mhurhangee/ep-ind-claims huggingface dataset:
Motor vehicle having at least one cooling air duct which is formed in a base plate thereof and has the purpose of applying a cooling air flow to a wheel brake device of the motor vehicle, wherein an adjustable closure element in the form of a closure plate is assigned to the at least one cooling air duct, said closure plate being capable of being transferred itself into an operating position as a function of a sensed operating state of the wheel brake device and/or as a function of the velocity "V F " of the motor vehicle, in which operating position the cooling air duct is at least partially opened and the cooling air flow is permitted, and in addition can be transferred into an operating position in which the cooling air duct is closed and said cooling air flow is prevented, characterized in that in addition one or more further operating positions of the closure plate are provided, in which said closure plate projects towards the driving plane of the motor vehicle, via the base plate thereof, so as to form a wheel spoiler.
A method of manufacturing a photoelectronic device substrate, the method comprising: forming a first electrode on a substrate; forming an energy conversion layer having a hybrid structure of NH 2 ligand-adsorbed silica nanoparticles (SNPs; 130a) and graphene quantum dots (GQDs; 130b) bonded to surfaces of NH 2 ligand-adsorbed silica nanoparticles (SNPs; 130a) on the first electrode; and forming a second electrode on the energy conversion layer, wherein the forming of the energy conversion layer comprises manufacturing silica nanoparticles, manufacturing the graphene quantum dots, surface-treating the silica nanoparticles and binding the graphene quantum dots to the surface-treated silica nanoparticles, wherein the surface treating comprises adsorbing NH 2 ligands to the silica nanoparticles to positively charge the surfaces of the silica nanoparticles, mixing the silica nanoparticles, to which the NH 2 ligands are adsorbed, with a HCl solution and drying the NH 2 ligand-adsorbed silica nanoparticles by filtering the HCl solution, and wherein the NH 2 ligand-adsorbed silica nanoparticles (SNPs; 130a) function as energy donors in the energy conversion layer and the graphene quantum dots (GQDs; 130b) function as energy acceptors in the energy conversion layer, and the charge carriers generated on the surfaces of the NH 2 ligand-adsorbed silica nanoparticles (SNPs; 130a) due to optical absorption are transferred to the graphene quantum dots (GQDs; 130b) and thus energy transfer occurs therebetween. forming a first electrode on a substrate; forming an energy conversion layer having a hybrid structure of NH 2 ligand-adsorbed silica nanoparticles (SNPs; 130a) and graphene quantum dots (GQDs; 130b) bonded to surfaces of NH 2 ligand-adsorbed silica nanoparticles (SNPs; 130a) on the first electrode; and forming a second electrode on the energy conversion layer, wherein the forming of the energy conversion layer comprises manufacturing silica nanoparticles, manufacturing the graphene quantum dots, surface-treating the silica nanoparticles and binding the graphene quantum dots to the surface-treated silica nanoparticles, wherein the surface treating comprises adsorbing NH 2 ligands to the silica nanoparticles to positively charge the surfaces of the silica nanoparticles, mixing the silica nanoparticles, to which the NH 2 ligands are adsorbed, with a HCl solution and drying the NH 2 ligand-adsorbed silica nanoparticles by filtering the HCl solution, and wherein the NH 2 ligand-adsorbed silica nanoparticles (SNPs; 130a) function as energy donors in the energy conversion layer and the graphene quantum dots (GQDs; 130b) function as energy acceptors in the energy conversion layer, and the charge carriers generated on the surfaces of the NH 2 ligand-adsorbed silica nanoparticles (SNPs; 130a) due to optical absorption are transferred to the graphene quantum dots (GQDs; 130b) and thus energy transfer occurs therebetween.
An image setting device comprising: at least one processor (21, 81), wherein the processor is configured to set whether or not to generate a structure-highlighted synthesized two-dimensional image from a plurality of tomographic images, and set at least some of the plurality of tomographic images as storage-required images or non-storage-required images according to a result of the setting of whether or not to generate the structure-highlighted synthesized two-dimensional image. at least one processor (21, 81), wherein the processor is configured to set whether or not to generate a structure-highlighted synthesized two-dimensional image from a plurality of tomographic images, and set at least some of the plurality of tomographic images as storage-required images or non-storage-required images according to a result of the setting of whether or not to generate the structure-highlighted synthesized two-dimensional image.
A device for positioning die-cutting rollers in rotary cutting machines, wherein the carrier sheet for the labels to be obtained is in use passed through a pair of rollers synchronized with each other from respective gears, establishing a base roller and an upper roller, die-carrying, the upper roller being vertically movable on guides established on the support frame of the mechanism, characterised in that respective eccentric cams are linked to the ends of the shaft of the upper roller by means of bearings or gears, eccentric cams from which a lateral arm emerges that ends in a gear arc on which an endless screw acts associated with an impulse motor, associated with an internal and/or external control interface, manually operated and/or computerised.
A lamellar oil-in-glycol gel, characterized by comprising: (a) at least one glycol selected from butylene glycol, propylene glycol, 1,2,3-propanetriol or the mixtures thereof; (b) at least one fatty alcohol selected from isocetyl, stearyl, cetyl, behenic, oleic, linoleic alcohols, or mixtures thereof; and (c) a cationic surfactant comprising a mixture of hydroxy ethyl cetearamidopropyldimmonium chloride, dimethylPABAmidopropyl laurdimmonium tosylate and quatemium 70; wherein the amount of glycol ranges from 30 and 90% by weight, the amount of fatty alcohol ranges from 0.1 to 40% by weight and the amount of cationic surfactant ranges from 0.001 to 30% by weight in relation to the total weight of the composition. (a) at least one glycol selected from butylene glycol, propylene glycol, 1,2,3-propanetriol or the mixtures thereof; (b) at least one fatty alcohol selected from isocetyl, stearyl, cetyl, behenic, oleic, linoleic alcohols, or mixtures thereof; and (c) a cationic surfactant comprising a mixture of hydroxy ethyl cetearamidopropyldimmonium chloride, dimethylPABAmidopropyl laurdimmonium tosylate and quatemium 70; wherein the amount of glycol ranges from 30 and 90% by weight, the amount of fatty alcohol ranges from 0.1 to 40% by weight and the amount of cationic surfactant ranges from 0.001 to 30% by weight in relation to the total weight of the composition.
A method for producing thickened fruit- and/or vegetable preparations of a fruit- and/or vegetable-containing component, wherein a) a reclosable container, comprising at least one visible marking on the container wall, which contains a dry, powdery thickener composition, initially being provided sealed by a lid; b) for producing the thickened fruit- and/or vegetable preparation, the fruit- and/or vegetable-containing component is added into the container onto the thickener composition, wherein the volume of added fruit- and/or vegetable-containing component is determined by means of said marking on the container; c) the provided thickener composition and the added fruit- and/or vegetable-containing component are mixed in the container at a ratio so determined so that the fruit- and/or vegetable-containing component is thickened; and d) a ready-to-eat thickened fruit- and/or vegetable preparation is obtained in said container. a) a reclosable container, comprising at least one visible marking on the container wall, which contains a dry, powdery thickener composition, initially being provided sealed by a lid; b) for producing the thickened fruit- and/or vegetable preparation, the fruit- and/or vegetable-containing component is added into the container onto the thickener composition, wherein the volume of added fruit- and/or vegetable-containing component is determined by means of said marking on the container; c) the provided thickener composition and the added fruit- and/or vegetable-containing component are mixed in the container at a ratio so determined so that the fruit- and/or vegetable-containing component is thickened; and d) a ready-to-eat thickened fruit- and/or vegetable preparation is obtained in said container.
Bearing and guiding device for weapons in a military ship, in particular in a submarine, having a tube and having a plurality of guide rails (18a, 18b, 18c, 18d) running in the tube in the longitudinal direction thereof, characterized in that setting means are provided, with which the radial distance between at least one of the guide rails (18a, 18b, 18c, 18b) and an inner wall of the tube is settable and which are connected directly to the guide rail (18a, 18b, 18c, 18d).
A method operable by a mobile device, comprising: receiving a configuration for aggregating a plurality of component carriers comprising at least one cellular carrier and a wireless local area network, WLAN carrier, wherein the aggregation is performed at a given protocol layer of the mobile device below an internet protocol, IP layer; determining, at the given protocol layer, a mapping of uplink traffic in relation to the at least one cellular carrier and the WLAN carrier, wherein determining the mapping comprises receiving dynamic signaling from a network entity indicating which bearers are sent over which carriers, wherein the signaling indicates a packet size threshold and which carrier to use in response to the packet size exceeding the threshold; and sending an uplink transmission based at least in part on the mapping. receiving a configuration for aggregating a plurality of component carriers comprising at least one cellular carrier and a wireless local area network, WLAN carrier, wherein the aggregation is performed at a given protocol layer of the mobile device below an internet protocol, IP layer; determining, at the given protocol layer, a mapping of uplink traffic in relation to the at least one cellular carrier and the WLAN carrier, wherein determining the mapping comprises receiving dynamic signaling from a network entity indicating which bearers are sent over which carriers, wherein the signaling indicates a packet size threshold and which carrier to use in response to the packet size exceeding the threshold; and sending an uplink transmission based at least in part on the mapping.
A bolometric detection device comprising: - a substrate comprising a read-out circuit; - an array of elementary detectors each comprising a membrane suspended above the substrate and connected to the read-out integrated circuit by at least two electric conductors (16, 18), said membrane comprising two electrically-conductive electrodes (20, 22) respectively connected to the two electric conductors, and a volume of transducer material electrically connecting the two electrodes, wherein the read-out circuit is configured to apply an electrical stimulus between the two electrodes (20, 22) of the membrane and to form an electric signal as a response to said application, characterized: - in that said volume comprises: ▪ a volume (34, 38, 40) of a first transducer material electrically connecting the two electrodes (20, 22) of the membrane and forming walls of a closed enclosure having each of the electrodes (20, 22) at least partially housed therein; and ▪ a volume of a second transducer material, electrically connecting the two electrodes (20, 22) and housed in the enclosure, the electric resistivity of the second material being smaller than the electric resistivity of the first material; - and in that the two transducer materials have a negative thermal coefficient of resistivity TCR. - a substrate comprising a read-out circuit; - an array of elementary detectors each comprising a membrane suspended above the substrate and connected to the read-out integrated circuit by at least two electric conductors (16, 18), said membrane comprising two electrically-conductive electrodes (20, 22) respectively connected to the two electric conductors, and a volume of transducer material electrically connecting the two electrodes, - in that said volume comprises: ▪ a volume (34, 38, 40) of a first transducer material electrically connecting the two electrodes (20, 22) of the membrane and forming walls of a closed enclosure having each of the electrodes (20, 22) at least partially housed therein; and ▪ a volume of a second transducer material, electrically connecting the two electrodes (20, 22) and housed in the enclosure, the electric resistivity of the second material being smaller than the electric resistivity of the first material; ▪ a volume (34, 38, 40) of a first transducer material electrically connecting the two electrodes (20, 22) of the membrane and forming walls of a closed enclosure having each of the electrodes (20, 22) at least partially housed therein; and ▪ a volume of a second transducer material, electrically connecting the two electrodes (20, 22) and housed in the enclosure, the electric resistivity of the second material being smaller than the electric resistivity of the first material; - and in that the two transducer materials have a negative thermal coefficient of resistivity TCR.
A valve arrangement for a shock absorber, said valve arrangement comprising: - a valve housing comprising a first and a second port (7, 8) - a pilot chamber being in fluid communication with said first and/or second port, wherein a pilot pressure (P P) is defined by a hydraulic pressure in said pilot chamber; - a main valve member being axially movably arranged in said valve housing and being arranged to interact with a main valve seat of said valve housing in order to restrict a main fluid flow between said first and second ports (7, 8) in response to said pilot pressure acting on said main valve member; - a control valve member being movable in an axial direction relative to said main valve member and being resiliently loaded in a direction towards said pilot chamber, the valve arrangement is configured so that - during an active control mode, a pilot fluid flow (PF C, PF R) is controlled in response to an actuating force acting on said control valve member, - during a failsafe control mode, said pilot fluid flow (PF C, PF R) is controlled in response to the pilot pressure acting on said control valve member, and is characterized in that the valve arrangement is configured so that - the pilot fluid flow (PF C, PF R) is restricted by at least one common restriction both during active control mode and failsafe control mode. - a valve housing comprising a first and a second port (7, 8) - a pilot chamber being in fluid communication with said first and/or second port, wherein a pilot pressure (P P) is defined by a hydraulic pressure in said pilot chamber; - a main valve member being axially movably arranged in said valve housing and being arranged to interact with a main valve seat of said valve housing in order to restrict a main fluid flow between said first and second ports (7, 8) in response to said pilot pressure acting on said main valve member; - a control valve member being movable in an axial direction relative to said main valve member and being resiliently loaded in a direction towards said pilot chamber, the valve arrangement is configured so that - during an active control mode, a pilot fluid flow (PF C, PF R) is controlled in response to an actuating force acting on said control valve member, - during a failsafe control mode, said pilot fluid flow (PF C, PF R) is controlled in response to the pilot pressure acting on said control valve member, and is characterized in that the valve arrangement is configured so that - the pilot fluid flow (PF C, PF R) is restricted by at least one common restriction both during active control mode and failsafe control mode.
A system to facilitate breathing of a subject, comprising: a mask (23, 123) adapted to be applied to at least one breathing orifice of said subject; at least one controllable breathing valve connected between said mask (23,123) and the outside atmosphere to enable spontaneous breathing of said subject; a controller for controlling said at least one valve; a sensor for monitoring the breathing of the subject, and a pressure generator in fluid communication with said mask, wherein, if said sensor detects cessation of normal breathing for longer than a predetermined time, said controller is adapted to substantially close said at least one controllable breathing valve, and characterized in that said pressure generator is adapted to generate a surge of pressurized air in said mask (23, 123) during at least one time segment, terminating when inspiration flow resumes. a mask (23, 123) adapted to be applied to at least one breathing orifice of said subject; at least one controllable breathing valve connected between said mask (23,123) and the outside atmosphere to enable spontaneous breathing of said subject; a controller for controlling said at least one valve; a sensor for monitoring the breathing of the subject, and a pressure generator in fluid communication with said mask,
A fiber routing insert for an optical junction or distribution box, comprising: - a first floor and a second floor, the second floor being arranged at a raised position relative to the first floor, - first guide elements formed on the first floor, the first guide elements defining a first path configured to receive optical fibers, - second guide elements formed on the second floor, the second guide elements defining a second path configured to receive optical fibers, - a channel inclined to, and joining the first floor and the second floor, the channel defining an inclined path configured to receive and guide optical fibers between the first path and the second path, - one or more splice trays, each splice tray comprising two fiber access openings and third guide elements defining a third path configured to receive and guide optical fibers between said fiber access openings, characterized in that the second floor has a tray opening for accessing to the first floor, at least one splice tray being rotatably connected to the second floor for engaging and clearing the tray opening. - a first floor and a second floor, the second floor being arranged at a raised position relative to the first floor, - first guide elements formed on the first floor, the first guide elements defining a first path configured to receive optical fibers, - second guide elements formed on the second floor, the second guide elements defining a second path configured to receive optical fibers, - a channel inclined to, and joining the first floor and the second floor, the channel defining an inclined path configured to receive and guide optical fibers between the first path and the second path, - one or more splice trays, each splice tray comprising two fiber access openings and third guide elements defining a third path configured to receive and guide optical fibers between said fiber access openings,
Monitoring device for monitoring the insulation and/or continuity of at least one electric cable including a plurality of electrical wires (14 1, 14 2, 14 3), wherein the device comprises a measuring circuit that can be connected to the electrical wires (14 1, 14 2, 14 3) of the cable, the measuring circuit comprising: - a measuring stage comprising at least one voltage generator; - a switching stage, that can be connected to the measuring stage, suited to connect each electrical wire (14 1, 14 2, 14 3) automatically and successively to the measuring circuit and/or suited to connect the measuring circuit to ground (m); - a looping stage of the measuring circuit that can be connected, electrical wire to electrical wire of the cable, to the switching stage; the looping stage being configured to operate automatically in at least one of two modes, insulating or resistive, respectively associated with the monitoring of the insulation or the monitoring of the continuity of the electrical cable. - a measuring stage comprising at least one voltage generator; - a switching stage, that can be connected to the measuring stage, suited to connect each electrical wire (14 1, 14 2, 14 3) automatically and successively to the measuring circuit and/or suited to connect the measuring circuit to ground (m); - a looping stage of the measuring circuit that can be connected, electrical wire to electrical wire of the cable, to the switching stage;
A method of fabricating a variable diameter tapered fiber, the method comprising: providing a fiber optic cable; focusing a laser beam at a predetermined location inside the fiber optic cable; creating a damage site at the predetermined location; focusing the laser beam at a series of additional predetermined locations inside the fiber optic cable; creating a plurality of additional damage sites at the additional predetermined locations, wherein the damage site and the additional damage sites define a variable diameter tapered profile; exposing the fiber optic cable to an etchant solution; preferentially etching the damage site and the plurality of additional damage sites; and separating a portion of the fiber optic cable to release the variable diameter tapered fiber. providing a fiber optic cable; focusing a laser beam at a predetermined location inside the fiber optic cable; creating a damage site at the predetermined location; focusing the laser beam at a series of additional predetermined locations inside the fiber optic cable; creating a plurality of additional damage sites at the additional predetermined locations, wherein the damage site and the additional damage sites define a variable diameter tapered profile; exposing the fiber optic cable to an etchant solution; preferentially etching the damage site and the plurality of additional damage sites; and separating a portion of the fiber optic cable to release the variable diameter tapered fiber.
A system for performing in a microfluidic cartridge at least the steps of capturing target molecules from a sample, amplification of the target molecules and detection of one or more values indicative of the presence of the target molecules in the sample, comprising: - a detection system; - actuator members and actuators; - a valve unit; - a compressor; - a control unit; and - a system for heating and/or cooling at least a part of the micro fluidic cartridge comprising a first and a second heating/cooling element, wherein at least one of the heating/cooling elements is flexibly mounted, thus allowing for flexibly adapting the heating/cooling element to a structure of the micro fluidic cartridge, and wherein the first heating/cooling element is arranged in vicinity of an upper surface of a substrate of the micro fluidic cartridge and the second heating/cooling element has a central recess to allow for an optical detection of molecules in a central well of the micro fluidic cartridge. - a detection system; - actuator members and actuators; - a valve unit; - a compressor; - a control unit; and - a system for heating and/or cooling at least a part of the micro fluidic cartridge comprising a first and a second heating/cooling element, wherein at least one of the heating/cooling elements is flexibly mounted, thus allowing for flexibly adapting the heating/cooling element to a structure of the micro fluidic cartridge, and wherein the first heating/cooling element is arranged in vicinity of an upper surface of a substrate of the micro fluidic cartridge and the second heating/cooling element has a central recess to allow for an optical detection of molecules in a central well of the micro fluidic cartridge.