mhurhangee/ep-ind-claims huggingface dataset:
An accessory for use with a vacuum cleaner, the accessory being adaptable to releasably connect to the vacuum cleaner, the accessory comprising: a vacuum intake head having a chamber arranged such that when the accessory is connected to the vacuum cleaner, the chamber is in fluid communication with the vacuum cleaner and adaptable to receive air and liquid from and around a surface to be cleaned; and filtration means adaptable to separate the liquid from the air such that substantially no liquid returns to the vacuum cleaner characterised in that the accessory further comprises a spraying means for spraying a work fluid onto the surface to be cleaned; and the vacuum intake head further comprises at least one rotatable brush for agitating the surface to be cleaned. a vacuum intake head having a chamber arranged such that when the accessory is connected to the vacuum cleaner, the chamber is in fluid communication with the vacuum cleaner and adaptable to receive air and liquid from and around a surface to be cleaned; and filtration means adaptable to separate the liquid from the air such that substantially no liquid returns to the vacuum cleaner characterised in that the accessory further comprises a spraying means for spraying a work fluid onto the surface to be cleaned; and the vacuum intake head further comprises at least one rotatable brush for agitating the surface to be cleaned.
A furniture panel having on at least one side a surface that is coated with a film-like decoration material and has a mitre edge the edge surface of which forms an acute angle α with the coated surface, wherein at least a part of the edge surface is constituted by a prism that is connected to the remaining part of the furniture panel via a film hinge and is folded back on this remaining part, wherein a joint formed between the prism and the remaining part forms an angle β < α with the coated surface and an angle γ = α - β with the edge surface, wherein the furniture panel has a core that is formed by two superposed material layers (22, 24) and is coated with the decoration material on the outward sides of these material layers and on a blunt edge of the panel, wherein the decoration material forms a continuous web to which the two material layers (22, 24) and a prism arranged therebetween are fastened such that the two material layers and the prism are held together by film hinges that are formed by the decoration material, wherein the material layers (22, 24) are chamfered such that, together, they form a hollow space that accommodates the prism, characterized in that, at the mitre edge, the prism engages only one of the two material layers.
Optical shape sensing system for sensing a shape of a medical device, comprising: - an input polarization controller for setting an input polarization state of an input light signal, - at least one interferometer unit for dividing said polarized input light signal into a device signal and a reference signal, guiding said device signal to be scattered within an optical fiber inserted into said device and coupling said scattered device signal with said reference signal to form an output light signal, and - at least one measurement branch comprising an output polarization controller arrangement for setting an output polarization state of said output light signal, a polarizing beam splitter for splitting said polarized output light signal into two signal portions, each being in a corresponding one of two signal portion polarization states, and a detector arrangement comprising two detectors (32, 34), each for detecting a corresponding one of said two signal portions, characterized in that said input polarization controller is configured to set two pairs of input polarization states, and/or said output polarization controller arrangement is configured to set two output polarization states each for enabling a corresponding one of two pairs of signal portion polarization states, wherein each pair of input and/or signal portion polarization states are representable by a corresponding one of two axes in a Poincaré sphere different from each other. - an input polarization controller for setting an input polarization state of an input light signal, - at least one interferometer unit for dividing said polarized input light signal into a device signal and a reference signal, guiding said device signal to be scattered within an optical fiber inserted into said device and coupling said scattered device signal with said reference signal to form an output light signal, and - at least one measurement branch comprising an output polarization controller arrangement for setting an output polarization state of said output light signal, a polarizing beam splitter for splitting said polarized output light signal into two signal portions, each being in a corresponding one of two signal portion polarization states, and a detector arrangement comprising two detectors (32, 34), each for detecting a corresponding one of said two signal portions,
A coating composition comprising a dispersion medium (a), fine particles (b) dispersed in the dispersion medium (a), and a terpene derivative (c) dissolved or dispersed in the dispersion medium (a), wherein the fine particles (b) are at least one selected from the group consisting of metal oxide fine particles, metal fine particles, pigment fine particles and resin fine particles, and the fine particles (b) have an average agglomerated particle size of from 1 to 1,000 nm, and the terpene derivative (c) is a terpene derivative having a hydroxyl group and/or a carbonyl group in its molecule, and the amount of the terpene derivative (c) is from 0.1 to 20 parts by mass per 1 part by mass of the solid content of the coating composition, wherein the coating composition further contains a binder (d), wherein the mass ratio of the fine particles (b) to the binder (d) (fine particles/binder) is from 9/1 to 1/9.
An apparatus, comprising: a fuel cell for causing reactant gas to be electrochemically reacted to generate power when reactant gas is supplied; a reactant gas supply path for supplying reactant gas to the fuel cell; a reactant gas recirculation path for recirculating exhaust gas discharged from the fuel cell and combining the recirculating exhaust gas with reactant gas flowing through the reactant gas supply path to the fuel cell; pump means disposed in the reactant gas recirculation path for pumping the recirculating exhaust gas through the reactant gas recirculation path; means for increasing the temperature of the pump means; and characterised by control means arranged to control the means for increasing the temperature of the pump means after receiving a fuel cell system stop signal, such that the temperature of the pump means becomes higher than the temperature of piping in the reactant gas recirculation path; and to stop the fuel cell system after the pump means temperature becomes higher than the piping temperature of the reactant gas recirculation path. a fuel cell for causing reactant gas to be electrochemically reacted to generate power when reactant gas is supplied; a reactant gas supply path for supplying reactant gas to the fuel cell; a reactant gas recirculation path for recirculating exhaust gas discharged from the fuel cell and combining the recirculating exhaust gas with reactant gas flowing through the reactant gas supply path to the fuel cell; pump means disposed in the reactant gas recirculation path for pumping the recirculating exhaust gas through the reactant gas recirculation path; means for increasing the temperature of the pump means; and characterised by control means arranged to control the means for increasing the temperature of the pump means after receiving a fuel cell system stop signal, such that the temperature of the pump means becomes higher than the temperature of piping in the reactant gas recirculation path; and to stop the fuel cell system after the pump means temperature becomes higher than the piping temperature of the reactant gas recirculation path.
A servo-valve for driving an actuator by using a fluid, the servo-valve comprising: a nozzle that includes a lower surface provided with a discharge edge forming an outline of a discharge port from which the fluid is discharged and a tapered inner wall growing narrower toward the discharge edge; and a receiver that is provided with a flow path (313, 314) into which the fluid discharged from the discharge port flows, wherein the nozzle is displaced in a direction different from the fluid discharge direction, wherein the flow path (313, 314) extension direction is inclined with respect to a direction orthogonal to an inflow surface of the receiver which faces the lower surface of the nozzle by an angle α, and wherein a taper angle (β) determined by the tapered inner wall is larger than twice the angle α characterized in that the tapered inner wall is formed at the lower end of the nozzle such that the discharge edge is positioned at a boundary between the tapered inner wall and the lower surface of the nozzle. a nozzle that includes a lower surface provided with a discharge edge forming an outline of a discharge port from which the fluid is discharged and a tapered inner wall growing narrower toward the discharge edge; and a receiver that is provided with a flow path (313, 314) into which the fluid discharged from the discharge port flows, wherein the nozzle is displaced in a direction different from the fluid discharge direction, wherein the flow path (313, 314) extension direction is inclined with respect to a direction orthogonal to an inflow surface of the receiver which faces the lower surface of the nozzle by an angle α, and wherein a taper angle (β) determined by the tapered inner wall is larger than twice the angle α characterized in that the tapered inner wall is formed at the lower end of the nozzle such that the discharge edge is positioned at a boundary between the tapered inner wall and the lower surface of the nozzle.
A method of air-to-air refueling, the method comprising: receiving a video frame; generating, from the video frame, a plurality of images having differing decreasing resolutions comprising blurring and downsampling the video frame; detecting, within each of the plurality of images, a set of aircraft keypoints for an aircraft to be refueled; merging the sets of aircraft keypoints into a set of merged aircraft keypoints; based on at least the merged aircraft keypoints, determining a position of a fuel receptacle on the aircraft; and determining a position of a boom tip of an aerial refueling boom. receiving a video frame; generating, from the video frame, a plurality of images having differing decreasing resolutions comprising blurring and downsampling the video frame; detecting, within each of the plurality of images, a set of aircraft keypoints for an aircraft to be refueled; merging the sets of aircraft keypoints into a set of merged aircraft keypoints; based on at least the merged aircraft keypoints, determining a position of a fuel receptacle on the aircraft; and determining a position of a boom tip of an aerial refueling boom.
A washer-dryer comprising: a cabinet having an air supplement port; an inner drum rotatably disposed in the cabinet, defining a containing chamber therein, and having an inner drum air outlet communicating with the containing chamber; a compressor disposed to the cabinet and close to the air supplement port; a first heat exchanger and a second heat exchanger, wherein the first heat exchanger has a first end communicating with a first end of the compressor and a second end communicating with a first end of the second heat exchanger, and a second end of the second heat exchanger communicates with a second end of the compressor, the first heat exchanger and an internal wall face of the cabinet define a condensation channel therebetween, the second heat exchanger and the internal wall face of the cabinet define a hot air channel therebetween, and the condensation channel communicates with the inner drum air outlet and the hot air channel; and a fan disposed in the cabinet to blow hot air in the hot air channel and around the compressor into the containing chamber. a cabinet having an air supplement port; an inner drum rotatably disposed in the cabinet, defining a containing chamber therein, and having an inner drum air outlet communicating with the containing chamber; a compressor disposed to the cabinet and close to the air supplement port; a first heat exchanger and a second heat exchanger, wherein the first heat exchanger has a first end communicating with a first end of the compressor and a second end communicating with a first end of the second heat exchanger, and a second end of the second heat exchanger communicates with a second end of the compressor, the first heat exchanger and an internal wall face of the cabinet define a condensation channel therebetween, the second heat exchanger and the internal wall face of the cabinet define a hot air channel therebetween, and the condensation channel communicates with the inner drum air outlet and the hot air channel; and a fan disposed in the cabinet to blow hot air in the hot air channel and around the compressor into the containing chamber.
A method of preparing a CHA-type molecular sieve, comprising: (a) preparing a reaction mixture containing a colloidal aluminosilicate a cationic structure directing agent selected from the group consisting of N-cyclohexyl-N-methylpyrrolidinium, N-methyl-N-(3-methylcyclohexyl)pyrrolidinium, N-ethyl-N-(3-methylcyclohexyl)pyrrolidinium, and mixtures thereof; at least one source of an element selected from Groups 1 and 2 of the Periodic Table; hydroxide ions; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the CHA-type molecular sieve. (a) preparing a reaction mixture containing a colloidal aluminosilicate a cationic structure directing agent selected from the group consisting of N-cyclohexyl-N-methylpyrrolidinium, N-methyl-N-(3-methylcyclohexyl)pyrrolidinium, N-ethyl-N-(3-methylcyclohexyl)pyrrolidinium, and mixtures thereof; at least one source of an element selected from Groups 1 and 2 of the Periodic Table; hydroxide ions; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the CHA-type molecular sieve.
A method for monitoring a base device by means of a mobile terminal device, wherein the base device has at least one heating device, comprising the steps of: a) determining a current state of the base device by the heating device, comprising determining a current temperature at or in the base device by a temperature sensor of the heating device and/or determining an energy supply of the heating device, b) checking whether a current change of state is a normal change of state or an abnormal change of state, and c) outputting of corresponding information to and/or by the mobile terminal at least when an abnormal change of state is detected. a) determining a current state of the base device by the heating device, comprising determining a current temperature at or in the base device by a temperature sensor of the heating device and/or determining an energy supply of the heating device, b) checking whether a current change of state is a normal change of state or an abnormal change of state, and c) outputting of corresponding information to and/or by the mobile terminal at least when an abnormal change of state is detected.
An organic electroluminescent device comprising at least an anode, a hole injection layer, a first hole transport layer, a second hole transport layer, a light emitting layer, an electron transport layer, and a cathode, in this order, wherein the hole injection layer contains an arylamine compound of the following general formula and an electron acceptor: wherein Ar 1 to Ar 4 may be the same or different, and represent a substituted or unsubstituted aromatic hydrocarbon group, a substituted or unsubstituted aromatic heterocyclic group, or a substituted or unsubstituted condensed polycyclic aromatic group, characterized in that: the first hole transport layer and the second hole transport layer each contain only a hole transport arylamine compound, and wherein the said hole transport arylamine compound is different in the first and the second hole transport layers.
A fingerprint sensing device comprising: a mounting substrate; an integrated circuit die carried by said mounting substrate and comprising an array of electric field-based fingerprint sensing elements; a plurality of first electrical connections coupling said mounting substrate and said IC die; a protective plate attached to said IC die over said array of electric field-based finger sensing elements and having a dielectric constant greater than 5 in all directions and a thickness greater than 40 microns such that the fringing electric field of the said array of electric field-based fingerprint sensing elements is supported across the thickness of the protective plate; an encapsulating material adjacent said mounting substrate and said IC die and around at least said plurality of first electrical connections; at least one electrical conductor carried by said protective plate; and at least one second electrical connection coupling said at least one electrical conductor and said mounting substrate. a mounting substrate; an integrated circuit die carried by said mounting substrate and comprising an array of electric field-based fingerprint sensing elements; a plurality of first electrical connections coupling said mounting substrate and said IC die; a protective plate attached to said IC die over said array of electric field-based finger sensing elements and having a dielectric constant greater than 5 in all directions and a thickness greater than 40 microns such that the fringing electric field of the said array of electric field-based fingerprint sensing elements is supported across the thickness of the protective plate; an encapsulating material adjacent said mounting substrate and said IC die and around at least said plurality of first electrical connections; at least one electrical conductor carried by said protective plate; and at least one second electrical connection coupling said at least one electrical conductor and said mounting substrate.
A stopper for a container with a closable dispenser with evidence of first opening comprising an upper part and a lower part mutually coupled by snap-assembly, wherein: - the upper part comprises a protection cap closable on a pouring element and connected thereto by a hinge; - the lower part is produced with a section having cylindrical steps with diameters decreasing upwardly, wherein it has an upper hollow cylindrical portion which is coaxially coupled inside said pouring element and a lower cylindrical portion having a larger diameter, internally threaded (in 39), to be positioned on a screw neck of a mouthpiece of a container; - an annular security crown connected to said lower part of the stopper by means of frangible bridges and positioned, in use, between said lower part of the stopper and said screw neck of the container; - a cam arrangement (45, 46) provided between an outer surface of said upper hollow cylindrical portion and an inner surface of said pouring element coaxially coupled for causing their translation and rotation; characterized in that it comprises - a frangible label positioned astride between the closed protection cap and the pouring element; - a security ring positioned between said upper part and said lower part connected with frangible bridges; - said pouring element internally providing a duct passage and a coaxial island shutter which collaborates with a hole defined centrally in the upper hollow cylindrical portion of the lower part to close it - the upper part comprises a protection cap closable on a pouring element and connected thereto by a hinge; - the lower part is produced with a section having cylindrical steps with diameters decreasing upwardly, wherein it has an upper hollow cylindrical portion which is coaxially coupled inside said pouring element and a lower cylindrical portion having a larger diameter, internally threaded (in 39), to be positioned on a screw neck of a mouthpiece of a container; - an annular security crown connected to said lower part of the stopper by means of frangible bridges and positioned, in use, between said lower part of the stopper and said screw neck of the container; - a cam arrangement (45, 46) provided between an outer surface of said upper hollow cylindrical portion and an inner surface of said pouring element coaxially coupled for causing their translation and rotation; - a frangible label positioned astride between the closed protection cap and the pouring element; - a security ring positioned between said upper part and said lower part connected with frangible bridges; - said pouring element internally providing a duct passage and a coaxial island shutter which collaborates with a hole defined centrally in the upper hollow cylindrical portion of the lower part to close it
Method for unloading, transporting and installing a railway track, characterized in that it comprises the following steps: a) tying by slings two rails located in a rail-carrying train to a crane of a wagon for unloading and laying the railway tracks, b) pulling said rails with the crane of the unloading wagon, to move them on each of the openings of said unloading wagon, which serve as a guide for the rails, until the most advanced end of the rails reaches the openings furthest away from the rail-carrying train, c) changing the rail ties from the crane of said unloading wagon to 2. a puller machine for unloading and placing railway tracks, d) pulling said rails with the puller machine, and moving the pulling machine longitudinally away from the unloading wagon, and as the rails advance transport elements are moved from said unloading wagon on the already assembled track wherein said transport elements are inserted under the rails supporting their weight and enabling their transport, e) once the assembled track is finished, said rails go through a transfer element located at the end of said assembled track to sliding elements located along the sleepers where the unloaded rails will be placed, f) recovering the sliding elements on which the rails are supported with the help of a crane of said puller machine and leave said rails resting on the sleepers in their final position, and g) returning, said puller machine, to the unloading wagon, where, after passing the transfer element, it pushes the transport elements to said unloading wagon where the steps can be repeated with a next pair of rails. a) tying by slings two rails located in a rail-carrying train to a crane of a wagon for unloading and laying the railway tracks, b) pulling said rails with the crane of the unloading wagon, to move them on each of the openings of said unloading wagon, which serve as a guide for the rails, until the most advanced end of the rails reaches the openings furthest away from the rail-carrying train, c) changing the rail ties from the crane of said unloading wagon to 2. a puller machine for unloading and placing railway tracks, d) pulling said rails with the puller machine, and moving the pulling machine longitudinally away from the unloading wagon, and as the rails advance transport elements are moved from said unloading wagon on the already assembled track wherein said transport elements are inserted under the rails supporting their weight and enabling their transport, e) once the assembled track is finished, said rails go through a transfer element located at the end of said assembled track to sliding elements located along the sleepers where the unloaded rails will be placed, f) recovering the sliding elements on which the rails are supported with the help of a crane of said puller machine and leave said rails resting on the sleepers in their final position, and g) returning, said puller machine, to the unloading wagon, where, after passing the transfer element, it pushes the transport elements to said unloading wagon where the steps can be repeated with a next pair of rails.