mhurhangee/ep-ind-claims huggingface dataset:
A lighting device for a vehicle, in particular a headlight for a motor vehicle, comprising a housing, at least one lighting element housed at least partially inside the housing so as to be at least partially visible from the outside via a front opening of the housing, and at least one light source arranged on a support element coupled to the housing, in a detachable manner, to close a through seat of the housing arranged at the rear or at the sides thereof, said at least one light source being configured to illuminate said at least one lighting element, which consists of a light guide having an elongated shape and including a first end operatively associated with said at least one light source; wherein the first end of the light guide is housed passing through an interface element and an adapter element, which in turn is coupled integral with the interface element and interposed between the latter and the support element of said at least one light source facing thereto, the adapter element and the interface element both being housed inside said through seat of the housing; wherein the adapter element is constrained to the interface element by a screw and a threaded nut; characterised in that the screw comprises an activation head and a shank having a first threaded stretch and a second threaded stretch arranged between the activation head and first threaded stretch, the first threaded stretch being screwed inside a reception seat of the interface element so that the screw and the interface element are relatively mobile along an axis of symmetry of the screw; the threaded nut being screwed on the second threaded stretch in such a manner that it couples in axial abutment against a bottom wall of the adapter element.
Method for operating a delivery unit for reducing agent, wherein the delivery unit has a feed line, which runs from a tank to a metering-in point, and a return line which branches off from the feed line, wherein the return line can be switched over by means of a valve which can be activated with an electrical current, and the method comprises at least the following steps: a) applying an activation current to the valve for a first time interval; b) applying a holding current to the valve when the first time interval has elapsed; c) determining an operating variable of the delivery unit; d) adapting at least one of the following variables as a function of the determined operating variable: - the activation current; - the holding current; - the first time interval, characterized in that - in step b), the holding current is reduced to such an extent that leakage from the delivery unit is detected in step c), and - then in step d), the holding current is set so as to be higher by a predefined interval than the holding current which was reduced in step b). a) applying an activation current to the valve for a first time interval; b) applying a holding current to the valve when the first time interval has elapsed; c) determining an operating variable of the delivery unit; d) adapting at least one of the following variables as a function of the determined operating variable: - the activation current; - the holding current; - the first time interval, characterized in that - in step b), the holding current is reduced to such an extent that leakage from the delivery unit is detected in step c), and - then in step d), the holding current is set so as to be higher by a predefined interval than the holding current which was reduced in step b). - the activation current; - the holding current; - the first time interval, - in step b), the holding current is reduced to such an extent that leakage from the delivery unit is detected in step c), and - then in step d), the holding current is set so as to be higher by a predefined interval than the holding current which was reduced in step b).
An identification device, comprising: a) printed integrated circuitry (210, 302, 322) on a first substrate (232, 304, 324), the printed integrated circuit comprising thin film transistors, diodes, and capacitors and having a lowest layer in physical contact with a surface of said first substrate, a first successive layer on the lowest layer, and a second successive layer on the first successive layer, wherein the printed integrated circuitry comprises at least one printed thin film, and the lowest layer and the first and second successive layers taken together comprise an insulating thin film, a metal thin film, and a semiconductor thin film; b) first and second pads (234, 236, 306, 307, 326, 327) provided on the first substrate and/or the printed integrated circuitry, the first and second pads being electrically coupled to the printed integrated circuitry, and wherein the first and second pads are on opposite ends of the printed integrated circuitry or on the first substrate at opposite ends of the printed integrated circuitry; and c) a single-layer antenna and/or inductor (252, 320, 340) on a second substrate comprising a conductive line having first and second ends (314, 316) thereon and a plurality of coils, the first and second ends being physically connected to the first and second pads, respectively, such that the printed integrated circuitry extends across the single-layer antenna and/or inductor. a) printed integrated circuitry (210, 302, 322) on a first substrate (232, 304, 324), the printed integrated circuit comprising thin film transistors, diodes, and capacitors and having a lowest layer in physical contact with a surface of said first substrate, a first successive layer on the lowest layer, and a second successive layer on the first successive layer, wherein the printed integrated circuitry comprises at least one printed thin film, and the lowest layer and the first and second successive layers taken together comprise an insulating thin film, a metal thin film, and a semiconductor thin film; b) first and second pads (234, 236, 306, 307, 326, 327) provided on the first substrate and/or the printed integrated circuitry, the first and second pads being electrically coupled to the printed integrated circuitry, and wherein the first and second pads are on opposite ends of the printed integrated circuitry or on the first substrate at opposite ends of the printed integrated circuitry; and c) a single-layer antenna and/or inductor (252, 320, 340) on a second substrate comprising a conductive line having first and second ends (314, 316) thereon and a plurality of coils, the first and second ends being physically connected to the first and second pads, respectively, such that the printed integrated circuitry extends across the single-layer antenna and/or inductor.
A computer implemented method of determining condition of at least one bearing in a system, the method comprising: receiving operation data associated with the system from one or more sensing units associated with the system; determining an operation profile of the at least one bearing from the operation data, wherein the operation profile includes at least one of a vibration response and a thermal response associated with the at least one bearing; determining an impact force profile during operation of the at least one bearing based on the operation profile and a virtual bearing model (400, 600), wherein the impact force profile is associated with an impact between a rolling element of the at least one bearing and a physical defect of the bearing, wherein the virtual bearing model (400, 600) is trained on operation profiles and impact force profiles associated with a group of bearings comparable with the at least one bearing; and determining the condition of the at least one bearing based on the impact force profile. receiving operation data associated with the system from one or more sensing units associated with the system; determining an operation profile of the at least one bearing from the operation data, wherein the operation profile includes at least one of a vibration response and a thermal response associated with the at least one bearing; determining an impact force profile during operation of the at least one bearing based on the operation profile and a virtual bearing model (400, 600), wherein the impact force profile is associated with an impact between a rolling element of the at least one bearing and a physical defect of the bearing, wherein the virtual bearing model (400, 600) is trained on operation profiles and impact force profiles associated with a group of bearings comparable with the at least one bearing; and determining the condition of the at least one bearing based on the impact force profile.
Dielectric composition having a perovskite crystal structure and containing at least Bi, Na, Sr and Ti, whereby said dielectric composition comprises at least one selected from among La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Yb, Ba, Ca, Mg and Zn; characterised in that said dielectric composition comprises single phase particles which do not have a core-shell structure and specific particles, the specific particles having a core-shell structure that has at least one core portion comprising SrTiO 3; and α < 0.20, where α is the ratio of the number of specific particles with respect to the total number of particles contained in the dielectric composition.
An aluminum terminal assembly comprising an aluminum wire and an aluminum terminal comprising an insertion cavity for inserting the aluminum wire, wherein the insertion cavity comprises a first cavity with an inner diameter matching with an outer diameter of a conductor core of the aluminum wire, and a second cavity with an inner diameter matching with an outer diameter of an insulation layer of the aluminum wire; a rear end of the first cavity is connected to a front end of the second cavity; the aluminium terminal is crimped with the aluminium wire; and an electrically conductive coating layer for allowing an electric conduction between the conductor core and the first cavity is provided between an inner wall of the first cavity and the conductor core; characterized in that a minimum wall thickness of the insertion cavity is greater than or equal to 1/6 times a wall thickness of the insulation layer, the electrically conductive coating layer comprises at least 15 wt% of an electrically conductive portion and at most 85 wt% of a carrier portion, the carrier portion comprises a resin matrix and an adhesive, and the carrier portion further comprises one or more selected from the group consisting of a coupling agent, and a dispersing agent. characterized in that a minimum wall thickness of the insertion cavity is greater than or equal to 1/6 times a wall thickness of the insulation layer, the electrically conductive coating layer comprises at least 15 wt% of an electrically conductive portion and at most 85 wt% of a carrier portion, the carrier portion comprises a resin matrix and an adhesive, and the carrier portion further comprises one or more selected from the group consisting of a coupling agent, and a dispersing agent.
A method of synchronizing streaming data in a network of two or more ABR transcoding nodes (12, 14, 50, 64), the method comprising a given node (12, 50) of the network carrying out the steps of: sending a query message containing a node identifier unique to the node sending the query message; receiving from the other node or nodes (14, 64) a query message containing the node identifier of that node; sending an information message comprising a node identifier and synchronization information that includes a chunk boundary location for a boundary of a last chunk of data and a chunk length to indicate a distance from the boundary to a next chunk; receiving from the other node or nodes (14, 64) an information message comprising its node identifier and synchronization information that includes a chunk boundary location for a boundary of a last chunk of data and a chunk length to indicate a distance from the boundary to a next chunk; determining a relative priority between the given node (12, 50) and the other node or nodes (14, 64) of the two or more nodes (12, 14, 50, 64) based on the node identifiers exchanged between the nodes (12, 14, 50, 64); determining from the relative priority whether the given node (12, 50) is a slave or a master node; if the given node (12, 50) is a master node, using its synchronization information to determine the chunk boundary location and chunk length; if the node (12, 50) is a slave and not a master node, determining its next chunk boundary based on the chunk boundary information received in an information message from the master node. sending a query message containing a node identifier unique to the node sending the query message; receiving from the other node or nodes (14, 64) a query message containing the node identifier of that node; sending an information message comprising a node identifier and synchronization information that includes a chunk boundary location for a boundary of a last chunk of data and a chunk length to indicate a distance from the boundary to a next chunk; receiving from the other node or nodes (14, 64) an information message comprising its node identifier and synchronization information that includes a chunk boundary location for a boundary of a last chunk of data and a chunk length to indicate a distance from the boundary to a next chunk; determining a relative priority between the given node (12, 50) and the other node or nodes (14, 64) of the two or more nodes (12, 14, 50, 64) based on the node identifiers exchanged between the nodes (12, 14, 50, 64); determining from the relative priority whether the given node (12, 50) is a slave or a master node; if the given node (12, 50) is a master node, using its synchronization information to determine the chunk boundary location and chunk length; if the node (12, 50) is a slave and not a master node, determining its next chunk boundary based on the chunk boundary information received in an information message from the master node.
A method for making a pressurized fluid-filled chamber, the method comprising:placing a pair of polymer sheets (914, 912) in an opposing arrangement; pressing opposing perimeter weld portions of the polymer sheets (914, 912) against each other to form an airtight seal along a perimeter region of an interior void of the fluid- filled chamber; providing a flow of pressurized air between the opposing sheets (312,314) to an inflation region of the perimeter weld portions; unsealing the inflation region of the perimeter weld portions to permit the flow of pressurized air through an inflation gap in the inflation region formed between the opposing sheets (312,314) into the interior void to a provide a fluid pressure in the interior void; and while maintaining the fluid pressure in the interior void, welding the perimeter weld portions of the sheets (312,314) to each other including the inflation region to form an uninterrupted perimeter weld (316, 916) around the fluid-filled chamber without having an inflation channel formed in the perimeter weld (316, 916).
A regenerative burner apparatus, comprising: a burner housing having a gas channel extending therethrough; a single-stage heat regenerator provided with a housing enclosing a fluid-porous heat regenerative media bed having an upper surface and a lower surface, said housing having an opening adapted for communication with an exterior of said apparatus; a first gas passageway in said housing directly interconnecting said gas channel of said burner housing and said lower surface of said heat regenerative media bed; and a second gas passageway in said housing interconnecting said opening in said housing adapted for communication with said exterior and said upper surface of said heat regenerative media bed, said first and second gas passageways being in communication with each other substantially only through said heat regenerative media bed so that gas passing from one of the first gas passageway and second gas passage way to the other one of the first gas passageway and second gas passageway must flow through the heat regenerative media bed, said housing includes a liquid collection chamber directly beneath said lower surface of the heat regenerative media bed, characterized in that said heat regenerative media bed is supported on a porous support within said regenerator housing, and said porous support is held above a bottom surface of said housing by mutually spaced generally upright struts. a burner housing having a gas channel extending therethrough; a single-stage heat regenerator provided with a housing enclosing a fluid-porous heat regenerative media bed having an upper surface and a lower surface, said housing having an opening adapted for communication with an exterior of said apparatus; a first gas passageway in said housing directly interconnecting said gas channel of said burner housing and said lower surface of said heat regenerative media bed; and a second gas passageway in said housing interconnecting said opening in said housing adapted for communication with said exterior and said upper surface of said heat regenerative media bed, said first and second gas passageways being in communication with each other substantially only through said heat regenerative media bed so that gas passing from one of the first gas passageway and second gas passage way to the other one of the first gas passageway and second gas passageway must flow through the heat regenerative media bed, said housing includes a liquid collection chamber directly beneath said lower surface of the heat regenerative media bed, characterized in that said heat regenerative media bed is supported on a porous support within said regenerator housing, and said porous support is held above a bottom surface of said housing by mutually spaced generally upright struts.
A combustor (100, 300, 400), comprising: at least one fuel nozzle assembly (104, 304, 308), the at least one fuel nozzle assembly (104, 304, 308) including a center body (124, 310); an inner shroud (120, 312), that surrounds at least a portion of the center body (124, 310); an outer shroud that surrounds at least a portion of the inner shroud (120, 312); and a plurality of cooling holes formed in a portion of the outer shroud, cooling air being introduced in a space between the inner and outer shrouds (120, 312, 144) and exiting from the plurality of cooling holes; characterized by an actuator that moves at least the center body (124, 310) in an axial direction, the combustor (100, 300, 400) further comprising a vane (116, 314) disposed between the inner shroud (120, 312) and the center body (124, 310), wherein the actuator is operable to move the vane (116, 314), the inner shroud (120, 312) and the outer shroud in the axial direction, wherein the cooling air in the space between the inner and outer shrouds (120, 312, 144) cools a portion of the inner shroud (120, 312) that protrudes past a bulkhead of a combustor (100, 300, 400) when the actuator moves the inner shroud (120, 312) past the bulkhead. at least one fuel nozzle assembly (104, 304, 308), the at least one fuel nozzle assembly (104, 304, 308) including a center body (124, 310); an inner shroud (120, 312), that surrounds at least a portion of the center body (124, 310); an outer shroud that surrounds at least a portion of the inner shroud (120, 312); and a plurality of cooling holes formed in a portion of the outer shroud, cooling air being introduced in a space between the inner and outer shrouds (120, 312, 144) and exiting from the plurality of cooling holes; characterized by an actuator that moves at least the center body (124, 310) in an axial direction, the combustor (100, 300, 400) further comprising a vane (116, 314) disposed between the inner shroud (120, 312) and the center body (124, 310), wherein the actuator is operable to move the vane (116, 314), the inner shroud (120, 312) and the outer shroud in the axial direction, wherein the cooling air in the space between the inner and outer shrouds (120, 312, 144) cools a portion of the inner shroud (120, 312) that protrudes past a bulkhead of a combustor (100, 300, 400) when the actuator moves the inner shroud (120, 312) past the bulkhead.
A nail correcting device made of an elastic material, the nail correcting device comprising: a pair of holding pieces (11, 21, 31) arranged side by side in a predetermined direction; and a connecting piece (12, 22) connecting the holding pieces (11, 21, 31) to each other, the pair of holding pieces (11, 21, 31) each comprising: a body (13, 23) at least partly in an arc within a plane intersecting with the predetermined direction; and a pair of first and second distal edges (14A, 14B) connected to both ends of the body (13, 23) to hold a nail, the pair of first and second distal edges (14A, 14B) being spaced from each other along the predetermined direction at an inner side and an outer side; characterized in that the body (13, 23) comprises a helical portion having an end connected to the first distal edge at the inner side of each of the pair of holding pieces (11, 21), and wherein a center axis of the helical portion is parallel to the predetermined direction. a pair of holding pieces (11, 21, 31) arranged side by side in a predetermined direction; and a connecting piece (12, 22) connecting the holding pieces (11, 21, 31) to each other, the pair of holding pieces (11, 21, 31) each comprising: a body (13, 23) at least partly in an arc within a plane intersecting with the predetermined direction; and a pair of first and second distal edges (14A, 14B) connected to both ends of the body (13, 23) to hold a nail, the pair of first and second distal edges (14A, 14B) being spaced from each other along the predetermined direction at an inner side and an outer side; characterized in that the body (13, 23) comprises a helical portion having an end connected to the first distal edge at the inner side of each of the pair of holding pieces (11, 21), and wherein a center axis of the helical portion is parallel to the predetermined direction. a body (13, 23) at least partly in an arc within a plane intersecting with the predetermined direction; and a pair of first and second distal edges (14A, 14B) connected to both ends of the body (13, 23) to hold a nail, the pair of first and second distal edges (14A, 14B) being spaced from each other along the predetermined direction at an inner side and an outer side; characterized in that the body (13, 23) comprises a helical portion having an end connected to the first distal edge at the inner side of each of the pair of holding pieces (11, 21), and wherein a center axis of the helical portion is parallel to the predetermined direction.
A composition comprising a mercury re-emission control additive; and a free radical scavenger, wherein the mercury re-emission control additive is a polymeric polydithiocarbamate compound; wherein the free radical scavenger is selected from the group consisting of: substituted phenols, derivatives of phenylenediamine, butylated hydroxyanisole, butylated hydroxytoluene, citric acid, tertiary butylhydroquinone (TBHQ), tocopherols, ascorbic acid, glutathione, lipoic acid, uric acid, and free radical scavenging enzymes, or any combination thereof.