mhurhangee/ep-ind-claims huggingface dataset:
Device for injecting veterinary products to a fowl by intramuscular injection, wherein said injection(s) can be carried out in the area of at least one muscle in the vicinity of a bone having a detectable shape in the body of said fowl, said device comprising: - a contention member with means for bracing said detectable bone, at least one hole formed in said contention member, - at least one injection needle, said needle(s) being movable across said hole, characterised in that said contention member has: - an anatomic shape that conforms to said body of said fowl, and inside which said means for bracing said detectable bone are provided, said anatomic shape comprising a bearing surface for said body at said muscle, - said anatomic shape comprising at least two contact sensors (41, 42), to be actuated by said fowl, with at least one on said bearing surface, said hole(s) being provided between said sensors (41, 42). - a contention member with means for bracing said detectable bone, at least one hole formed in said contention member, - at least one injection needle, said needle(s) being movable across said hole, - an anatomic shape that conforms to said body of said fowl, and inside which said means for bracing said detectable bone are provided, said anatomic shape comprising a bearing surface for said body at said muscle, - said anatomic shape comprising at least two contact sensors (41, 42), to be actuated by said fowl, with at least one on said bearing surface, said hole(s) being provided between said sensors (41, 42).
System for high-voltage disconnection in a vehicle; the system comprising at least two high-voltage-carrying components (10, 12a, b, 14, 16, 18, 20), wherein each component has a housing, at least one connection element for a data bus and at least one connection element for a high-voltage supply, wherein each high-voltage-carrying component (10, 12a, b, 14, 16, 18, 20) has a detection contact for locally detecting an event, wherein the high-voltage-carrying components (10, 12a, b, 14, 16, 18, 20) are coupled such that they can communicate using the data bus, characterized in that - each high-voltage-carrying component (10, 12a, b, 14, 16, 18, 20) is designed to locally detect an event, which event is intended to trigger high-voltage disconnection, by means of the respective detection contact, in that - each high-voltage-carrying component (10, 12a, b, 14, 16, 18, 20) has a local evaluation circuit and is designed locally to trigger high-voltage disconnection of at least one high-voltage-carrying component (10, 12a, b, 14, 16, 18, 20) by means of one of the local evaluation circuits in response to the detection of this event, and in that - the local evaluation circuit of each high-voltage-carrying component (10, 12a, b, 14, 16, 18, 20) is designed, when an event is detected in the component (10, 12a, b, 14, 16, 18, 20) having this local evaluation circuit, to inform the respectively other components (10, 12a, b, 14, 16, 18, 20) about the need for high-voltage disconnection by means of the data bus and to there locally trigger the high-voltage disconnection. - each high-voltage-carrying component (10, 12a, b, 14, 16, 18, 20) is designed to locally detect an event, which event is intended to trigger high-voltage disconnection, by means of the respective detection contact, in that - each high-voltage-carrying component (10, 12a, b, 14, 16, 18, 20) has a local evaluation circuit and is designed locally to trigger high-voltage disconnection of at least one high-voltage-carrying component (10, 12a, b, 14, 16, 18, 20) by means of one of the local evaluation circuits in response to the detection of this event, and in that - the local evaluation circuit of each high-voltage-carrying component (10, 12a, b, 14, 16, 18, 20) is designed, when an event is detected in the component (10, 12a, b, 14, 16, 18, 20) having this local evaluation circuit, to inform the respectively other components (10, 12a, b, 14, 16, 18, 20) about the need for high-voltage disconnection by means of the data bus and to there locally trigger the high-voltage disconnection.
A receptacle, in particular a storage box, having a base body and a removable cover element, the cover element adapted to cover an open top side of the base body, - the base body comprising a bottom wall, a front wall, a rear wall and two side walls (27, 27') arranged oppositely to each other, - the cover element comprising at least a first wall serving as a top wall of the receptacle when the cover element covers the base body and a second wall arranged orthogonally to the first wall, the second wall at least partially overlapping one of the front wall, the rear wall or the side walls (27, 27') when the cover element covers the base body, so that a first edge of the second wall arranged distantly from the first wall faces the outer surface of the respective wall of the base body, characterized in that the second wall of the cover element comprises a zone at least in the area of the first edge which is composed of a flexible material, the zone in particular being a soft lip which is fixed to a portion of the second wall composed of a rigid material, the cover element has in addition to the first and second walls a third wall which is arranged particularly orthogonally to the first wall and parallel with the second wall and, furthermore, two particularly parallel forth walls arranged orthogonally to both the first wall and the second wall and the third wall, and wherein one or more indentions are formed either in at least in one wall of the forth walls (20, 21) of the cover or on the base body and which mate with corresponding embossments placed on the base body or at least in one wall of the forth walls (20, 21) of the cover. - the base body comprising a bottom wall, a front wall, a rear wall and two side walls (27, 27') arranged oppositely to each other, - the cover element comprising at least a first wall serving as a top wall of the receptacle when the cover element covers the base body and a second wall arranged orthogonally to the first wall, the second wall at least partially overlapping one of the front wall, the rear wall or the side walls (27, 27') when the cover element covers the base body, so that a first edge of the second wall arranged distantly from the first wall faces the outer surface of the respective wall of the base body, characterized in that the second wall of the cover element comprises a zone at least in the area of the first edge which is composed of a flexible material, the zone in particular being a soft lip which is fixed to a portion of the second wall composed of a rigid material, the cover element has in addition to the first and second walls a third wall which is arranged particularly orthogonally to the first wall and parallel with the second wall and, furthermore, two particularly parallel forth walls arranged orthogonally to both the first wall and the second wall and the third wall, and wherein one or more indentions are formed either in at least in one wall of the forth walls (20, 21) of the cover or on the base body and which mate with corresponding embossments placed on the base body or at least in one wall of the forth walls (20, 21) of the cover.
A fuel electro-injector atomizer comprising a nozzle having: - a feedthrough seat that extends along a longitudinal axis; - a front surface that is external to said seat; - a sealing seat that joins a first surface of said seat to said front surface; said atomizer further comprising a valve needle comprising: - a head suitable for coupling with said sealing seat; - a stem, which has a smaller diameter than said head, axially projects from said head and engages said seat; said stem and said nozzle radially defining an annular passageway between them, through which a flow of high-pressure fuel can run, and comprising an annular chamber, which axially terminates at said sealing seat; said stem comprising an intermediate portion coupled in an axially sliding manner to a second surface of said seat; said intermediate portion and said second surface delimiting a plurality of channels having respective outlets in said annular chamber; said channels comprising respective channeling portions, which define a minimum area of passage of said channels and have a cross-section with a depth in a radial direction and an outer chord in a tangential direction along said second surface; said valve needle being axially movable along an opening stroke directed axially outwards from said seat, starting from a closed position wherein said head is coupled to said sealing seat; said sealing seat and said head defining a discharge section, which is annular and has a width that increases as the opening stroke of said valve needle proceeds; characterized in that, for at least one of said channels, the ratio between said depth and said outer chord is greater than or equal to two; said channels comprising respective taper portions, which are arranged upstream of said channeling portions, considering the direction of fuel towards said sealing seat, and defining an area of passage that progressively diminishes towards said channeling portions. - a feedthrough seat that extends along a longitudinal axis; - a front surface that is external to said seat; - a sealing seat that joins a first surface of said seat to said front surface; - a head suitable for coupling with said sealing seat; - a stem, which has a smaller diameter than said head, axially projects from said head and engages said seat; said stem and said nozzle radially defining an annular passageway between them, through which a flow of high-pressure fuel can run, and comprising an annular chamber, which axially terminates at said sealing seat; said stem comprising an intermediate portion coupled in an axially sliding manner to a second surface of said seat;
Method, during operation of a heat pump system, for protecting against spilling of refrigerant into a running heating circuit with a liquid, aqueous heat transfer medium, due to a leak as the result of freezing of the heat transfer medium in a heat exchanger through which the refrigerant and the heat transfer medium can flow, wherein a temperature of the heat exchanger or the heat transfer medium is established in the region of the heat exchanger and should this temperature fall below a threshold temperature, the heat transfer medium is prevented from flowing through the heat exchanger, whereby the heating circuit is stopped, characterised in that the flow through the heat exchanger is prevented - at temperatures below the threshold temperature by means of a thermostatic valve (4, 5) in an inlet and/or an outlet, and/or - by means of a safety temperature limiter, which responds even in the event of a power failure. - at temperatures below the threshold temperature by means of a thermostatic valve (4, 5) in an inlet and/or an outlet, and/or - by means of a safety temperature limiter, which responds even in the event of a power failure.
A synthetic leather comprising at least a base (i), an adhesive layer (ii), and a skin layer (iii), the adhesive layer (ii) being formed of a urethane resin composition including a urethane resin and water, the urethane resin being produced using an aromatic polyisocyanate as a raw material, the skin layer (iii) being formed of a urethane resin composition including an anionic urethane resin having an anionic group concentration of 0.15 mmol/g or less and water, wherein the aromatic polyisocyanate includes toluene diisocyanate, and wherein, in the aromatic polyisocyanate, the proportion of toluene diisocyanate to the aromatic polyisocyanate is 50% by mass or more. the adhesive layer (ii) being formed of a urethane resin composition including a urethane resin and water, the urethane resin being produced using an aromatic polyisocyanate as a raw material, the skin layer (iii) being formed of a urethane resin composition including an anionic urethane resin having an anionic group concentration of 0.15 mmol/g or less and water, wherein the aromatic polyisocyanate includes toluene diisocyanate, and wherein, in the aromatic polyisocyanate, the proportion of toluene diisocyanate to the aromatic polyisocyanate is 50% by mass or more.
A component for a gas turbine engine, comprising: an airfoil that extends between a leading edge, a trailing edge, a pressure side wall and a suction side wall; and a cooling circuit disposed inside of said airfoil, wherein said cooling circuit includes: a first core cavity that radially extends inside of said airfoil; a first axial skin core in fluid communication with said first core cavity at a first location of said first axial skin core; and a second core cavity in fluid communication with said first axial skin core at a second location of said first axial skin core; characterised in that said second core cavity is a tip flag core cavity extending into a tip portion of said airfoil. an airfoil that extends between a leading edge, a trailing edge, a pressure side wall and a suction side wall; and a cooling circuit disposed inside of said airfoil, wherein said cooling circuit includes: a first core cavity that radially extends inside of said airfoil; a first axial skin core in fluid communication with said first core cavity at a first location of said first axial skin core; and a second core cavity in fluid communication with said first axial skin core at a second location of said first axial skin core; characterised in that said second core cavity is a tip flag core cavity extending into a tip portion of said airfoil. a first core cavity that radially extends inside of said airfoil; a first axial skin core in fluid communication with said first core cavity at a first location of said first axial skin core; and a second core cavity in fluid communication with said first axial skin core at a second location of said first axial skin core; characterised in that said second core cavity is a tip flag core cavity extending into a tip portion of said airfoil.
A long trough for mounting under a partitioning between two sties (3,4), the long trough including a plurality of elongated trough elements adapted to be juxtaposed along a longitudinal direction, the long trough at each opposite end comprises an end wall arranged on an outermost trough element, each trough element further comprises at least one transverse wall arranged in an interposed position inside the long trough between the end walls, wherein the at least one transverse wall is extending transversely of the trough elements, characterised in that a transverse wall (10, 10', 10'', 10′′′, 10ʺʺ, 10ʺ′′′) is cast together with the sides of a trough element as a single piece made of polymeric concrete, wherein the transverse wall (10, 10', 10'', 10′′′, 10ʺʺ, 10′′′ʺ) has an open-ended slot at a top side of the transverse wall (10, 10', 10", 10′′′, 10ʺʺ, 10ʺ′′′) for receiving a portion of the partitioning, the transverse wall (10, 10', 10'', 10′′′, 10ʺʺ, 10ʺ′′′) further has a height extending above upper edges of the sides of the trough element, and where a bottom side of the transverse wall (10, 10', 10'', 10′′′, 10ʺʺ, 10′′′ʺ) is spaced apart from a bottom (13, 15) of the trough element thereby establishing an underrun.
A seamless steel pipe for line pipe characterized by having a chemical composition consisting in mass percent, of C: 0.02 - 0.08%, Si: at most 0.5%, Mn: 2.0 - 3.0%, Al: 0.001 -0.10%, Mo: 0.6% - 1.2%, N: 0.002 - 0.015%, at least one of Ca and REM in a total amount of 0.0002 - 0.007%, Cr: 0 - 1.0%, Ti: 0 - 0.05%, Ni: 0 - 2.0%, Nb: 0 - 0.04%, V: 0 - 0.2%, Cu: 0 - 1.5%, B: 0 - 0.01%, Mg: 0 - 0.007%, and a remainder of Fe and impurities, with the impurities having the content of P: at most 0.05%, S: at most 0.005%, and O: at most 0.005%, and the chemical composition satisfying the following inequality: 1.1 ≤ Mn × Mo ≤ 2.6, wherein [Mn] and [Mo] are the numbers equivalent to the contents of Mn and Mo, respectively, in mass percent.
Direct-drive wind turbine, - wherein a rotor of the wind turbine is directly connected with a rotating drive train of the wind turbine, - wherein the rotating drive train is directly connected with a rotor of a electrical generator of the wind turbine, - wherein the rotating drive train is connected with a stationary part of the wind turbine via at least one bearing, which allows the rotation of the drive train in relation to the stationary part, - wherein the at least one bearing is a plain bearing, - wherein the bearing is a tapered bearing, which comprises at least one conical shaped sliding surface, - wherein the bearing comprises a segmented sliding-surface (5a, 5b), characterized in that - the segments of the sliding-surface (5a, 5b) are arranged at a rotating part of the bearing, which is connected to the rotating drive train of the wind turbine, - wherein the segments are arranged and connected within the plain bearing in a way that the exchange of an individual segment is permitted. - wherein a rotor of the wind turbine is directly connected with a rotating drive train of the wind turbine, - wherein the rotating drive train is directly connected with a rotor of a electrical generator of the wind turbine, - wherein the rotating drive train is connected with a stationary part of the wind turbine via at least one bearing, which allows the rotation of the drive train in relation to the stationary part, - wherein the at least one bearing is a plain bearing, - wherein the bearing is a tapered bearing, which comprises at least one conical shaped sliding surface, - wherein the bearing comprises a segmented sliding-surface (5a, 5b), - the segments of the sliding-surface (5a, 5b) are arranged at a rotating part of the bearing, which is connected to the rotating drive train of the wind turbine, - wherein the segments are arranged and connected within the plain bearing in a way that the exchange of an individual segment is permitted.
A photomask blank, suitable for making a photomask comprising a transparent substrate and a mask pattern formed thereon including transparent regions and regions effectively opaque to exposure light, said photomask blank comprising a transparent substrate, a light-shielding film disposed on the substrate, optionally with another film intervening therebetween, said another film comprising a phase shift film, said light-shielding film comprising a metal or metal compound susceptible to fluorine dry etching, an antireflective film disposed on the light-shielding film, and an etching mask film formed on said antireflective film, wherein said light-shielding film is composed of silicon alone or a silicon compound selected from silicon oxide, silicon nitride, silicon oxynitride, silicon oxycarbide, silicon nitride carbide, and silicon oxide nitride carbide, and an optical density of the combination of light-shielding film, antireflective film and optional phase shift film is at least 2.5 for light of a wavelength equal to or less than 250 nm, characterized in that; said etching mask film comprises another metal or metal compound resistant to fluorine dry etching.
A method, comprising: applying marking material having a known pattern to body and face of an actor; configuring at least one first video motion capture camera (920, 922, 924) to capture the marking material on the body of the actor wherein the marking material on the body of the actor includes a marker that is coded with a code and further wherein the code is printed onto a strip such that in use a plurality of strips are wrapped around a limb of the actor; configuring at least one second video motion capture camera (920, 922, 924) to capture the marking material on the face of the actor; capturing body motion data using the at least one first video motion capture camera and facial motion data using the at least one second video motion capture camera; integrating the body motion data and the facial motion data; and calculating the centroid of the limb using the plurality of strips, wherein applying marking material includes projecting a pattern of light onto the face of the actor. applying marking material having a known pattern to body and face of an actor; configuring at least one first video motion capture camera (920, 922, 924) to capture the marking material on the body of the actor wherein the marking material on the body of the actor includes a marker that is coded with a code and further wherein the code is printed onto a strip such that in use a plurality of strips are wrapped around a limb of the actor; configuring at least one second video motion capture camera (920, 922, 924) to capture the marking material on the face of the actor; capturing body motion data using the at least one first video motion capture camera and facial motion data using the at least one second video motion capture camera; integrating the body motion data and the facial motion data; and calculating the centroid of the limb using the plurality of strips, wherein applying marking material includes projecting a pattern of light onto the face of the actor.
Method for operating a device for separating off solids particles from liquids and gases, consisting of a pressure vessel, having a plurality of filter elements arranged in a suspended manner, wherein the filter elements are arranged in a flexible container made of plastic, which is arranged in the pressure vessel and is sealingly closed off with respect thereto, and the flexible container can be removed from the pressure vessel, wherein the filter elements are each of flat design and are arranged in parallel next to one another and are connected to one another to form a filter pack, wherein a clearance exists between the individual filter elements over a large part of the vertical longitudinal extension thereof and the filter elements can be compressed with respect to one another and the filter elements have channels (3") for discharging the suspension filtered by the filter medium, the method comprising the following method steps carried out one after the other: filling the filtration container with a suspension through a first nozzle, wherein the filtration container is vented through a second nozzle (2"), closing a vent nozzle connection (1"), filtering the suspension through the filter elements, wherein the filtration is induced by a pressure difference, and discharging the filtrate through a filtrate outflow nozzle (1"') in a press-fit pipe, then filtering the residual volume by closing an inlet connection and increasing the pressure in the pressure vessel, wherein the flexible container is compressed and leads to partial or complete emptying. filling the filtration container with a suspension through a first nozzle, wherein the filtration container is vented through a second nozzle (2"), closing a vent nozzle connection (1"), filtering the suspension through the filter elements, wherein the filtration is induced by a pressure difference, and discharging the filtrate through a filtrate outflow nozzle (1"') in a press-fit pipe, then filtering the residual volume by closing an inlet connection and increasing the pressure in the pressure vessel, wherein the flexible container is compressed and leads to partial or complete emptying.