mhurhangee/ep-ind-claims huggingface dataset:
An absorbent article comprising: a substantially fluid impervious backsheet; a substantially fluid permeable topsheet; an acquisition layer for collecting and distributing fluid; a top core for absorbing fluid; a bottom core for absorbing fluid; and elastic members; the acquisition layer, the top core and the bottom core being arranged between the topsheet and the backsheet, wherein the acquisition layer is arranged between the topsheet and the top core, and the bottom core is arranged between the backsheet and the top core, wherein the absorbent article extends along a longitudinal axis from its front end towards its rear end, the article having longitudinal side edges (4, 5) extending along the longitudinal axis, wherein the elastic members are arranged adjacent to at least a portion of each longitudinal side edge (4, 5), each elastic member having a tension in a direction along the longitudinal side edge (4,5); characterized in that the top and the bottom cores (60, 70) comprise absorbent material that is compressed to a total density for the top and bottom core with a density of at least 0,13 g/cm 3, preferably at least 0,15 g/cm 3, most preferably at least 0,18 g/cm 3, and wherein a distance in the transversal direction between a side edge (4, 5) of the absorbent article and a proximal side edge of the bottom core, in a position along the longitudinal direction where the bottom core has its smallest lateral extent, is 15-25 mm. a substantially fluid impervious backsheet; a substantially fluid permeable topsheet; an acquisition layer for collecting and distributing fluid; a top core for absorbing fluid; a bottom core for absorbing fluid; and elastic members; the acquisition layer, the top core and the bottom core being arranged between the topsheet and the backsheet, wherein the acquisition layer is arranged between the topsheet and the top core, and the bottom core is arranged between the backsheet and the top core, wherein the absorbent article extends along a longitudinal axis from its front end towards its rear end, the article having longitudinal side edges (4, 5) extending along the longitudinal axis, wherein the elastic members are arranged adjacent to at least a portion of each longitudinal side edge (4, 5), each elastic member having a tension in a direction along the longitudinal side edge (4,5); characterized in that the top and the bottom cores (60, 70) comprise absorbent material that is compressed to a total density for the top and bottom core with a density of at least 0,13 g/cm 3, preferably at least 0,15 g/cm 3, most preferably at least 0,18 g/cm 3, and wherein a distance in the transversal direction between a side edge (4, 5) of the absorbent article and a proximal side edge of the bottom core, in a position along the longitudinal direction where the bottom core has its smallest lateral extent, is 15-25 mm.
Propulsion unit for an aircraft, said propulsion unit comprising: - at least a fan rotor (7, 8) having a longitudinal axis XX, - at least two gas generator (2a, 2b) housed each in a primary flow duct (3a, 3b) and designed to generate each a primary flow, each gas generator (2a, 2b) comprising at least a compressor, a combustion chamber and at least one turbine, - at least one power turbine driving at its periphery said fan rotor (7, 8) of longitudinal axis XX, - a central duct from which converge the primary flow duct of each gas generator and that feeds the power turbine with the primary flow, said central duct being surrounded by an external fairing, said central duct being upstream of the power turbine with regard to the longitudinal axis XX, characterized in that it comprises first movable means (15, 18) arranged so as to divert at least part of the primary flow to the outside of said external fairing and upstream of the turbine engine in order to generate thrust reversal, the first movable means (15, 18) being arranged upstream of the power turbine with regard to the longitudinal axis XX. - at least a fan rotor (7, 8) having a longitudinal axis XX, - at least two gas generator (2a, 2b) housed each in a primary flow duct (3a, 3b) and designed to generate each a primary flow, each gas generator (2a, 2b) comprising at least a compressor, a combustion chamber and at least one turbine, - at least one power turbine driving at its periphery said fan rotor (7, 8) of longitudinal axis XX, - a central duct from which converge the primary flow duct of each gas generator and that feeds the power turbine with the primary flow, said central duct being surrounded by an external fairing, said central duct being upstream of the power turbine with regard to the longitudinal axis XX,
An ethylene interpolymer product comprising: (i) a first ethylene interpolymer; (ii) a second ethylene interpolymer, and; (iii) optionally a third ethylene interpolymer; wherein said ethylene interpolymer product has: (a) a Dilution Index, Y d, greater than 0, the Dilution Index being defined by Y d = δ C − C 0 − C 1 e C 2 lnG C ∗; and (b) ≥ 0.03 terminal vinyl unsaturations per 100 carbon atoms; and (c) ≥ 3 parts per million (ppm) of a total catalytic metal; wherein said first ethylene interpolymer is synthesized using a single site catalyst and said second ethylene interpolymer is synthesized using an in-line Ziegler Natta catalyst, wherein δ C and G C ∗ are respectively a phase-angle and a complex modulus at an angular frequency ω C two decades below the cross-over frequency, δ C and G C ∗ being determined from a time-temperature superposition master curve with both horizontal shift and vertical shift at a reference temperature of 190 °C constructed from small amplitude oscillatory frequency sweeps performed at a strain amplitude of 10% and at test temperatures of 170 °C, 190 °C, 210 °C and 230 °C at a frequency range of from 0.05 rad/s to 100 rad/s with seven points per decade, and wherein C 0 = 93.43°, C 1 = 1.316° and C 2 = 0.2945. (i) a first ethylene interpolymer; (ii) a second ethylene interpolymer, and; (iii) optionally a third ethylene interpolymer; (a) a Dilution Index, Y d, greater than 0, the Dilution Index being defined by Y d = δ C − C 0 − C 1 e C 2 lnG C ∗; and (b) ≥ 0.03 terminal vinyl unsaturations per 100 carbon atoms; and (c) ≥ 3 parts per million (ppm) of a total catalytic metal;
A wireless power transmitting apparatus, comprising: a power supply configured to generate DC current; an AC power generator configured to receive the DC current and generate an AC current; a controller configured to switch an operation mode of the AC power generator; wherein the AC power generator comprises a full-bridge inverter including a first half-bridge circuit and a second half-bridge circuit, wherein the operation mode includes a full-bridge mode and a half-bridge mode, and wherein the controller, in the half-bridge mode, operates the first half-bridge circuit and stops an operation of the second half-bridge circuit, characterized by a power transmission state detector configured to detect a wireless power transmission state wherein the wireless power transmission state is based on the level of the output current of the power supply; wherein the operation mode is switched based on the wireless power transmission state, and wherein an AC power generation controller is configured to determine the operating mode of the full-bridge-inverter based on the detected wireless power transmission state. a power supply configured to generate DC current; an AC power generator configured to receive the DC current and generate an AC current; a controller configured to switch an operation mode of the AC power generator; wherein the AC power generator comprises a full-bridge inverter including a first half-bridge circuit and a second half-bridge circuit, wherein the operation mode includes a full-bridge mode and a half-bridge mode, and wherein the controller, in the half-bridge mode, operates the first half-bridge circuit and stops an operation of the second half-bridge circuit, characterized by a power transmission state detector configured to detect a wireless power transmission state wherein the wireless power transmission state is based on the level of the output current of the power supply; wherein the operation mode is switched based on the wireless power transmission state, and wherein an AC power generation controller is configured to determine the operating mode of the full-bridge-inverter based on the detected wireless power transmission state.
A pharmaceutical composition comprising: (a) from 55% to 90% by weight of a suspended pharmaceutical active; (b) from 0.001% to 1.00% by weight of a suspended stabilizing agent selected from disodium salts of ethylene diamine tetraacetic acid, calcium salts of ethylene diamine tetraacetic acid, tetrasodium ethylene diamine tetraacetic acid, and mixtures thereof; and (c) from 9% to 39% by weight of a solvent selected from polyethylene glycols; wherein the composition is encapsulated within a soft gelatin capsule. (a) from 55% to 90% by weight of a suspended pharmaceutical active; (b) from 0.001% to 1.00% by weight of a suspended stabilizing agent selected from disodium salts of ethylene diamine tetraacetic acid, calcium salts of ethylene diamine tetraacetic acid, tetrasodium ethylene diamine tetraacetic acid, and mixtures thereof; and (c) from 9% to 39% by weight of a solvent selected from polyethylene glycols;
A process for purifying acetic acid, comprising: a. distilling a process stream in a column, the process stream comprising acetic acid at a concentration of greater than 90 wt.%, water at a concentration from 1 to 3 wt.%, one or more C 1 -C 14 alkyl iodides in a total concentration of no more than 6 wt.%, and methyl acetate at a concentration of no more than 6 wt.%; b. forming acetic anhydride in a lower portion of the column; c. withdrawing a product stream from the lower portion of the column, the product stream comprising acetic acid, water at a concentration of no more than 0.2 wt.%, and acetic anhydride at a concentration of no more than 600 wppm; and d. hydrating the acetic anhydride in the product stream to form a purified acetic acid product comprising acetic anhydride at a concentration of no more than 50 wppm. a. distilling a process stream in a column, the process stream comprising acetic acid at a concentration of greater than 90 wt.%, water at a concentration from 1 to 3 wt.%, one or more C 1 -C 14 alkyl iodides in a total concentration of no more than 6 wt.%, and methyl acetate at a concentration of no more than 6 wt.%; b. forming acetic anhydride in a lower portion of the column; c. withdrawing a product stream from the lower portion of the column, the product stream comprising acetic acid, water at a concentration of no more than 0.2 wt.%, and acetic anhydride at a concentration of no more than 600 wppm; and d. hydrating the acetic anhydride in the product stream to form a purified acetic acid product comprising acetic anhydride at a concentration of no more than 50 wppm.
A hollow rim for a vehicle, the hollow rim comprising a first radially outer tire-engagement section, which has a first tire-holding section having a first outer wall, and a second radially outer tire-engagement section, which is spaced apart from the first radially outer tire-engagement section and has a second tire-holding section having a second outer wall, and the hollow rim being made of a fiber composite having at least two layers (04, 05), the hollow rim being made in one piece with the first radially outer tire-engagement section and the second radially outer tire-engagement section and the first outer wall having a curvature in the direction of the first tire-holding section and the second outer wall having a curvature in the direction of the second tire-holding section, characterized in that the curvature of the first outer wall extends across the length of the first outer wall and in that the curvature of the first outer wall has a curvature degree ranging from 0.05 mm -1 to 1.0 mm -1 and/or in that the curvature of the second outer wall extends across the length of the second outer wall and in that the curvature of the second outer wall has a curvature degree ranging from 0.05 mm -1 to 1.0 mm -1.
A sealing plug for use in a puncture closure apparatus, comprising: a first end region, a second end region, and an intermediate region positioned between the first end region and the second end region, wherein the intermediate region comprises a material with a density less than a density of the first end region and a density of the second end region, characterized in that the sealing plug further comprises a plurality of slits (250,252) formed into an exterior surface of the sealing plug, the plurality of slits (250,252) being configured to facilitate radial expansion of the sealing plug in response to longitudinal compression of the sealing plug. a first end region, a second end region, and an intermediate region positioned between the first end region and the second end region, wherein the intermediate region comprises a material with a density less than a density of the first end region and a density of the second end region, characterized in that the sealing plug further comprises a plurality of slits (250,252) formed into an exterior surface of the sealing plug, the plurality of slits (250,252) being configured to facilitate radial expansion of the sealing plug in response to longitudinal compression of the sealing plug.
A thin film formation apparatus for forming a thin film of a metal compound on a substrate in a vacuum chamber by sputtering, the apparatus comprising: the vacuum chamber; a target (63a, 63b), provided in the vacuum chamber, composed of metal or a conductive metal compound, and an active species source, provided in the vacuum chamber, for generating an active species of a reactive gas that is arranged to produce mutual electromagnetic and pressure interactions with the target (63a, 63b), wherein: the active species source comprises a gas source (76, 77) for supplying the reactive gas, and an energy source for supplying energy into the vacuum chamber to excite the reactive gas to a plasma state; the target (63a, 63b) and the active species source are arranged to be opposed to the substrate; the energy source comprises, between itself and the vacuum chamber, a dielectric window for supplying the energy into the vacuum chamber, a case body and an antenna (85a, 85b); the target (63a, 63b) and the active species source are arranged not to be separated spatially or in a pressure-wise manner; the thin film formation apparatus is an in-line type sputtering apparatus; a sputtering surface of the target (63a, 63b) where erosion occurs is arranged to be parallel with the substrate; the dielectric window is arranged in such a way as inclining towards the target side at an angle of less than 90° to the substrate; and the antenna (85a, 85b) is disposed in an antenna storage chamber and consists of a spiral coil electrode, and a spiral face of the electrode is arranged in parallel with the dielectric window and the bottom surface of the case body. the active species source comprises a gas source (76, 77) for supplying the reactive gas, and an energy source for supplying energy into the vacuum chamber to excite the reactive gas to a plasma state; the target (63a, 63b) and the active species source are arranged to be opposed to the substrate; the energy source comprises, between itself and the vacuum chamber, a dielectric window for supplying the energy into the vacuum chamber, a case body and an antenna (85a, 85b); the target (63a, 63b) and the active species source are arranged not to be separated spatially or in a pressure-wise manner; the thin film formation apparatus is an in-line type sputtering apparatus; a sputtering surface of the target (63a, 63b) where erosion occurs is arranged to be parallel with the substrate; the dielectric window is arranged in such a way as inclining towards the target side at an angle of less than 90° to the substrate; and the antenna (85a, 85b) is disposed in an antenna storage chamber and consists of a spiral coil electrode, and a spiral face of the electrode is arranged in parallel with the dielectric window and the bottom surface of the case body.
Photovoltaic cell comprising a semiconductor device, which comprises a substrate for photovoltaic cell and at least one thin film of a material having photovoltaic properties deposited on said substrate, said material having photovoltaic properties being a compound of Cu(In,Ga)Se 2 type, said substrate comprising at least one sheet of float glass provided on a face of at least one electrode, said glass having a chemical composition comprising the following constituents, in a weight content that varies within the limits defined below: SiO 2 69-75% Al 2 O 3 0-3% CaO + MgO 11-16.2% MgO 0-6.5% Na 2 O 9-12.4% K 2 O 0-1.5% the chemical composition of the glass sheet of said substrate additionally comprising iron oxide in a weight content of at least 0.05%, said substrate being the back face substrate of said photovoltaic cell.
A dialysis machine for ultrafiltration comprising: a dialyser; a first pump and a second pump, wherein the pumps are each adapted to deliver a fresh dialysate solution to the dialyser and remove a spent dialysate solution from the dialyser, at least one of the first and second pumps (3, 17) comprising a cartridge and a platen, the cartridge comprising a plurality of chambers and conduits covered by a flexible membrane, the platen and cartridge further defining a membrane valve in fluid connection with the pumps and comprising a valve cavity and a channel with an opening covered by the flexible membrane; wherein the volume flow rate of the pumps are different; and wherein the operation of said pumps (3, 17) is configured to remove excess fluid from the dialyser and/or deliver excess fluid to the dialyser, the dialysis machine being configured to vary the volume of the valve cavity by controlling the pressure differential across the flexible membrane of the membrane valve in order to change the shape of the flexible membrane when the membrane valve is in a closed configuration in order to effect the removal of excess fluid from the dialyser(s) and/or delivery of excess fluid to the dialyser(s). a dialyser; a first pump and a second pump, wherein the pumps are each adapted to deliver a fresh dialysate solution to the dialyser and remove a spent dialysate solution from the dialyser, at least one of the first and second pumps (3, 17) comprising a cartridge and a platen, the cartridge comprising a plurality of chambers and conduits covered by a flexible membrane, the platen and cartridge further defining a membrane valve in fluid connection with the pumps and comprising a valve cavity and a channel with an opening covered by the flexible membrane; wherein the volume flow rate of the pumps are different; and wherein the operation of said pumps (3, 17) is configured to remove excess fluid from the dialyser and/or deliver excess fluid to the dialyser, the dialysis machine being configured to vary the volume of the valve cavity by controlling the pressure differential across the flexible membrane of the membrane valve in order to change the shape of the flexible membrane when the membrane valve is in a closed configuration in order to effect the removal of excess fluid from the dialyser(s) and/or delivery of excess fluid to the dialyser(s).
Canister for containing an active material, like an oxygen scavenger, a desiccant or another functional material, comprising - a canister body, preferably of a cylindrical shape, comprising a bottom wall and at least one sidewall with inner and outer sidewall surfaces and an upper rim, wherein the at least one sidewall extends from the bottom wall; and - a closing element comprising a top wall with an outer surface and an inner surface, and a fixing portion surrounding the top wall; wherein - the top wall, and/or the bottom wall and/or at least one of the at least one sidewall comprises at least one membrane region (62; 30) with a predetermined permeability to a defined gaseous substance, the membrane region (62; 30) being substantially unperforated; and - the fixing portion comprises an elevated or recessed snap portion around its outer periphery which is shaped corresponding to a mating geometry around the inner sidewall surface of the sidewall of the canister body so as to form a snap connection with the canister body; wherein - the closing element is fixed to the canister body in such a way that the outer surface of the top wall does not extend beyond the upper rim of the sidewall of the canister body. - a canister body, preferably of a cylindrical shape, comprising a bottom wall and at least one sidewall with inner and outer sidewall surfaces and an upper rim, wherein the at least one sidewall extends from the bottom wall; and - a closing element comprising a top wall with an outer surface and an inner surface, and a fixing portion surrounding the top wall; wherein - the top wall, and/or the bottom wall and/or at least one of the at least one sidewall comprises at least one membrane region (62; 30) with a predetermined permeability to a defined gaseous substance, the membrane region (62; 30) being substantially unperforated; and - the fixing portion comprises an elevated or recessed snap portion around its outer periphery which is shaped corresponding to a mating geometry around the inner sidewall surface of the sidewall of the canister body so as to form a snap connection with the canister body; wherein - the closing element is fixed to the canister body in such a way that the outer surface of the top wall does not extend beyond the upper rim of the sidewall of the canister body.
A method for recording multimedia data, comprising: receiving, by a distribution device, converged mirror data from a mirror switch, wherein the converged mirror data comprises a signaling and multimedia data; generating, by the distribution device, a recording instruction including_multimedia data identification information according to the signaling included in the converged mirror data, and the multimedia data identification information is used for identifying multimedia data that needs to be recorded of the multimedia data included in the converged mirror data; and sending, by the distribution device, the recording instruction including the multimedia data identification information to a recording device that is configured to receive the converged mirror data from the mirror switch without sending the multimedia data that needs to be recorded to the recording device, wherein the recording device is configured to identify the multimedia data that needs to be recorded from the received converged mirror data according to the multimedia data identification information and record the multimedia data that needs to be recorded. receiving, by a distribution device, converged mirror data from a mirror switch, wherein the converged mirror data comprises a signaling and multimedia data; generating, by the distribution device, a recording instruction including_multimedia data identification information according to the signaling included in the converged mirror data, and the multimedia data identification information is used for identifying multimedia data that needs to be recorded of the multimedia data included in the converged mirror data; and sending, by the distribution device, the recording instruction including the multimedia data identification information to a recording device that is configured to receive the converged mirror data from the mirror switch without sending the multimedia data that needs to be recorded to the recording device, wherein the recording device is configured to identify the multimedia data that needs to be recorded from the received converged mirror data according to the multimedia data identification information and record the multimedia data that needs to be recorded.