mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing a zinc-enriched biomass, characterised in that said biomass is obtained by i) culturing micro-organisms selected from the group consisting of Streptococcus thermophilus ST 16 BM, deposited under the Budapest Treaty at the DSMZ, Braunschweig, Germany, under the accession number DSM19526 on July 13, 2007, and Bifidobacterium animalis subsp. lactis BB 1 BM, deposited under the Budapest Treaty at the DSMZ, Braunschweig, Germany, under the accession number DSM 17850 on December 23, 2005, and combinations thereof, in a nutrient culture medium comprising a zinc salt, so that said micro-organisms accumulate zinc; and ii) separating the zinc-enriched micro-organisms from the culture medium. i) culturing micro-organisms selected from the group consisting of Streptococcus thermophilus ST 16 BM, deposited under the Budapest Treaty at the DSMZ, Braunschweig, Germany, under the accession number DSM19526 on July 13, 2007, and Bifidobacterium animalis subsp. lactis BB 1 BM, deposited under the Budapest Treaty at the DSMZ, Braunschweig, Germany, under the accession number DSM 17850 on December 23, 2005, and combinations thereof, in a nutrient culture medium comprising a zinc salt, so that said micro-organisms accumulate zinc; and ii) separating the zinc-enriched micro-organisms from the culture medium.
Storage table of a packaging plant comprising, - at least two infeeds (6b', 6b") which are controlled to feed packages from respective different packaging devices to the storage table, - at least two ejectors (6a', 6a") which are controlled to remove packages from the storage table and to feed them to a downstream packaging device, - a plurality of storage lines which can be loaded separately from one another and are arranged between the infeeds (6b', 6b") and the outfeeds (6a', 6a"), characterized in that - the infeeds (6b', 6b") are controlled in such a way as to feed the respective package to one of the storage lines as a function of a degree of completion of the package, and, - the ejectors (6a', 6a") are controlled in such a way as to remove the respective package from the respective storage lines as a function of the degree of completion of the package. - at least two infeeds (6b', 6b") which are controlled to feed packages from respective different packaging devices to the storage table, - at least two ejectors (6a', 6a") which are controlled to remove packages from the storage table and to feed them to a downstream packaging device, - a plurality of storage lines which can be loaded separately from one another and are arranged between the infeeds (6b', 6b") and the outfeeds (6a', 6a"), characterized in that - the infeeds (6b', 6b") are controlled in such a way as to feed the respective package to one of the storage lines as a function of a degree of completion of the package, and, - the ejectors (6a', 6a") are controlled in such a way as to remove the respective package from the respective storage lines as a function of the degree of completion of the package.
A gas turbine engine through which gases flow from upstream to downstream, comprising a combustion chamber, a high-pressure turbine positioned downstream of the combustion chamber designed to receive combustion gases emanating from said combustion chamber, a free turbine and a cone (7, 8, 9, 10) for guiding the exhaust gases which is fixed to said free turbine downstream thereof, the turbine engine emitting sound waves as it operates, which turbine engine is characterized in that the guide cone (7, 8, 9, 10) comprises an interior resonant cavity (71; 81, 81'; 91, 91'; 101, 101', 101") into which extends a neck (75; 85, 85'; 95, 95'; 105, 105', 105") designed to place the resonant cavity (71; 81, 81'; 91, 91'; 101, 101', 101") of the guide cone (7, 8, 9, 10) in communication with the outside of the guide cone (7, 8, 9, 10) to form a noise attenuator (7, 8, 9, 10) having a Helmholtz resonator structure, designed to attenuate the sound waves emitted by the turbine engine.
A mounting arrangement to be applied for a piston-connecting rod assembly of a refrigeration compressor of the type which comprises a crankcase which defines a bearing hub and carries a cylinder provided with a lateral slot on a side opposite to the bearing hub; wherein the mounting arrangement comprises: - a piston suitable for reciprocating in the interior of the cylinder, wherein the piston has an outer cylindrical surface and is provided with two diametrically opposite radial holes and with an eccentric axial hole; - a connecting rod having a smaller eye mounted in the interior of the piston; - a wrist pin having a first end to be turned to the bearing hub and disposed in the interior of one of the two radial hole of the piston, and a second end to be turned to the lateral slot of the cylinder and disposed in the interior of the other of the two radial holes of the piston, said wrist pin being also provided with a diametrical hole, adjacent to said second end and to be axially aligned with the eccentric axial hole of the piston; and - an elastic pin to be introduced in the eccentric axial hole of the piston and through the diametrical hole of the wrist pin, characterized in that - said arrangement comprises a tool for mounting and indexing the wrist pin in the interior of the piston, - the second end of the wrist pin is provided with an engaging means for axial and rotational coupling of the tool,, - the outer cylindrical surface of the piston defines a travel end stop seating the tool when the diametrical hole of the wrist pin has its axis coplanar to the axis of the eccentric axial hole of the piston. - a piston suitable for reciprocating in the interior of the cylinder, wherein the piston has an outer cylindrical surface and is provided with two diametrically opposite radial holes and with an eccentric axial hole; - a connecting rod having a smaller eye mounted in the interior of the piston; - a wrist pin having a first end to be turned to the bearing hub and disposed in the interior of one of the two radial hole of the piston, and a second end to be turned to the lateral slot of the cylinder and disposed in the interior of the other of the two radial holes of the piston, said wrist pin being also provided with a diametrical hole, adjacent to said second end and to be axially aligned with the eccentric axial hole of the piston; and - an elastic pin to be introduced in the eccentric axial hole of the piston and through the diametrical hole of the wrist pin, - said arrangement comprises a tool for mounting and indexing the wrist pin in the interior of the piston, - the second end of the wrist pin is provided with an engaging means for axial and rotational coupling of the tool,, - the outer cylindrical surface of the piston defines a travel end stop seating the tool when the diametrical hole of the wrist pin has its axis coplanar to the axis of the eccentric axial hole of the piston.
A balance-spring, intended to be associated with a clockwork movement balance having a low thermal expansion coefficient, the balance-spring being made from a first composite material comprising first long fibers, extending substantially over the entire length of the balance-spring, integrated into a matrix made up of a thermosetting polymer and including a preponderant part-or at least 50%-silica, said composite material further comprising at least second long fibers, extending substantially over the entire length of the balance-spring and taken from the group comprising carbon fibers and aramid fibers, said second long fibers also being integrated into said matrix.
A packaged pharmaceutical product for use in a method of treating multiple sclerosis comprising: ingesting one dose of estriol and one dose of norethindrone daily from a first region of the product; and when the doses In the first region are exhausted, ingesting one dose of estriol daily from a second region of the product, wherein the packaged pharmaceutical product is for conjoint administration with glatiramer acetate, wherein the packaged pharmaceutical product is for use by a pre-menopausal or peri-menopausal woman, and wherein the packaged pharmaceutical product comprises: the first region comprising a first series of doses of 8 mg of estriol, wherein each dose of the estriol is associated with a dose of 0.7 mg of norethindrone; and the second region comprising a second series of doses of 8 mg of estriol that are not associated with doses of the norethindrone; wherein each successive dose of the estriol In each series is associated with successive days of an administration cycle, and the administration cycle consists of 84 consecutive calendar days; the first region comprises 14 doses of each of the estriol and the norethindrone; and the second region comprises 70 doses of the estriol. ingesting one dose of estriol and one dose of norethindrone daily from a first region of the product; and when the doses In the first region are exhausted, ingesting one dose of estriol daily from a second region of the product, wherein the packaged pharmaceutical product is for conjoint administration with glatiramer acetate, wherein the packaged pharmaceutical product is for use by a pre-menopausal or peri-menopausal woman, and wherein the packaged pharmaceutical product comprises: the first region comprising a first series of doses of 8 mg of estriol, wherein each dose of the estriol is associated with a dose of 0.7 mg of norethindrone; and the second region comprising a second series of doses of 8 mg of estriol that are not associated with doses of the norethindrone; wherein each successive dose of the estriol In each series is associated with successive days of an administration cycle, and the administration cycle consists of 84 consecutive calendar days; the first region comprises 14 doses of each of the estriol and the norethindrone; and the second region comprises 70 doses of the estriol. the first region comprising a first series of doses of 8 mg of estriol, wherein each dose of the estriol is associated with a dose of 0.7 mg of norethindrone; and the second region comprising a second series of doses of 8 mg of estriol that are not associated with doses of the norethindrone; wherein each successive dose of the estriol In each series is associated with successive days of an administration cycle, and the administration cycle consists of 84 consecutive calendar days; the first region comprises 14 doses of each of the estriol and the norethindrone; and the second region comprises 70 doses of the estriol.
A fire sprinkler system comprising: a corrosion monitoring device positioned in a flow path of the fire sprinkler system, the corrosion monitoring device including a first pipe portion having opposite ends and a middle portion including a wall having a first wall thickness, the opposite ends of the first pipe portion each including a wall having a second wall thickness, a structure coupled to said first pipe portion and defining a sealed chamber between the structure and the first pipe portion, wherein the sealed chamber extends about at least a portion of the first pipe portion, and a sensor for sensing a pressure in the sealed chamber and/or sensing a presence of liquid in the sealed chamber, the sensor configured to detect a change in the pressure in the sealed chamber and/or the presence of a liquid in the sealed chamber corresponding to a breach of the first pipe portion portion due to corrosion, and the sensor configured to generate a signal in response to detecting a change in the pressure in the sealed chamber and/or the presence of a liquid in the sealed chamber; and wherein the system further comprises a second and a third pipe portion coupled to the opposite ends of the first pipe portion, the second and third pipe portions each having a wall having the second wall thickness; and wherein the second wall thickness is greater than the first wall thickness. a corrosion monitoring device positioned in a flow path of the fire sprinkler system, the corrosion monitoring device including a first pipe portion having opposite ends and a middle portion including a wall having a first wall thickness, the opposite ends of the first pipe portion each including a wall having a second wall thickness, a structure coupled to said first pipe portion and defining a sealed chamber between the structure and the first pipe portion, wherein the sealed chamber extends about at least a portion of the first pipe portion, and a sensor for sensing a pressure in the sealed chamber and/or sensing a presence of liquid in the sealed chamber, the sensor configured to detect a change in the pressure in the sealed chamber and/or the presence of a liquid in the sealed chamber corresponding to a breach of the first pipe portion portion due to corrosion, and the sensor configured to generate a signal in response to detecting a change in the pressure in the sealed chamber and/or the presence of a liquid in the sealed chamber; and wherein the system further comprises a second and a third pipe portion coupled to the opposite ends of the first pipe portion, the second and third pipe portions each having a wall having the second wall thickness; and wherein the second wall thickness is greater than the first wall thickness.
A particulate matter processing apparatus in which a processing part with an electrode installed therein is arranged in an exhaust passage of an internal combustion engine, wherein particulate matter is caused to aggregate by generating a potential difference between the electrode and the processing part, said apparatus comprising: a power supply that is connected to said electrode and applies a voltage thereto; an insulation part that insulates electricity between said processing part and said exhaust passage; a ground part that grounds said processing part; a detection device that is adapted to detect an electric current in said ground part; and an estimation device that is adapted to estimate a concentration of HC in an exhaust gas based on the electric current detected by said detection device at the time when the voltage is applied to said electrode by means of said power supply. a power supply that is connected to said electrode and applies a voltage thereto; an insulation part that insulates electricity between said processing part and said exhaust passage; a ground part that grounds said processing part; a detection device that is adapted to detect an electric current in said ground part; and an estimation device that is adapted to estimate a concentration of HC in an exhaust gas based on the electric current detected by said detection device at the time when the voltage is applied to said electrode by means of said power supply.
A centrifugal separator for removing particulate contaminants from a gas, which centrifugal separator comprises - a housing which delimits a separation chamber and has a gas inlet to the separation chamber and a gas outlet from the separation chamber, - a rotor which is rotatable around a rotational axis in the separation chamber and comprises a stack of truncated conical separation discs arranged at mutual spacing such that they delimit between them intermediate spaces for the gas to flow through, - an inlet shaft which is disposed centrally in the stack of separation discs, which inlet shaft communicates with the gas inlet and the intermediate spaces between the separation discs and is adapted to leading the gas radially outwards through the intermediate spaces between the separation discs, and - an annular space of the separation chamber, which surrounds the rotor, is delimited radially by the housing and communicates with the intermediate spaces between the separation discs and with the gas outlet, characterized by - a body which is arranged within the inlet shaft, the body being connected to the rotor and comprising entrainment means for entraining the gas within the inlet shaft in the direction of rotation of the rotor. - a housing which delimits a separation chamber and has a gas inlet to the separation chamber and a gas outlet from the separation chamber, - a rotor which is rotatable around a rotational axis in the separation chamber and comprises a stack of truncated conical separation discs arranged at mutual spacing such that they delimit between them intermediate spaces for the gas to flow through, - an inlet shaft which is disposed centrally in the stack of separation discs, which inlet shaft communicates with the gas inlet and the intermediate spaces between the separation discs and is adapted to leading the gas radially outwards through the intermediate spaces between the separation discs, and - an annular space of the separation chamber, which surrounds the rotor, is delimited radially by the housing and communicates with the intermediate spaces between the separation discs and with the gas outlet, characterized by - a body which is arranged within the inlet shaft, the body being connected to the rotor and comprising entrainment means for entraining the gas within the inlet shaft in the direction of rotation of the rotor.
A method for preparing graphene, comprising: a. obtaining a 0.1-1 g/ml graphene oxide dispersion by adding the graphene oxide to a dispersant having a boiling point of 158°C or higher, and ultrasonically dispersing; b. adding a reducing agent to the graphene oxide dispersion obtained in Step a, wherein the reducing agent is one of an organic acid and an organic acid salt, or a combination of two or more thereof, and the weight ratio of the graphene oxide in the graphene oxide dispersion to the reducing agent is 1:2-8; c. heating the graphene oxide dispersion treated with the reducing agent in Step b for 5-30 min in microwave at 400-900 W, and then ultrasonically stripping at 100-600 W for 0.5-3 h; and d. obtaining graphene by adding an equal volume of water added to the graphene oxide dispersion treated in Step c, filtering under suction, washing with water, and drying. a. obtaining a 0.1-1 g/ml graphene oxide dispersion by adding the graphene oxide to a dispersant having a boiling point of 158°C or higher, and ultrasonically dispersing; b. adding a reducing agent to the graphene oxide dispersion obtained in Step a, wherein the reducing agent is one of an organic acid and an organic acid salt, or a combination of two or more thereof, and the weight ratio of the graphene oxide in the graphene oxide dispersion to the reducing agent is 1:2-8; c. heating the graphene oxide dispersion treated with the reducing agent in Step b for 5-30 min in microwave at 400-900 W, and then ultrasonically stripping at 100-600 W for 0.5-3 h; and d. obtaining graphene by adding an equal volume of water added to the graphene oxide dispersion treated in Step c, filtering under suction, washing with water, and drying.
A method for building a fuselage assembly (114; 1100), the method comprising: building an assembly fixture (324; 1012) by: driving a number of cradle fixtures (314; 903) across a floor (300; 703) to an assembly area wherein each cradle fixture (322; 906,908,910) in the number of drivable cradle fixtures (314; 903) comprises a number of retaining structures (326; 918) for engaging with and supporting one or more of a plurality of panels (120; 1102) for forming the fuselage assembly (114; 1100); and configuring the number of cradle fixtures (314; 903) to form the assembly fixture (324; 1012), wherein configuring the number of cradle fixtures (314; 903) comprises: coupling the number of cradle fixtures (314; 903) to each other; adjusting the number of retaining structures (326; 918) of the number of cradle fixtures (314; 903) for receiving a fuselage assembly, the method further comprising: engaging a plurality of fuselage sections (205; 1118) with the assembly fixture (324; 1012) formed of the configured cradle fixtures, to build a fuselage assembly (114; 1100) wherein the fuselage sections (205; 1118) include one or more of a plurality of panels (120; 1102). driving a number of cradle fixtures (314; 903) across a floor (300; 703) to an assembly area wherein each cradle fixture (322; 906,908,910) in the number of drivable cradle fixtures (314; 903) comprises a number of retaining structures (326; 918) for engaging with and supporting one or more of a plurality of panels (120; 1102) for forming the fuselage assembly (114; 1100); and configuring the number of cradle fixtures (314; 903) to form the assembly fixture (324; 1012), wherein configuring the number of cradle fixtures (314; 903) comprises: coupling the number of cradle fixtures (314; 903) to each other; adjusting the number of retaining structures (326; 918) of the number of cradle fixtures (314; 903) for receiving a fuselage assembly, coupling the number of cradle fixtures (314; 903) to each other; adjusting the number of retaining structures (326; 918) of the number of cradle fixtures (314; 903) for receiving a fuselage assembly,
An antimicrobial cleansing composition comprising: a polar carrier solvent selected from the group consisting of water, glycerin, propylene glycol, butylene glycol, polyethylene glycol, and combinations thereof; from 0.1% (w/w) to 15% (w/w) cationic compatible surfactant selected from cationic surfactants, amine oxide surfactants, and combinations thereof; from 0.01% (w/w) to 10% (w/w) quaternary ammonium biocide; and a cationic compatible afterfeel agent selected from polyquaternium-47, polymethacrylamidopropyltrimonium chloride, polyquaternium-7, polyquaternium-15, polyquaternium-2, polysilicone-20, di-PPG-2 myreth-10 adipate, PEG-12, PEG-7 glyceryl cocoate, and combinations thereof; wherein the antimicrobial cleansing composition comprises less than 0.3% by weight of a betaine-based surfactant and comprises less than 0.3% by weight of a compound selected from the group consisting of triclosan, triclocarban, a halogenated phenolic antimicrobial agent, and combinations thereof. a polar carrier solvent selected from the group consisting of water, glycerin, propylene glycol, butylene glycol, polyethylene glycol, and combinations thereof; from 0.1% (w/w) to 15% (w/w) cationic compatible surfactant selected from cationic surfactants, amine oxide surfactants, and combinations thereof; from 0.01% (w/w) to 10% (w/w) quaternary ammonium biocide; and a cationic compatible afterfeel agent selected from polyquaternium-47, polymethacrylamidopropyltrimonium chloride, polyquaternium-7, polyquaternium-15, polyquaternium-2, polysilicone-20, di-PPG-2 myreth-10 adipate, PEG-12, PEG-7 glyceryl cocoate, and combinations thereof; wherein the antimicrobial cleansing composition comprises less than 0.3% by weight of a betaine-based surfactant and comprises less than 0.3% by weight of a compound selected from the group consisting of triclosan, triclocarban, a halogenated phenolic antimicrobial agent, and combinations thereof.