mhurhangee/ep-ind-claims huggingface dataset:
A merchandise display system (10, 100, 200) for displaying an article of merchandise comprising: a sensor configured to be secured to the article of merchandise, the sensor comprising a first engagement member; and a base (54, 154, 254) configured to removably support the sensor thereon, the base comprising at least one second engagement member (56, 156, 256) configured to releasably engage the first engagement member such that the sensor is locked to the base (54, 154, 254), wherein the sensor (12, 51) is configured to rotate with respect to the base (54, 154, 254) while locked thereto, characterized in that the merchandise display system (10, 100, 200) further comprising a release mechanism (62, 162, 262) configured to move the at least one second engagement member (56, 156, 256) into and out of engagement with the first engagement member, wherein the release mechanism (62, 162, 262) is configured to be actuated by a key. a sensor configured to be secured to the article of merchandise, the sensor comprising a first engagement member; and a base (54, 154, 254) configured to removably support the sensor thereon, the base comprising at least one second engagement member (56, 156, 256) configured to releasably engage the first engagement member such that the sensor is locked to the base (54, 154, 254), wherein the sensor (12, 51) is configured to rotate with respect to the base (54, 154, 254) while locked thereto, characterized in that the merchandise display system (10, 100, 200) further comprising a release mechanism (62, 162, 262) configured to move the at least one second engagement member (56, 156, 256) into and out of engagement with the first engagement member, wherein the release mechanism (62, 162, 262) is configured to be actuated by a key.
Power converter comprising input connections, output connections and an inductance device, the power converter being configured to convert a direct current supplied at the input connections into an alternating current to be output via the output connections or vice versa, wherein the inductance device comprises - a core with a first leg, a second leg oriented parallel to the first leg, a third leg and a fourth leg, wherein the legs (21a, 21b, 21c, 21d) are in a rectangular arrangement; and - a first winding wound around the first leg and a second winding wound around the second leg, the first winding and the second winding each comprising a first end (23a, 23b) and a second end (24a, 24b), wherein the respective first ends (23a, 23b) are connected electrically in series to the respective input connections or to the respective output connections of the power converter such that magnetic fluxes generated inside the core by a differential mode current (I DM) flowing through the first winding and the second winding add constructively and a coupled differential mode choke is obtained, characterised in that the inductance device further comprises a third winding comprising a short-circuited wire and being wound around an outer perimeter of the inductance device as defined by the outer surfaces of the first winding and the second winding, wherein a winding axis of the third winding is oriented parallel to the first leg and the second leg of the core. - a core with a first leg, a second leg oriented parallel to the first leg, a third leg and a fourth leg, wherein the legs (21a, 21b, 21c, 21d) are in a rectangular arrangement; and - a first winding wound around the first leg and a second winding wound around the second leg, the first winding and the second winding each comprising a first end (23a, 23b) and a second end (24a, 24b), wherein the respective first ends (23a, 23b) are connected electrically in series to the respective input connections or to the respective output connections of the power converter such that magnetic fluxes generated inside the core by a differential mode current (I DM) flowing through the first winding and the second winding add constructively and a coupled differential mode choke is obtained,
A biosensor for measuring a measuring target substance in a sample comprising: an insulating substrate; an electrode pair (11, 12) provided on the insulating substrate; and a reagent that comprises an oxidoreductase and an electron transfer substance and is provided at least on a working electrode of the electrode pair (11, 12), characterised in that the working electrode is composed of a nickel-vanadium alloy. an insulating substrate; an electrode pair (11, 12) provided on the insulating substrate; and a reagent that comprises an oxidoreductase and an electron transfer substance and is provided at least on a working electrode of the electrode pair (11, 12), characterised in that the working electrode is composed of a nickel-vanadium alloy.
A node comprising a processor, a memory, and communication circuitry, the node being connected to a communications network via its communication circuitry, the node further including computer-executable instructions stored in the memory of the node which, when executed by the processor of the node, cause the node to: provide access to an external service using a service layer (102, 202, 300); map an Application Programming Interface, API, provided by the external service to a service layer resource in the service layer; and provide a service to an application from the external service via the service layer resource without the application independently contacting the external service. provide access to an external service using a service layer (102, 202, 300); map an Application Programming Interface, API, provided by the external service to a service layer resource in the service layer; and provide a service to an application from the external service via the service layer resource without the application independently contacting the external service.
Thermally insulated container for transport purposes, having a container wall which completely encloses an interior and is formed by three side wall elements, a cover element, a bottom element and at least one door element, wherein the door element is mounted on one of the side wall elements so as to be pivotable about a vertical axis, wherein the interior is insulated against heat exchange by a plurality of vacuum insulation elements designed as thermal insulation panels, characterized in that the container is designed as a transport container and has, on the underside of the bottom element, functional elements which allow the insertion of the prongs of a forklift, in that the container wall is designed in all wall elements (03, 04, 05, 06) to be double-walled with a dimensionally stable outer wall and a dimensionally stable inner wall, in that the outer wall and/or the inner wall consist or consists of a sandwich material with a plurality of material layers (26, 27, 28), in that the vacuum insulation elements are arranged between the outer wall and the inner wall in all wall elements (02, 03, 04, 05, 06), in that a plurality of melt-storage elements (16, 17) can be arranged on the inner side of the inner wall, in that the melt-storage elements (16, 17) can be releasibly fastened in the container without a tool, and in that, to fasten the melt-storage elements (16, 17) in the container, fastening rails are mounted on the inner sides of the side wall elements and engage in a form-fitting manner around each of the melt-storage elements (16, 17) at the upper or lower edge and into which the melt-storage elements (16, 17) can be inserted from the door side.
A current collector (10, 20), characterized in comprising: an insulation layer (101, 201), a conductive layer (102, 202), a first protective layer (103, 203) and a second protective layer (103, 203), wherein the insulation layer (101, 201) is used to support the conductive layer (102, 202), wherein the conductive layer (102, 202) is used to support an electrode active material layer (11, 21) located on a surface of the current collector (10, 20) and the conductive layer (102, 202) is located above at least one surface of the insulation layer (101, 201), and the conductive layer (102, 202) has a thickness of D2 satisfying 300 nm ≤ D2 ≤ 2 μm, and wherein the first protective layer (103, 203) is arranged on a surface of the conductive layer (102, 202) facing towards the insulation layer (101, 201), and the first protective layer (103, 203) is made of a material selected from a group consisting of metal, metal oxide, or conductive carbon, the metal is preferably selected from a group consisting of nickel, chromium, nickel-based alloy, or copper-based alloy; the metal oxide is preferably selected from a group consisting of aluminum oxide, cobalt oxide, chromium oxide, or nickel oxide; and the conductive carbon is preferably selected from a group consisting of carbon black, carbon nanotube, acetylene black, or graphene, the second protective layer (103, 203) is arranged on a surface of the conductive layer (102, 202) facing away from the insulation layer (101, 201), the second protective layer (103, 203) is made of a material selected from a group consisting of metal, metal oxide, or conductive carbon, the metal is preferably selected from a group consisting of nickel, chromium, nickel-based alloy, or copper-based alloy; the metal oxide is preferably selected from a group consisting of aluminum oxide, cobalt oxide, chromium oxide, or nickel oxide; and the conductive carbon is preferably selected from a group consisting of carbon black, carbon nanotube, acetylene black, or graphene, wherein the first protective layer (103, 203) has a thickness of D3', the second protective layer (103, 203) has a thickness of D3, the thickness D3 of the second protective layer (103, 203) is larger than the thickness D3' of the first protective layer (103, 203), and 1/2 D3≤D3'≤4/5 D3.
An exhaust gas purifying catalyst, comprising: a monolithic substrate; a transition metal oxide layer formed in the monolithic substrate, the transition metal oxide layer comprising: transition metal oxide powder that is composed of: transition metal oxide particles; a first compound on which the transition metal oxide particles are supported; and a second compound that surrounds a single body or an aggregate of the transition metal oxide particles and the first compound, wherein the first compound is an oxide containing at least one selected from the group consisting of cerium, zirconium, praseodymium, and lanthanum, and wherein the second compound is at least one selected from the group consisting of alumina, silicon dioxide, a mixture of alumina and silicon dioxide, and a composite compound of alumina and silicon dioxide, and the transition metal oxide particles are an oxide of at least one metal selected from the group consisting of iron, manganese, nickel, and cobalt, and the first compound is particles, and the second compound is particles. a monolithic substrate; a transition metal oxide layer formed in the monolithic substrate, the transition metal oxide layer comprising: transition metal oxide powder that is composed of: transition metal oxide particles; a first compound on which the transition metal oxide particles are supported; and a second compound that surrounds a single body or an aggregate of the transition metal oxide particles and the first compound, wherein the first compound is an oxide containing at least one selected from the group consisting of cerium, zirconium, praseodymium, and lanthanum, and wherein the second compound is at least one selected from the group consisting of alumina, silicon dioxide, a mixture of alumina and silicon dioxide, and a composite compound of alumina and silicon dioxide, and the transition metal oxide particles are an oxide of at least one metal selected from the group consisting of iron, manganese, nickel, and cobalt, and the first compound is particles, and the second compound is particles.
An electromagnetic wave detector comprising: - a first insulating film (22, 24) having a first surface and a second surface facing the first surface; - a first layer (40, 42) configured to perform photoelectric conversion by an incident electromagnetic wave and to change in potential with a bias voltage applied to the first layer (40, 42), the first layer (40, 42) being made of a first two-dimensional atomic layer material; and - a second layer (30, 32) configured to receive the change in potential through the first insulating film (22, 24) and to generate change in electrical quantity, the second layer (30, 32) being made of a second two-dimensional atomic layer material and provided on the first surface - a second electrode (50, 56) electrically connected to one end of the second layer (30, 32); and - a third electrode (52, 54) electrically connected to the other end of the second layer (30, 32), wherein the first layer (40, 42) functions as a gate electrode and the second layer (30, 32) functions as a channel layer, and wherein when the bias voltage is applied to the first layer (40, 42), a gate voltage is applied to the second layer (30, 32) through the first insulating film (22, 24), wherein the first two-dimensional atomic layer material includes a two-dimensional atomic layer material selected from the group consisting of graphene, graphene nanoribbon, transition metal dichalcogenide, black phosphorus, silicene, and germanene, and wherein the second two-dimensional atomic layer material includes a two-dimensional atomic layer material selected from the group consisting of graphene, graphene nanoribbon, transition metal dichalcogenide, black phosphorus, silicene, and germanene. - a first insulating film (22, 24) having a first surface and a second surface facing the first surface; - a first layer (40, 42) configured to perform photoelectric conversion by an incident electromagnetic wave and to change in potential with a bias voltage applied to the first layer (40, 42), the first layer (40, 42) being made of a first two-dimensional atomic layer material; and - a second layer (30, 32) configured to receive the change in potential through the first insulating film (22, 24) and to generate change in electrical quantity, the second layer (30, 32) being made of a second two-dimensional atomic layer material and provided on the first surface - a second electrode (50, 56) electrically connected to one end of the second layer (30, 32); and - a third electrode (52, 54) electrically connected to the other end of the second layer (30, 32), wherein the first two-dimensional atomic layer material includes a two-dimensional atomic layer material selected from the group consisting of graphene, graphene nanoribbon, transition metal dichalcogenide, black phosphorus, silicene, and germanene, and wherein the second two-dimensional atomic layer material includes a two-dimensional atomic layer material selected from the group consisting of graphene, graphene nanoribbon, transition metal dichalcogenide, black phosphorus, silicene, and germanene.
Process for preparing a solid crystalline material of formula (LiCl) x.2Al 3,nH 2 O with n being between 0.01 and 10, x being between 0.4 and 1, said process comprising at least the following steps: a) a step to precipitate boehmite, in an aqueous medium, comprising the contacting of at least one base precursor preferably selected from among sodium aluminate, potassium aluminate, ammonia, sodium hydroxide, potassium hydroxide and any of the mixtures thereof; with at least one acid precursor preferably selected from among aluminium chloride, hydrochloric acid and any of the mixtures thereof, wherein at least one of the base or acid precursors comprises aluminium, to obtain a suspension of boehmite, said step a) being conducted at a temperature of between 5 and 35°C, and the amount of base precursor being selected so as to obtain an end-precipitation pH in the reaction medium of between 7.5 and 9.5; b) a step to wash and filter the precipitate of boehmite obtained at step a); c) a step to place the precipitate obtained at step b) in contact with a quantity of lithium chloride equivalent to a Li/AI molar ratio of between 0.3 and 1.2, preferably for a time of between 10 minutes and 12 hours; d) a step to filter the suspension obtained at step c) to obtain a paste; e) a step to dry the paste obtained after step d) at a temperature of between 20 and 80°C preferably for a time of between 1 h and 12 h; f) a step to form said dried paste; g) a step to dry the formed material obtained after step f) at a temperature of between 20 and 200°C, preferably for a time of between 1 and 20 hours. a) a step to precipitate boehmite, in an aqueous medium, comprising the contacting of at least one base precursor preferably selected from among sodium aluminate, potassium aluminate, ammonia, sodium hydroxide, potassium hydroxide and any of the mixtures thereof; with at least one acid precursor preferably selected from among aluminium chloride, hydrochloric acid and any of the mixtures thereof, wherein at least one of the base or acid precursors comprises aluminium, to obtain a suspension of boehmite, said step a) being conducted at a temperature of between 5 and 35°C, and the amount of base precursor being selected so as to obtain an end-precipitation pH in the reaction medium of between 7.5 and 9.5; b) a step to wash and filter the precipitate of boehmite obtained at step a); c) a step to place the precipitate obtained at step b) in contact with a quantity of lithium chloride equivalent to a Li/AI molar ratio of between 0.3 and 1.2, preferably for a time of between 10 minutes and 12 hours; d) a step to filter the suspension obtained at step c) to obtain a paste; e) a step to dry the paste obtained after step d) at a temperature of between 20 and 80°C preferably for a time of between 1 h and 12 h; f) a step to form said dried paste; g) a step to dry the formed material obtained after step f) at a temperature of between 20 and 200°C, preferably for a time of between 1 and 20 hours.
A cellulose powder with an average polymerization degree of 150 to 450, an average particle diameter of not less than 10 μm but less than 100 μm, and a primary particle ratio of 50% or more, wherein the average particle diameter [μm] of the particles is determined using a laser diffraction/scattering particle size distribution meter wherein the average particle diameter is calculated as the number average of volume frequencies; and wherein the primary particle ratio is determined using a dry image analyzer, photographing about 10,000 particles, and performing image analysis to obtain the particle diameter equivalent to the area circle and aspect ratio of each particle; from the result, images of 1,000 particles are arbitrarily extracted from particles in the range of the average of particle diameter equivalent to the area circle ± 5 μm and in the range of the average of aspect ratio ± 0.1; when the number of the particles in the above ranges is less than 1,000, the image of all particles are used; the particle shape in the image of each extracted particle is visually confirmed, and a single particle is determined as a primary particle, and aggregated particles are determined as a secondary particle; the ratio of the number of primary particles in 1,000 particles is calculated as a primary particle ratio.
A switching valve spool, comprising: a fixed shaft and a switching shaft coaxially arranged in the fixed shaft; an operating unit is linked with the switching shaft and drives the switching shaft to move from a second position to a third position in said fixed shaft along the axis; one end of said switching shaft is an inlet and other end is an outlet, an axial flow passage is formed along the axial direction between the inlet and the outlet; an air intake is formed between the side wall of the switching shaft close to the outlet and the fixed shaft; when the switching shaft is at said second position, the water flows into the fixed shaft from the outlet, due to the diameter of the fixed shaft is larger than the diameter of the outlet, the air is sucked from the air intake under the Venturi effect into the fixed shaft and mixes with the water flow to form an aerated spray; when the switching shaft is at said third position, said inlet remains open and said air intake is closed to form a non-aerated spray.
A filter medium which allows oil-water separation, using a liquid containing oil and water as a separation target, and having a channel for the liquid, the medium comprising: a base constituting the channel; and one or more of nitrogen-containing fluorine compounds which are provided on at least a portion of a surface of the channel and are represented by the following formulas to, wherein, in the formulas and, each of Rf 1 and Rf 2 is a straight-chain or branched perfluoroalkyl group which is the same as or different from each other, and has 1 to 6 carbon atoms, and Rf 3 is a straight-chain or branched perfluoroalkylene group which has 1 to 6 carbon atoms; in the formulas and, each of Rf 4, Rf 5, and Rf 6 is a straight-chain or branched perfluoroalkylene group which is the same as or different from each other, and has 1 to 6 carbon atoms, and Z includes any of an oxygen atom, a nitrogen atom, a CF 2 group, and a CF group; in the formulas and, R is a linking group which is a bivalent organic group; and in the formulas to, X is any one hydrophilicity imparting group selected from a group consisting of an anion type, a cation type, and an amphoteric type in the above formulas. a base constituting the channel; and one or more of nitrogen-containing fluorine compounds which are provided on at least a portion of a surface of the channel and are represented by the following formulas to, wherein, in the formulas and, each of Rf 1 and Rf 2 is a straight-chain or branched perfluoroalkyl group which is the same as or different from each other, and has 1 to 6 carbon atoms, and Rf 3 is a straight-chain or branched perfluoroalkylene group which has 1 to 6 carbon atoms; in the formulas and, each of Rf 4, Rf 5, and Rf 6 is a straight-chain or branched perfluoroalkylene group which is the same as or different from each other, and has 1 to 6 carbon atoms, and Z includes any of an oxygen atom, a nitrogen atom, a CF 2 group, and a CF group; in the formulas and, R is a linking group which is a bivalent organic group; and in the formulas to, X is any one hydrophilicity imparting group selected from a group consisting of an anion type, a cation type, and an amphoteric type in the above formulas.