprising a positive electrode comprising a lithium nickel composite oxide, and a separator consisting of one or more layers selected from a polyimide layer, a polyamide layer, and a polyamide imide layer, wherein an electrolyte solution and/or a member in contact with the electrolyte solution comprise an acid anhydride.
A window overlay display processing method, wherein the method is applied to an electronic device in which an application for a following window (A) and an application for a main window (B) are installed; after the following window is created, a display level of the following window is higher than that of the main window before the main window is in focus; in a case where the display level of the following window is higher than that of the main window, if it is monitored that the main window is in focus, the electronic device first sets the display level of the main window to be higher than that of the following window, and then the electronic device resets the display level of the following window to be higher than that of the main window, the method comprises: in a process of overlay-displaying a following window on a main window, capturing (S501) an image of display content of the following window according to an image capture time interval; displaying (S502) the captured image at a display position corresponding to the following window in the main window so that when the display level of the main window is higher than that of the following window, the main window still displays the captured image corresponding to the display content of the following window. in a process of overlay-displaying a following window on a main window, capturing (S501) an image of display content of the following window according to an image capture time interval; displaying (S502) the captured image at a display position corresponding to the following window in the main window so that when the display level of the main window is higher than that of the following window, the main window still displays the captured image corresponding to the display content of the following window.
A method for producing a tubular shoulder comprising the following steps: preparing an inner element by injection molding of an inner-element forming composition in a first mold; disposing the formed inner element on a mandrel in a second mold; injecting an outer-element forming composition into the second mold, such that said composition is injected, while it is hot, onto the held inner element; and bonding the inner element and the outer element together by compression, while the outer element still has a high temperature, wherein an output resulting from said molding is formed to be the tubular shoulder having the inner element and the outer element bonded together by the in-mold assembly method. preparing an inner element by injection molding of an inner-element forming composition in a first mold; disposing the formed inner element on a mandrel in a second mold; injecting an outer-element forming composition into the second mold, such that said composition is injected, while it is hot, onto the held inner element; and bonding the inner element and the outer element together by compression, while the outer element still has a high temperature,
A method of a preparation of fibres based on the hyaluronan derivative C 11 - C 18 -acylated on hydroxyl groups of hyaluronic acid characterized in that it is prepared a spinning solution comprising an acylated derivative of hyaluronan of the concentration in the range of 0.01 % by weight to 15 % by weight in the mixture of water and 2-propanol, where water content is in a range of 30 % by volume to 90 % by volume, a content of 2-propanol is 10 % by volume to 70 % by volume, then the spinning solution is introduced to the coagulation bath comprising a water solution of an organic acid or its salts of alkali metals, or alkaline earth metals, wherein the acid is selected from the group comprising lactic, tartaric, citric, malic, ascorbic, oxalic acid or a combination thereof, to form fibres which are then washed with alcohol and dried.
A method of controlling the grain size homogeneity and distribution in an article formed by a powder metallurgy method, the method comprising: (a) providing a nickel- or cobalt-based metallic powder having a metallic powder particle size distribution, wherein the metallic powder is a superalloy; followed by (b) narrowing the metallic powder particle size distribution by truncating the metallic powder particle size distribution below 5 micrometers and above 160 micrometers; followed by (c) forming the metallic powder into a shape; followed by (d) thermo-mechanically forming the shape into an article having a polycrystalline microstructure, the polycrystalline microstructure being produced by dynamic recrystallization during the thermo-mechanical forming step; followed by (e) heat treating the article to cause coarsening of the polycrystalline microstructure produced by the thermo-mechanical forming step; whereby the truncated metallic powder particle size distribution reduces abnormal grain growth such that the polycrystalline microstructure produced by the thermo-mechanical forming step coarsens to a predefined target grain size range of ASTM grain size number of 4-8, according to ASTM standard E112. (a) providing a nickel- or cobalt-based metallic powder having a metallic powder particle size distribution, wherein the metallic powder is a superalloy; followed by (b) narrowing the metallic powder particle size distribution by truncating the metallic powder particle size distribution below 5 micrometers and above 160 micrometers; followed by (c) forming the metallic powder into a shape; followed by (d) thermo-mechanically forming the shape into an article having a polycrystalline microstructure, the polycrystalline microstructure being produced by dynamic recrystallization during the thermo-mechanical forming step; followed by (e) heat treating the article to cause coarsening of the polycrystalline microstructure produced by the thermo-mechanical forming step;