mhurhangee/patent-ind-claim-en huggingface dataset:
A system for regenerating a particulate trap in an exhaust system of an internal combustion engine and including a wall-flow particulate trap having a plurality of porous walls for filtering engine exhaust and removing particulates therefrom to form a particulate cake on the porous walls, a valving mechanism downstream of said trap for periodically creating a pressure increase throughout the exhaust system, said valving mechanism including a relief valve having a first open position permitting flow of filtered exhaust to atmosphere and a second position restricting flow of the filtered exhaust until the pressure throughout the exhaust system reaches a pre-selected level; a reversing apparatus having a purge duct upstream of said trap and a mode valve associated with the purge duct for periodically creating a substantially instantaneous reverse pressure drop across porous walls of said trap fluidly connected to the purge duct to dislodge accumulated particulate cake and causing the filtered exhaust gas to flow back through the porous walls to remove the dislodged particulate from said trap and to be received in the purge duct ; and controls for for actuating the relief valve and the reversing apparatus and for starting and stopping a regeneration cycle, characterized in that the controls are configured to start the regeneration cycle by activating the relief valve towards the second position until the pressure throughout the exhaust system reaches a pre-selected level between 1.38 bar (20 psig) to about 4.14 bar (60 psig); and after the pre-selected pressure level between 1.38 bar (20 psig) to about 2.41 bar (35 psig) is reached, opening the mode valve to thereby drop the pressure on the particulate cake to ambient, thereby creating the substantially instantaneous reverse pressure drop.
Pull-out guide having a guide rail which can be fixed to a furniture body, a middle rail which is mounted displaceably on the guide rail , and a running rail which is mounted displaceably on the middle rail and on which a pushing element can be fixed, wherein a first front rolling element cage with first front rolling elements and a first rear rolling element cage with first rear rolling elements is provided at the guide rail , whereby the middle rail is displaceable relative to the guide rail via the first front and rear rolling elements , and a second front rolling element cage with second front rolling elements and a second rear rolling element cage with second rear rolling elements is provided on the middle rail , which serve to displaceably hold the running rail at the middle rail , wherein at least one support element is arranged movably on the middle rail between the running rail and the middle rail , which, when the running rail is moved in a pull-out direction, limits a rear lifting of the running rail when a tipping point is reached, wherein the support element has a guide part and a support part adjacent thereto, wherein the support element is formed as a rotatably mounted roller separate from the rolling element cage with rolling elements , characterized in that and in that the guide part of the support element is guided displaceably on a guide on the middle rail .
A method for forming a ceramic matrix composite article comprising: forming a chemical vapor infiltration ceramic matrix composite base portion, wherein forming the chemical vapor infiltration ceramic matrix composite base portion comprises exposing substantially all of a surface of the chemical vapor infiltration ceramic matrix composite base portion to one or more reactive gasses, wherein exposing substantially all of the surface of the chemical vapor infiltration ceramic matrix composite base portion to one or more reactive gasses comprises forming ceramic fiber reinforcement material in a ceramic matrix material of the chemical vapor infiltration ceramic matrix composite base portion having between 0% and 5% free silicon; and providing a melt infiltration ceramic matrix composite portion on a portion of an outer surface of the chemical vapor infiltration ceramic matrix composite base portion after forming the chemical vapor infiltration ceramic matrix composite base portion, providing the melt infiltration ceramic matrix composite portion comprises forming the melt infiltration ceramic matrix composite portion to include ceramic fiber reinforcement material in a ceramic matrix material having a greater percentage of free silicon than the ceramic matrix material of the chemical vapor infiltration ceramic matrix composite base portion. forming a chemical vapor infiltration ceramic matrix composite base portion, wherein forming the chemical vapor infiltration ceramic matrix composite base portion comprises exposing substantially all of a surface of the chemical vapor infiltration ceramic matrix composite base portion to one or more reactive gasses, wherein exposing substantially all of the surface of the chemical vapor infiltration ceramic matrix composite base portion to one or more reactive gasses comprises forming ceramic fiber reinforcement material in a ceramic matrix material of the chemical vapor infiltration ceramic matrix composite base portion having between 0% and 5% free silicon; and providing a melt infiltration ceramic matrix composite portion on a portion of an outer surface of the chemical vapor infiltration ceramic matrix composite base portion after forming the chemical vapor infiltration ceramic matrix composite base portion, providing the melt infiltration ceramic matrix composite portion comprises forming the melt infiltration ceramic matrix composite portion to include ceramic fiber reinforcement material in a ceramic matrix material having a greater percentage of free silicon than the ceramic matrix material of the chemical vapor infiltration ceramic matrix composite base portion.
An inkjet printing method on natural leather comprising the steps: a) providing a hide , having an edge, on a rigid support for obtaining a flat decoration area of the hide ; b) fastening the hide to the rigid support by clamping the edge; and c) jetting with a inkjet printhead unit , facing a side of the flat decoration area, a decorative image on the flat decoration area of the fastened hide; and wherein the edge is clamped opposite to the side of the flat decoration area. a) providing a hide , having an edge, on a rigid support for obtaining a flat decoration area of the hide ; b) fastening the hide to the rigid support by clamping the edge; and c) jetting with a inkjet printhead unit , facing a side of the flat decoration area, a decorative image on the flat decoration area of the fastened hide; and wherein the edge is clamped opposite to the side of the flat decoration area.
A compressor for an axial turbomachine , the compressor comprising an annular passage , an annular housing defining the annular passage , and two compression stages formed inside the annular passage , including an upstream compression stage with an annular row of blades with adjustable orientation connected to the annular housing , the compressor comprising an annular row of downstream blades formed by fixed orientation stator blades, said blades forming the outlet of the compressor (4; 104), the compressor comprising a separation nozzle and being characterised in that the upstream compression stage comprises an annular row of rotor blades disposed upstream of the blades (28; 128) with adjustable orientation of said stage and an annular row of stator blades with fixed orientation disposed between the rotor blades and the blades with adjustable orientation, the compressor comprising exactly five rows of blades (124; 128; 150), and the annular row of rotor blades of the upstream compression stage being disposed inside the separation nozzle in such a way that the separation nozzle comprises a separation partition and a separation edge and that the annular row of rotor blades is the first row of blades downstream of the separation edge .
Method for producing a three-dimensional overall structure by means of laser lithography in a lithography material, the overall structure being defined by at least one substructure being defined, the at least one substructure approximating the overall structure , the substructure being composed of a quantity of volume elements and an exposure dose being radiated into the lithography material in a focus region of a laser writing beam using multi-photon absorption in order to write the substructure , characterized in that, in the at least one substructure , in edge portions that directly adjoin an outer surface of the overall structure to be produced, the exposure dose, and thus the spatial extent of the volume elements , is changed in comparison with the rest of the substructure , a data set that represents the overall structure being provided and at least one further data set being determined therefrom, which further data set represents the at least one substructure , a further data set also being determined, which represents deviations of the at least one substructure from the overall structure , the exposure dose changing depending on the local deviation in the edge portions . the overall structure being defined by at least one substructure being defined, the at least one substructure approximating the overall structure , the substructure being composed of a quantity of volume elements and an exposure dose being radiated into the lithography material in a focus region of a laser writing beam using multi-photon absorption in order to write the substructure , characterized in that, in the at least one substructure , in edge portions that directly adjoin an outer surface of the overall structure to be produced, the exposure dose, and thus the spatial extent of the volume elements , is changed in comparison with the rest of the substructure , a data set that represents the overall structure being provided and at least one further data set being determined therefrom, which further data set represents the at least one substructure , a further data set also being determined, which represents deviations of the at least one substructure from the overall structure , the exposure dose changing depending on the local deviation in the edge portions .
An apparatus comprising: a processor ; and a non-transitory computer readable medium storing machine readable instructions that when executed by the processor cause the processor to: identify a first period for a heated system , the first period including a first set of power events, during which power is applied to the heated system, and a first zero power event for the heated system , wherein a zero power event is a power event during which no power is applied to the heated system ; identify a second period for the heated system , the second period including a second set of power events, during which power is applied to the heated system, and a second zero power event for the heated system ; shift a portion of a second power event of the second set of power events to the first set of power events to remove the first zero power event from the first period , wherein a portion includes a subpart or all of the second power event . a processor ; and a non-transitory computer readable medium storing machine readable instructions that when executed by the processor cause the processor to: identify a first period for a heated system , the first period including a first set of power events, during which power is applied to the heated system, and a first zero power event for the heated system , wherein a zero power event is a power event during which no power is applied to the heated system ; identify a second period for the heated system , the second period including a second set of power events, during which power is applied to the heated system, and a second zero power event for the heated system ; shift a portion of a second power event of the second set of power events to the first set of power events to remove the first zero power event from the first period , wherein a portion includes a subpart or all of the second power event . identify a first period for a heated system , the first period including a first set of power events, during which power is applied to the heated system, and a first zero power event for the heated system , wherein a zero power event is a power event during which no power is applied to the heated system ; identify a second period for the heated system , the second period including a second set of power events, during which power is applied to the heated system, and a second zero power event for the heated system ; shift a portion of a second power event of the second set of power events to the first set of power events to remove the first zero power event from the first period , wherein a portion includes a subpart or all of the second power event .
A scroll compressor, comprising: a first scroll member having a baseplate and a spiral wrap that projects from a surface of the baseplate; a second scroll member having a baseplate and a spiral wrap that projects from a surface of the baseplate; an aerostatic thrust bearing that supports the second scroll member in the axial direction and includes: a surface of the second scroll member, a surface of a fixed supporting member, and a gas distributing structure , wherein a source of pressurized gas supplies pressurized gas to the gas distributing structure; and the gas distributing structure forms a layer of gas between the surface of the fixed supporting member and the surface of the second scroll member; characterized in that the gas distributing structure is a porous material which distributes the pressurized gas between the fixed supporting member and the second scroll member. a first scroll member having a baseplate and a spiral wrap that projects from a surface of the baseplate; a second scroll member having a baseplate and a spiral wrap that projects from a surface of the baseplate; an aerostatic thrust bearing that supports the second scroll member in the axial direction and includes: a surface of the second scroll member, a surface of a fixed supporting member, and a gas distributing structure , wherein a source of pressurized gas supplies pressurized gas to the gas distributing structure; and the gas distributing structure forms a layer of gas between the surface of the fixed supporting member and the surface of the second scroll member; characterized in that the gas distributing structure is a porous material which distributes the pressurized gas between the fixed supporting member and the second scroll member.
A coated conductor comprising: (a) a conductor; and (b) a polymeric composition surrounding at least a portion of said conductor, wherein said polymeric composition comprises a high-density polyethylene and an ethylene vinyl acetate, wherein said polymeric composition has a vinyl acetate content in the range of from 1.5 to 8 weight percent, based on the combined weight of said high-density polyethylene and said ethylene vinyl acetate, wherein said polymeric composition has a melt index (I 2 ) of 2.0 g / 10 minutes or less; and wherein said coated conductor is a fiber optic cable. (a) a conductor; and (b) a polymeric composition surrounding at least a portion of said conductor, wherein said polymeric composition comprises a high-density polyethylene and an ethylene vinyl acetate, wherein said polymeric composition has a vinyl acetate content in the range of from 1.5 to 8 weight percent, based on the combined weight of said high-density polyethylene and said ethylene vinyl acetate, wherein said polymeric composition has a melt index (I 2 ) of 2.0 g / 10 minutes or less; and wherein said coated conductor is a fiber optic cable.
Plastic pipe T-connection having at least one first pipeline and having at least one further plastic pipeline , wherein the first pipeline has at least one bore in the pipe wall, the diameter of which at least one bore is greater than the internal diameter of the further pipeline by a predetermined amount, and, at its end assigned to the first pipeline , the further pipeline has a hinged sleeve , wherein the hinged sleeve has a first saddle-shaped component which is assigned to the further pipeline , wherein the further pipeline opens out in a fluid-conducting manner into the saddle-shaped component , and the hinged sleeve has a second saddle-shaped component , wherein the hinged sleeve is pivoted closed around the first pipeline and has a diameter which corresponds to the external diameter of the first pipeline , wherein the opening of the further pipeline is aligned with the bore in the pipe wall of the first pipeline , characterized in that the second saddle-shaped component , by means of a film hinge , is connected to the first component and is able to be pivoted together with the latter to form the hinged sleeve , and the first pipeline has an elastic encapsulation at its external surface, wherein the bore in the wall of the first pipeline also passes through the enclosure.
A display apparatus , comprising: a position sensor to sense a pupil position of an eye of a user; a controller to set a virtual viewing window corresponding to the sensed pupil position of the eye of the user, wherein a size of the viewing window is set in correspondence with a maximum diameter of a human pupil; a light generator to generate a directional light based on a control signal from the controller, comprising: a backlight to generate a non-directional light; a variable slit to convert, based on the control signal, the non-directional light to a plurality of point light sources, each having a different position; and a lens comprising a plurality of micro-lenses , each micro-lens being configured to generate, for a respective point light source, a respective directional light toward the virtual viewing window by refracting light from said respective point light source; and a light modulator to modulate an intensity of the directional lights based on a control signal from the controller; wherein the lens is arranged in between the light modulator and the variable slit ; wherein the display apparatus is configured to generate a light field image only in the virtual viewing window by having the variable slit configured to independently generate each of the plurality of point light sources. a position sensor to sense a pupil position of an eye of a user; a controller to set a virtual viewing window corresponding to the sensed pupil position of the eye of the user, wherein a size of the viewing window is set in correspondence with a maximum diameter of a human pupil; a light generator to generate a directional light based on a control signal from the controller, comprising: a backlight to generate a non-directional light; a variable slit to convert, based on the control signal, the non-directional light to a plurality of point light sources, each having a different position; and a lens comprising a plurality of micro-lenses , each micro-lens being configured to generate, for a respective point light source, a respective directional light toward the virtual viewing window by refracting light from said respective point light source; and a backlight to generate a non-directional light; a variable slit to convert, based on the control signal, the non-directional light to a plurality of point light sources, each having a different position; and a lens comprising a plurality of micro-lenses , each micro-lens being configured to generate, for a respective point light source, a respective directional light toward the virtual viewing window by refracting light from said respective point light source; and a light modulator to modulate an intensity of the directional lights based on a control signal from the controller; wherein the lens is arranged in between the light modulator and the variable slit ; wherein the display apparatus is configured to generate a light field image only in the virtual viewing window by having the variable slit configured to independently generate each of the plurality of point light sources.
An apparatus, comprising means for performing: receiving , at a second network entity from a first network entity, information identifying a subscription and information comprising one or more attributes associated with the identified subscription, wherein the attributes relate to management of an emission of heartbeat notifications at the second network entity for the identified subscription; associating , by the second network entity, the attributes with the identified subscription based on the received information; associating , by the second network entity, the attributes with a communication channel between the second network entity and a third network entity relating to the subscription; and starting the emission of the heartbeat notifications from the second network entity to the third network entity according to the information received by the second network entity from the first network entity. receiving , at a second network entity from a first network entity, information identifying a subscription and information comprising one or more attributes associated with the identified subscription, wherein the attributes relate to management of an emission of heartbeat notifications at the second network entity for the identified subscription; associating , by the second network entity, the attributes with the identified subscription based on the received information; associating , by the second network entity, the attributes with a communication channel between the second network entity and a third network entity relating to the subscription; and starting the emission of the heartbeat notifications from the second network entity to the third network entity according to the information received by the second network entity from the first network entity.
Use of a target, which consists of aluminium oxide and elemental chromium or of aluminium nitride and elemental chromium or of aluminium oxide and a combination of elemental chromium and a ceramic compound of chromium, for the deposition of mixed crystal layers of aluminium chromium oxide on a substrate by means of arc vapour deposition.
A method for producing an alkali metal salt of fluorosulfonyl imide represented by the following general formula (I), having a content of sulfate ions of 3,000 ppm by mass or less, wherein the alkali metal salt of fluorosulfonyl imide is a bis(fluorosulfonyl)imide, wherein M a represents an alkali metal, and each of R a and R b represents a fluorine atom, comprising a step of concentrating a solution of an alkali metal salt of fluorosulfonyl imide while bubbling a gas into a reaction solution containing the alkali metal salt of fluorosulfonyl imide, and/or, concentrating the solution of the alkali metal salt of fluorosulfonyl imide by thin film distillation using a thin film distillator which is a device having a means to form a thin film of the reaction solution, a means to heat the thin film formed, a means to recover an evaporating content, a means to recover a non-evaporating content, and a circulating means to return a concentrated liquid removed from the thin film distillator again to the thin film distillator. concentrating a solution of an alkali metal salt of fluorosulfonyl imide while bubbling a gas into a reaction solution containing the alkali metal salt of fluorosulfonyl imide, and/or, concentrating the solution of the alkali metal salt of fluorosulfonyl imide by thin film distillation using a thin film distillator which is a device having a means to form a thin film of the reaction solution, a means to heat the thin film formed, a means to recover an evaporating content, a means to recover a non-evaporating content, and a circulating means to return a concentrated liquid removed from the thin film distillator again to the thin film distillator.