mhurhangee/ep-ind-claims huggingface dataset:
An outboard motor comprising: an engine including a piston that reciprocates rectilinearly and a crankshaft that rotates around a crankshaft axis extending in an up-down direction; an engine cover that covers the engine; an intake pipe disposed between an outer surface of the engine and an inner surface of the engine cover and connected to a first outer surface of the engine along the crankshaft axis to supply air to the engine; and a battery disposed between a second outer surface (5G, 5B, 5C, 5D, 5E) of the engine, which is different from the first outer surface, and the inner surface of the engine cover; and the engine cover includes an outside- air intake port to take in outside air, the outboard motor characterized in that the battery faces the outside-air intake port. an engine including a piston that reciprocates rectilinearly and a crankshaft that rotates around a crankshaft axis extending in an up-down direction; an engine cover that covers the engine; an intake pipe disposed between an outer surface of the engine and an inner surface of the engine cover and connected to a first outer surface of the engine along the crankshaft axis to supply air to the engine; and a battery disposed between a second outer surface (5G, 5B, 5C, 5D, 5E) of the engine, which is different from the first outer surface, and the inner surface of the engine cover; and the engine cover includes an outside- air intake port to take in outside air, the outboard motor characterized in that the battery faces the outside-air intake port.
A fluid ejection device (10, 200, 400), comprising: a fluid ejection die (12, 202) including a substrate (16, 210) and a fluid architecture (18, 220) supported by the substrate (16, 210); and a molded body (14, 115, 260) molded around the fluid ejection die (12, 202), the molded body (14, 115, 260) interlocked with the fluid architecture (18, 220) of the fluid ejection die (12, 202), wherein the fluid architecture (18, 220) includes a barrier layer supported by the substrate (16, 210) and an orifice layer supported by the barrier layer, the barrier layer including a plurality of fluid ejection chambers, the orifice layer including a plurality of fluid ejection orifices communicated with the fluid ejection chambers characterized in that: the orifice layer is recessed relative to the barrier layer, and the molded body (14, 115, 260) is interlocked with the fluid architecture (18, 220) at the orifice layer. a fluid ejection die (12, 202) including a substrate (16, 210) and a fluid architecture (18, 220) supported by the substrate (16, 210); and a molded body (14, 115, 260) molded around the fluid ejection die (12, 202), the molded body (14, 115, 260) interlocked with the fluid architecture (18, 220) of the fluid ejection die (12, 202), wherein the fluid architecture (18, 220) includes a barrier layer supported by the substrate (16, 210) and an orifice layer supported by the barrier layer, the barrier layer including a plurality of fluid ejection chambers, the orifice layer including a plurality of fluid ejection orifices communicated with the fluid ejection chambers characterized in that: the orifice layer is recessed relative to the barrier layer, and the molded body (14, 115, 260) is interlocked with the fluid architecture (18, 220) at the orifice layer.
A build material for use in a three-dimensional printing system comprising: an oligomeric curable material being a urethane (meth)acrylate having a viscosity ranging from 10,000 cP (mPas) to 300,000 cP (mPas) at 50 °C present in the build material composition in an amount ranging from about 20 weight percent to about 40 weight percent; a reactive component that is solid at about 25°C; and at least one diluent containing one or more (meth)acrylate moieties, wherein the reactive component comprises at least one chemical moiety that is polymerizable with a chemical moiety contained in the oligomeric curable material and/or the at least one diluent, wherein the reactive component comprises 5 to 10 percent by weight of the build material, wherein the reactive component comprises a nitrogen-containing ring, wherein the build material exhibits a melting point range centered at a temperature greater than 40°C, wherein the build material has a viscosity ranging from about 9.5 cP(mPas) to about 12.5 cP(mPas) at a temperature of about 65°C, wherein the build material when cured exhibits a break elongation of 10-24% when measured according to ASTM D 638, wherein the build material when cured exhibits a tensile strength of 35-42 MPa when measured according to ASTM D 638, and wherein the build material further comprises a non-reactive component that does not comprise a chemical moiety that is polymerizable with a chemical moiety contained in the oligomeric curable material or the at least one diluent. an oligomeric curable material being a urethane (meth)acrylate having a viscosity ranging from 10,000 cP (mPas) to 300,000 cP (mPas) at 50 °C present in the build material composition in an amount ranging from about 20 weight percent to about 40 weight percent; a reactive component that is solid at about 25°C; and at least one diluent containing one or more (meth)acrylate moieties, wherein the reactive component comprises at least one chemical moiety that is polymerizable with a chemical moiety contained in the oligomeric curable material and/or the at least one diluent, wherein the reactive component comprises 5 to 10 percent by weight of the build material, wherein the reactive component comprises a nitrogen-containing ring, wherein the build material exhibits a melting point range centered at a temperature greater than 40°C, wherein the build material has a viscosity ranging from about 9.5 cP(mPas) to about 12.5 cP(mPas) at a temperature of about 65°C, wherein the build material when cured exhibits a break elongation of 10-24% when measured according to ASTM D 638, wherein the build material when cured exhibits a tensile strength of 35-42 MPa when measured according to ASTM D 638, and wherein the build material further comprises a non-reactive component that does not comprise a chemical moiety that is polymerizable with a chemical moiety contained in the oligomeric curable material or the at least one diluent.
A mandrel configured to be used in a winding process for manufacturing a jelly roll type electrode assembly using a long sheet type stack of a cathode/separator/anode structure, wherein the mandrel is oval in a section perpendicular to a rotational central axis of the mandrel and is divided into a first mandrel part located at one side of a central region of the mandrel, an end of the sheet type stack being fixedly fitted in the central region of the mandrel, and a second mandrel part located at the other side of the central region of the mandrel, and the first mandrel part and the second mandrel part each comprise a main body part (14, 24) having a region in which the sheet type stack is fitted in an engaged state and characterized by an exchange part (12, 22), detachably mounted to the main body part, having an end of a major axis of the mandrel, in the section perpendicular to the rotational central axis of the mandrel.
Self-supporting tank comprising a tank body comprising several segments (2, 3, 4, 5), in which the segments (2, 3, 4, 5) are assembled by welding them to each other and are covered by a first skin made of a composite material continuously surrounding all the segments (2, 3, 4, 5), said first skin comprises a filamentary winding that holds the segments together, the first skin being covered with a lightweight honeycomb material, the lightweight honeycomb material being covered with an external skin made of a composite material.
A recombinant yeast cell comprising a heterologous polynucleotide encoding an aspartate 1-decarboxylase of the Class Insecta, Bivalvia, Branchiopoda, Gastropoda, or Leptocardii, wherein the cell is capable of producing 3-hydroxypropionic acid (3-HP), wherein the aspartate 1-decarboxylase comprises a glutamine at a residue corresponding to position 377 of the amino acid sequence of SEQ ID NO: 162, and a partial amino acid sequence having at least 75% sequence identity to amino acids 382-516 of SEQ ID NO: 162.
Method for forming foundry moulds and/or cores suitable for use in rapid prototyping of metallic alloys castings, comprising a step a) of sequential and controlled deposition of a plurality of superimposed layers (2, 2',...) of a granular compound comprising a pre-coated sand, a step b) of localized application on each of said layers (2, 2',...) of a laser beam with predetermined working parameters for at least partly fusing and/or polymerizing said compound producing its adhesion to the underlying layer (2, 2',...), in such a way as to realize said moulds and/or said cores and a supporting structure of tridimensional reticular shape, with different mechanical features, for said moulds and/or said cores, characterized in that it comprises a step c) of adjusting one or more of said working parameters of the laser beam in order to get said tridimensional reticular shape for said supporting structure and a step d) of removing said supporting structure at the end of forming and before using said moulds and/or cores.
Packaging and distribution assembly for a fluid product (14, 16), comprising: - a storage member, comprising a tubular reservoir able to receive a first fluid composition, said tubular reservoir having an elongated shape between a first and a second end, - a closed chamber in communication with the tubular reservoir, - a pressurization member, able to move axially with respect to the storage member, in such a way as to decrease a volume (132, 144) of said closed chamber; with the closed chamber being sealed from the air in a deployed configuration of the storage and pressurization members, corresponding to a maximum volume of the closed chamber; the assembly being characterized in that the storage member and the pressurization member comprise means (76, 78, 86) for breaking the seal of the closed chamber in a compact configuration of said storage and pressurization members, said compact configuration corresponding to a minimum volume of the closed chamber. - a storage member, comprising a tubular reservoir able to receive a first fluid composition, said tubular reservoir having an elongated shape between a first and a second end, - a closed chamber in communication with the tubular reservoir, - a pressurization member, able to move axially with respect to the storage member, in such a way as to decrease a volume (132, 144) of said closed chamber;
A borosilicate molecular sieve material having, in its calcined form, an X-ray diffraction pattern including the peaks listed in Table 1 below: Table 1 d-spacing (Å) Relative Intensity [100 x I/I(o)] % 11.74-11.34 60-100 9.50-9.10 30-80 8.68-8.28 10-40 5.64-5.44 20-60 4.52-4.42 10-50 4.28-4.18 10-40 3.96-3.86 40-80 3.69-3.59 30-70
An actuator assembly for adjusting at least one component of a seat, the actuator assembly comprising: a first traction device comprising a sheath and an inner member slidably arranged in the sheath, a second traction device comprising a cable or wire, and an actuator (20; 80; 100) comprising a spindle drive, said spindle drive comprising: a first member (21; 81) which is rotatably mounted, and a second member (22; 82) which is threadingly engaged with the first member (21; 81) and secured against rotation, wherein both the first traction device and the second traction device are coupled to the second member (22; 82) of the spindle drive, wherein the cable or wire of the second traction device is attached to the second member (22; 82) of the spindle drive, characterized in that an end of the sheath of the first traction device abuts on the second member (22; 82) to which the cable or wire of the second traction device is attached. a first traction device comprising a sheath and an inner member slidably arranged in the sheath, a second traction device comprising a cable or wire, and an actuator (20; 80; 100) comprising a spindle drive, said spindle drive comprising: a first member (21; 81) which is rotatably mounted, and a second member (22; 82) which is threadingly engaged with the first member (21; 81) and secured against rotation, a first member (21; 81) which is rotatably mounted, and a second member (22; 82) which is threadingly engaged with the first member (21; 81) and secured against rotation, wherein both the first traction device and the second traction device are coupled to the second member (22; 82) of the spindle drive, wherein the cable or wire of the second traction device is attached to the second member (22; 82) of the spindle drive, characterized in that an end of the sheath of the first traction device abuts on the second member (22; 82) to which the cable or wire of the second traction device is attached.
A method for preparing a dried composition with rehydration and storage stability, which comprises the steps of: (a) preparing an aqueous solution or dispersion comprising Venezuelan Equine Encephalitis Virus or replicon particles thereof; a salt, wherein the salt is sodium sulfate at an ionic strength from 50 mM to 400 mM; or wherein the salt is sodium chloride at an ionic strength from 100 mM to 500 mM; a surfactant, wherein the surfactant is human serum albumin; sucrose; and, optionally, a plasticizer comprising glycerol and/or a bulking agent, wherein the bulking agent is hydroxyethyl starch, dextran, mannitol, glycine, Ficoll or polyvinylpyrrolidone; maintaining the solution or dispersion at a pH from 7 to 9 prior to drying; and buffering the solution or dispersion with boric acid and a pharmaceutically acceptable salt of tetraborate prior to drying and (b) drying the aqueous dispersion to obtain a composition wherein the VEE or replicon particles thereof is dispersed in an amorphous glassy matrix comprising the surfactant and sucrose and, optionally, the plasticizer and / or the bulking agent. (a) preparing an aqueous solution or dispersion comprising Venezuelan Equine Encephalitis Virus or replicon particles thereof; a salt, wherein the salt is sodium sulfate at an ionic strength from 50 mM to 400 mM; or wherein the salt is sodium chloride at an ionic strength from 100 mM to 500 mM; a surfactant, wherein the surfactant is human serum albumin; sucrose; and, optionally, a plasticizer comprising glycerol and/or a bulking agent, wherein the bulking agent is hydroxyethyl starch, dextran, mannitol, glycine, Ficoll or polyvinylpyrrolidone; maintaining the solution or dispersion at a pH from 7 to 9 prior to drying; and buffering the solution or dispersion with boric acid and a pharmaceutically acceptable salt of tetraborate prior to drying and (b) drying the aqueous dispersion to obtain a composition wherein the VEE or replicon particles thereof is dispersed in an amorphous glassy matrix comprising the surfactant and sucrose and, optionally, the plasticizer and / or the bulking agent.
-(-)-1-(4-fluoro-5-isoquinolinesulfonyl)-2-methyl-1,4-homopiperazine, a salt thereof, or a solvate thereof for use in a method of preventing or treating ocular fundus disease, wherein the ocular fundus disease is diabetic retinopathy or diabetic macular edema.
A method for producing an apocarotenoid comprising the step of expressing in an Escherichia coli (E.coli) cell an expression module comprising an expression vector having a coding region encoding optimised apocarotenoid generating enzymes, the coding region being operably linked to a promoter, wherein the apocarotenoid is α-ionone, wherein said optimised apocarotenoid generating enzymes are LcyE and CCD1 that form an operon having the structure: LcyE-CCD1, wherein said LcyE is Lactuca sativa LcyE (LsLcyE) and is N-terminal truncated; and wherein the LcyE comprises an N-terminal truncation of 50 amino acids (ΔN50-LsLcyE). wherein the apocarotenoid is α-ionone, wherein said optimised apocarotenoid generating enzymes are LcyE and CCD1 that form an operon having the structure: LcyE-CCD1, wherein said LcyE is Lactuca sativa LcyE (LsLcyE) and is N-terminal truncated; and wherein the LcyE comprises an N-terminal truncation of 50 amino acids (ΔN50-LsLcyE).
Glueless body, in particular for a piece of furniture, comprising at least three wall elements (2, 10, 12), which can be connected to each other using their coupling means arranged in the area of their front sides, forming a self-contained framework characterised in that, as coupling means, in the area of each of the front sides, a groove and a spring have been arranged in such a way that, in a connected state of the wall elements (2, 10, 12), the respective groove and spring of one of the wall elements (2, 10, 12) mesh together with the other respective groove and spring of one of the adjacent wall elements (2, 10, 12) and the springs extend in a longitudinal direction (x) of the front sides, whereby the springs are divided into spring sections that are individually spaced apart from each other at a distance, whereby the distance of the spring sections to each other corresponds to at least one length of the spring sections measured in a longitudinal direction (x) and the grooves each have recesses.
A method for diagnosing a cancer in a subject, the method comprising the step of determining the expression level of DKK1 gene in a subject-derived biological sample, wherein an increase in the expression level as compared to a normal control level of the gene indicates that the subject suffers from a cancer, wherein the cancer is selected from the group consisting of gastric cancer, bile duct cancer, and cervical cancer, and the biological sample is a blood derived sample.
Insulated container for preserving and/or transporting perishable or heat-sensitive products, of the type comprising a cryogenic compartment, capable of receiving a mass of a cryogen, for example, dry ice, and a compartment for storing products to be preserved or transported, where the cooling occurs by contact of air of the compartment for storing products with a cold plate constituting the lower portion of the cryogenic compartment, the insulating container comprising at least one fan, positioned within the compartment for storing products in order to be able to create a forced convection in the compartment for storing products; characterised in that the insulated container further comprises at least one "Seebeck" module, utilising the temperature difference between said mass of cryogen and the ambient temperature in the air of the compartment for storing products, allowing the generation of a voltage which can be used for the electric supply of the fan(s), the "Seebeck" effect being obtained by implementing: - a "cold" side which is a metal surface, constituting a portion of the "Seebeck" module, and which is in contact with the cold source formed by the mass of cryogen, for example by being in contact with the cold plate constituting the lower portion of the cryogenic compartment or with one of the side surfaces of this cryogenic compartment; - a "hot" side which is provided by the temperature of the atmosphere within the compartment for storing products. - a "cold" side which is a metal surface, constituting a portion of the "Seebeck" module, and which is in contact with the cold source formed by the mass of cryogen, for example by being in contact with the cold plate constituting the lower portion of the cryogenic compartment or with one of the side surfaces of this cryogenic compartment; - a "hot" side which is provided by the temperature of the atmosphere within the compartment for storing products.
A method comprising the steps of: - obtaining a grain-removed picture from a picture; - obtaining film grains by subtracting said film grain-removed picture from said picture; and - filtering a grain random noise calculated according to a standard deviation of a statistical distribution of said film grains to determine new film grains different from the obtained film grains. - obtaining a grain-removed picture from a picture; - obtaining film grains by subtracting said film grain-removed picture from said picture; and - filtering a grain random noise calculated according to a standard deviation of a statistical distribution of said film grains to determine new film grains different from the obtained film grains.
Tyre having a radial carcass reinforcement comprising a crown reinforcement formed of at least two working crown layers of reinforcing elements (41, 43), a layer of rubber compound being arranged between at least the ends of said at least two working crown layers (41, 43), said crown reinforcement being capped radially with a tread, said tread being joined to two beads via two sidewalls, the crown reinforcement comprising at least one layer of circumferential reinforcing elements, said tread comprising a tread surface intended to come into contact with a road surface and form a contact surface, the tensile modulus of elasticity at 10% elongation of the layer being greater than 9 MPa, the measurement of said modulus being performed under tension according to standard AFNOR-NFT-46002 of September 1988 in normal temperature and relative humidity conditions according to standard AFNOR-NFT-40101 of December 1979, the maximum value of tan(δ), denoted tan(δ) max, of the layer C being less than 0.100, the measurement of tan(δ) being performed according to Standard ASTM D 5992-96, characterized in that said tread consists of at least one central part extending at least in the region of the equatorial plane and two axially exterior parts and has, at least in said central part, at least one longitudinally-oriented cut, in that the depth, measured on a new tyre in at least said central part, of said at least one longitudinally-oriented cut is greater than or equal to 40% of the thickness of the tread, and in that the ratio of the width (D f) measured at the bottom of said at least one longitudinally-oriented cut to the width (d s) measured at the surface of the tread on a new tyre of said at least one longitudinally-oriented cut is greater than 2.
Turbomachinery comprising: one of a compressor, a pump, a fan, and a turbine; the turbomachinery further comprising: a contra-rotating compressor; first and second sets of rotors (20a, 20b) configured to operate on a working fluid; and first and second sets of electric machines (21a, 12b) coupled to the respective first and second rotors (20a, 20b); wherein the electric machines comprise electric motors (21a, 21b); characterised in that the turbomachinery further comprises: a coupling arrangement arranged to couple adjacent rotors (20a, 20b) of the first and second rotor sets to provide for fixed ratio, contra-rotation of the first and second rotor sets (20a, 20b). one of a compressor, a pump, a fan, and a turbine; the turbomachinery further comprising: a contra-rotating compressor; first and second sets of rotors (20a, 20b) configured to operate on a working fluid; and first and second sets of electric machines (21a, 12b) coupled to the respective first and second rotors (20a, 20b); wherein the electric machines comprise electric motors (21a, 21b); characterised in that the turbomachinery further comprises: a coupling arrangement arranged to couple adjacent rotors (20a, 20b) of the first and second rotor sets to provide for fixed ratio, contra-rotation of the first and second rotor sets (20a, 20b). a contra-rotating compressor; first and second sets of rotors (20a, 20b) configured to operate on a working fluid; and first and second sets of electric machines (21a, 12b) coupled to the respective first and second rotors (20a, 20b); wherein the electric machines comprise electric motors (21a, 21b); characterised in that the turbomachinery further comprises: a coupling arrangement arranged to couple adjacent rotors (20a, 20b) of the first and second rotor sets to provide for fixed ratio, contra-rotation of the first and second rotor sets (20a, 20b).