mhurhangee/ep-ind-claims huggingface dataset:
A gel composition, comprising: a gel body including: - a first solution containing water and oily solvent; - a plurality of chitosan spheres, each of the chitosan spheres being self-assembled by chitosan in the first solution; - an alkaline chitosan stabilizing agent connecting the chitosan spheres; a chitosan decomposition enzyme scattering in the gel body, wherein the chitosan decomposition enzyme is temperature sensitive; and a drug scattering in the gel body. a gel body including: - a first solution containing water and oily solvent; - a plurality of chitosan spheres, each of the chitosan spheres being self-assembled by chitosan in the first solution; - an alkaline chitosan stabilizing agent connecting the chitosan spheres; - a first solution containing water and oily solvent; - a plurality of chitosan spheres, each of the chitosan spheres being self-assembled by chitosan in the first solution; - an alkaline chitosan stabilizing agent connecting the chitosan spheres; a chitosan decomposition enzyme scattering in the gel body, wherein the chitosan decomposition enzyme is temperature sensitive; and a drug scattering in the gel body.
An apparatus for contacting blood with ozone gas to kill microorganisms, said apparatus comprising: an ozonation chamber, a blood flow inlet, and a blood flow outlet wherein: said ozonation chamber comprises an ozone injector, said ozone injector configured for connection to a source of ozone containing gas and to inject bubbles of ozone containing gas into a flow of blood through the ozonation chamber, wherein the flow of blood is vertically upwards through the blood ozonation chamber during injection, said ozonation chamber and said ozone injector are configured such that the vertically upwards flow of blood through the blood ozonation chamber entrains said bubbles of ozone containing gas into said flow of blood characterized by a blood processing unit comprising means for removing foam and bubbles from the flow of blood downstream the ozone injector, said ozone injector is a porous ozone injector, and said ozone injector is configured to inject microbubbles having a mean diameter of less than 5 μm. an ozonation chamber, a blood flow inlet, and a blood flow outlet wherein: said ozonation chamber comprises an ozone injector, said ozone injector configured for connection to a source of ozone containing gas and to inject bubbles of ozone containing gas into a flow of blood through the ozonation chamber, wherein the flow of blood is vertically upwards through the blood ozonation chamber during injection, said ozonation chamber and said ozone injector said ozonation chamber comprises an ozone injector, said ozone injector configured for connection to a source of ozone containing gas and to inject bubbles of ozone containing gas into a flow of blood through the ozonation chamber, wherein the flow of blood is vertically upwards through the blood ozonation chamber during injection, said ozonation chamber and said ozone injector are configured such that the vertically upwards flow of blood through the blood ozonation chamber entrains said bubbles of ozone containing gas into said flow of blood characterized by a blood processing unit comprising means for removing foam and bubbles from the flow of blood downstream the ozone injector, said ozone injector is a porous ozone injector, and said ozone injector is configured to inject microbubbles having a mean diameter of less than 5 μm.
A method of fabricating a carbon fiber-reinforced article, the method comprising: providing a plurality of carbon fibers, the plurality of carbon fibers including surfaces that have an initial interfacial bonding strength capacity with respect to bonding with boron nitride, the plurality of carbon fibers including graphite; modifying the surfaces to reduce the initial interfacial bonding strength capacity wherein the modifying includes heat treating the plurality of carbon fibers at a temperature of 1550-1650°C and ordering microstructural stacking faults in a graphitic microstructure of the plurality of carbon fibers; then depositing a layer of boron nitride on the modified surfaces such that the layer of boron nitride is in contact with the surfaces of the plurality of carbon fibers; and embedding the plurality of carbon fibers in a ceramic matrix to provide a carbon fiber-reinforced article, wherein the ceramic matrix is silicon carbide. providing a plurality of carbon fibers, the plurality of carbon fibers including surfaces that have an initial interfacial bonding strength capacity with respect to bonding with boron nitride, the plurality of carbon fibers including graphite; modifying the surfaces to reduce the initial interfacial bonding strength capacity wherein the modifying includes heat treating the plurality of carbon fibers at a temperature of 1550-1650°C and ordering microstructural stacking faults in a graphitic microstructure of the plurality of carbon fibers; then depositing a layer of boron nitride on the modified surfaces such that the layer of boron nitride is in contact with the surfaces of the plurality of carbon fibers; and embedding the plurality of carbon fibers in a ceramic matrix to provide a carbon fiber-reinforced article, wherein the ceramic matrix is silicon carbide.
A membrane casing configured to watertightly house a prismatic membrane element for filtering raw water, the membrane casing comprising: a prismatic casing main body configured to house the prismatic membrane element; a lid body configured to fit through an opening end of the prismatic casing main body and configured to be movable in an axial direction of the prismatic casing main body while maintaining an attitude and while securing watertightness with the prismatic casing main body; and wherein a seal member is disposed on an outer peripheral edge surface of the lid body to ensure watertightness with an inner peripheral face of the prismatic casing main body, and wherein the inner peripheral face of the prismatic casing main body is smooth at least in a moving range of the seal member, a pressing mechanism configured to press the lid body to press and hold the prismatic membrane element housed in the prismatic casing main body, wherein the membrane casing is configured to allow replacement of the prismatic membrane element, wherein the pressing mechanism comprises: a supporting unit configured to be supported by the prismatic casing main body; and a maintaining unit configured to adjustably maintain relative positions of the supporting unit and the lid body along the axial direction of the prismatic casing main body. a prismatic casing main body configured to house the prismatic membrane element; a lid body configured to fit through an opening end of the prismatic casing main body and configured to be movable in an axial direction of the prismatic casing main body while maintaining an attitude and while securing watertightness with the prismatic casing main body; and wherein a seal member is disposed on an outer peripheral edge surface of the lid body to ensure watertightness with an inner peripheral face of the prismatic casing main body, and wherein the inner peripheral face of the prismatic casing main body is smooth at least in a moving range of the seal member, a pressing mechanism configured to press the lid body to press and hold the prismatic membrane element housed in the prismatic casing main body, wherein the membrane casing is configured to allow replacement of the prismatic membrane element, wherein the pressing mechanism comprises: a supporting unit configured to be supported by the prismatic casing main body; and a maintaining unit configured to adjustably maintain relative positions of the supporting unit and the lid body along the axial direction of the prismatic casing main body. a supporting unit configured to be supported by the prismatic casing main body; and a maintaining unit configured to adjustably maintain relative positions of the supporting unit and the lid body along the axial direction of the prismatic casing main body.
Glazing, capable of undergoing a heat treatment of the tempering or bending type, comprising at least one multilayer coating deposited on a glass sheet, the multilayer coating comprising, in sequence starting from the glass sheet, at least: a) a first dielectric, comprising at least one layer comprising a mixed zinc/tin oxide containing at least 12% of tin, preferably at least 20% of tin, b) a first silver-based infrared-reflecting layer, d) a second dielectric, e) a second silver-based infrared-reflecting layer, g) a third dielectric, comprising at least one layer comprising a zinc/tin mixed oxide containing at least 12% of tin, preferably at least 20% of tin, h) an upper protective layer, the coating being characterized in that the upper protective layer h) is based on nitride or oxynitride of Ti, Zr, Hf, V, Nb, Ta, Cr, of their alloys, or based on nitride or on oxynitride of alloy of one or more of these metals with Al and/or B. a) a first dielectric, comprising at least one layer comprising a mixed zinc/tin oxide containing at least 12% of tin, preferably at least 20% of tin, b) a first silver-based infrared-reflecting layer, d) a second dielectric, e) a second silver-based infrared-reflecting layer, g) a third dielectric, comprising at least one layer comprising a zinc/tin mixed oxide containing at least 12% of tin, preferably at least 20% of tin, h) an upper protective layer, the coating being characterized in that the upper protective layer h) is based on nitride or oxynitride of Ti, Zr, Hf, V, Nb, Ta, Cr, of their alloys, or based on nitride or on oxynitride of alloy of one or more of these metals with Al and/or B.
An isolated and chemically treated portion of calf pericardium tissue comprising: an elastin content of at least 366 micrograms per milligram dry weight, a ratio of hydroxyproline to proline greater than 1.0, wherein the calf is less than 30 days old; and wherein amino acid residues in the tissue portion are synthetically, chemically cross-linked by glutaraldehyde. an elastin content of at least 366 micrograms per milligram dry weight, a ratio of hydroxyproline to proline greater than 1.0, wherein the calf is less than 30 days old; and wherein amino acid residues in the tissue portion are synthetically, chemically cross-linked by glutaraldehyde.
A polymer having a density of from about 0.94 g/cm 3 to about 0.96 g/ cm 3 and a primary structure parameter 2 value of greater than about 8.9 wherein the polymer has an environmental stress crack resistance of equal to or greater than about 1000 hours when measured in accordance with ASTM D 1693 condition A, wherein the polymer comprises polyethylene or a copolymer of ethylene and a comonomer comprising an alpha olefin, wherein the polydispersity index of the polymer is from 5 to 32 and wherein the polymer has a weight average molecular weight of from about 70 kg/mol to about 160 kg/mol.
A linkage for holding and/or support of tent fabrics (3, 5) comprising several segments that can be connected together to form an arch that can be supported with both ends (13, 14) on the ground, in which the individual segments can be connected together by intermediate elements that can be inserted into or pushed onto them, characterised in that, a tensioning element is hung from each of the intermediate elements on the inside of an arch, with the tensioning element tensioned against the linkage in the area at the ends (13,14) of the linkage, against a base of the tent and/or against the ground.
A heat exchanger comprising a shell containing an assembly of heat exchange elements in the form of tubes defining at least two independent fluid circulation circuits, the shell further comprising at least one filtering element associated with a fluid circuit and arranged inside the shell between an inlet opening of the shell and an inlet face of the fluid into a fluid circuit, such that the filtering element is planar, the heat exchanger comprising at least one bearing element (30, 301, 302, 303, 304, 305) keeping one face of the filtering element at a predetermined distance away from said inlet face, substantially parallel thereto, the bearing element bearing against said face of the filtering element or against said inlet face, without any means of connection between the bearing element and said face, characterized in that the heat exchanger comprises at least one bearing element arranged at a distance away from a peripheral edge of the filtering element.
Applicator system with an ear, nose and throat applicator, wherein the applicator comprises a connector which is preferably simultaneously designed as a hand piece, and a doser, a supply hose which feeds the applicator with the substance to be applied, and a coupling element connected to the hose, wherein the connector and the doser are coupled to one another in a detachable manner, preferably in a detachable manner without tools, characterized in that the doser forms a coupling sleeve into which a coupling nipple (16a; 16b) of the coupling element connected to the supply hose is inserted in a fluid-tight manner, or vice versa, that, by coupling the doser to the connector, the coupling nipple (16a; 16b) is fixed in the direction of the longitudinal axis into the coupling sleeve, that the coupling element comprises a holding groove, wherein, in operational status, a holding element is pushed on the holding groove of the coupling element and positively secures the coupling element in operational status against being pulled out of the connector.
A method of operating a wind turbine comprising at least one rotor blade, the method comprising: measuring a load at a root end of the rotor blade, the load being caused by mechanical deformation of the blade; measuring an acceleration at a location on the rotor blade outboard from the root end, the acceleration being caused by transient loads acting on the rotor blade; and determining a transient load on the rotor blade attributable to the acceleration; determining a predicted load at the root end of the rotor blade by combining the measured load at the root end of the rotor blade with the transient load, and controlling the wind turbine based upon the predicted load to maintain the load on the rotor blade below a predetermined threshold level; characterized in that the wind turbine is controlled to increase the energy capture of the rotor blade if the predicted load on the rotor blade is below the predetermined threshold level. measuring a load at a root end of the rotor blade, the load being caused by mechanical deformation of the blade; measuring an acceleration at a location on the rotor blade outboard from the root end, the acceleration being caused by transient loads acting on the rotor blade; and determining a transient load on the rotor blade attributable to the acceleration; determining a predicted load at the root end of the rotor blade by combining the measured load at the root end of the rotor blade with the transient load, and controlling the wind turbine based upon the predicted load to maintain the load on the rotor blade below a predetermined threshold level; characterized in that the wind turbine is controlled to increase the energy capture of the rotor blade if the predicted load on the rotor blade is below the predetermined threshold level.
A method for inhibiting the occurrence of a pyrolysis deposit in a pyrolysis gasification system, the method comprising the steps of: gasifying biomass through pyrolysis in a pyrolysis gasification furnace; and separating, in a solid-gas separation unit, a pyrolysis gas and a carbide continuously formed through pyrolysis of the biomass; characterized in that the method further comprises the steps of: feeding an oxygen-containing gas to the solid-gas separation unit during operation of the pyrolysis gasification system; and introducing a mixed gas from the solid-gas separation unit to a combustion furnace through a pipe which constitutes a pyrolysis gas line, wherein the mixed gas is a mixture of the pyrolysis gas and the oxygen-containing gas. gasifying biomass through pyrolysis in a pyrolysis gasification furnace; and separating, in a solid-gas separation unit, a pyrolysis gas and a carbide continuously formed through pyrolysis of the biomass; feeding an oxygen-containing gas to the solid-gas separation unit during operation of the pyrolysis gasification system; and introducing a mixed gas from the solid-gas separation unit to a combustion furnace through a pipe which constitutes a pyrolysis gas line, wherein the mixed gas is a mixture of the pyrolysis gas and the oxygen-containing gas.
A rocket motor system with modifiable delay including: a rocket motor comprising a bulkhead (21; 210) and a delay disposed within the bulkhead (21; 210) to provide for achieving a selection of alternative delay times, and a delay modification tool (50; 500) including: a body (52; 520), a drill bit operable relative to the body (52; 520), and a knob operably connected to the drill bit and operatively disposed relative to the body (52; 520), characterised in that the body (52; 520), drill bit and knob of the delay modification tool (50; 500) are operatively configured for engagement of the body (52; 520) with the bulkhead (21; 210) of the rocket motor and engagement of the drill bit with the delay within the bulkhead (21; 210). a rocket motor comprising a bulkhead (21; 210) and a delay disposed within the bulkhead (21; 210) to provide for achieving a selection of alternative delay times, and a delay modification tool (50; 500) including: a body (52; 520), a drill bit operable relative to the body (52; 520), and a knob operably connected to the drill bit and operatively disposed relative to the body (52; 520), characterised in that the body (52; 520), drill bit and knob of the delay modification tool (50; 500) are operatively configured for engagement of the body (52; 520) with the bulkhead (21; 210) of the rocket motor and engagement of the drill bit with the delay within the bulkhead (21; 210). a body (52; 520), a drill bit operable relative to the body (52; 520), and a knob operably connected to the drill bit and operatively disposed relative to the body (52; 520),
An optical fiber cable comprising: (a) a bundle of at least three multifiber tight buffer encasement units, the multifiber tight buffer encasement units each comprising: i. at least two optical fibers encased in a UV cured acrylate polymer matrix, the polymer matrix having a first tensile modulus, ii. a UV cured acrylate polymer layer encasing the polymer matrix, the polymer layer having a second tensile modulus where the second tensile modulus is greater than the first tensile modulus, (b) a thin skin containment layer surrounding the bundle of multifiber tight buffer encasement units, and conforming to the shape of the bundle of multifiber tight buffer encasement units, wherein the tensile modulus of the polymer matrix is in the range of 0.1 to 50 MPa, and wherein the tensile modulus of the polymer layer is in the range 100 MPa to 2000 MPa. (a) a bundle of at least three multifiber tight buffer encasement units, the multifiber tight buffer encasement units each comprising: i. at least two optical fibers encased in a UV cured acrylate polymer matrix, the polymer matrix having a first tensile modulus, ii. a UV cured acrylate polymer layer encasing the polymer matrix, the polymer layer having a second tensile modulus where the second tensile modulus is greater than the first tensile modulus, i. at least two optical fibers encased in a UV cured acrylate polymer matrix, the polymer matrix having a first tensile modulus, ii. a UV cured acrylate polymer layer encasing the polymer matrix, the polymer layer having a second tensile modulus where the second tensile modulus is greater than the first tensile modulus, (b) a thin skin containment layer surrounding the bundle of multifiber tight buffer encasement units, and conforming to the shape of the bundle of multifiber tight buffer encasement units,
Installation for the production and storage of renewable energy provided for jointly supplying an electricity-consuming unit connected to the grid, said installation comprising means for generating electricity from renewable energy, an inverter to convert the electricity supplied by said installation to an alternating current compatible with said grid, a hydrogen production unit comprising an electrolyser provided to produce hydrogen and oxygen when powered by said means for generating electricity from renewable energy, a tank, and a compressor for injecting the hydrogen provided by the electrolyser into the tank; said means for generating electricity from renewable energy being provided to supply the energy which they produce to the energy consumption unit as a priority until the connected load of this unit is reached, a branch connection unit being connected to the output of said means for generating electricity, in such a way as to direct to the electrolyser the remainder of the electricity produced when the power produced by said means for generating electricity from renewable energy exceeds said connected load; the installation being characterised in that it comprises a detector provided to measure the electrical power supplied by said grid to said electricity-consuming unit and in that said branch connection means are provided to direct electricity to the electrolyser only when said power measured by said detector is negative or zero.
A nut including a nut main body having a tapped hole formed therein, the nut comprising: an annular member formed on the side of a top surface of the nut main body; and an outer frame member formed on the side of an outer edge of the annular member, wherein: the annular member includes a second end portion in contact with the top surface of the nut main body and a first end portion located opposite to the second end portion, a top surface of the first end portion is located above a top surface of the second end portion, before the nut is tightened, a first gap is formed between the first end portion and the top surface of the nut main body, and also in a state where the nut is tightened, the first gap is present between the annular member and the top surface of the nut main body. an annular member formed on the side of a top surface of the nut main body; and an outer frame member formed on the side of an outer edge of the annular member, wherein: the annular member includes a second end portion in contact with the top surface of the nut main body and a first end portion located opposite to the second end portion, a top surface of the first end portion is located above a top surface of the second end portion, before the nut is tightened, a first gap is formed between the first end portion and the top surface of the nut main body, and also in a state where the nut is tightened, the first gap is present between the annular member and the top surface of the nut main body. the annular member includes a second end portion in contact with the top surface of the nut main body and a first end portion located opposite to the second end portion, a top surface of the first end portion is located above a top surface of the second end portion, before the nut is tightened, a first gap is formed between the first end portion and the top surface of the nut main body, and also in a state where the nut is tightened, the first gap is present between the annular member and the top surface of the nut main body.
A cylinder head cover module for arrangement on a cylinder head of an internal combustion engine, wherein the cylinder head cover module has a cover body and a camshaft arranged therein, and wherein the cover body has an opening, whereas a bearing element is press-fitted into the opening, wherein the camshaft is rotatably mounted in the bearing element and wherein the bearing element seals off the opening of the cover body from the exterior, characterized in that the bearing element has a closure surface, which fits together with the cover body so that the cover body has an enclosed shell surface.