mhurhangee/ep-ind-claims huggingface dataset:
A containment system for a nuclear plant, the containment system comprising; a pressure vessel defining a containment space for containing nuclear plant structures; a working floor extending within the containment space; an access opening in the pressure vessel for providing access to the working floor in the containment space; and an access door (20, 120) provided within the pressure vessel and configured to move with respect to the pressure vessel from a closed position in which it closes the access opening to seal the pressure vessel, and an open position in which it reveals the access opening and is received in a door space in the working floor; wherein the access door (20, 120) comprises a first integral floor plug which is configured to plug the door space in the working floor when the access door (20, 120) is in the open position, to provide a substantially continuous working floor surface from outside the pressure vessel to within the containment space; characterised in that: the working floor extends from within the containment space to outside the pressure vessel; the access opening provides access from the working floor outside the pressure vessel to the working floor in the containment space; and the access door (20, 120) is configured to slidably move downwardly with respect to the pressure vessel. a pressure vessel defining a containment space for containing nuclear plant structures; a working floor extending within the containment space; an access opening in the pressure vessel for providing access to the working floor in the containment space; and an access door (20, 120) provided within the pressure vessel and configured to move with respect to the pressure vessel from a closed position in which it closes the access opening to seal the pressure vessel, and an open position in which it reveals the access opening and is received in a door space in the working floor; wherein the access door (20, 120) comprises a first integral floor plug which is configured to plug the door space in the working floor when the access door (20, 120) is in the open position, to provide a substantially continuous working floor surface from outside the pressure vessel to within the containment space; characterised in that: the working floor extends from within the containment space to outside the pressure vessel; the access opening provides access from the working floor outside the pressure vessel to the working floor in the containment space; and the access door (20, 120) is configured to slidably move downwardly with respect to the pressure vessel. the working floor extends from within the containment space to outside the pressure vessel; the access opening provides access from the working floor outside the pressure vessel to the working floor in the containment space; and the access door (20, 120) is configured to slidably move downwardly with respect to the pressure vessel.
An intake system structure of a power unit, which is mounted to a vehicle, and in which an internal combustion engine and a power transmission are integrated with each other, an air cleaner is provided at a position away from a cylinder part of the internal combustion engine, a throttle body is disposed at a position close to the cylinder part, and the air cleaner and the throttle body are connected to each other by a connecting tube, a regulating member for regulating the throttle body from rotating around the axis of an intake passage thereof regulates the throttle body in a position in the rotating direction around the axis with respect to the cylinder part, the throttle body is assembled to the cylinder part through an inlet manifold and supported integrally by the cylinder part; and in the throttle body, a connecting cylindrical part to the connecting tube is provided with a positioning part for positioning the connecting tube in the rotating direction, a downstream end of the connecting tube is provided with a tube side connecting cylindrical part for connecting to the throttle body, characterized in that the tube side connecting cylindrical part is provided with an engagement part composed of two projections projecting towards the throttle body side, the engagement part composed of the two projections holds the positioning part between them to engage therewith, thereby performing positioning in the rotating direction around the axis of the tube side connecting cylindrical part, and the positioning part is a boss part for an idle air screw provided on the throttle body.
A silk electronic component comprising: a silk metamaterial composite comprising a silk matrix; and at least one patterned conductive structure coupled to the silk matrix, so that when the silk metamaterial composite responds to electromagnetic radiation, the composite exhibits a resonant response. a silk metamaterial composite comprising a silk matrix; and at least one patterned conductive structure coupled to the silk matrix, so that when the silk metamaterial composite responds to electromagnetic radiation, the composite exhibits a resonant response.
Use of a circulating miRNA selected from miR-181a and miR-652 to detect Luminal A breast cancer in a whole blood sample, to stratify patients with Luminal A breast cancer according to expected prognosis or to assess the efficacy of a medical treatment of Luminal A breast cancer.
Monitoring system comprising several video detectors (7, 9, 11) and central means of aggregation comprising means of control of the video detectors and means of viewing images originating from one or more of the video detectors, the monitoring system furthermore comprising local means of aggregation associated with one of the video detectors, the local means of aggregation comprising means of control of the said detector, characterized in that the central means of aggregation comprise means of analysis of the images originating from one or more of the video detectors, and in that the monitoring system furthermore comprises intermediate means of aggregation connected to a subset of the video detectors and to the central means of aggregation and comprising means of fusion adapted to analyse the images of at least two video detectors of the subset of video detectors and to trigger an alarm to the central means of aggregation as a function of the result of the said analysis, and in that the local means of aggregation comprise means of analysis of the images of the said detector which are adapted to dispatch an alarm to the intermediate means of aggregation, and in that the said alarm is retransmitted to the central means of aggregation by the intermediate means of aggregation.
A natural draft cooling tower that cools an industrial fluid that comprises an air cooled steam condenser, comprising: a shell having a perimeter that extends vertically about a vertical axis, wherein the air cooled steam condensers are disposed approximate to said shell; a horizontal duct for receiving the industrial fluid to be cooled; a central riser duct in fluid communication with said horizontal duct; a radial manifold in fluid communication with the central riser duct; at least one radial duct that extends radially from said radial manifold; a terminal duct in fluid communication with said at least one radial duct; a peripheral manifold in fluid communication with said terminal duct; and at least one finned tube bundle in fluid communication with said peripheral manifold, characterized in that the peripheral manifold encircles said central riser duct and is continuous about the perimeter. a shell having a perimeter that extends vertically about a vertical axis, wherein the air cooled steam condensers are disposed approximate to said shell; a horizontal duct for receiving the industrial fluid to be cooled; a central riser duct in fluid communication with said horizontal duct; a radial manifold in fluid communication with the central riser duct; at least one radial duct that extends radially from said radial manifold; a terminal duct in fluid communication with said at least one radial duct; a peripheral manifold in fluid communication with said terminal duct; and at least one finned tube bundle in fluid communication with said peripheral manifold, characterized in that the peripheral manifold encircles said central riser duct and is continuous about the perimeter.
A binder for horticultural use comprising: a handle frame having pins protrudingly formed on both sides in the middle of the handle frame and a stopper outwardly protruding from a front end portion thereof; a tape guide attached to a lower face of the handle frame and having a tape case; a taper rotatably mounted inside the handle frame; an arm rotatably mounted on the handle frame and having a clincher at an end portion opposed to the taper; a head mounted inside the arm for catching and drawing out a tape; and a link rotatably mounted on the arm and having a handle disposed at one side thereof and a hook disposed at the other side thereof, wherein the taper comprises: a taper frame; and a binding heating cable unit having a binding heating cable which is disposed so as to receive an electric current from a power supply unit; wherein the binding heating cable is opposed to the clincher for binding both ends of a tape, which is interposed between the binding heating cable and the clincher, by heat; the binder for horticultural use being characterized in that: the taper frame has a holder groove disposed at one side thereof; and the taper further comprises a holder to which the binding heating cable unit is detachably attached, the holder being inserted into the holder groove. a taper frame; and a binding heating cable unit having a binding heating cable which is disposed so as to receive an electric current from a power supply unit; wherein the binding heating cable is opposed to the clincher for binding both ends of a tape, which is interposed between the binding heating cable and the clincher, by heat; the binder for horticultural use being characterized in that: the taper frame has a holder groove disposed at one side thereof; and the taper further comprises a holder to which the binding heating cable unit is detachably attached, the holder being inserted into the holder groove. the taper frame has a holder groove disposed at one side thereof; and the taper further comprises a holder to which the binding heating cable unit is detachably attached, the holder being inserted into the holder groove.
Electric convection cooking oven comprising a cooking chamber, a cooking resistor and a fan both mounted on the rear wall of said cooking chamber and a deflector, formed by a front wall and peripheral walls, mounted on said rear wall so as to protect a user from contact with said cooking resistor and said fan, said deflector being provided with solid peripheral walls (9, 10) at its top and bottom sides and at least one central intake grille in said front wall, the deflector (21; 22) having a substantially octagonal shape that also includes two pairs of oblique peripheral walls (11, 12), which are respectively adjacent to said top and bottom walls (9, 10) and have openings (11a, 12a) that extend over 30-90% of the area of said oblique walls (11, 12), as well as two lateral peripheral walls that extend between the oblique walls (11, 12), characterized in that the deflector has the shape of a semi-regular octagon deriving from a rectangle or a square with bevelled corners, with also the side walls having openings, and in that it further includes a water supply duct extending from the rear wall of the cooking chamber, a tray, located inside the cooking chamber in a position to receive the water supplied through said duct, and a second resistor that extends into said tray so that most of said second resistor is immersed in water when the tray is filled, the deflector protecting a user also from contact with the second resistor.
A device, comprising: a first sheet of a conductive material; a sheet of an electrolyte disposed on the first sheet of the conductive material; and a second sheet of conductive material disposed on the sheet of the electrolyte, wherein at least one of the first sheet and second sheet comprises a metal foil layer and a carbon nanotube layer, the carbon nanotube layer being arranged to face the sheet of the electrolyte, and wherein the carbon nanotube layer is directly grown on the metal foil layer. a first sheet of a conductive material; a sheet of an electrolyte disposed on the first sheet of the conductive material; and a second sheet of conductive material disposed on the sheet of the electrolyte,
A compressor comprising: a compressor housing defining a cavity, and a compressor wheel disposed in the cavity, the compressor housing defining an inlet for leading air into the compressor wheel, a discharge volute for receiving air compressed by the compressor wheel, and a recirculation duct connected to the inlet at a location upstream of the compressor wheel; a recirculation valve disposed between the discharge volute and the recirculation duct for regulating air flow through the recirculation duct into the inlet; wherein the recirculation duct comprises a substantially round or oval duct with a dividing wall configured to divide the duct into two halves comprising two channels extending parallel to each other in the flow direction along the channels, the two channels conducting two parallel streams of air from the recirculation valve into the inlet; and wherein the dividing wall has a length that extends along a flow direction through the recirculation duct, and a width that extends perpendicular to the flow direction, wherein the width extends perpendicular to an axial direction of the compressor. a compressor housing defining a cavity, and a compressor wheel disposed in the cavity, the compressor housing defining an inlet for leading air into the compressor wheel, a discharge volute for receiving air compressed by the compressor wheel, and a recirculation duct connected to the inlet at a location upstream of the compressor wheel; a recirculation valve disposed between the discharge volute and the recirculation duct for regulating air flow through the recirculation duct into the inlet; wherein the recirculation duct comprises a substantially round or oval duct with a dividing wall configured to divide the duct into two halves comprising two channels extending parallel to each other in the flow direction along the channels, the two channels conducting two parallel streams of air from the recirculation valve into the inlet; and wherein the dividing wall has a length that extends along a flow direction through the recirculation duct, and a width that extends perpendicular to the flow direction, wherein the width extends perpendicular to an axial direction of the compressor.
Computer-executable instructions that upon execution cause one or more processors of a computing device (110; 200) to perform acts comprising: receiving, at the computing device, a request related to a mobile network operator, MNO, profile (121; 122) that allows a mobile device comprising an embedded subscriber identity module, eSIM, to access a carrier network of the MNO (101; 102; 103); identifying, at the computing device, a subscription manager (131; 132) associated with the MNO in the request; communicating, at the computing device, with the identified subscription manager, wherein the communicating comprises directing the subscription manager to generate the MNO profile; communicating, at the computing device, with the mobile device, wherein the communicating comprises launching an application to download the generated MNO profile from the subscription manager; collecting, by the computing device, data related to the MNO profile from the subscription manager and from the mobile device that is using the MNO profile; and presenting, at the computing device, the collected data related to the MNO profile from the mobile device and the subscription manager in one data structure. receiving, at the computing device, a request related to a mobile network operator, MNO, profile (121; 122) that allows a mobile device comprising an embedded subscriber identity module, eSIM, to access a carrier network of the MNO (101; 102; 103); identifying, at the computing device, a subscription manager (131; 132) associated with the MNO in the request; communicating, at the computing device, with the identified subscription manager, wherein the communicating comprises directing the subscription manager to generate the MNO profile; communicating, at the computing device, with the mobile device, wherein the communicating comprises launching an application to download the generated MNO profile from the subscription manager; collecting, by the computing device, data related to the MNO profile from the subscription manager and from the mobile device that is using the MNO profile; and presenting, at the computing device, the collected data related to the MNO profile from the mobile device and the subscription manager in one data structure.
Reinforced concrete component comprising at least an upper (Bo) and at least a lower (Bu) longitudinal reinforcement layer and a shear force reinforcement, wherein it is guided in its expansion beyond the most upper (Boo) and the lowest (Buu) longitudinal reinforcement, wherein the shear force reinforcement is manufactured from at least 20 L-shaped sheet metal parts of structural steel, characterized in that brackets are attached on the L-shaped metal parts, wherein each bracket is mounted in a longitudinal recess opened on one side of the L-shaped sheet metal part, wherein each bracket is formed from a reinforcing bar of structural steel with round cross section, and wherein shoulders of the brackets are placed on the most upper longitudinal reinforcement layer (Boo).
A method comprising: receiving a plurality of frames; determining a time-related parameter for one or more of the received frames, each time-related parameter associated with a transmission lifetime for one of the received frames, wherein the transmission lifetime indicates a maximum transmission delay for the received frame over air interface frame delivery; generating an aggregated frame based on the plurality of received frames; determining a frame lifetime for the aggregated frame based on the time-related parameter for the one or more received frames, wherein the frame lifetime indicates a maximum transmission delay for the aggregated frame over the air interface frame delivery; attempting transmission of the aggregated frame during the frame lifetime of the aggregated frame; discarding the aggregated frame when the frame lifetime of the aggregated frame expires with no further attempts to transmit the aggregated frame after the expiry of the frame lifetime. receiving a plurality of frames; determining a time-related parameter for one or more of the received frames, each time-related parameter associated with a transmission lifetime for one of the received frames, wherein the transmission lifetime indicates a maximum transmission delay for the received frame over air interface frame delivery; generating an aggregated frame based on the plurality of received frames; determining a frame lifetime for the aggregated frame based on the time-related parameter for the one or more received frames, wherein the frame lifetime indicates a maximum transmission delay for the aggregated frame over the air interface frame delivery; attempting transmission of the aggregated frame during the frame lifetime of the aggregated frame; discarding the aggregated frame when the frame lifetime of the aggregated frame expires with no further attempts to transmit the aggregated frame after the expiry of the frame lifetime.
A filter system comprising a sand filter vessel with a divider permeable for water, a filter medium placed on the divider, an outlet pipe leading from a filtered water space under the divider to a filtered water tank, a filtered water pump and a compressed air inlet leading under the divider, characterised in that - the compressed air inlet is located right under the divider, - the outlet pipe has an inflow near the bottom of the sand filter vessel and an outflow to the filtered water tank at a height which determines the minimum level of water, the outflow of the outlet pipe having a selected profile or a calibrated opening to limit the water flow from the filtered water space such that the flow through the outlet pipe is smaller than the flow through the compressed air inlet, - the volume of the filtered water space is at least as large as the volume of the filtered water tank. - a turbid water inflow to a turbid water tank is located above the surface of the filter medium and below the minimum level of water in the sand filter vessel. - the compressed air inlet is located right under the divider, - the outlet pipe has an inflow near the bottom of the sand filter vessel and an outflow to the filtered water tank at a height which determines the minimum level of water, the outflow of the outlet pipe having a selected profile or a calibrated opening to limit the water flow from the filtered water space such that the flow through the outlet pipe is smaller than the flow through the compressed air inlet, - the volume of the filtered water space is at least as large as the volume of the filtered water tank. - a turbid water inflow to a turbid water tank is located above the surface of the filter medium and below the minimum level of water in the sand filter vessel.