mhurhangee/ep-ind-claims huggingface dataset:
An emergency core cooling system of a boiling water nuclear plant, comprising: four or more active safety divisions each including a motor-driven active safety system; and one or more passive safety divisions including a passive safety system (5, 8, 9) that does not require motor drive, wherein number of the active safety divisions is larger by two or more than number required upon occurrence of a loss of coolant accident, the active safety divisions each have only one system of a motor-driven active safety system and an emergency power source for supplying electric power to the motor-driven active safety system, and the passive system (5, 8, 9) being adapted so that, when it is assumed that an accident has occurred while one active safety system is being subjected to on-line maintenance, the passive safety system (5, 8, 9) is adapted to cool the core for a time required for recovery of the active safety system subjected to the on-line maintenance without being replenished with cooling water from outside. four or more active safety divisions each including a motor-driven active safety system; and one or more passive safety divisions including a passive safety system (5, 8, 9) that does not require motor drive, wherein number of the active safety divisions is larger by two or more than number required upon occurrence of a loss of coolant accident, the active safety divisions each have only one system of a motor-driven active safety system and an emergency power source for supplying electric power to the motor-driven active safety system, and the passive system (5, 8, 9) being adapted so that, when it is assumed that an accident has occurred while one active safety system is being subjected to on-line maintenance, the passive safety system (5, 8, 9) is adapted to cool the core for a time required for recovery of the active safety system subjected to the on-line maintenance without being replenished with cooling water from outside.
A Fuel cell device having a fuel tank which has a fuel feed line which is formed in a branched manner in fuel part feed lines, having a plurality of fuel cell stacks which each have, on the anode inlet side, a fuel connection which is connected in terms of flow mechanics to one of the fuel part feed lines, characterized in that exclusively one of the fuel cell stacks is connected on the anode outlet side to a fuel recirculation line, and in that the flow guidance of the fuel recirculation line is selected in such a way that the fuel can be returned exclusively into the fuel cell stack connected to the fuel recirculation line.
A gas turbine engine for an aircraft, comprising: a core engine defined about an axis; a fan driven by said core engine about said axis; a core nacelle defined at least partially about said core engine; a fan nacelle defined around said fan and at least partially around said core nacelle; a variable area fan nozzle (VAFN) to define a fan exit area downstream of said fan between said fan nacelle and said core nacelle; and a controller operable to control a fan blade flutter characteristic through control of said VAFN, said controller configured to adjust said VAFN based on one of at least two operating schedules, wherein said at least two operating schedules includes a normal flight conditions schedule and an icing flight conditions schedule, and said controller is configured to adjust said VAFN based on said normal flight conditions schedule such that said VAFN is open during an aircraft take-off, an aircraft climb, an aircraft descent, and an aircraft approach, and said VAFN is fully closed during an aircraft cruise. a core engine defined about an axis; a fan driven by said core engine about said axis; a core nacelle defined at least partially about said core engine; a fan nacelle defined around said fan and at least partially around said core nacelle; a variable area fan nozzle (VAFN) to define a fan exit area downstream of said fan between said fan nacelle and said core nacelle; and a controller operable to control a fan blade flutter characteristic through control of said VAFN, said controller configured to adjust said VAFN based on one of at least two operating schedules, wherein said at least two operating schedules includes a normal flight conditions schedule and an icing flight conditions schedule, and said controller is configured to adjust said VAFN based on said normal flight conditions schedule such that said VAFN is open during an aircraft take-off, an aircraft climb, an aircraft descent, and an aircraft approach, and said VAFN is fully closed during an aircraft cruise.
A method for the production of a concrete body with a cavity open outwardly via at least one opening, comprising the following steps: a) providing an outer mold (13a, 13b) for shaping the outer surface (2, 4) of the concrete body; b) providing a mold core for shaping the cavity of the concrete body; c) arranging the mold core in the outer mold (13a, 13b) while forming a space therebetween; d) casting the space formed between the outer mold (13a, 13b) and the mold core with concrete; e) hardening of the concrete in the space formed between the outer mold (13a, 13b) and the mold core while forming the concrete body; and f) removing the mold core from the concrete body through the at least one opening of the cavity, wherein a mold core is provided, the outer shaping surface of which being formed at least partially or completely by a layer comprising a compressible material, which is arranged on a rigid support structure of the mold core, characterized in that an outer mold (13a, 13b) is obtained which defines the outer surface of an essentially cylindrically shaped body, and in that a cylindrically shaped mold core is obtained which has an essentially uniform, non-circular cross-section over the axial extension thereof, and in that this cross-section is arranged centrally in the outer mold (13a, 13b). a) providing an outer mold (13a, 13b) for shaping the outer surface (2, 4) of the concrete body; b) providing a mold core for shaping the cavity of the concrete body; c) arranging the mold core in the outer mold (13a, 13b) while forming a space therebetween; d) casting the space formed between the outer mold (13a, 13b) and the mold core with concrete; e) hardening of the concrete in the space formed between the outer mold (13a, 13b) and the mold core while forming the concrete body; and f) removing the mold core from the concrete body through the at least one opening of the cavity,
A food, pharmaceutical or nutraceutical composition for use in treating anxiety comprising a) saffron, and b) valeriana officinalis, and c) at least one source of L-theanine. a) saffron, and b) valeriana officinalis, and c) at least one source of L-theanine.
Charging or fuel inlet compartment for insertion in a bodywork opening of a motor vehicle, with a compartment body having a passage opening into which a charging plug connector or a fuel filler pipe is insertable, a closure flap and a sealing ring arranged at the passage opening, wherein - the sealing ring comprises an annular sealing body, - a resilient sealing lip extends out from the annular sealing body, - the sealing lip has a curvature, - a first section of the sealing lip in the opened and closed state of the closure flap bears against a charging plug connector or fuel filler pipe inserted into the passage opening and - a second section of the sealing lip bears against a closure flap, which closes the charging or fuel inlet compartment, in the closed state of the closure flap. - the sealing ring comprises an annular sealing body, - a resilient sealing lip extends out from the annular sealing body, - the sealing lip has a curvature, - a first section of the sealing lip in the opened and closed state of the closure flap bears against a charging plug connector or fuel filler pipe inserted into the passage opening and - a second section of the sealing lip bears against a closure flap, which closes the charging or fuel inlet compartment, in the closed state of the closure flap.
Transportation pallet having a base with a side beam, where first beams of a support foldable towards the base are attached to each end part of the said side beam by means of first hinges, and where an end of each first beam of the support is connected by means of a second hinge with a second beam of the support foldable outwards of the base and each end part of the side beam of the base is attached by means of a third hinge to a backing stand beam, where said backing stand beams are foldable towards the middle of the side beam, characterized in that a third beam is attached to an upper part of the support, wherein in an unfolded configuration of the pallet and said third beam extends towards the base and an end of the said third beam rests on an upper end of a respective backing stand beam.
An electrical penetrator assembly for conducting electrical power to an electrical appliance that is shielded from the external environment with an external pressure by a housing with an internal pressure, the penetrator assembly comprising: a penetrator housing, at least one conductor (2; 22), an insulator body (8; 20; 30) surrounding the conductor, wherein the insulator body (8, 20, 30) is tubular and comprises a side face which extends axially from a first end face to a second end face, wherein the conductor passes through the insulator body from an axially facing opening in the first end face of the insulator body to a laterally facing opening (14; 23; 33) in the side face of the insulator body, wherein the insulator body (8, 20, 30) is provided with seal systems (S1, S2) sealing between the insulator body (8, 20, 30) and the penetrator housing, characterized in that the laterally facing opening (14, 23, 33) is located in a section of the insulator body (8, 20, 30) delimited by the seal systems (S1; S2) towards the penetrator housing on each side of the lateral facing opening (14, 23, 33), and in that an open passage through the insulator body connects the first end face of the insulator body with the second end face of the insulator body, the open passage being arranged to lead the internal pressure to the second end face. a penetrator housing, at least one conductor (2; 22), an insulator body (8; 20; 30) surrounding the conductor, wherein the insulator body (8, 20, 30) is tubular and comprises a side face which extends axially from a first end face to a second end face, wherein the conductor passes through the insulator body from an axially facing opening in the first end face of the insulator body to a laterally facing opening (14; 23; 33) in the side face of the insulator body, wherein the insulator body (8, 20, 30) is provided with seal systems (S1, S2) sealing between the insulator body (8, 20, 30) and the penetrator housing, characterized in that the laterally facing opening (14, 23, 33) is located in a section of the insulator body (8, 20, 30) delimited by the seal systems (S1; S2) towards the penetrator housing on each side of the lateral facing opening (14, 23, 33), and in that an open passage through the insulator body connects the first end face of the insulator body with the second end face of the insulator body, the open passage being arranged to lead the internal pressure to the second end face.
An air filter arrangement for an agricultural combine, comprising: a generally rectangular panel able to be supported on hinges (100, 102) on an outer side wall of a combine, the panel having a plurality of apertures therethrough for conducting cooling air into an engine compartment of the combine; a rotary filter mounted on said panel for rotation at a first aperture in the panel to filter air passing through said first aperture; a scoop disposed to enclose the rotary filter and block substantially all air flow to the rotary filter except at a scoop inlet disposed along an upper edge of the scoop above the rotary filter; and characterised by at least one stationary filter mounted on said panel disposed to filter air passing through a second aperture (58, 60) in the panel, said stationary filter being disposed between an upper portion of said rotary filter and the scoop inlet. a generally rectangular panel able to be supported on hinges (100, 102) on an outer side wall of a combine, the panel having a plurality of apertures therethrough for conducting cooling air into an engine compartment of the combine; a rotary filter mounted on said panel for rotation at a first aperture in the panel to filter air passing through said first aperture; a scoop disposed to enclose the rotary filter and block substantially all air flow to the rotary filter except at a scoop inlet disposed along an upper edge of the scoop above the rotary filter; and characterised by at least one stationary filter mounted on said panel disposed to filter air passing through a second aperture (58, 60) in the panel, said stationary filter being disposed between an upper portion of said rotary filter and the scoop inlet.
Measuring device for measuring the interior space, which is formed by mould walls, of a mould, preferably for a continuous casting plant, wherein the measuring device comprises: a mount, which is arranged for mounting the measuring device so that the measuring device is disposed at a defined position and in a defined location relative to the mould, and a measuring section comprising one or more contactless distance sensors (23a, 23b, 23c and 23d), preferably laser sensors, which are arranged to contactlessly measure the distance from two or more points of the mould inner walls and to provide this as measurement data, wherein the measuring device further comprises a control device or can be brought into communication with such, the control device being arranged to determine from the measurement data of the contactless distance sensors (23a, 23b, 23c and 23d) the inclination or one or more mould walls and/or the casting width of the mould and/or the centre point position of the measuring device, characterised in that the measuring section comprises at least two distance sensors (23a, 23b, 23c and 23d) vertically spaced from one another and the mount is constructed as a pivot mount so that the measuring device is self-aligning due to the effect of gravitational force. a mount, which is arranged for mounting the measuring device so that the measuring device is disposed at a defined position and in a defined location relative to the mould, and a measuring section comprising one or more contactless distance sensors (23a, 23b, 23c and 23d), preferably laser sensors, which are arranged to contactlessly measure the distance from two or more points of the mould inner walls and to provide this as measurement data, wherein the measuring device further comprises a control device or can be brought into communication with such, the control device being arranged to determine from the measurement data of the contactless distance sensors (23a, 23b, 23c and 23d) the inclination or one or more mould walls and/or the casting width of the mould and/or the centre point position of the measuring device, characterised in that the measuring section comprises at least two distance sensors (23a, 23b, 23c and 23d) vertically spaced from one another and the mount is constructed as a pivot mount so that the measuring device is self-aligning due to the effect of gravitational force.
A suction discharge unit disposed between a subject and a suction source, comprising: a first connection hole that communicates with the subject; a second connection hole that communicates with the suction source; a storage chamber that stores a first liquid that flows thereinto from the first connection hole; a water sealing chamber including a first chamber that communicates with the storage chamber and into which passage of the first liquid is prevented by a first partition wall and a second chamber that is isolated from the first chamber by a water sealing part and a second partition wall and that is connected to the suction source via the second connection hole; and a negative pressure control unit that controls a pressure of the first chamber by causing gas to flow from the second chamber to the first chamber on the basis of a pressure of the second chamber and the pressure of the first chamber; wherein the negative pressure control unit includes a liquid retaining part that is able to retain a second liquid and that is disposed such that the pressure of the second chamber acts on the second liquid, and a control member that has a control hole for controlling inflow of the gas on the basis of surface tension of the second liquid. a first connection hole that communicates with the subject; a second connection hole that communicates with the suction source; a storage chamber that stores a first liquid that flows thereinto from the first connection hole; a water sealing chamber including a first chamber that communicates with the storage chamber and into which passage of the first liquid is prevented by a first partition wall and a second chamber that is isolated from the first chamber by a water sealing part and a second partition wall and that is connected to the suction source via the second connection hole; and a negative pressure control unit that controls a pressure of the first chamber by causing gas to flow from the second chamber to the first chamber on the basis of a pressure of the second chamber and the pressure of the first chamber; wherein the negative pressure control unit includes a liquid retaining part that is able to retain a second liquid and that is disposed such that the pressure of the second chamber acts on the second liquid, and a control member that has a control hole for controlling inflow of the gas on the basis of surface tension of the second liquid.
A method for manufacturing an RFID tag, comprising the steps of: preparing a carrier tape housing a plurality of RFIC elements (5, 100) with seal materials (4, 41, 42), the carrier tape including a tape-shaped main body having a first principal surface and a second principal surface and having a plurality of housing holes penetrating from the first principal surface to the second principal surface along a longitudinal direction, a plurality of seal materials (4, 41, 42) each having an adhesive layer on one principle surface and affixed to the second principal surface of the tape-shaped main body such that the adhesive layer is exposed in at least a portion of each of the housing holes, and a plurality of RFIC elements (5, 100) housed in the respective housing holes and fixed to the adhesive layers of the respective seal materials (4, 41, 42); folding the tape-shaped main body to separate each of the RFIC elements (5, 100) with seal materials (4, 41, 42) from the tape-shaped main body; and affixing the separated RFIC element (5, 100) with a seal material (4, 41, 42) to an antenna base material (11, 11B) by the adhesive layer of the seal material (4, 41, 42). preparing a carrier tape housing a plurality of RFIC elements (5, 100) with seal materials (4, 41, 42), the carrier tape including a tape-shaped main body having a first principal surface and a second principal surface and having a plurality of housing holes penetrating from the first principal surface to the second principal surface along a longitudinal direction, a plurality of seal materials (4, 41, 42) each having an adhesive layer on one principle surface and affixed to the second principal surface of the tape-shaped main body such that the adhesive layer is exposed in at least a portion of each of the housing holes, and a plurality of RFIC elements (5, 100) housed in the respective housing holes and fixed to the adhesive layers of the respective seal materials (4, 41, 42); folding the tape-shaped main body to separate each of the RFIC elements (5, 100) with seal materials (4, 41, 42) from the tape-shaped main body; and affixing the separated RFIC element (5, 100) with a seal material (4, 41, 42) to an antenna base material (11, 11B) by the adhesive layer of the seal material (4, 41, 42).
A reduced-pressure system for supplying reduced pressure for a medical application and receiving a fluid, the system comprising: a reservoir having a reservoir housing that forms an interior space; a reduced-pressure source for delivering reduced pressure, the reduced-pressure source fluidly coupled to the interior space of the reservoir and operable to deliver a reduced pressure to the interior space, wherein the reduced-pressure source is responsive to a control signal; a supply conduit fluidly coupled to the interior space; a supply sensor for measuring a supply rate of reduced pressure delivered by the reduced-pressure source and operable to develop a signal I indicative of reduced pressure made available to the supply conduit; a pressure sensor conduit fluidly coupled to the interior space; a pressure sensor in fluid communication with the pressure sensor conduit, the pressure sensor operable to develop a signal P indicative of a pressure level in the pressure sensor conduit proximate the pressure sensor; and a reduced-pressure control unit coupled to the supply sensor, pressure sensor, and the reduced-pressure source, the reduced-pressure control unit operable to receive signal I from the supply sensor and signal P from the pressure sensor, and to adjust the control signal to cause the reduced-pressure source to provide a desired pressure to the reservoir and to shutdown when the reservoir is full. a reservoir having a reservoir housing that forms an interior space; a reduced-pressure source for delivering reduced pressure, the reduced-pressure source fluidly coupled to the interior space of the reservoir and operable to deliver a reduced pressure to the interior space, wherein the reduced-pressure source is responsive to a control signal; a supply conduit fluidly coupled to the interior space; a supply sensor for measuring a supply rate of reduced pressure delivered by the reduced-pressure source and operable to develop a signal I indicative of reduced pressure made available to the supply conduit; a pressure sensor conduit fluidly coupled to the interior space; a pressure sensor in fluid communication with the pressure sensor conduit, the pressure sensor operable to develop a signal P indicative of a pressure level in the pressure sensor conduit proximate the pressure sensor; and a reduced-pressure control unit coupled to the supply sensor, pressure sensor, and the reduced-pressure source, the reduced-pressure control unit operable to receive signal I from the supply sensor and signal P from the pressure sensor, and to adjust the control signal to cause the reduced-pressure source to provide a desired pressure to the reservoir and to shutdown when the reservoir is full.