mhurhangee/ep-ind-claims huggingface dataset:
A replaceable LED light source module for a lighting apparatus for a vehicle, comprising: an LED light source having a single or a plurality of LED chips; a heat sink thermally connected to the LED light source, said LED light source being directly mounted on the heat sink; an attachment which is configured to detachably fit into a light source mounting hole of a lighting apparatus for a vehicle, said attachment having a supporting frame which is configured to project into a lighting chamber; a driver circuit driving the LED light source, said driver circuit being provided on the supporting frame; characterized in that the replaceable LED light source module further comprises an electric fan unit cooling the heat sink by air blasting; wherein the driver circuit is configured to drive the electric fan unit; wherein all of the LED light source, the heat sink, the electric fan unit, the driver circuit and the attachment are configured integrally; the heat sink being provided between the LED light source and the electric fan unit, and the electric fan unit being provided at a distal end portion of the supporting frame; wherein all of the LED light source, the heat sink, the electric fan unit and the driver circuit are configured to be housed in the lighting chamber through the light source mounting hole; and wherein the heat sink and the driver circuit are adjacent to each other, and the heat sink has an internal flow passage designed such that air supplied from the electric fan unit can be guided to the driver circuit. an LED light source having a single or a plurality of LED chips; a heat sink thermally connected to the LED light source, said LED light source being directly mounted on the heat sink; an attachment which is configured to detachably fit into a light source mounting hole of a lighting apparatus for a vehicle, said attachment having a supporting frame which is configured to project into a lighting chamber; a driver circuit driving the LED light source, said driver circuit being provided on the supporting frame; wherein the driver circuit is configured to drive the electric fan unit; wherein all of the LED light source, the heat sink, the electric fan unit, the driver circuit and the attachment are configured integrally; the heat sink being provided between the LED light source and the electric fan unit, and the electric fan unit being provided at a distal end portion of the supporting frame; wherein all of the LED light source, the heat sink, the electric fan unit and the driver circuit are configured to be housed in the lighting chamber through the light source mounting hole; and wherein the heat sink and the driver circuit are adjacent to each other, and the heat sink has an internal flow passage designed such that air supplied from the electric fan unit can be guided to the driver circuit.
A carboxyl-modified synthetic isoprene polymer latex for dip molding obtained by graft polymerizing a monomer comprising a carboxyl group onto a synthetic isoprene polymer in an aqueous phase, wherein the carboxyl-modified synthetic isoprene polymer latex comprises at least one anionic surfactant, and a carboxyl-modified synthetic isoprene polymer composing the carboxyl-modified synthetic isoprene polymer latex has a tetrahydrofuran-insoluble content of 30 wt% or more.
An aqueous inorganic patterning precursor solution comprising a mixture of water, metal suboxide cations, polyatomic inorganic anions and radiation sensitive ligands comprising peroxide groups, wherein the composition has a molar concentration ratio of ligands to metal suboxide cations of at least 2 and wherein the precursor solution is stable with respect to phase separation for at least 2 hours without additional mixing.
Equipment for the heat treatment of manufactured items at high temperatures, in particular for the controlled cooling of extruded section bars made of aluminum, said equipment being adapted to be arranged downstream of an extrusion press defining an extrusion direction of the extruded section bars downstream of the extrusion press, said equipment comprising a support device adapted to support restingly at least one said extruded section bar in a substantially horizontal position; an upper cooling unit arranged above said support device and adapted to be switched by translation in a substantially vertical direction with respect to said support device between a first upper position and a second lower position; a lower cooling unit arranged at said support device; wherein said equipment comprises ventilation means adapted to generate a ventilated air flow and means adapted to generate a refrigerant liquid flow; wherein said lower unit comprises a first plurality of outlets and nozzles (601, 602) in fluid communication with said ventilation means and said means for generating said refrigerant liquid flow, respectively, said outlets and said nozzles (601, 602) being each adapted to convey a jet of air and refrigerant liquid, respectively, towards said at least one extruded section bar; characterized in that said upper unit is equipped only with a second plurality of vents in fluid communication with said ventilation means and each adapted to convey a jet of air towards said at least one extruded section bar, and in that said upper unit is made at least partially of non-stainless steel or of non-corrosion resistant materials. said equipment comprising a support device adapted to support restingly at least one said extruded section bar in a substantially horizontal position; an upper cooling unit arranged above said support device and adapted to be switched by translation in a substantially vertical direction with respect to said support device between a first upper position and a second lower position; a lower cooling unit arranged at said support device; wherein said equipment comprises ventilation means adapted to generate a ventilated air flow and means adapted to generate a refrigerant liquid flow; wherein said lower unit comprises a first plurality of outlets and nozzles (601, 602) in fluid communication with said ventilation means and said means for generating said refrigerant liquid flow, respectively, said outlets and said nozzles (601, 602) being each adapted to convey a jet of air and refrigerant liquid, respectively, towards said at least one extruded section bar; characterized in that said upper unit is equipped only with a second plurality of vents in fluid communication with said ventilation means and each adapted to convey a jet of air towards said at least one extruded section bar, and in that said upper unit is made at least partially of non-stainless steel or of non-corrosion resistant materials.
Suction device for a domestic vacuum cleaner, comprising: - a motor housing comprising a passage opening, - a suction motor disposed in the motor housing and configured to generate a suction flow, the suction motor comprising an air inlet opening, and - an aeraulic sealing element configured to guide the suction flow from the passage opening to the air inlet opening, the aeraulic sealing element being annular and flexible, the aeraulic sealing element comprising a first annular sealing portion configured to cooperate in a sealed manner with the motor housing, a second annular sealing portion configured to cooperate in a sealed manner with the suction motor, and an annular intermediate portion located between the first and second annular sealing portions (19, 21), characterised in that the annular intermediate portion comprises at least one radial fold oriented substantially radially relative to a central axis of the aeraulic sealing element, and at least one annular fold (38, 39) substantially concentric with the central axis of the aeraulic sealing element. - a motor housing comprising a passage opening, - a suction motor disposed in the motor housing and configured to generate a suction flow, the suction motor comprising an air inlet opening, and - an aeraulic sealing element configured to guide the suction flow from the passage opening to the air inlet opening, the aeraulic sealing element being annular and flexible, the aeraulic sealing element comprising a first annular sealing portion configured to cooperate in a sealed manner with the motor housing, a second annular sealing portion configured to cooperate in a sealed manner with the suction motor, and an annular intermediate portion located between the first and second annular sealing portions (19, 21),
A method for manufacturing an organic electronic device (100, 200, 300), said method comprising the following steps: a) producing at least one functional unit (LU, LU1, LU2, LU3) comprising an organic layer (120, 220, 320); b) depositing an inorganic encapsulation layer (140,240, 340) above the functional unit (LU, LU1, LU2, LU3); c) depositing a structured organic encapsulation layer (150, 250, 350) on top of the inorganic encapsulation layer (140, 240, 340); d) etching the inorganic encapsulation layer (140, 240, 340) to create at least one opening; e) depositing at least one conductive line (161, 162, 261, 262) in said opening such that it is at least partially embedded in the encapsulation layers (140, 240, 150, 250, 340, 350) and accessible from outside at an external contact point (CT, CL); characterised in that the functional unit is segmented by etching through the at least one opening that was created in the inorganic encapsulation layer. a) producing at least one functional unit (LU, LU1, LU2, LU3) comprising an organic layer (120, 220, 320); b) depositing an inorganic encapsulation layer (140,240, 340) above the functional unit (LU, LU1, LU2, LU3); c) depositing a structured organic encapsulation layer (150, 250, 350) on top of the inorganic encapsulation layer (140, 240, 340); d) etching the inorganic encapsulation layer (140, 240, 340) to create at least one opening; e) depositing at least one conductive line (161, 162, 261, 262) in said opening such that it is at least partially embedded in the encapsulation layers (140, 240, 150, 250, 340, 350) and accessible from outside at an external contact point (CT, CL);
A toroidal continuously variable transmission comprising: an input disc and an output disc disposed to face each other in a state in which a rotational axis line of the input disc and a rotational axis line of the output disc conform to each other, each of the input disc and the output disc having a concave contact surface (13a,14a); a power roller sandwiched between the contact surface of the input disc and the contact surface of the output disc so that the power roller is tiltable, the power roller being configured to transmit a rotational driving force of the input disc to the output disc with a transmission ratio corresponding to a tilt motion angle; and a pressing device which presses one of the input disc and the output disc toward the other of the input disc and the output disc, wherein when viewed from a direction of a tilt motion axis line of the power roller, the contact surface (13a, 14a) of at least one of the input disc and the output disc has a region with a curvature that is larger than a curvature of a tilt motion trajectory of a contact surface of the power roller, characterized in that the region is a radially outer portion of the contact surface (13a, 14a) of the at least one of the input disc and the output disc. an input disc and an output disc disposed to face each other in a state in which a rotational axis line of the input disc and a rotational axis line of the output disc conform to each other, each of the input disc and the output disc having a concave contact surface (13a,14a); a power roller sandwiched between the contact surface of the input disc and the contact surface of the output disc so that the power roller is tiltable, the power roller being configured to transmit a rotational driving force of the input disc to the output disc with a transmission ratio corresponding to a tilt motion angle; and a pressing device which presses one of the input disc and the output disc toward the other of the input disc and the output disc, wherein when viewed from a direction of a tilt motion axis line of the power roller, the contact surface (13a, 14a) of at least one of the input disc and the output disc has a region with a curvature that is larger than a curvature of a tilt motion trajectory of a contact surface of the power roller, characterized in that the region is a radially outer portion of the contact surface (13a, 14a) of the at least one of the input disc and the output disc.
Damper for regulate an air flow opening for passage of an air flow in a ventilation duct, wherein the damper comprises a disk and a mounting part, the mounting part is configured to mount the damper in the ventilation duct, whereupon the air flow opening is formed between the inside of the ventilation duct and the periphery (12, 12b) of the disk, and the disk is configured to be movable between an opened and a closed position in order to regulate the size of the air flow opening, whereby the disk has an extension (d, s, s') in the plane of the disk, the damper contains an air-permeable material, the air-permeable material is mounted on the disk, at least at the periphery (12, 12b) of the disk, a portion of the air-permeable material extends past the edge (12, 12a) of the disk with a length (X, X') in the plane of the disk being at least 5% of the extension (d, s, s') of the disk and it is configured to be located in the air flow opening when the damper is arranged in the ventilation duct, characterized in that the size of the air flow opening is configured to be regulated when the disk of the damper pivots in the ventilation duct.
A press-fitting comprising a T-shaped body made of stainless steel or carbon steel and consisting of a duct extending in a longitudinal direction and of a branch portion extending perpendicularly thereto in a transverse direction from an intermediate portion of the duct, wherein said T-shaped body is formed as a single piece by way of a hydroforming process, characterized by further comprising a pair of flat walls formed during the hydroforming process at the sides of the T-shaped body in correspondence to the branch portion, said flat walls extending from a center plane of the longitudinal duct in the transverse direction towards the free end of the branch portion.
A method, comprising: firing printing fluid through nozzles of a print head past respective sensors to identify drop velocities of nozzles; selecting a target drop velocity based on the drop velocities of the nozzles; detecting an aberrant nozzle whose drop velocity deviates from the target drop velocity by a selected threshold; deactivating the aberrant nozzle; and characterized in that the method further comprises configuring a replacement nozzle, wherein between two potential replacement nozzles, the replacement nozzle having a higher drop velocity is selected as the replacement nozzle, that will travel over locations traversed by the aberrant nozzle to print portions of a job that would have been printed by the aberrant nozzle. firing printing fluid through nozzles of a print head past respective sensors to identify drop velocities of nozzles; selecting a target drop velocity based on the drop velocities of the nozzles; detecting an aberrant nozzle whose drop velocity deviates from the target drop velocity by a selected threshold; deactivating the aberrant nozzle; and characterized in that the method further comprises configuring a replacement nozzle, wherein between two potential replacement nozzles, the replacement nozzle having a higher drop velocity is selected as the replacement nozzle, that will travel over locations traversed by the aberrant nozzle to print portions of a job that would have been printed by the aberrant nozzle.
A flavour cartridge comprising: a casing including a longitudinal axis, first and second walls (44; 46) facing each other, and a connection port formed on an outer surface thereof, the first wall having at least one ventilation port; a flavour pouch accommodated in a compressed state in said casing and extending along the longitudinal axis, said flavour pouch including a granular material emitting a flavour component and a permeable sheet wrapping the granular material; and a support for supporting said flavour pouch in the compressed state in said casing, said support including a sealing step formed over the whole region of an inner periphery of said casing on an inner surface of said casing and sealingly supporting only the whole periphery of said flavour pouch in close contact with the whole region of an outer periphery of said flavour pouch, and the sealing step ensuring an internal chamber defined between said flavour pouch and the second wall, and connected to the connection port. a casing including a longitudinal axis, first and second walls (44; 46) facing each other, and a connection port formed on an outer surface thereof, the first wall having at least one ventilation port; a flavour pouch accommodated in a compressed state in said casing and extending along the longitudinal axis, said flavour pouch including a granular material emitting a flavour component and a permeable sheet wrapping the granular material; and a support for supporting said flavour pouch in the compressed state in said casing, said support including a sealing step formed over the whole region of an inner periphery of said casing on an inner surface of said casing and sealingly supporting only the whole periphery of said flavour pouch in close contact with the whole region of an outer periphery of said flavour pouch, and the sealing step ensuring an internal chamber defined between said flavour pouch and the second wall, and connected to the connection port.
A fibrous structure comprising filaments wherein the filaments comprise one or more filament-forming materials and one or more active agents that are releasable from the filament when exposed to conditions of intended use, the fibrous structure further comprising: (a) a continuous network region, wherein the network region comprises a first average density; and (b) a plurality of discrete zones comprising a second average density, wherein the discrete zones being dispersed throughout the network region, and wherein the first average density and the second average density are different, wherein the active agent is selected from the group consisting of: skin benefit agents, medicinal agents, lotions, fabric care agents, dishwashing agents, carpet care agents, surface care agents, hair care agents, air care agents, and mixtures thereof; and wherein the filament forming material comprises a polymer, and wherein the polymer is polyvinyl alcohol. (a) a continuous network region, wherein the network region comprises a first average density; and (b) a plurality of discrete zones comprising a second average density, wherein the discrete zones being dispersed throughout the network region, and wherein the first average density and the second average density are different,
A light emitting device comprising: a III-nitride semiconductor structure including an active region disposed between an n-type and a p-type region; a photonic crystal structure formed in the n-type region; and a reflector disposed on at least a portion of a surface of the p-type region opposite the active region; wherein the n-type region comprises a first n-type region and a second n-type region, wherein the photonic crystal structure is formed in the first n-type region; wherein the second n-type region is disposed between the photonic crystal structure and the active region; and wherein the p-type region, the active region and the second n-type region are uninterrupted by the photonic crystal structure, wherein a trench extends through the p-type region and the active region to the n-type region; and a contact disposed on the second n-type region within the trench, wherein the contact and the photonic crystal structure are formed on opposite surfaces of the second n-type region. a III-nitride semiconductor structure including an active region disposed between an n-type and a p-type region; a photonic crystal structure formed in the n-type region; and a reflector disposed on at least a portion of a surface of the p-type region opposite the active region; wherein the n-type region comprises a first n-type region and a second n-type region, wherein the photonic crystal structure is formed in the first n-type region; wherein the second n-type region is disposed between the photonic crystal structure and the active region; and wherein the p-type region, the active region and the second n-type region are uninterrupted by the photonic crystal structure, wherein a trench extends through the p-type region and the active region to the n-type region; and a contact disposed on the second n-type region within the trench, wherein the contact and the photonic crystal structure are formed on opposite surfaces of the second n-type region.
A video decoding method comprising: obtaining, from a bitstream, split information indicating whether to split a current block vertically to be decoded into three blocks; when the split information indicates to split the current block, splitting the current block vertically into the three blocks by dividing a width of the current block; obtaining, from the bitstream, encoding order information indicating an encoding order in which the three blocks split from the current block are encoded; determining a decoding order of the three blocks according to the encoding order indicated by the encoding order information; and decoding the three blocks according to the decoding order, wherein, the encoding order information indicates one of a forward direction and an inverse direction, the forward direction indicates a direction from a left block to a right block among the three blocks, the inverse direction indicates a direction from the right block to the left block among the three blocks, and the three blocks being positioned horizontally in a row. obtaining, from a bitstream, split information indicating whether to split a current block vertically to be decoded into three blocks; when the split information indicates to split the current block, splitting the current block vertically into the three blocks by dividing a width of the current block; obtaining, from the bitstream, encoding order information indicating an encoding order in which the three blocks split from the current block are encoded; determining a decoding order of the three blocks according to the encoding order indicated by the encoding order information; and decoding the three blocks according to the decoding order, wherein, the encoding order information indicates one of a forward direction and an inverse direction, the forward direction indicates a direction from a left block to a right block among the three blocks, the inverse direction indicates a direction from the right block to the left block among the three blocks, and the three blocks being positioned horizontally in a row.