mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a base station for allocating radio resources for uplink transmissions in a wireless telecommunications system, the method comprising: receiving a request for an allocation of radio resources from a first terminal device; determining an association between the first terminal device and a second terminal device (508B, 508C) based on the first terminal device and the second terminal device being associated with a same quality class indicator of respective bearers associated with the respective terminal devices; and transmitting a radio resource allocation message (608B, 608C) to allocate radio resources to the second terminal device for an uplink transmission in response to receiving the request for an allocation of radio resources from the first terminal device. receiving a request for an allocation of radio resources from a first terminal device; determining an association between the first terminal device and a second terminal device (508B, 508C) based on the first terminal device and the second terminal device being associated with a same quality class indicator of respective bearers associated with the respective terminal devices; and transmitting a radio resource allocation message (608B, 608C) to allocate radio resources to the second terminal device for an uplink transmission in response to receiving the request for an allocation of radio resources from the first terminal device.
A SiOx/Si/C composite material, comprising SiOx/Si composite particles and a carbon coating layer coated on said SiOx/Si composite particles, wherein 0<x≤2, and said SiOx/Si composite particles have a Si:O molar ratio of 5:1 - 1.1:1, preferably 2:1 - 1.2:1 and wherein said carbon coating layer has a thickness of 2 - 15 nm, preferably 4 - 12 nm, more preferably 6 - 10 nm.
Process for the biological treatment of organic wastes, of the type comprising a first anaerobic digestion phase and a second aerobic digestion phase in succession, a respective phase for the filtration of the solid substance (7, 16) being provided downstream of each one of the two digestion phases (3, 10), furthermore comprising a phase of separation of the biogas released in said anaerobic digestion phase and a phase of nitrogen recovery from the exhaust gases rich in ammoniac substances separated from said aerobic digestion phase characterised in that the solid substance (11, 17) coming from each of said filtration phases (7, 16) is separately returned to the respective digestion phase (3, 10), while the liquid phase coming from the filtration phase downstream of the anaerobic digestion phase is sent to said aerobic phase, wherein said filtration phases (7, 16) consist of a tangential microfiltration operation and in that, in said nitrogen recovery phase, the gaseous current consisting of said exhaust gases rich in ammoniac substances is treated with an acidic solution supplied in counter-current to a first gas/liquid contactor to obtain a mixture of nitrogen salts, wherein said acidic solution supplied in counter-current in said first gas/liquid contactor is an aqueous solution containing carbonic acid obtained by treating the biogas current coming out from the first anaerobic digestion phase with a counter-current liquid flow consisting of water or of an ammoniac aqueous solution, in a second gas/liquid contactor.
Composite body having, on a porous substrate and in the interstices of the substrate that includes fibres, preferably of an electrically nonconductive material, a porous layer composed of oxide particles bonded to one another and partly to the substrate that include at least one oxide selected from oxides of the elements Al, Zr, Ti and Si, preferably selected from Al 2 O 3, ZrO 2, TiO 2 and SiO 2, and having, at least on one side, a further porous layer including oxide particles bonded to one another and partly to layer that include at least one oxide selected from oxides of the elements Al, Zr, Ti and Si, preferably selected from Al 2 O 3, ZrO 2, TiO 2 and SiO 2, where the oxide particles present in layer have a greater median particle size than the oxide particles present in layer, characterized in that the median particle size of the oxide particles in layer, determined as specified in the description, is from 0.5 to 4 μm and the median particle size of the oxide particles in layer, determined as specified in the description, is from 0.015 to 0.15 μm, preferably 0.04 to 0.06 μm. where the oxide particles present in layer have a greater median particle size than the oxide particles present in layer, characterized in that the median particle size of the oxide particles in layer, determined as specified in the description, is from 0.5 to 4 μm and the median particle size of the oxide particles in layer, determined as specified in the description, is from 0.015 to 0.15 μm, preferably 0.04 to 0.06 μm.
A method for preparing a separator comprising: dispersing an inorganic material and a dispersion resin into a solvent to obtain a dispersion solution; mixing a binder with the dispersion solution to form a slurry; and coating the slurry on at least one surface of a substrate to form a coating layer, wherein the dispersion resin is a cyano resin including a -CN group, and wherein the cyano resin further includes an -OH group. dispersing an inorganic material and a dispersion resin into a solvent to obtain a dispersion solution; mixing a binder with the dispersion solution to form a slurry; and coating the slurry on at least one surface of a substrate to form a coating layer, wherein the dispersion resin is a cyano resin including a -CN group, and
A photoelectric conversion element, comprising an anode, a cathode, an active layer provided between the anode and the cathode, and a hole transport layer provided between the anode and the active layer, wherein the active layer includes a p-type semiconductor material and an n-type semiconductor material, and an energy gap between an LUMO of the n-type semiconductor material contained in the active layer and a HOMO of a hole transport material contained in the hole transport layer is less than 0.9 eV, characterized in that the p-type semiconductor material is a polymer compound having an absorption peak wavelength of 900 nm or higher, wherein the absorption peak wavelength is the wavelength of the absorption peak with the highest absorption among the absorption peaks of the absorption spectrum. wherein the active layer includes a p-type semiconductor material and an n-type semiconductor material, and an energy gap between an LUMO of the n-type semiconductor material contained in the active layer and a HOMO of a hole transport material contained in the hole transport layer is less than 0.9 eV, characterized in that the p-type semiconductor material is a polymer compound having an absorption peak wavelength of 900 nm or higher, wherein the absorption peak wavelength is the wavelength of the absorption peak with the highest absorption among the absorption peaks of the absorption spectrum.
An ICP plasma etching apparatus for etching a substrate comprising: at least one chamber; a substrate support positioned within the chamber; a plasma production device for producing a plasma for use in etching the substrate; and a protective structure which surrounds the substrate support so that, in use, a peripheral portion of the substrate is protected from unwanted deposition of material; characterised in that the protective structure is formed from a metallic material and in that the apparatus comprises an RF electrical power supply arranged to supply an RF bias power to the protective structure such that metallic material can be sputtered, in use, from the protective structure onto an interior surface of the chamber to adhere particulate material to the interior surface. at least one chamber; a substrate support positioned within the chamber; a plasma production device for producing a plasma for use in etching the substrate; and a protective structure which surrounds the substrate support so that, in use, a peripheral portion of the substrate is protected from unwanted deposition of material; characterised in that the protective structure is formed from a metallic material and in that the apparatus comprises an RF electrical power supply arranged to supply an RF bias power to the protective structure such that metallic material can be sputtered, in use, from the protective structure onto an interior surface of the chamber to adhere particulate material to the interior surface.
A process for the protein enrichment of a microalga cultured heterotrophically, the microalga being of the genus Chlorella, characterized in that the heterotrophic culturing comprises a step directed toward limiting the growth of said microalga via deficiency of the fermentation medium in glucose with a continuous supply in glucose in an insufficient amount so as to obtain a microalgal growth rate below the one of said microalga in absence of nutritional limitation, and by an increase of fermentation temperature relative to the optimum fermentation temperature, thus making it possible to reach a protein content of the biomass of more than 50% by weight.
A developing device frame unit to which a blade member is mountable, said blade member being configured to face a rotatable member, said frame unit comprising: a frame including a seal forming portion and a fixing portion (71b, 71c) on which the blade member is to be fixed; a first sealing member (95a, 95b) provided on a longitudinal end portion of said frame and configured to prevent leakage of developer between said frame and the rotatable member; and a second sealing member provided on said frame configured to seal a gap between a first surface of the blade member, opposite to a second surface of the blade member that is to face said rotatable member, and said frame to prevent leakage of developer, characterized in that said second sealing member is integrally formed with said frame by injection molding in said seal forming portion, and said second sealing member contacts said first sealing member (95a, 95b). a frame including a seal forming portion and a fixing portion (71b, 71c) on which the blade member is to be fixed; a first sealing member (95a, 95b) provided on a longitudinal end portion of said frame and configured to prevent leakage of developer between said frame and the rotatable member; and a second sealing member provided on said frame configured to seal a gap between a first surface of the blade member, opposite to a second surface of the blade member that is to face said rotatable member, and said frame to prevent leakage of developer, characterized in that said second sealing member is integrally formed with said frame by injection molding in said seal forming portion, and said second sealing member contacts said first sealing member (95a, 95b).
A receiver, comprising a tuner configured to receive a digital broadcast signal via broadcast wave transmission; a communication interface configured to connect to a network; and a controller configured to: - acquire a startup document including a script to acquire application control information related to an application which relates to a television program provided by the digital broadcast signal, - generate graphic data of a button and synthesize, when a connection to the network is determined to be possible, the generated graphic data of the button on a video of a television program output on a display unit, - acquire the application control information via the network in response to a user operation of a button on a remote controller, said button corresponding to the graphic data of the button, - acquire the application via the network based on the acquired application control information, - execute the application, and - end the application based on an identifier provided by the digital broadcast signal. - acquire a startup document including a script to acquire application control information related to an application which relates to a television program provided by the digital broadcast signal, - generate graphic data of a button and synthesize, when a connection to the network is determined to be possible, the generated graphic data of the button on a video of a television program output on a display unit, - acquire the application control information via the network in response to a user operation of a button on a remote controller, said button corresponding to the graphic data of the button, - acquire the application via the network based on the acquired application control information, - execute the application, and - end the application based on an identifier provided by the digital broadcast signal.
A thermoplastic resin sheet having a laminated structure including a first polyvinyl acetal resin layer and a second polyvinyl acetal resin layer, characterized in that: said first polyvinyl acetal resin layer contains a plasticizer and a first polyvinyl acetal resin obtained via acetalization of polyvinyl alcohol with at least one aldehyde (a) selected from the group consisting of aldehydes having 4 - 6 carbon atoms; said second polyvinyl acetal resin layer contains a plasticizer and a second polyvinyl acetal resin obtained via acetalization of polyvinyl alcohol with at least one aldehyde (b) selected from the group consisting of aldehydes having 1 - 3 carbon atoms; said thermoplastic resin sheet has such a structure that the first polyvinyl acetal resin layer is provided on each side of at least one second polyvinyl acetal resin layer; and said second polyvinyl acetal resin layer has a degree of acetalization of at least 55 mole %, wherein the plasticizer content of the first polyvinyl acetal resin layer is in the range of 30-45 parts by weight, based on 100 parts by weight of the first polyvinyl acetal resin, and the plasticizer content of the second polyvinyl acetal resin layer is in the range of 10-35 parts by weight, based on 100 parts by weight of the second polyvinyl acetal resin, and wherein plasticizer content /plasticizer content is in the range of 1.0 - 3, wherein the plasticizer content is a plasticizer content of the first polyvinyl acetal resin layer and the plasticizer content is a plasticizer content of the second polyvinyl acetal resin layer, wherein at least one polyvinyl acetal resin layer is interposed between the polyvinyl acetal resin layers.
A 3D panel, comprising: a first substrate; a second substrate; and liquid crystals filled between the first substrate and the second substrate, wherein both the first substrate and the second substrate are provided with a common electrode and a signal electrode, the first substrate comprises, in sequence from top to bottom, a first base substrate, a first common electrode, a first common electrode lead, a first insulation layer, a first signal electrode lead, a second insulation layer and a first signal electrode; and the second substrate comprises, in sequence from bottom to top, a second base substrate, a second common electrode, a second common electrode lead, a third insulation layer, a second signal electrode lead, a fourth insulation layer and a second signal electrode, wherein the first signal electrode is arranged to face the second signal electrode, and both the first signal electrode and the second signal electrode are composed of a plurality of stripped electrodes, and an arrangement direction of the stripped electrodes in the first signal electrode is interlaced with that of the stripped electrodes in the second signal electrode, the plurality of stripped electrodes in the first signal electrode are evenly arranged and have a first period; the plurality of stripped electrodes in the second signal electrode are evenly arranged and have a second period which is different from the first period. a first substrate; a second substrate; and liquid crystals filled between the first substrate and the second substrate, wherein both the first substrate and the second substrate are provided with a common electrode and a signal electrode, the first substrate comprises, in sequence from top to bottom, a first base substrate, a first common electrode, a first common electrode lead, a first insulation layer, a first signal electrode lead, a second insulation layer and a first signal electrode; and the second substrate comprises, in sequence from bottom to top, a second base substrate, a second common electrode, a second common electrode lead, a third insulation layer, a second signal electrode lead, a fourth insulation layer and a second signal electrode, wherein the first signal electrode is arranged to face the second signal electrode, and both the first signal electrode and the second signal electrode are composed of a plurality of stripped electrodes, and an arrangement direction of the stripped electrodes in the first signal electrode is interlaced with that of the stripped electrodes in the second signal electrode, the plurality of stripped electrodes in the first signal electrode are evenly arranged and have a first period; the plurality of stripped electrodes in the second signal electrode are evenly arranged and have a second period which is different from the first period.
Method for producing rolled products, comprising the steps of: a) generating together, simultaneously and at the same speed, at least two supply metal section bars by a continuous casting process; controlling the speeds of said at least two supply metal section bars by the continuous casting process so that they travel at the same speed, wherein by the continuous casting process said at least two supply metal section bars are blooms or billets; b) sending together said two supply metal section bars simultaneously and at the same speed to at least a first rolling station of a rolling mill, said first station comprising at least one cage provided with rolling rollers; c) rolling together said two supply metal section bars simultaneously and with the same rollers of the same rolling cage of said first rolling station d) sending together said two metal section bars exiting said first rolling station simultaneously and at the same speed to a second rolling station that comprises at least one cage provided with rolling rollers; e)rolling together said two section bars of the preceding step simultaneously and with the same rollers of the same rolling cage of said second rolling station; f) sending said two metal section bars exiting said second rolling station simultaneously and at the same speed to a third rolling station that comprises at least one cage provided with rolling rollers e)rolling together said two section bars of the preceding step simultaneously and with the same rollers of the same rolling cage of said third rolling station a) generating together, simultaneously and at the same speed, at least two supply metal section bars by a continuous casting process; controlling the speeds of said at least two supply metal section bars by the continuous casting process so that they travel at the same speed, wherein by the continuous casting process said at least two supply metal section bars are blooms or billets; b) sending together said two supply metal section bars simultaneously and at the same speed to at least a first rolling station of a rolling mill, said first station comprising at least one cage provided with rolling rollers; c) rolling together said two supply metal section bars simultaneously and with the same rollers of the same rolling cage of said first rolling station d) sending together said two metal section bars exiting said first rolling station simultaneously and at the same speed to a second rolling station that comprises at least one cage provided with rolling rollers; e)rolling together said two section bars of the preceding step simultaneously and with the same rollers of the same rolling cage of said second rolling station; f) sending said two metal section bars exiting said second rolling station simultaneously and at the same speed to a third rolling station that comprises at least one cage provided with rolling rollers e)rolling together said two section bars of the preceding step simultaneously and with the same rollers of the same rolling cage of said third rolling station
A pharmaceutical composition A. consisting essentially of (a) choline, or a salt or hydroxide thereof; (b) niacin, or a salt, amide or ester thereof; (c) folic acid, or a salt thereof; (d) methionine or a salt or ester thereof; (e) glycine or a salt, ester or methylated form thereof, and (f) optionally a pharmaceutically acceptable carrier and/or excipients; or B. comprising (a) choline, or a salt or hydroxide thereof; (b) niacin, or a salt, amide or ester thereof; (c) folic acid, or a salt thereof; (d) methionine or a salt or ester thereof; and (e) glycine or a salt, ester or methylated form thereof as the only active ingredients. A. consisting essentially of (a) choline, or a salt or hydroxide thereof; (b) niacin, or a salt, amide or ester thereof; (c) folic acid, or a salt thereof; (d) methionine or a salt or ester thereof; (e) glycine or a salt, ester or methylated form thereof, and (f) optionally a pharmaceutically acceptable carrier and/or excipients; or (a) choline, or a salt or hydroxide thereof; (b) niacin, or a salt, amide or ester thereof; (c) folic acid, or a salt thereof; (d) methionine or a salt or ester thereof; (e) glycine or a salt, ester or methylated form thereof, and (f) optionally a pharmaceutically acceptable carrier and/or excipients; B. comprising (a) choline, or a salt or hydroxide thereof; (b) niacin, or a salt, amide or ester thereof; (c) folic acid, or a salt thereof; (d) methionine or a salt or ester thereof; and (e) glycine or a salt, ester or methylated form thereof as the only active ingredients. (a) choline, or a salt or hydroxide thereof; (b) niacin, or a salt, amide or ester thereof; (c) folic acid, or a salt thereof; (d) methionine or a salt or ester thereof; and (e) glycine or a salt, ester or methylated form thereof