mhurhangee/patent-ind-claim-en huggingface dataset:
Method for coating objects, in particular vehicles and vehicle components, comprising the following steps: • diluting liquid rubber with an acrylic thinner • filling the diluted liquid rubber in a spray gun or an electric spraying device • applying the diluted liquid rubber on to the surface of the object to be coated by means of the spray gun or the electric spraying device • drying period • thereby formation of a removable film coating, wherein the application of the diluted liquid rubber occurs in four to eight layers, and in that a diluted acrylic paint is admixed to the liquid rubber having the acrylic thinner, and wherein after the application of each layer, in each case a drying period is activated, • mixing of clear coat with a curing agent at a ratio of 2:1 • adding of 10 vol.-% acrylic thinner of the total amount • spraying of a mixture of ready-to-spray clear coat and curing agent dry on to the film coating; • application of 1 - 2 further wet layers, waiting for at least 10 minutes between each layer, • flash-off of the cleat coat after the last layer. • diluting liquid rubber with an acrylic thinner • filling the diluted liquid rubber in a spray gun or an electric spraying device • applying the diluted liquid rubber on to the surface of the object to be coated by means of the spray gun or the electric spraying device • drying period • thereby formation of a removable film coating, wherein the application of the diluted liquid rubber occurs in four to eight layers, and in that a diluted acrylic paint is admixed to the liquid rubber having the acrylic thinner, and wherein after the application of each layer, in each case a drying period is activated, • mixing of clear coat with a curing agent at a ratio of 2:1 • adding of 10 vol.-% acrylic thinner of the total amount • spraying of a mixture of ready-to-spray clear coat and curing agent dry on to the film coating; • application of 1 - 2 further wet layers, waiting for at least 10 minutes between each layer, • flash-off of the cleat coat after the last layer.
A prepreg manufacturing device comprising an impregnation mold having an upper mold and a lower mold , comprising: a first resin inflow part which is formed inside the upper mold , receives a resin supplied from an extruder , and discharges the resin to a reinforced fiber flowing to a lower part in the upper mold ; a second resin inflow part which is formed inside the lower mold , receives the resin supplied from the extruder , and discharges the resin to the reinforced fiber flowing to an upper part of the lower mold ; characterised in that : the prepreg manufacturing device comprises temperature control parts which control temperatures at a plurality of divided sections defined in a length direction for each of the first resin inflow part and the second resin inflow part . a first resin inflow part which is formed inside the upper mold , receives a resin supplied from an extruder , and discharges the resin to a reinforced fiber flowing to a lower part in the upper mold ; a second resin inflow part which is formed inside the lower mold , receives the resin supplied from the extruder , and discharges the resin to the reinforced fiber flowing to an upper part of the lower mold ; characterised in that : the prepreg manufacturing device comprises temperature control parts which control temperatures at a plurality of divided sections defined in a length direction for each of the first resin inflow part and the second resin inflow part .
System (21; 22; 32) for the continuous treatment of waste by thermal input, to make waste hygienic or to decontaminate such waste with a risk of infection comprising: - a waste treatment chamber (210; 220; 320), - a device (211; 212; 321) for thermal input by microwave generators (211a; 221a; 321a), arranged with respect to said chamber (210; 220; 320) such that the microwaves are contained in said chamber (210; 220; 320), - a device (213; 223; 323) for confining products and vapours which are released from it, inside said chamber, - a moving floor transportation device (212; 222; 322), resting on the bottom of the chamber (210; 220; 320), comprising a set of slats arranged in parallel forming said floor, as well as a system for controlling the slats according to a reciprocating movement, capable of transporting a layer of waste (D) from the entry thereof into the chamber until the exit thereof from the chamber. - a waste treatment chamber (210; 220; 320), - a device (211; 212; 321) for thermal input by microwave generators (211a; 221a; 321a), arranged with respect to said chamber (210; 220; 320) such that the microwaves are contained in said chamber (210; 220; 320), - a device (213; 223; 323) for confining products and vapours which are released from it, inside said chamber, - a moving floor transportation device (212; 222; 322), resting on the bottom of the chamber (210; 220; 320), comprising a set of slats arranged in parallel forming said floor, as well as a system for controlling the slats according to a reciprocating movement, capable of transporting a layer of waste (D) from the entry thereof into the chamber until the exit thereof from the chamber.
A stainless steel substrate for a solar cell having superior insulating properties and a low thermal expansion coefficient, the stainless steel substrate comprising: stainless steel which consists of, by mass%, Cr: 9% to 25%, C: 0.03% or less, Mn: 2% or less, P: 0.05% or less, S: 0.01% or less, N: 0.03% or less, Al: 0.005% to 5.0%, Si: 0.05% to 4.0%, Mg: 0.0001% to 0.005%, and optionally one element or two or more elements selected from the group consisting of, by mass%, Sn: 1% or less, Zr: 0.5% or less, Ni: 1% or less, Cu: 1% or less, Co: 0.5% or less, Mo: 2% or less, V: 0.5% or less, B: 0.005% or less, Ca: 0.005% or less, La: 0.1% or less, Y: 0.1% or less, Hf: 0.1% or less, REM: 0.1% or less, Nb: 1% or less, Ti: 1% or less, and a remainder consisting of Fe and unavoidable impurities, satisfies one or both of Al content is 0.5% or more and Si content is 0.4% or more, and satisfies the following expression ; and an oxide film formed on a surface of the stainless steel, the oxide film containing (i) Al 2 O 3 in an amount of 50% or more or containing (i) Al 2 O 3 and (ii) SiO 2 in a total amount of 50% or more, and the oxide film containing (iii) MgAl 2 O 4 and having a thickness of 0.01 μm or more, Cr + 10 ⁢ Si + Mn + Al > 24.5 where a symbol of each element in the expression represents the amount of the element in the steel in mass%.
Display cabinet for frozen products comprising • a magneto caloric unit having a cold end with a primary cold heat exchanger and a hot end with a primary hot heat exchanger , wherein the primary cold heat exchanger and the primary hot heat exchanger are operated with two independent heat exchanging fluid circulations, and • a cabinet suitable for containing frozen products, the cabinet comprising an inner wall limiting a volume wherein frozen products can be stored, said cabinet having a secondary cold heat exchanger , wherein the secondary cold heat exchanger comprises circulating means for circulating a low freezing point liquid between said secondary cold heat exchanger and the primary cold heat exchanger ; wherein the secondary cold heat exchanger has wall circulating means for circulating the low freezing point liquid close to the inner wall of the cabinet, the wall circulating means having at least one inlet and at least one outlet, said inlet being in the top half of the wall, said outlet being in the bottom half of the wall; and wherein said inlet opens into distribution means or manifold from which a multiplicity of flow passages extend. • a magneto caloric unit having a cold end with a primary cold heat exchanger and a hot end with a primary hot heat exchanger , wherein the primary cold heat exchanger and the primary hot heat exchanger are operated with two independent heat exchanging fluid circulations, and • a cabinet suitable for containing frozen products, the cabinet comprising an inner wall limiting a volume wherein frozen products can be stored, said cabinet having a secondary cold heat exchanger , wherein the secondary cold heat exchanger comprises circulating means for circulating a low freezing point liquid between said secondary cold heat exchanger and the primary cold heat exchanger ; wherein the secondary cold heat exchanger has wall circulating means for circulating the low freezing point liquid close to the inner wall of the cabinet, the wall circulating means having at least one inlet and at least one outlet, said inlet being in the top half of the wall, said outlet being in the bottom half of the wall; and wherein said inlet opens into distribution means or manifold from which a multiplicity of flow passages extend.
A lavatory unit for an aircraft cabin, the lavatory unit comprising: a perimeter wall that separates an internal space of the unit from space external to the unit, and a door assembly ; wherein in an able-bodied configuration the lavatory unit has a first internal floor space and there is a cabin floor space external to the lavatory unit, wherein in the able-bodied configuration the door assembly is operable to an open position in which an able-bodied user can access the first internal floor space via a first door opening in the perimeter wall, the first door opening having a first effective width, and wherein the lavatory unit is configurable between the able-bodied configuration and a PRM-accessible configuration; and wherein the lavatory unit is expandable into the PRM-accessible configuration in which the lavatory unit is expanded to have a second internal floor space, the second internal floor space encompassing a region of the cabin floor space; and wherein the perimeter wall comprises a moveable wall assembly ; wherein in the able-bodied configuration the moveable wall assembly is in a retracted configuration, wherein the moveable wall assembly is moveable into an expanded configuration to expand the lavatory unit into the PRM-accessible configuration; and characterised in that in the PRM-accessible configuration the door assembly is operable to an open position in which a PRM can access the internal floor space via a second door opening in the perimeter wall, the second door opening having a second effective width; and wherein the second effective width is greater than the first effective width. wherein in an able-bodied configuration the lavatory unit has a first internal floor space and there is a cabin floor space external to the lavatory unit, wherein in the able-bodied configuration the door assembly is operable to an open position in which an able-bodied user can access the first internal floor space via a first door opening in the perimeter wall, the first door opening having a first effective width, and wherein the lavatory unit is configurable between the able-bodied configuration and a PRM-accessible configuration; and wherein the lavatory unit is expandable into the PRM-accessible configuration in which the lavatory unit is expanded to have a second internal floor space, the second internal floor space encompassing a region of the cabin floor space; and wherein the perimeter wall comprises a moveable wall assembly ; wherein in the able-bodied configuration the moveable wall assembly is in a retracted configuration, wherein the moveable wall assembly is moveable into an expanded configuration to expand the lavatory unit into the PRM-accessible configuration; and characterised in that in the PRM-accessible configuration the door assembly is operable to an open position in which a PRM can access the internal floor space via a second door opening in the perimeter wall, the second door opening having a second effective width; and wherein the second effective width is greater than the first effective width.
Compressor device for compacting a sliver which is drawn in a drafting system of a textile machine , wherein the compressor device is designed as a channel compressor and has a guide channel which is formed helically in the running direction (F) of the sliver , the inlet opening of which guide channel, for introduction of the sliver into the guide channel , has its greatest width in the horizontal direction, and the outlet opening of which guide channel, for exit of the sliver introduced via the inlet opening and guided via the helical guide channel from the channel compressor, is arranged so as to be rotated by at least 30° with respect to the inlet opening , wherein the rotation within the channel compressor between the inlet opening and the outlet opening of the guide channel is between 30° and 160°, characterized in that the guide channel has a clear cross section formed by two ellipses which narrow on both sides toward the center. wherein the compressor device is designed as a channel compressor and has a guide channel which is formed helically in the running direction (F) of the sliver , the inlet opening of which guide channel, for introduction of the sliver into the guide channel , has its greatest width in the horizontal direction, and the outlet opening of which guide channel, for exit of the sliver introduced via the inlet opening and guided via the helical guide channel from the channel compressor, is arranged so as to be rotated by at least 30° with respect to the inlet opening , wherein the rotation within the channel compressor between the inlet opening and the outlet opening of the guide channel is between 30° and 160°, characterized in that the guide channel has a clear cross section formed by two ellipses which narrow on both sides toward the center.
Method of producing a layered structure at a surface region of a component , comprising: providing powder particles within a process area , each powder particle comprising one or more particles (104-1) completely surrounded by sheathing material (104-2), activating the powder particles within the process area by using physico-thermal plasma so as to cause a change in the state of aggregation or a reduction in the viscosity of at least part of the sheathing material (104-2) of the powder particles , the sheathing material (104-2) comprising a supplementary material, the supplementary material present within the sheathing material (104-2) being active as an antioxidant and/or catalyst for the material of the particle (104-1) and/or of the sheathing during the activation process, and applying the activated powder particles onto the surface region of the component so as to obtain the layered structure on the surface region of the component , wherein the step of activating comprises at least partially liquefying the sheathing material (104-2), and the step of applying comprises resolidifying the sheathing material (104-2) on the surface region of the component, or wherein the step of activating comprises separating the sheathing material (104-2) from the particle or evaporating it, and the step of applying comprises connecting the particles with the surface region of the component . providing powder particles within a process area , each powder particle comprising one or more particles (104-1) completely surrounded by sheathing material (104-2), activating the powder particles within the process area by using physico-thermal plasma so as to cause a change in the state of aggregation or a reduction in the viscosity of at least part of the sheathing material (104-2) of the powder particles , the sheathing material (104-2) comprising a supplementary material, the supplementary material present within the sheathing material (104-2) being active as an antioxidant and/or catalyst for the material of the particle (104-1) and/or of the sheathing during the activation process, and applying the activated powder particles onto the surface region of the component so as to obtain the layered structure on the surface region of the component , wherein the step of activating comprises at least partially liquefying the sheathing material (104-2), and the step of applying comprises resolidifying the sheathing material (104-2) on the surface region of the component, or wherein the step of activating comprises separating the sheathing material (104-2) from the particle or evaporating it, and the step of applying comprises connecting the particles with the surface region of the component .
A slotter head, comprising: a cutter rest that is disk shaped, and is rotatably supported; a movable block (103;202) that is mounted in an outer peripheral portion of the cutter rest ; a first cutting blade that is fixed to the movable block (103;202) along a rotation shaft c enter direction of the cutter rest and along a direction inclined in a circumferential direction by a predetermined angle; a first support shaft (106;203) that supports, on the cutter rest , the movable block (103;202) rotatably around a first shaft center (O1;O11) along the rotation shaft center direction of the cutter rest ; and characterised by a second support shaft (107;204) that supports, on the cutter rest , the movable block (103; 202) rotatably around a second shaft center (02;012) along a circumferential direction of the cutter rest . a cutter rest that is disk shaped, and is rotatably supported; a movable block (103;202) that is mounted in an outer peripheral portion of the cutter rest ; a first cutting blade that is fixed to the movable block (103;202) along a rotation shaft c enter direction of the cutter rest and along a direction inclined in a circumferential direction by a predetermined angle; a first support shaft (106;203) that supports, on the cutter rest , the movable block (103;202) rotatably around a first shaft center (O1;O11) along the rotation shaft center direction of the cutter rest ; and characterised by a second support shaft (107;204) that supports, on the cutter rest , the movable block (103; 202) rotatably around a second shaft center (02;012) along a circumferential direction of the cutter rest .
A shelf, comprising: a shelf unit for containing goods ; and a goods information obtaining device for obtaining goods information within the shelf unit, wherein the goods information obtaining device comprises at least one reflector and at least one image sensor for sensing a reflection image (40'; 40") of goods within the shelf unit that are reflected one or more times by the at least one reflector , wherein each of the at least one image sensor comprises a lens, wherein the lens has a viewing angle covering at least a portion of the at least one reflector , characterized in that the at least one reflector is located on one side of a top of the shelf unit close to the goods , wherein the height of the lens is configured to be flush with a bottom plane of the shelf unit. a shelf unit for containing goods ; and a goods information obtaining device for obtaining goods information within the shelf unit, wherein the goods information obtaining device comprises at least one reflector and at least one image sensor for sensing a reflection image (40'; 40") of goods within the shelf unit that are reflected one or more times by the at least one reflector , wherein each of the at least one image sensor comprises a lens, wherein the lens has a viewing angle covering at least a portion of the at least one reflector , characterized in that the at least one reflector is located on one side of a top of the shelf unit close to the goods , wherein the height of the lens is configured to be flush with a bottom plane of the shelf unit.
A method, comprising: receiving, by a device, an object for processing to determine Internet-based object information; determining, by the device and for the object, object information, the object information being included in or describing the object; generating, by the device, Internet search queries based on the object information; causing, by the device and based on the Internet search queries, an Internet search to be performed to determine search results; generating, by the device, a predictive model by applying a machine learning algorithm to a known object and known internet search results associated with the known object and by analyzing the search results associated with the known object; analyzing, by the device and based on the predictive model, the search results to determine Internet-based object information; and determining, by the device and based on the Internet-based object information, whether the object is malicious. receiving, by a device, an object for processing to determine Internet-based object information; determining, by the device and for the object, object information, the object information being included in or describing the object; generating, by the device, Internet search queries based on the object information; causing, by the device and based on the Internet search queries, an Internet search to be performed to determine search results; generating, by the device, a predictive model by applying a machine learning algorithm to a known object and known internet search results associated with the known object and by analyzing the search results associated with the known object; analyzing, by the device and based on the predictive model, the search results to determine Internet-based object information; and determining, by the device and based on the Internet-based object information, whether the object is malicious.
A vehicle system for injecting an aqueous solution, said vehicle system comprising: a tank for storing an aqueous solution; an injection system configured for injecting aqueous solution from the tank in an injection zone (Z) in the vehicle; characterized in that the vehicle system comprising a UV light decontamination device configured for decontaminating the aqueous solution stored in the tank by emitting UV light; wherein the UV light decontamination device is integrated in a module mounted in an opening of the tank ; wherein the UV light decontamination device contains a fluid passage and is configured to emit UV light in said fluid passage, and in that the vehicle system is configured for transferring aqueous solution stored in the tank through said fluid passage . a tank for storing an aqueous solution; an injection system configured for injecting aqueous solution from the tank in an injection zone (Z) in the vehicle; characterized in that the vehicle system comprising a UV light decontamination device configured for decontaminating the aqueous solution stored in the tank by emitting UV light; wherein the UV light decontamination device is integrated in a module mounted in an opening of the tank ; wherein the UV light decontamination device contains a fluid passage and is configured to emit UV light in said fluid passage, and in that the vehicle system is configured for transferring aqueous solution stored in the tank through said fluid passage .
Layered article comprising a BOPP-based film, at least one intermediate layer acting as an oil and gas, in particular oxygen, barrier and including a polymeric binder and at least one amino acid, and an outer layer protecting said intermediate layer against moisture and comprising at least nitrocellulose, polyurethane and slip agent, or polyvinyl butyral, polyamide resin, ketone resin or a mixture thereof, and slip agent.
A ceramic ink comprising a suspension consisting essentially of a solid inorganic fraction dispersed in a liquid organic fraction, characterised in that the liquid organic fraction comprises: a first component consisting of an ester derived from benzoic acid or from a mixture of esters derived from benzoic acid, and/or a second component consisting of an ester derived from phenoxyethanol alcohol or a mixture of esters derived from phenoxyethanol alcohol. a first component consisting of an ester derived from benzoic acid or from a mixture of esters derived from benzoic acid, and/or a second component consisting of an ester derived from phenoxyethanol alcohol or a mixture of esters derived from phenoxyethanol alcohol.