mhurhangee/ep-ind-claims huggingface dataset:
Composite material comprising: a plastics matrix and a filler, characterized in that - the filler is grinded asbestos-cement, preferably grinded asbestos-cement waste, in a ratio of up to 20% by weight, preferably between 12 and 20 % by weight based on the total amount of composite material, having the particle size between 2 micrometers and 0, 4 mm, and - the plastic material is PET waste. - the filler is grinded asbestos-cement, preferably grinded asbestos-cement waste, in a ratio of up to 20% by weight, preferably between 12 and 20 % by weight based on the total amount of composite material, having the particle size between 2 micrometers and 0, 4 mm, and - the plastic material is PET waste.
A multi-dose ophthalmic composition, comprising: first polyol, the first polyol being mannitol, wherein the first polyol is at least 0.25 but less than 1.5 w/v % of the composition; second polyol, the second polyol being propylene glycol wherein the second polyol is at least 0.1 but less than 5 w/v % of the composition; borate, wherein the borate is at least 0.25 w/v % of the composition but less than 0.5 w/v % of the composition; antimicrobial preservative wherein the preservative is at least 0.0003 but less than 0.003 w/v % of the composition and wherein the preservative is a polymeric quaternary ammonium compound; travoprost; and water; wherein the pH of the composition is from 6.4 to 7.2. first polyol, the first polyol being mannitol, wherein the first polyol is at least 0.25 but less than 1.5 w/v % of the composition; second polyol, the second polyol being propylene glycol wherein the second polyol is at least 0.1 but less than 5 w/v % of the composition; borate, wherein the borate is at least 0.25 w/v % of the composition but less than 0.5 w/v % of the composition; antimicrobial preservative wherein the preservative is at least 0.0003 but less than 0.003 w/v % of the composition and wherein the preservative is a polymeric quaternary ammonium compound; travoprost; and water; wherein the pH of the composition is from 6.4 to 7.2.
An image processing apparatus for a vehicle, the apparatus comprising: an additional-image generation portion configured to generate an additional image (Ii) to be added to a captured image (Ic); and an output image generation portion configured to generate an output image (Io) including the captured image (Ic) and the additional image (Ii); the additional image (Ii) including a first marking image indicating a first line and a first additional image (Ie) indicating an object, the first line being along a vehicle front and rear direction and away from an end portion of the vehicle in a vehicle width direction by a first distance being a vehicle width of the vehicle or longer, wherein when the object extracted from the captured image (Ic) is determined to be located within the first distance indicated by the first line from the vehicle in the vehicle width direction, the additional-image generation portion generates the first additional image (Ie) based on the object extracted from the captured image (Ic). an additional-image generation portion configured to generate an additional image (Ii) to be added to a captured image (Ic); and an output image generation portion configured to generate an output image (Io) including the captured image (Ic) and the additional image (Ii); the additional image (Ii) including a first marking image indicating a first line and a first additional image (Ie) indicating an object, the first line being along a vehicle front and rear direction and away from an end portion of the vehicle in a vehicle width direction by a first distance being a vehicle width of the vehicle or longer, wherein when the object extracted from the captured image (Ic) is determined to be located within the first distance indicated by the first line from the vehicle in the vehicle width direction, the additional-image generation portion generates the first additional image (Ie) based on the object extracted from the captured image (Ic).
A high-pressure discharge lamp comprising: - an inner vessel with a discharge chamber, - with at least two electrodes extending into the discharge chamber, and - an outer bulb surrounding the inner vessel, characterized in that the discharge chamber contains an ionizable filling comprising: - at least one rare gas, - 0 mg to 10 mg of mercury, and - a metal halide mixture comprising: * at least 40% by weight of sodium halide, * 25 to 55% by weight of scandium halide, * 1 to 15% by weight of indium halide, and * 0 to 34% by weight of thallium halide, whereby percentages by weight indicated for the various metal halides, such as di- or triiodide, mono-, di-, or trichloride, and mono-, di-, or tribromide, with the exception of scandium halide, relate to the corresponding metal mono-iodide as part of the total weight of the metal halide mixture, in relation to the corresponding iodide of the ionizable filling. - an inner vessel with a discharge chamber, - with at least two electrodes extending into the discharge chamber, and - an outer bulb surrounding the inner vessel, - at least one rare gas, - 0 mg to 10 mg of mercury, and - a metal halide mixture comprising: * at least 40% by weight of sodium halide, * 25 to 55% by weight of scandium halide, * 1 to 15% by weight of indium halide, and * 0 to 34% by weight of thallium halide, whereby percentages by weight indicated for the various metal halides, such as di- or triiodide, mono-, di-, or trichloride, and mono-, di-, or tribromide, with the exception of scandium halide, relate to the corresponding metal mono-iodide as part of the total weight of the metal halide mixture, in relation to the corresponding iodide of the ionizable filling. * at least 40% by weight of sodium halide, * 25 to 55% by weight of scandium halide, * 1 to 15% by weight of indium halide, and * 0 to 34% by weight of thallium halide,
Herbicidal compositions, comprising, as herbicidally active constituents, A) aclonifen (component A), B) pendimethalin (component B) and C) diflufenican (component C), comprising the respective herbicide components in the application rates stated below: component A: 80-3000 g of AS/ha, particularly preferably 80-1000 g of AS/ha, of aclonifen; component B: 500-2500 g of AS/ha, particularly preferably 500-1200 g of AS/ha, of pendimethalin; component C: 10-300 g of AS/ha, particularly preferably 30-200 g of AS/ha, of diflufenican. A) aclonifen (component A), B) pendimethalin (component B) and C) diflufenican (component C), component A: 80-3000 g of AS/ha, particularly preferably 80-1000 g of AS/ha, of aclonifen; component B: 500-2500 g of AS/ha, particularly preferably 500-1200 g of AS/ha, of pendimethalin; component C: 10-300 g of AS/ha, particularly preferably 30-200 g of AS/ha, of diflufenican.
A method for coating a molded part, in particular a molded part produced by injection molding, comprising the following steps: a. arranging the molded part in a cavity of a molding tool, wherein a partial cavity between the molded part and a first molding-tool half of the molding tool remains when a closing force is applied to the molding tool at a first closing-force level; b. introducing a coating mass into the partial cavity; c. curing/cross-linking the coating mass; characterized in that the closing force of the molding tool is increased during the curing/cross-linking of the coating mass, wherein the increase in the closing force causes a volume reduction of the partial cavity due to elastic deformation of the molding tool and/or elastic deformation of the molded part. a. arranging the molded part in a cavity of a molding tool, wherein a partial cavity between the molded part and a first molding-tool half of the molding tool remains when a closing force is applied to the molding tool at a first closing-force level; b. introducing a coating mass into the partial cavity; c. curing/cross-linking the coating mass; characterized in that the closing force of the molding tool is increased during the curing/cross-linking of the coating mass, wherein the increase in the closing force causes a volume reduction of the partial cavity due to elastic deformation of the molding tool and/or elastic deformation of the molded part.
A current shunt, comprising: a conductive portion comprising conductive plates extending between current terminals, the conductive portion having an upper surface defining a width; and a sensing element overlying the upper surface of said conductive portion; said sensing element overlying 100% of the surface area of said conductive portion such that the coupling coefficient between the sensing element and the conductive portion is increased at high frequencies where increased current flows at the edges of the current shunt. a conductive portion comprising conductive plates extending between current terminals, the conductive portion having an upper surface defining a width; and a sensing element overlying the upper surface of said conductive portion; said sensing element overlying 100% of the surface area of said conductive portion such that the coupling coefficient between the sensing element and the conductive portion is increased at high frequencies where increased current flows at the edges of the current shunt.
A method for performing at least one processing step in at least one processing station on an animal carcass conveyed suspended along a conveying path in a slaughter line by scanning the animal carcass, digitising the scan data and supplying said data to a controller of a handling apparatus such as a robot by means of which the at least one processing step is performed, the processing steps performed in the one processing station during conveying of the animal carcass including both opening the pelvic bone of the animal carcass and opening the abdominal wall and breastbone centrally using a cutting tool with a cutting blade rotating about an axis of rotation and covered in places by a protective cover arranged so as to be rotatable about the axis of rotation, a pelvic bone blade for opening a pelvic bone of the animal carcass extending from the cutting tool radially relative to the axis of rotation, the pelvic bone blade being rotated or swivelled into a first position in which, as first processing step, the pelvic bone of the animal carcass is opened with the pelvic bone blade, and the pelvic bone blade being rotated or swivelled into a second position once the pelvic bone has been opened, in which second position, as second processing step, the abdominal wall and breastbone of the animal carcass are severed centrally using the rotating cutting blade, characterised in that processing of the animal carcass is performed in continuous operation, i.e. the cutting tool guided by the handling apparatus travels synchronously with the conveying movement of the conveyor.
An enclosure defining an interior and an exterior, the enclosure comprising: a frame; a plurality of panels coupled to the frame and configured to define the interior and the exterior of the enclosure; a floor defining a bottom of the enclosure and comprising an entry module coupled to the enclosure and configured to facilitate passage of at least one cable into the enclosure, characterized in that the entry module comprises: a first module plate comprising a first edge defining a first edge profile; and a second module plate comprising a second edge defining a second edge profile, wherein the first module plate lies substantially in a first plane and the second module plate lies substantially in a second plane, and wherein the first module plate and the second module plate are configured to approach one another, such that the first edge profile and the second edge profile define at least one aperture therebetween and such that the first plane and the second plane are substantially coplanar with respect to one another. a frame; a plurality of panels coupled to the frame and configured to define the interior and the exterior of the enclosure; a floor defining a bottom of the enclosure and comprising an entry module coupled to the enclosure and configured to facilitate passage of at least one cable into the enclosure, characterized in that the entry module comprises: a first module plate comprising a first edge defining a first edge profile; and a second module plate comprising a second edge defining a second edge profile, wherein the first module plate lies substantially in a first plane and the second module plate lies substantially in a second plane, and wherein the first module plate and the second module plate are configured to approach one another, such that the first edge profile and the second edge profile define at least one aperture therebetween and such that the first plane and the second plane are substantially coplanar with respect to one another. a first module plate comprising a first edge defining a first edge profile; and a second module plate comprising a second edge defining a second edge profile, wherein the first module plate lies substantially in a first plane and the second module plate lies substantially in a second plane, and wherein the first module plate and the second module plate are configured to approach one another, such that the first edge profile and the second edge profile define at least one aperture therebetween and such that the first plane and the second plane are substantially coplanar with respect to one another.
A photovoltaic module comprising an encapsulant layer and a solar cell assembly, said encapsulant layer comprising an encapsulant composition, comprising a blend of a copolymer of ethylene and vinyl acetate and an anti-potential-induced degradation enhancing copolymer A, characterized in that the encapsulant composition provides power output stability above >90% of the initial power output after an exposure to damp heat (85 °C/85%RH) and voltage potential of 1500V for up to 96 hours, wherein the copolymer A is an E/X copolymer, wherein E is ethylene and X is half-ester of maleic anhydride and the E/X copolymer includes maleic anhydride mono-methyl ester, maleic anhydride mono-ethyl ester (MAME), maleic anhydride mono-propyl ester, maleic anhydride mono-butyl ester or a combination of those, in the range of 12 to 25 wt.% of the polymer weight; or wherein the copolymer A is an E/X/Y copolymer, where E is ethylene, X is half-ester of maleic anhydride and X is maleic anhydride mono-methyl ester, maleic anhydride mono-ethyl ester (MAME), maleic anhydride mono-propyl ester, maleic anhydride mono-butyl ester or a combination of those, in the range of 6 to 20 wt.% of the polymer weight, and Y is methyl acrylate, ethyl acrylate, n-butyl acrylate or iso-butyl acrylate, or a mixture of those in the range of 1 to 30 wt.%,of the polymer weight. wherein the copolymer A is an E/X copolymer, wherein E is ethylene and X is half-ester of maleic anhydride and the E/X copolymer includes maleic anhydride mono-methyl ester, maleic anhydride mono-ethyl ester (MAME), maleic anhydride mono-propyl ester, maleic anhydride mono-butyl ester or a combination of those, in the range of 12 to 25 wt.% of the polymer weight; or wherein the copolymer A is an E/X/Y copolymer, where E is ethylene, X is half-ester of maleic anhydride and X is maleic anhydride mono-methyl ester, maleic anhydride mono-ethyl ester (MAME), maleic anhydride mono-propyl ester, maleic anhydride mono-butyl ester or a combination of those, in the range of 6 to 20 wt.% of the polymer weight, and Y is methyl acrylate, ethyl acrylate, n-butyl acrylate or iso-butyl acrylate, or a mixture of those in the range of 1 to 30 wt.%,of the polymer weight.
An ocean current power generating apparatus (100, 200, 300, 400, 402, 500, 700) using dual-duct, comprising: at least one power generating unit (A1, A2), comprising: a turbine (110, 710) having a shaft box (112, 412, 712); an inner duct, wherein the turbine (110, 710) is located inside the inner duct, and an outer diameter of an inflow side (F3, F6) of the inner duct is less than an outer diameter of an outflow side (F4, F5) of the inner duct; and an outer duct, wherein the outflow side (F4, F5) of the inner duct is located inside the outer duct, and an outer diameter of an inflow side (F1, F7) of the outer duct is less than an outer diameter of an outflow side of the outer duct, characterized in that the inner duct is a hollow structure or filled with foam material therein, so to provide an overall density smaller than that of seawater to provide a buoyant force required by the ocean current power generating apparatus to float in the sea, 15 and the outer duct is a single-plate structure. at least one power generating unit (A1, A2), comprising: a turbine (110, 710) having a shaft box (112, 412, 712); an inner duct, wherein the turbine (110, 710) is located inside the inner duct, and an outer diameter of an inflow side (F3, F6) of the inner duct is less than an outer diameter of an outflow side (F4, F5) of the inner duct; and an outer duct, wherein the outflow side (F4, F5) of the inner duct is located inside the outer duct, and an outer diameter of an inflow side (F1, F7) of the outer duct is less than an outer diameter of an outflow side of the outer duct, characterized in that a turbine (110, 710) having a shaft box (112, 412, 712); an inner duct, wherein the turbine (110, 710) is located inside the inner duct, and an outer diameter of an inflow side (F3, F6) of the inner duct is less than an outer diameter of an outflow side (F4, F5) of the inner duct; and an outer duct, wherein the outflow side (F4, F5) of the inner duct is located inside the outer duct, and an outer diameter of an inflow side (F1, F7) of the outer duct is less than an outer diameter of an outflow side of the outer duct, characterized in that the inner duct is a hollow structure or filled with foam material therein, so to provide an overall density smaller than that of seawater to provide a buoyant force required by the ocean current power generating apparatus to float in the sea, 15 and the outer duct is a single-plate structure.
A device for supporting an accessory, for example an electric machine, in a tail portion of a gas turbine engine wherein the accessory includes an interface for coupling to a shaft of the gas turbine engine, the device comprising: a first support configured to secure the accessory to a structure of the engine, the first support being configured to support a first portion of the accessory proximal to the interface and substantially maintain positioning of the interface relative to the shaft; and characterized by a second support having a plurality of substantially radially extending fingers configured to secure the accessory to the structure of the engine, the second support being configured to support a second portion of the accessory distal from the interface and to provide a lower resistance to relative displacement between the accessory and the structure of the engine than does the first support. a first support configured to secure the accessory to a structure of the engine, the first support being configured to support a first portion of the accessory proximal to the interface and substantially maintain positioning of the interface relative to the shaft; and characterized by a second support having a plurality of substantially radially extending fingers configured to secure the accessory to the structure of the engine, the second support being configured to support a second portion of the accessory distal from the interface and to provide a lower resistance to relative displacement between the accessory and the structure of the engine than does the first support.
A metal hydride of the formula: M 1 (M 2) z H x R y wherein M 1 is a first metal selected from vanadium, manganese, cobalt and nickel; optionally selected from vanadium and manganese; M 2 is one or more additional metals that have a total content of z; R, if present, is an organic group; x is 0.5 to 3.6; and y is 0 to 0.5, and z is 0 to 0.2; wherein when M 1 is vanadium, x is at least 1.9; and wherein R, when present, is bound to the metal center via a carbon atom in the R group; wherein the metal hydride is in the form of a bulk solid. M 1 is a first metal selected from vanadium, manganese, cobalt and nickel; optionally selected from vanadium and manganese; M 2 is one or more additional metals that have a total content of z; R, if present, is an organic group; x is 0.5 to 3.6; and y is 0 to 0.5, and z is 0 to 0.2;
Device (1, 1', 1") for the compression of a gaseous fluid, in particular of a refrigerant, comprising a housing with a suction pressure chamber and a high pressure chamber, a compression mechanism as well as a configuration (10, 10', 10") implemented in the proximity of the high pressure chamber for the separation of a control mass flow from a fluid-lubricant mixture for the control of the compression mechanism, characterized in that the configuration (10, 10', 10") is developed and disposed with a first flow duct (11, 11', 11") for diverting a main mass flow of the compressed fluid-lubricant mixture from the device (1, 1', 1") and a second flow duct (12, 12', 12") for separating a mass flow of the gaseous fluid as the control mass flow from the main mass flow and conducting the control mass flow within the device (1, 1', 1") to the suction pressure chamber wherein a first expansion element is disposed downstream of the second flow duct (12, 12', 12"), and wherein blocking and clogging of the first expansion element is prevented because the control mass flow is in the gaseous state. wherein a first expansion element is disposed downstream of the second flow duct (12, 12', 12"), and wherein blocking and clogging of the first expansion element is prevented because the control mass flow is in the gaseous state.
A method for recovering exhausted machining slurries containing a machining medium, a carrier fluid for the machining medium, material stemming from the machined product, particles stemming from the machining tool and optionally additives, by carrying out a solid-liquid-separation by centrifuging with the undiluted exhausted machining slurry wherein in a first step the carrier fluid is separated from the remaining solids, namely the machining medium, the material stemming from the machined product, the particles stemming from the machining tool and optionally additives, by centrifuging with a centrifugal factor > 3.000 g, and in a second step the remaining solids are separated from one another by further separation processes.
A foaming agent for producing foamed plastic items, in particular hollow articles using the blow-molding process, comprising an antistatic agent, characterized in that the antistatic agent comprises a glycerol stearate, or comprises ethoxylated amines and/or alkyl sulfonates. comprises a glycerol stearate, or comprises ethoxylated amines and/or alkyl sulfonates.