mhurhangee/ep-ind-claims huggingface dataset:
Assembly for determining the temperature (θ o) of a surface, having - a first sensor unit that has a first temperature sensor, - a first thermally conductive element that is configured to connect the first sensor unit to the surface, and - a second thermally conductive element that is configured to connect the first sensor unit to a reference point spaced from the surface, characterized in that - the first thermally conductive element and the second thermally conductive element are configured such that the steady-state temperature of the first sensor unit in degrees Celsius is between 20% and 70% of the temperature of the surface, in particular between 20% and 40% of the temperature of the surface, when the temperature of the surface is higher than the temperature of the reference point. - a first sensor unit that has a first temperature sensor, - a first thermally conductive element that is configured to connect the first sensor unit to the surface, and - a second thermally conductive element that is configured to connect the first sensor unit to a reference point spaced from the surface, characterized in that - the first thermally conductive element and the second thermally conductive element are configured such that the steady-state temperature of the first sensor unit in degrees Celsius is between 20% and 70% of the temperature of the surface, in particular between 20% and 40% of the temperature of the surface, when the temperature of the surface is higher than the temperature of the reference point.
A guide wire (200; 300), comprising: a core shaft; and a coil body (230; 330) comprising a plurality of turns wound around a distal portion of the core shaft, wherein the coil body (230, 330) is formed by winding at least one winding element into a helical coil structure, wherein the coil body (230; 330) includes a straight section (232; 332) in a straight state from a proximal end of the coil body (230; 330) toward a distal direction and a curved section (234; 334) arranged at a distal side of the straight section (232; 332), and wherein adjacent turns of the coil body (230; 330) are in contact with each other on an outer side of the curved section (234; 334) characterized in that each of the at least one winding element is obtained by stranding a plurality of wires, and the coil body (230; 330) is formed by winding a plurality of winding elements (242; 342) into a helical coil structure. a core shaft; and a coil body (230; 330) comprising a plurality of turns wound around a distal portion of the core shaft, wherein the coil body (230, 330) is formed by winding at least one winding element into a helical coil structure, wherein the coil body (230; 330) includes a straight section (232; 332) in a straight state from a proximal end of the coil body (230; 330) toward a distal direction and a curved section (234; 334) arranged at a distal side of the straight section (232; 332), and wherein adjacent turns of the coil body (230; 330) are in contact with each other on an outer side of the curved section (234; 334) characterized in that each of the at least one winding element is obtained by stranding a plurality of wires, and the coil body (230; 330) is formed by winding a plurality of winding elements (242; 342) into a helical coil structure.
Device for orienting exhaust gases at the outlet of the cylinders of an engine, said device comprising: - a discharge valve intended to be installed in a discharge duct of an equipment item configured to be driven by a fluid, in particular of a turbocompressor driven by exhaust gases of the engine, the valve being intended to be connected at the outlet of at least one first cylinder (2a, 2b, 2c) of the engine, said discharge valve comprising a cavity comprising a first, a second and a third opening which are intended to be connected to a respective duct, the discharge valve also comprising first and second means for shutting off said respectively first and second openings to control the communication between the ducts, the shut-off means (91, 93) being fixed to a guide pin configured to be movable translationally between a first position for closing the first opening by the first shut-off means and a second position for closing the second opening by the second shut-off means, the valve comprising a means for actuating the guide pin, the actuating means being able to be moved rotationally and making it possible to convert this rotational movement into a translational movement of the guide pin, - an exhaust-gas recirculation valve intended to be connected at the outlet of at least one second cylinder of the engine, - a duct interconnecting said valves (17, 19). - a discharge valve intended to be installed in a discharge duct of an equipment item configured to be driven by a fluid, in particular of a turbocompressor driven by exhaust gases of the engine, the valve being intended to be connected at the outlet of at least one first cylinder (2a, 2b, 2c) of the engine, said discharge valve comprising a cavity comprising a first, a second and a third opening which are intended to be connected to a respective duct, the discharge valve also comprising first and second means for shutting off said respectively first and second openings to control the communication between the ducts, the shut-off means (91, 93) being fixed to a guide pin configured to be movable translationally between a first position for closing the first opening by the first shut-off means and a second position for closing the second opening by the second shut-off means, the valve comprising a means for actuating the guide pin, the actuating means being able to be moved rotationally and making it possible to convert this rotational movement into a translational movement of the guide pin, - an exhaust-gas recirculation valve intended to be connected at the outlet of at least one second cylinder of the engine, - a duct interconnecting said valves (17, 19).
A storage and assembly device for storing and assembling solar panels comprising: - a supporting structure with a containing space (1.1) for storing a plurality of solar panels and said supporting structure located on a base arranged in the lower part in its operating position; characterized in that it further comprises: - one or more displacement modules (1.2), wherein each displacement module (1.2) comprises one or more displaceable supports (1.2.1) per solar panel to be stored for the support and displacement of the solar panel, wherein the one or more supports (1.2.1) are displaceable from a first storage position (a) to a second release position (b) of the solar panel; - an actuator (1.3) for driving the displacement of the displaceable supports (1.2.1); wherein when the displaceable supports (1.2.1) are located in the first position (a), the displacement module or modules (1.2) determine a position of the solar panels supported by them in a stacked arrangement, and the release of the solar panels takes place through an opening in the base. - a supporting structure with a containing space (1.1) for storing a plurality of solar panels and said supporting structure located on a base arranged in the lower part in its operating position; characterized in that it further comprises: - one or more displacement modules (1.2), wherein each displacement module (1.2) comprises one or more displaceable supports (1.2.1) per solar panel to be stored for the support and displacement of the solar panel, wherein the one or more supports (1.2.1) are displaceable from a first storage position (a) to a second release position (b) of the solar panel; - an actuator (1.3) for driving the displacement of the displaceable supports (1.2.1); - one or more displacement modules (1.2), wherein each displacement module (1.2) comprises one or more displaceable supports (1.2.1) per solar panel to be stored for the support and displacement of the solar panel, wherein the one or more supports (1.2.1) are displaceable from a first storage position (a) to a second release position (b) of the solar panel; - an actuator (1.3) for driving the displacement of the displaceable supports (1.2.1);
A glycolic acid copolymer composition comprising a glycolic acid copolymer and a carboxylic anhydride, wherein the glycolic acid copolymer is a copolymer comprising two or more straight macromolecular chains A each containing a repeating unit derived from glycolic acid and being chemically bonded to a macromolecular chain B that is different from the macromolecular chains A, the macromolecular chain B is derived from a macromolecular compound having a weight average molecular weight of 1500 or greater and 250000 or less and a glass transition temperature of lower than 45°C, and a weight average molecular weight of the glycolic acid copolymer composition is 150000 or greater, measured as indicated in the description. the macromolecular chain B is derived from a macromolecular compound having a weight average molecular weight of 1500 or greater and 250000 or less and a glass transition temperature of lower than 45°C, and a weight average molecular weight of the glycolic acid copolymer composition is 150000 or greater, measured as indicated in the description.
A system for visualizing multiple signals sensed by multiple electrodes of a multi-electrode catheter, comprising: a display; and a processor, configured to: receive multiple signals sensed by multiple electrodes of a multi-electrode catheter in a heart of a patient; determine which of the electrodes are to be active in an ablation procedure; and present the multiple signals to a user, on the display, using a graphical user interface that (i) visualizes the signals from the electrodes determined to be active (55, 57) by a first graphical feature, and (ii) visualizes the signals from the electrodes determined not to be active by a second graphical feature, different from the first graphical feature. a display; and a processor, configured to: receive multiple signals sensed by multiple electrodes of a multi-electrode catheter in a heart of a patient; determine which of the electrodes are to be active in an ablation procedure; and present the multiple signals to a user, on the display, using a graphical user interface that (i) visualizes the signals from the electrodes determined to be active (55, 57) by a first graphical feature, and (ii) visualizes the signals from the electrodes determined not to be active by a second graphical feature, different from the first graphical feature. receive multiple signals sensed by multiple electrodes of a multi-electrode catheter in a heart of a patient; determine which of the electrodes are to be active in an ablation procedure; and present the multiple signals to a user, on the display, using a graphical user interface that (i) visualizes the signals from the electrodes determined to be active (55, 57) by a first graphical feature, and (ii) visualizes the signals from the electrodes determined not to be active by a second graphical feature, different from the first graphical feature.
A minibody comprising: an scFv sequence that can bind prostate specific membrane antigen (PSMA), the scFv comprising a variable heavy domain linked to a variable light domain by an amino acid linker sequence; an artificial hinge sequence comprising a portion of a human IgG1 hinge and a GlySer linker; and a human IgG CH3 sequence, wherein at least one of: a) the VH comprises SEQ ID NO: 3 and the VL comprises SEQ ID NO: 17; or b) the VH comprises SEQ ID NO: 5 and the VL comprises SEQ ID NO: 19; or c) the VH is a variable heavy domain in SEQ ID NO: 10 and the VL is a variable light domain in SEQ ID NO: 10; or d) the VH is a variable heavy domain in SEQ ID NO: 11 and the VL is a variable light domain in SEQ ID NO: 11. an scFv sequence that can bind prostate specific membrane antigen (PSMA), the scFv comprising a variable heavy domain linked to a variable light domain by an amino acid linker sequence; an artificial hinge sequence comprising a portion of a human IgG1 hinge and a GlySer linker; and a human IgG CH3 sequence, wherein at least one of: a) the VH comprises SEQ ID NO: 3 and the VL comprises SEQ ID NO: 17; or b) the VH comprises SEQ ID NO: 5 and the VL comprises SEQ ID NO: 19; or c) the VH is a variable heavy domain in SEQ ID NO: 10 and the VL is a variable light domain in SEQ ID NO: 10; or d) the VH is a variable heavy domain in SEQ ID NO: 11 and the VL is a variable light domain in SEQ ID NO: 11. a) the VH comprises SEQ ID NO: 3 and the VL comprises SEQ ID NO: 17; or b) the VH comprises SEQ ID NO: 5 and the VL comprises SEQ ID NO: 19; or c) the VH is a variable heavy domain in SEQ ID NO: 10 and the VL is a variable light domain in SEQ ID NO: 10; or d) the VH is a variable heavy domain in SEQ ID NO: 11 and the VL is a variable light domain in SEQ ID NO: 11.
A method of making a wind turbine blade component comprising an outer shell having a laminate structure, the method comprising: providing a blade mould defining a shape of at least part of the outer shell of the blade, the mould extending in a spanwise direction between a root end and a tip end, and extending in a chordwise direction between a leading edge and a trailing edge; providing a plurality of dry plies comprising dry structural fibrous material; providing a plurality of prepreg plies comprising structural fibrous material impregnated with resin; arranging the plurality of dry plies and the plurality of prepreg plies in the mould to form a plurality of layers of the laminate structure of the outer shell of the blade, wherein the plies are arranged in the mould such that the dry plies are interleaved with the prepreg plies to form a hybrid shell structure in which the plies are arranged in a staggered relationship such that corresponding edges of the dry plies are offset from one another in the spanwise and/or chordwise direction of the mould and/or corresponding edges of the prepreg plies are offset from one another in the spanwise and/or chordwise direction of the mould. providing a blade mould defining a shape of at least part of the outer shell of the blade, the mould extending in a spanwise direction between a root end and a tip end, and extending in a chordwise direction between a leading edge and a trailing edge; providing a plurality of dry plies comprising dry structural fibrous material; providing a plurality of prepreg plies comprising structural fibrous material impregnated with resin; arranging the plurality of dry plies and the plurality of prepreg plies in the mould to form a plurality of layers of the laminate structure of the outer shell of the blade, wherein the plies are arranged in the mould such that the dry plies are interleaved with the prepreg plies to form a hybrid shell structure in which the plies are arranged in a staggered relationship such that corresponding edges of the dry plies are offset from one another in the spanwise and/or chordwise direction of the mould and/or corresponding edges of the prepreg plies are offset from one another in the spanwise and/or chordwise direction of the mould.
A method of testing for leaks in a heat exchanger having separate first and second flow paths in mutual heat exchange relationship, both of said flow paths having two open ends (5, 6; 7, 8), which method includes: - closing said open ends (5, 6) of the first flow path to pressure-seal the first flow path; - connecting a high pressure fluid source with the first flow path to increase the pressure therein; - maintaining a low pressure in the second flow path relative to the first flow path; and - connecting a sensor to one of the first and second flow paths (2, 3) constituting a monitored flow path, characterised in that said sensor is a volumetric sensor having a sensing chamber arranged to receive fluid from the monitored flow path; and the method includes connecting a further fluid source to the sensing chamber of the volumetric sensor and monitoring the volumetric sensor for any change in fluid volume in the sensing chamber thereof caused by leakage of fluid from the first flow path. - closing said open ends (5, 6) of the first flow path to pressure-seal the first flow path; - connecting a high pressure fluid source with the first flow path to increase the pressure therein; - maintaining a low pressure in the second flow path relative to the first flow path; and - connecting a sensor to one of the first and second flow paths (2, 3) constituting a monitored flow path,
A NdFeB system sintered magnet having a base material produced by orienting powder of a NdFeB system alloy and sintering the powder, with Tb (R H) attached to and diffused from a surface of the base material through a grain boundary inside the base material by a grain boundary diffusion treatment, characterized in that the number of grain-boundary triple points, at which the difference C t -C w between the R H content C t (wt%) at the grain-boundary triple point and the R H content C w (wt%) at a two-grain boundary portion is equal to or smaller than 4 wt%, is equal to or larger than 60 % of the total number of grain-boundary triple points, the two-grain boundary portion being a portion of the grain boundary sandwiched between two main-phase grains, and the grain-boundary triple point being a portion of the grain boundary surrounded by three or more main-phase grains.
A method for operating a circuit breaker, a switch-off process being initiated when a fault current caused by body contact or ground contact is detected, during the switch-off process a voltage value between a neutral conductor and at least one live conductor at an output of the circuit breaker being reduced from an operating voltage value to zero by a switch-off unit according to a predetermined switch-off curve, characterized in that during the switch-off process, the circuit is not abruptly interrupted, but instead the voltage value is reduced in a controlled manner according to the switch-off curve from an initial time and reaches zero only after a predetermined first period of time.
Operating gas system (1a, 1b) for an underwater vehicle, particularly for a submarine or an unmanned underwater vehicle, comprising a fuel cell system, an operating gas vessel (5, 17) which is connected for flow to the fuel cell system, and a gas-receiving device which contains a sorbent (9, 19) for receiving the boil-off gas from the operating gas vessel (5, 17), wherein the gas-receiving device is connected to the operating gas vessel (5, 17), characterised in that the fuel cell system has a cooling system, wherein a coolant line of the cooling system leads to the gas-receiving device.
A method of installing a subsea riser, the method comprising: lowering at least one riser conduit to a seabed location when piggybacked to an elongate support that comprises at least one flowline; effecting fluid communication between the at least one riser conduit and the flowline through a root end of the at least one riser conduit; and at the seabed location, detaching a free end of the at least one riser conduit from the elongate support; characterised by, while leaving the elongate support and the root end of the at least one riser conduit at the seabed location, lifting the detached free end of the at least one riser conduit away from the elongate support to a riser support that is positioned at or near to the surface of the sea. lowering at least one riser conduit to a seabed location when piggybacked to an elongate support that comprises at least one flowline; effecting fluid communication between the at least one riser conduit and the flowline through a root end of the at least one riser conduit; and at the seabed location, detaching a free end of the at least one riser conduit from the elongate support; characterised by, while leaving the elongate support and the root end of the at least one riser conduit at the seabed location, lifting the detached free end of the at least one riser conduit away from the elongate support to a riser support that is positioned at or near to the surface of the sea.
A system for emergency light control over a mesh network, wherein the system is configured to provide an emergency light system of a marine vessel, the system comprising: a main power supply configured to provide power in a first operating mode; a plurality of light module apparatuses operationally connected to the main power supply, the plurality of light module apparatuses comprising a communication interface for a mesh network and a backup power source; at least one emergency light module apparatus comprising a communication interface (RF, 650) for the mesh network; and wherein the plurality of light module apparatuses is configured to detect change of mode from the first operating mode to a second operating mode; and to transmit an emergency signal over the mesh network using the backup power source, wherein in the second operating mode, the emergency signal is configured to be received by the at least one emergency light module apparatus over the mesh network, and to control the at least one emergency light module apparatus based on the emergency signal, characterized in that the system comprises an emergency power supply configured to provide power in the second operating mode; and in that the at least one emergency light module apparatus is operationally connected to the emergency power supply over an emergency power distribution network and configured to receive power from the emergency power supply in the second operating mode over the emergency power distribution network. a main power supply configured to provide power in a first operating mode; a plurality of light module apparatuses operationally connected to the main power supply, the plurality of light module apparatuses comprising a communication interface for a mesh network and a backup power source; at least one emergency light module apparatus comprising a communication interface (RF, 650) for the mesh network; and wherein the plurality of light module apparatuses is configured to detect change of mode from the first operating mode to a second operating mode; and to transmit an emergency signal over the mesh network using the backup power source, to detect change of mode from the first operating mode to a second operating mode; and to transmit an emergency signal over the mesh network using the backup power source, wherein in the second operating mode, the emergency signal is configured to be received by the at least one emergency light module apparatus over the mesh network, and to control the at least one emergency light module apparatus based on the emergency signal, characterized in that the system comprises an emergency power supply configured to provide power in the second operating mode; and in that the at least one emergency light module apparatus is operationally connected to the emergency power supply over an emergency power distribution network and configured to receive power from the emergency power supply in the second operating mode over the emergency power distribution network.