mhurhangee/ep-ind-claims huggingface dataset:
Connecting device for pipelines with a connecting body with a receiving opening for a pipeline with a line end to be inserted in an insertion direction and a retaining element seated inside the receiving opening for securing of the inserted line end against its withdrawal, wherein inside of the connecting body there is a sleeve-shaped release element (170, 170a, 170b) seated in an axially displaceable manner such that due to an action on the retaining element, the securing of the inserted pipeline is terminated, wherein the release element (170, 170a, 170b) consists of a perimeter-sealed ring part on which snap-in arms separated from each other by longitudinal slots are formed, wherein the ring part can be sealed at its outer perimeter by a perimeter gasket against an interior perimeter wall of the connecting body and can be sealed at its interior perimeter in the region of its ring opening by a perimeter gasket against the inserted pipeline, characterized in that in the assembled state of the connecting device, in the interior perimeter region of the ring part of the release element (170, 170a, 170b), the outer perimeter gasket can be deformed from its sealing position such that between the outer perimeter gasket and the opposing, interior perimeter wall of the connecting body, at least one leakage gap is formed in the interior of the connecting device by an interior pressure of the pressurized medium flowing in the pipeline, and the release element (170, 170a, 170b) is a materially bonded two-component part composed of the ring part and the perimeter gaskets (182, 184), wherein the perimeter gaskets (182, 184) consist of a more elastic material than the ring part.
An isolated antibody wherein the antibody specifically binds to the polypeptide consisting of the amino acid sequence of SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:5, SEQ ID NO:6, SEQ ID NO:7 or SEQ ID NO:8.
A method of producing a multilayered riblet structure comprising: applying (804, 904) a first high elongation polymer material to a web tool, the web tool provided from a first roll; heating, (806, 906) via a first heating process, the first high elongation polymer material wherein the first heating process includes a first oven through which the web tool moves; applying (808, 908) a second high elongation polymer material to the first high elongation polymer material; heating, (810, 910) via a second heating process, the second high elongation polymer material wherein the second heating process includes a second oven through which the web tool moves; and applying, (812, 912) via a laminating roller, a support layer to the second high elongation polymer material. applying (804, 904) a first high elongation polymer material to a web tool, the web tool provided from a first roll; heating, (806, 906) via a first heating process, the first high elongation polymer material wherein the first heating process includes a first oven through which the web tool moves; applying (808, 908) a second high elongation polymer material to the first high elongation polymer material; heating, (810, 910) via a second heating process, the second high elongation polymer material wherein the second heating process includes a second oven through which the web tool moves; and applying, (812, 912) via a laminating roller, a support layer to the second high elongation polymer material.
A segmented inverting cover plate apparatus for an underfloor vehicle lifting jack, comprising a cover plate, wherein the cover plate being of a segmented structure, comprising a first movable cover plate and a second movable cover plate, the first movable cover plate and the second movable cover plate are hinged by means of a pin shaft; an anti-inversion block is provided directly below the pin shaft, the anti-inversion block being connected to the first movable cover plate by means of the pin shaft.
Method for producing an engine component, in particular a piston for an internal combustion engine, in which an aluminium alloy is cast in a gravity die casting method, wherein the aluminium alloy consists of the following alloying elements: silicon: 9 wt.% to ≤ 10.5 wt.%, nickel: > 2.0 wt.% to < 3.5 wt.%, copper: > 3.7 wt.% to 5.2 wt.%, cobalt: to < 1 wt.% magnesium: 0.5 wt.% to 1.5 wt.%, iron: 0.1 wt.% to 0.7 wt.%, manganese: 0.1 wt.% to 0.4 wt.%, zirconium: > 0.1 wt.% to < 0.2 wt.%, vanadium: > 0.1 wt.% to < 0.2 wt.%, titanium: 0.05 wt.% to < 0.2 wt.%, phosphorus: 0.004 wt.% to 0.008 wt.%, and as the remainder, aluminium and unavoidable impurities.
An underwater lighting device, comprising: a) a plurality of underwater lighting units ( 50, 210) having an internally provided light source (11, 211) and a gas-tight case with a window (14, 214) for allowing passage of light from the light source (11, 211); b) a gas-sending tube ( 80, 240) to be connected to an opening provided in the gas-tight case; and c) a land-based gas-supply system for sending gas into the gas sending tube (80, 240) and into the plurality of underwater lighting units ( 50, 210), which are connected by the gas-sending tube ( 80, 240) in a loop-like form or a network-like form, through a gas divider a) a plurality of underwater lighting units ( 50, 210) having an internally provided light source (11, 211) and a gas-tight case with a window (14, 214) for allowing passage of light from the light source (11, 211); b) a gas-sending tube ( 80, 240) to be connected to an opening provided in the gas-tight case; and c) a land-based gas-supply system for sending gas into the gas sending tube (80, 240) and into the plurality of underwater lighting units ( 50, 210), which are connected by the gas-sending tube ( 80, 240) in a loop-like form or a network-like form, through a gas divider
A tire monitoring system (1a; 1b; 1c; 1d; 1e) for a vehicle for determining tire-specific parameters, having a valve body, at least one fastening element (12a; 12b; 12c; 12d; 12e) and a tire air pressure sensor comprising a housing (4a; 4b; 4c; 4d; 4e), in which means (5, 6) for determining at least one tire-specific parameter and for a wireless transmission of the at least one tire-specific parameters, preferably to a vehicle-side control device, are accommodated, wherein the housing (4a; 4b; 4c; 4d; 4e) has a fastening region and the valve body comprises a fastening section, wherein, in a locked position of the at least one fastening element (12a; 12b; 12c; 12d; 12e), the fastening section of the valve body and the fastening region of the housing (4a; 4b; 4c; 4d; 4e) are releasably connected to one another with the help of the fastening element (12a; 12b; 12c), and wherein the fastening region of the housing (4a; 4b; 4c; 4d; 4e) movably supports the at least one fastening element (12a; 12b; 12c; 12d; 12e) between the locked position and an unlocked position, in which the fastening region and the fastening section can be released from one another, and at least one elastic latching element is provided, which allows a movement of the at least one fastening element (12a; 12b; 12c; 12d; 12e) relative to the housing (4a; 4b; 4c; 4d; 4e) in the direction of the unlocked position against a pressure exerted by the at least one elastic latching element, and which presses the at least one fastening element (12a; 12b; 12c; 12d; 12e) into the locked position, characterized in that the fastening region of the housing (4a; 4b; 4c; 4d; 4e) has at least one securing arm, which secures the at least one fastening element (12a; 12b; 12c; 12d; 12e) to the fastening region of the housing (4a; 4b; 4c; 4d; 4e), in that the at least one securing arm blocks a movement, which is directed from the unlocked position beyond the locked position, of the at least one fastening element (12a; 12b; 12c; 12d; 12e).
Transport structure for transporting and/or lifting a large scale generator, in particular a generator of a wind turbine, comprising - a handling base with an upper side and a lower side and a first longitudinal end (E 1) and second longitudinal end (E 2), - an interface arrangement at the handling base realized such that a generator can be releasably attached to the handling base in the direction of the upper side, characterised in that the transport structure further comprises - a lifting adaptor extending at an angle from the main extension of the handling base to its upper side, said lifting adaptor being orientated and realized such that the transport structure can be moved from a position in which its main extension is essentially orientated in a horizontal way into a position in which its main extension is essentially orientated in a vertical way. - a handling base with an upper side and a lower side and a first longitudinal end (E 1) and second longitudinal end (E 2), - an interface arrangement at the handling base realized such that a generator can be releasably attached to the handling base in the direction of the upper side, characterised in that the transport structure further comprises - a lifting adaptor extending at an angle from the main extension of the handling base to its upper side, said lifting adaptor being orientated and realized such that the transport structure can be moved from a position in which its main extension is essentially orientated in a horizontal way into a position in which its main extension is essentially orientated in a vertical way.
A method for implementing a thermodynamic cycle comprising: separating a heated gaseous working stream at a first separator including a low boiling point component and a higher boiling point component to provide a heated gaseous rich stream having relatively more of said low boiling point component and a lean stream having relatively less of said low boiling point component, expanding said heated gaseous rich stream to transform the energy of the stream into useable form and to provide an expanded, spent rich stream, combining said lean stream and said expanded, spent rich stream to provide said working stream, wherein, after said combining and before said separating, said working stream is condensed by transferring heat to a low temperature source at a first heat exchanger (HE-1), and said working stream is thereafter pumped to a higher pressure, splitting said working stream into a first working substream and a second working substream, and heating said first working substream with an external source of heat (HE-5) to provide a heated first working substream, characterised in that the method comprises heating the second working substream with heat from said lean stream thereby producing a heated second working substream having a first set of thermodynamic characteristics, and combining said heated first working substream with said heated second working substream having the first set of thermodynamic characteristics to form the heated gaseous working stream. separating a heated gaseous working stream at a first separator including a low boiling point component and a higher boiling point component to provide a heated gaseous rich stream having relatively more of said low boiling point component and a lean stream having relatively less of said low boiling point component, expanding said heated gaseous rich stream to transform the energy of the stream into useable form and to provide an expanded, spent rich stream, combining said lean stream and said expanded, spent rich stream to provide said working stream, wherein, after said combining and before said separating, said working stream is condensed by transferring heat to a low temperature source at a first heat exchanger (HE-1), and said working stream is thereafter pumped to a higher pressure, splitting said working stream into a first working substream and a second working substream, and heating said first working substream with an external source of heat (HE-5) to provide a heated first working substream, characterised in that the method comprises heating the second working substream with heat from said lean stream thereby producing a heated second working substream having a first set of thermodynamic characteristics, and combining said heated first working substream with said heated second working substream having the first set of thermodynamic characteristics to form the heated gaseous working stream.
A plasma generator comprising: a dielectric layer; first and second electrodes (4, 5) arranged side by side within the dielectric layer; a power supply for applying a predetermined voltage to the first and second electrodes (4,5); and a first metal layer arranged spaced apart a predetermined distance from a surface of the dielectric layer and made to face the first and second electrodes (4, 5) so as to cover the entire first and second electrodes (4, 5) from the surface side of the dielectric layer, characterised in that the dielectric layer is formed of a polymer resin selected from the group consisting of a polyimide resin, a fluorine-based resin and a silicone resin, and the first metal layer is provided with a plurality of holes for flowing out a fluid produced in a gap between the first metal layer and the dielectric layer toward a surface of the first metal layer. a dielectric layer; first and second electrodes (4, 5) arranged side by side within the dielectric layer; a power supply for applying a predetermined voltage to the first and second electrodes (4,5); and a first metal layer arranged spaced apart a predetermined distance from a surface of the dielectric layer and made to face the first and second electrodes (4, 5) so as to cover the entire first and second electrodes (4, 5) from the surface side of the dielectric layer, characterised in that the dielectric layer is formed of a polymer resin selected from the group consisting of a polyimide resin, a fluorine-based resin and a silicone resin, and the first metal layer is provided with a plurality of holes for flowing out a fluid produced in a gap between the first metal layer and the dielectric layer toward a surface of the first metal layer.
Brake disc, in particular of a motor vehicle, having a chamber which has a bottom and a peripheral wall protruding therefrom, and having a friction ring which has an opening, in which the wall is arranged, wherein - the chamber and the friction ring are concentrically arranged, - the wall has an axial chamber toothing, extending around an outer periphery, with radially outwardly projecting chamber teeth, - a chamber tooth gap (12, 13) is arranged in the circumferential direction between adjacent chamber teeth, - the friction ring has an axial ring toothing, extending around an inner periphery, which is designed to correspond to the chamber toothing and has radially inwardly projecting ring teeth, - wherein a ring tooth gap is arranged in the circumferential direction between adjacent ring teeth, - the chamber teeth engage in the ring teeth gaps (12, 13), - a tab is formed at at least one first chamber tooth gap, the tab projecting radially outwards and radially engaging over the ring tooth in engagement with this chamber tooth gap at a first axial end (23, 25), characterised in that - the ring tooth, over which the tab engages, has at its first axial end (23, 25) an axial recess, into which the tab axially engages. - the chamber and the friction ring are concentrically arranged, - the wall has an axial chamber toothing, extending around an outer periphery, with radially outwardly projecting chamber teeth, - a chamber tooth gap (12, 13) is arranged in the circumferential direction between adjacent chamber teeth, - the friction ring has an axial ring toothing, extending around an inner periphery, which is designed to correspond to the chamber toothing and has radially inwardly projecting ring teeth, - wherein a ring tooth gap is arranged in the circumferential direction between adjacent ring teeth, - the chamber teeth engage in the ring teeth gaps (12, 13), - a tab is formed at at least one first chamber tooth gap, the tab projecting radially outwards and radially engaging over the ring tooth in engagement with this chamber tooth gap at a first axial end (23, 25), - the ring tooth, over which the tab engages, has at its first axial end (23, 25) an axial recess, into which the tab axially engages.
A method for recognizing an emotion of an individual based on Action Units, AUs, the method comprising: determining a discriminative power for each of a plurality of AUs based on statistical data; selecting a plurality of sets of AUs, each set representing one of a plurality of emotion labels, based on the discriminative power for each of the plurality of AUs, wherein each of the plurality of sets of AUs includes a same number of AUs; storing the plurality of the selected sets of AUs associated with the plurality of emotion labels as AU strings; receiving an input AU string including a plurality of AUs that represents a facial expression of an individual from an AU detector; comparing the input AU string with each of the plurality of the selected sets of AU strings; identifying an AU string which has the greatest amount of similarity to the input AU string, from the plurality of AU strings; and outputting an emotion label corresponding to the identified AU string; wherein identifying the AU string which has the greatest amount of similarity to the input AU string, from the plurality of AU strings comprises: determining a common subsequence between the input AU string and each of the plurality of AU strings; and identifying a longest common subsequence from the determined common sub-sequences, and wherein the longest common subsequence is indicative of the greatest amount of similarity between the input AU string and one of the plurality of AU strings. determining a discriminative power for each of a plurality of AUs based on statistical data; selecting a plurality of sets of AUs, each set representing one of a plurality of emotion labels, based on the discriminative power for each of the plurality of AUs, wherein each of the plurality of sets of AUs includes a same number of AUs; storing the plurality of the selected sets of AUs associated with the plurality of emotion labels as AU strings; receiving an input AU string including a plurality of AUs that represents a facial expression of an individual from an AU detector; comparing the input AU string with each of the plurality of the selected sets of AU strings; identifying an AU string which has the greatest amount of similarity to the input AU string, from the plurality of AU strings; and outputting an emotion label corresponding to the identified AU string; wherein identifying the AU string which has the greatest amount of similarity to the input AU string, from the plurality of AU strings comprises: determining a common subsequence between the input AU string and each of the plurality of AU strings; and identifying a longest common subsequence from the determined common sub-sequences, and determining a common subsequence between the input AU string and each of the plurality of AU strings; and identifying a longest common subsequence from the determined common sub-sequences, and wherein the longest common subsequence is indicative of the greatest amount of similarity between the input AU string and one of the plurality of AU strings.
A system for a nacelle having a translating structure, comprising: a translating sleeve; a blocker door; a fixed structure; a primary hydraulic actuator configured to couple the fixed structure with the translating sleeve, the primary hydraulic actuator having a primary hydraulic fluid end; a secondary hydraulic actuator configured to couple the blocker door with the translating sleeve, the secondary hydraulic actuator having a secondary hydraulic fluid end; and a hydraulic supply line configured to fluidly couple the primary hydraulic fluid end of the primary hydraulic actuator to the secondary hydraulic fluid end of the secondary hydraulic actuator; characterised in that: the primary hydraulic actuator has a primary gaseous fluid end, the secondary hydraulic actuator has a secondary gaseous fluid end, wherein the primary gaseous fluid end is configured to bias the translating sleeve toward a stowed configuration from a deployed configuration, and the secondary gaseous fluid end is configured to bias the blocker door toward the stowed configuration from the deployed configuration. a translating sleeve; a blocker door; a fixed structure; a primary hydraulic actuator configured to couple the fixed structure with the translating sleeve, the primary hydraulic actuator having a primary hydraulic fluid end; a secondary hydraulic actuator configured to couple the blocker door with the translating sleeve, the secondary hydraulic actuator having a secondary hydraulic fluid end; and a hydraulic supply line configured to fluidly couple the primary hydraulic fluid end of the primary hydraulic actuator to the secondary hydraulic fluid end of the secondary hydraulic actuator; characterised in that: the primary hydraulic actuator has a primary gaseous fluid end, the secondary hydraulic actuator has a secondary gaseous fluid end, wherein the primary gaseous fluid end is configured to bias the translating sleeve toward a stowed configuration from a deployed configuration, and the secondary gaseous fluid end is configured to bias the blocker door toward the stowed configuration from the deployed configuration.
An assembly comprising a package for storing radioactive materials as well as a support system for the package for being, in a storage configuration of the package, arranged between a bottom of the package and a ground of a storage building, characterised in that the support system comprises a radiative shield for heat protection of the ground having a first, lower face as well as a second, upper face opposite to the first one, the radiative shield including a central part provided with at least one air passage ensuring communication between a ground cooling air circulation zone defined under the first face of the radiative shield, and a package bottom cooling air circulation zone defined between the second face of the radiative shield and the bottom of the package, the support system further comprising a plurality of spaced-apart bottom package support elements, each support element projecting from the second face of the radiative shield and extending through the cooling air circulation zone for the package bottom into contact with the latter, the support system also comprising a plurality of bearing elements projecting into the ground cooling air circulation zone, from the first face of the radiative shield. characterised in that the support system comprises a radiative shield for heat protection of the ground having a first, lower face as well as a second, upper face opposite to the first one, the radiative shield including a central part provided with at least one air passage ensuring communication between a ground cooling air circulation zone defined under the first face of the radiative shield, and a package bottom cooling air circulation zone defined between the second face of the radiative shield and the bottom of the package, the support system further comprising a plurality of spaced-apart bottom package support elements, each support element projecting from the second face of the radiative shield and extending through the cooling air circulation zone for the package bottom into contact with the latter, the support system also comprising a plurality of bearing elements projecting into the ground cooling air circulation zone, from the first face of the radiative shield.