mhurhangee/ep-ind-claims huggingface dataset:
A method comprising the following steps: a) providing an LED lamp with at least one LED element (1130, 1127, 1128, 601) and internal electrical components both of which are energizable through an electrical connection, the LED lamp comprising: a1) a frangible enclosure enclosing the at least one LED element and the internal components, the frangible enclosure comprising a globe-shaped main body having an apex and a wide portion tapering to a narrow neck; a2) wherein the frangible enclosure comprises a light transparent polymer matrix as a first coating, wherein the light transparent polymer matrix is on an interior surface of the frangible enclosure, and b) the light transparent polymer matrix preventing or eliminating access to the energizable internal components; and c) the light transparent polymer matrix controlling transport of one or more gases or liquids from egress into or out of the frangible enclosure upon breach of the frangible enclosure, characterized in that a second coating is on the first coating at the wide portion or the apex of the frangible enclosure and the thickness of the coating consisting of the first and the second coating at the wide portion or the apex of the frangible enclosure is different from that at the narrow neck to improve impact and/or shutter resistance. a) providing an LED lamp with at least one LED element (1130, 1127, 1128, 601) and internal electrical components both of which are energizable through an electrical connection, the LED lamp comprising: a1) a frangible enclosure enclosing the at least one LED element and the internal components, the frangible enclosure comprising a globe-shaped main body having an apex and a wide portion tapering to a narrow neck; a2) wherein the frangible enclosure comprises a light transparent polymer matrix as a first coating, wherein the light transparent polymer matrix is on an interior surface of the frangible enclosure, and a1) a frangible enclosure enclosing the at least one LED element and the internal components, the frangible enclosure comprising a globe-shaped main body having an apex and a wide portion tapering to a narrow neck; a2) wherein the frangible enclosure comprises a light transparent polymer matrix as a first coating, wherein the light transparent polymer matrix is on an interior surface of the frangible enclosure, and b) the light transparent polymer matrix preventing or eliminating access to the energizable internal components; and c) the light transparent polymer matrix controlling transport of one or more gases or liquids from egress into or out of the frangible enclosure upon breach of the frangible enclosure, characterized in that a second coating is on the first coating at the wide portion or the apex of the frangible enclosure and the thickness of the coating consisting of the first and the second coating at the wide portion or the apex of the frangible enclosure is different from that at the narrow neck to improve impact and/or shutter resistance.
An elevator apparatus, comprising: a car; a first brake device and a second brake device for braking running of the car; and a brake control portion for controlling the operations of the first brake device and the second brake device, wherein: the brake control portion first causes the first brake device to perform a braking operation when a sudden stop command for making a sudden stop of the car is issued; and characterized in that the brake control portion causes the second brake device to perform a braking operation when a deceleration of the car is equal to or smaller than a predetermined value after a lapse of a predetermined time. a car; a first brake device and a second brake device for braking running of the car; and a brake control portion for controlling the operations of the first brake device and the second brake device, wherein: the brake control portion first causes the first brake device to perform a braking operation when a sudden stop command for making a sudden stop of the car is issued; and characterized in that the brake control portion causes the second brake device to perform a braking operation when a deceleration of the car is equal to or smaller than a predetermined value after a lapse of a predetermined time. the brake control portion first causes the first brake device to perform a braking operation when a sudden stop command for making a sudden stop of the car is issued; and characterized in that the brake control portion causes the second brake device to perform a braking operation when a deceleration of the car is equal to or smaller than a predetermined value after a lapse of a predetermined time.
A process for enriching a hydrogen sulfide concentration in an acid gas stream to create a carbon dioxide lean stream for feed to a Claus unit, the process comprising the steps of: feeding the acid gas stream to a hydrocarbon selective separation unit, the acid gas stream comprising hydrogen sulfide, carbon dioxide, and hydrocarbons; separating the acid gas stream in the hydrocarbon selective separation unit to create a hydrocarbon rich stream and a purified acid gas stream; feeding the purified acid gas stream to a carbon dioxide selective separation unit fluidly connected to the hydrocarbon selective separation unit, the carbon dioxide selective separation unit operable to separate the purified acid gas stream; and separating the purified acid gas stream in the carbon dioxide selective separation unit to create a carbon dioxide rich stream and the carbon dioxide lean stream, the carbon dioxide lean stream having a concentration of hydrogen sulfide; feeding the carbon dioxide lean stream and the hydrocarbon rich stream to a furnace of the Claus unit, the Claus unit operable to recover elemental sulfur from the carbon dioxide lean stream to create an elemental sulfur stream and a waste gas stream; and feeding the carbon dioxide rich stream to catalytic converters of a catalytic stage of the Claus unit. feeding the acid gas stream to a hydrocarbon selective separation unit, the acid gas stream comprising hydrogen sulfide, carbon dioxide, and hydrocarbons; separating the acid gas stream in the hydrocarbon selective separation unit to create a hydrocarbon rich stream and a purified acid gas stream; feeding the purified acid gas stream to a carbon dioxide selective separation unit fluidly connected to the hydrocarbon selective separation unit, the carbon dioxide selective separation unit operable to separate the purified acid gas stream; and separating the purified acid gas stream in the carbon dioxide selective separation unit to create a carbon dioxide rich stream and the carbon dioxide lean stream, the carbon dioxide lean stream having a concentration of hydrogen sulfide; feeding the carbon dioxide lean stream and the hydrocarbon rich stream to a furnace of the Claus unit, the Claus unit operable to recover elemental sulfur from the carbon dioxide lean stream to create an elemental sulfur stream and a waste gas stream; and feeding the carbon dioxide rich stream to catalytic converters of a catalytic stage of the Claus unit.
Shower or hand shower, having - jet outlet openings, - "x" (x > 1) valves (40, 41, 42, 43), which control the inflow of a fluid to the jet outlet openings, - - wherein each valve (40,41,42,43) can be actuated independently of the other valves and comprises a movable valve body (402, 412, 422, 432) with which at least a first and a second valve position are realised, and for each of the "x" valves (40, 41, 42, 43) there is arranged a push button (401, 411, 421, 431) for the actuation thereof, wherein on operation of one or more push buttons (401, 411, 421, 431) a displacement of the associated valve body (402, 412, 422, 432) takes place, characterised in that a one-piece control element having retainers is provided, by means of which, on operation of the same push button or the same push buttons (401, 411, 421, 431), the location of the associated valve body (402, 412, 422, 432) is secured in the second valve position and by means of the control element in a stop position all the other valve bodies (402, 412, 422, 432), the associated push button (401, 411, 421, 431) of which has not been operated, are reset to the first valve position. - jet outlet openings, - "x" (x > 1) valves (40, 41, 42, 43), which control the inflow of a fluid to the jet outlet openings, - - wherein each valve (40,41,42,43) can be actuated independently of the other valves and comprises a movable valve body (402, 412, 422, 432) with which at least a first and a second valve position are realised, and for each of the "x" valves (40, 41, 42, 43) there is arranged a push button (401, 411, 421, 431) for the actuation thereof, wherein on operation of one or more push buttons (401, 411, 421, 431) a displacement of the associated valve body (402, 412, 422, 432) takes place, wherein each valve (40,41,42,43) can be actuated independently of the other valves and comprises a movable valve body (402, 412, 422, 432) with which at least a first and a second valve position are realised,
A bearing assembly comprising at least one sliding bearing element, at least one consumer of electrical energy and at least one energy generating device for self-sufficient provision of the electrical energy, wherein the bearing assembly further comprises a first component and a second component arranged next to the first component in the axial direction of the bearing assembly, said components (5, 7) being arranged so as to be movable repetitively relative to one another, and wherein the energy generating device has at least one electrical conductor arranged in a loop shape and at least one permanent magnet, wherein the electrical conductor is arranged on the first component, and the permanent magnet is arranged on the second component, such that the electrical conductor arranged in a loop shape and the permanent magnet can repeatedly be brought into opposing positions by means of the repetitive relative movement of the two components (5, 7) with respect to one another, characterized in that - a second permanent magnet is arranged on the first component and a second electrical conductor is arranged on the second component, so that the electrical conductors arranged in a loop shape and the permanent magnets can repeatedly be brought into opposing positions by means of the repetitive relative movement of the two components (5, 7) with respect to one another, wherein the first component is a connecting rod of a crank drive, and the second component is a second connecting rod of the crank drive, or - the first component is a connecting rod of a crank drive, and the second component is a crank cheek of the crank drive, and that a further component of the crank drive is arranged on the front side of the crank cheek pointing away from the connecting rod in the axial direction, and a further electrical conductor arranged in a loop shape is arranged on this further component, and the permanent magnet is arranged in a through hole passing through the second component in the axial direction. - a second permanent magnet is arranged on the first component and a second electrical conductor is arranged on the second component, so that the electrical conductors arranged in a loop shape and the permanent magnets can repeatedly be brought into opposing positions by means of the repetitive relative movement of the two components (5, 7) with respect to one another, wherein the first component is a connecting rod of a crank drive, and the second component is a second connecting rod of the crank drive, or - the first component is a connecting rod of a crank drive, and the second component is a crank cheek of the crank drive, and that a further component of the crank drive is arranged on the front side of the crank cheek pointing away from the connecting rod in the axial direction, and a further electrical conductor arranged in a loop shape is arranged on this further component, and the permanent magnet is arranged in a through hole passing through the second component in the axial direction.
A solid electrolyte material represented by a following composition formula: Li 6-(4-a-b)c (Zr 1-a-b Y b M a) c X 6 where, following mathematical expressions: 0.01 ≤ a ≤ 0.4; b > 0; a + b < 1; and 0.9 ≤ c ≤ 1.2 are satisfied, wherein M is at least one element selected from the group consisting of Al, Ga, In, Sc, and Bi; and X is at least one element selected from the group consisting of CI and Br. where, following mathematical expressions: 0.01 ≤ a ≤ 0.4; b > 0; a + b < 1; and 0.9 ≤ c ≤ 1.2 are satisfied, wherein M is at least one element selected from the group consisting of Al, Ga, In, Sc, and Bi; and X is at least one element selected from the group consisting of CI and Br.
A photocurable inkjet ink comprising a photopolymerizable compound, a photopolymerization initiator, and a gelling agent, wherein: the photopolymerizable compound consists of one or more (meth)acrylates selected from the group consisting of a monofunctional or bifunctional (meth)acrylate having a molecular weight of more than 200 and a tri- or higher polyfunctional (meth)acrylate, a content of the gelling agent is 0.5 mass% or more to 10 mass% or less based on the photocurable inkjet ink, and the photocurable inkjet ink further comprises 10 mass ppm or more to 100 mass ppm or less of a low molecular weight compound, based on the photocurable inkjet ink, the low molecular weight compound being either an alcohol or a monofunctional or bifunctional (meth)acrylate which has a molecular weight of 200 or less and which contains a hydrophobic group having four or more carbon atoms. the photopolymerizable compound consists of one or more (meth)acrylates selected from the group consisting of a monofunctional or bifunctional (meth)acrylate having a molecular weight of more than 200 and a tri- or higher polyfunctional (meth)acrylate, a content of the gelling agent is 0.5 mass% or more to 10 mass% or less based on the photocurable inkjet ink, and the photocurable inkjet ink further comprises 10 mass ppm or more to 100 mass ppm or less of a low molecular weight compound, based on the photocurable inkjet ink, the low molecular weight compound being either an alcohol or a monofunctional or bifunctional (meth)acrylate which has a molecular weight of 200 or less and which contains a hydrophobic group having four or more carbon atoms.
A method for coating metallic surfaces with a composition comprising silane/silanol/siloxane/polysiloxane, wherein the composition comprises: a) at least one compound a) selected from silanes, silanols, siloxanes and polysiloxanes, the composition having a silane/silanol/siloxane/polysiloxane content in the range from 0.02 to 2 g/L, calculated on the basis of the corresponding silanols, b) at least one titanium-, hafnium-, zirconium-, aluminum- and/or boron-containing compound b), of which at least one is a complex fluoride, the composition having a content of compounds b) in the range from 0.1 to 5 g/L, calculated as the sum of the corresponding metals, c) manganese cations and/or at least one corresponding compound c), the composition having a content of manganese cations and/or corresponding compound c) in the range from 0.08 to 0.3 g/L, calculated as manganese, and also at least one substance d) selected from: d 1) aminoguanidine, d 2) anions of nitrate and/or compounds having at least one nitro group, d 3) compounds based on peroxide and d 4) phosphorus-containing compounds, anions of at least one phosphate and/or anions of at least one posphonate, and also, furthermore, e) comprises water, where the content of all kinds of substances d) is in the range from 0.01 to 25 g/L, where the composition has a content of nitrate in the range from 0.1 to 5 g/l. a) at least one compound a) selected from silanes, silanols, siloxanes and polysiloxanes, the composition having a silane/silanol/siloxane/polysiloxane content in the range from 0.02 to 2 g/L, calculated on the basis of the corresponding silanols, b) at least one titanium-, hafnium-, zirconium-, aluminum- and/or boron-containing compound b), of which at least one is a complex fluoride, the composition having a content of compounds b) in the range from 0.1 to 5 g/L, calculated as the sum of the corresponding metals, c) manganese cations and/or at least one corresponding compound c), the composition having a content of manganese cations and/or corresponding compound c) in the range from 0.08 to 0.3 g/L, calculated as manganese, d 1) aminoguanidine, d 2) anions of nitrate and/or compounds having at least one nitro group, d 3) compounds based on peroxide and d 4) phosphorus-containing compounds, anions of at least one phosphate and/or anions of at least one posphonate, and also, furthermore, e) comprises water,
A conjugated diene-based polymer having a branch number (Bn) measured by viscosity detector-equipped GPC-light scattering measurement of 8 or more, having a change (ΔT) of an oxidation onset temperature caused through application of a thermal load of 11.9°C or less, and comprising an aromatic vinyl compound monomer unit.
A hollow fiber module comprising: a housing, and a hollow fiber bundle mounted in the housing, characterized in that the hollow fiber bundle has a fluid penetration distance (43T, 44T) ranged from 10 to 200mm and a wide and flat shape, wherein the fluid penetration distance (43T, 44T) means the shortest distance from the outmost hollow fiber (43o, 44o) in a cross-section of the hollow fiber bundle to the hollow fiber (43c, 44c) existing at the center in the cross-section of the hollow fiber bundle, wherein the cross-section of the hollow fiber bundle is an insection exposed by being taken along the perpendicular direction to the longitudinal direction of the hollow fiber bundle, wherein the outmost hollow fiber (43o, 44o) exists in the surface of the hollow fiber bundle, and wherein the wide and flat shape is even along the longitudinal direction of the hollow fiber bundle, the width of the hollow fiber bundle is wide, and the thickness of the hollow fiber bundle is thin, and wherein the ratio of the thickness of the hollow fiber bundle to the width of the hollow fiber bundle is in the range of 20 to 60%. a housing, and a hollow fiber bundle mounted in the housing, characterized in that the hollow fiber bundle has a fluid penetration distance (43T, 44T) ranged from 10 to 200mm and a wide and flat shape, wherein the fluid penetration distance (43T, 44T) means the shortest distance from the outmost hollow fiber (43o, 44o) in a cross-section of the hollow fiber bundle to the hollow fiber (43c, 44c) existing at the center in the cross-section of the hollow fiber bundle, wherein the cross-section of the hollow fiber bundle is an insection exposed by being taken along the perpendicular direction to the longitudinal direction of the hollow fiber bundle, wherein the outmost hollow fiber (43o, 44o) exists in the surface of the hollow fiber bundle, and wherein the wide and flat shape is even along the longitudinal direction of the hollow fiber bundle, the width of the hollow fiber bundle is wide, and the thickness of the hollow fiber bundle is thin, and wherein the ratio of the thickness of the hollow fiber bundle to the width of the hollow fiber bundle is in the range of 20 to 60%.
A method for cooling of a pod propulsion device, including a motor casing and a strut, which strut is connected at a lower part thereof to the motor casing and is arranged to be connected at an upper part thereof to a hull of a ship, said motor casing including a motor housing enclosing an electric motor with a stator and a rotor, wherein a second duct and a first duct are arranged for supply and withdrawal respectively of forced cooling air, characterized by periodically shifting the forced cooling air flow (W,S) to use a second duct as supply for a first limited time period and thereafter shift to use the first duct as supply for a second limited time period.
A cathode composition for a sodium-ion battery, the composition having the formula: NaCr 1-x M x O 2, wherein M is one or more metal elements; wherein x is greater than 0 and less than or equal to 0.5; and wherein M comprises aluminum, vanadium, manganese, titanium, or combinations thereof. wherein M is one or more metal elements; wherein x is greater than 0 and less than or equal to 0.5; and wherein M comprises aluminum, vanadium, manganese, titanium, or combinations thereof.
A power supply apparatus (3 or 3A) comprising: an electric power conversion circuit (30 or 30A) configured to generate a direct-current voltage, and including a switching section configured to perform a switching operation; a detection circuitry configured to detect that an overvoltage has occurred in an electric power supply path that couples the electric power conversion circuit (30 or 30A) and a load; and a determination circuitry (53 or 53A) configured to perform, when the detection circuitry has detected that the overvoltage has occurred, a determination operation including determining whether the overvoltage that has occurred is attributed to the electric power conversion circuit (30 or 30A) or the load, on a basis of the switching operation, characterised in that the determination circuitry (53 or 53A) is configured to calculate a voltage of the electric power supply path on a basis of the switching operation, and detect an intermittent oscillation of the electric power conversion circuit (30 or 30A) on a basis of the switching operation, and the determination operation includes, when the voltage calculated by the determination circuitry (53 or 53A) is larger than an upper limit of a predetermined voltage range, determining that the overvoltage that has occurred is attributed to the electric power conversion circuit (30 or 30A), and, when the intermittent oscillation is detected by the determination circuitry (53 or 53A), determining that the overvoltage that has occurred is attributed to the load. an electric power conversion circuit (30 or 30A) configured to generate a direct-current voltage, and including a switching section configured to perform a switching operation; a detection circuitry configured to detect that an overvoltage has occurred in an electric power supply path that couples the electric power conversion circuit (30 or 30A) and a load; and a determination circuitry (53 or 53A) configured to perform, when the detection circuitry has detected that the overvoltage has occurred, a determination operation including determining whether the overvoltage that has occurred is attributed to the electric power conversion circuit (30 or 30A) or the load, on a basis of the switching operation, characterised in that the determination circuitry (53 or 53A) is configured to calculate a voltage of the electric power supply path on a basis of the switching operation, and detect an intermittent oscillation of the electric power conversion circuit (30 or 30A) on a basis of the switching operation, and the determination operation includes, when the voltage calculated by the determination circuitry (53 or 53A) is larger than an upper limit of a predetermined voltage range, determining that the overvoltage that has occurred is attributed to the electric power conversion circuit (30 or 30A), and, when the intermittent oscillation is detected by the determination circuitry (53 or 53A), determining that the overvoltage that has occurred is attributed to the load.
Process for production of a printed adhesive label laminate comprising an upper and a carrier material, whereby the upper is connected with the carrier material by a pressure sensitive adhesive, the upper has a first and a second material layer and whereby the first material layer is at first printed frontal and/or reverse and is thereafter connected by a laminating adhesive with a second material layer to build the upper, characterized in that, the first material layer is brought on a stabilizing layer before the printing and is separated therefrom after the printing and is afterwards furled to a transportable or storable roll.