mhurhangee/ep-ind-claims huggingface dataset:
A light emitting diode module having a multi-layer structure, the LED module comprising: a substrate; an LED on the substrate, the LED configured to emit light toward the substrate; a plurality of upper electrodes (220S, 250S, 240S, Vss) on the LED and connected to the LED; an upper insulating layer surrounding the plurality of upper electrodes (220S, 250S, 240S, Vss); a film on glass electrode (800, 800-1, 800-2) on the upper insulating layer; and a fan out interconnection structure (220F, 250F, 240F, Vss-F, F) configured to connect the plurality of upper electrodes (220S, 250S, 240S, Vss) to the FOG electrode (800, 800-1, 800-2) through the upper insulating layer. a substrate; an LED on the substrate, the LED configured to emit light toward the substrate; a plurality of upper electrodes (220S, 250S, 240S, Vss) on the LED and connected to the LED; an upper insulating layer surrounding the plurality of upper electrodes (220S, 250S, 240S, Vss); a film on glass electrode (800, 800-1, 800-2) on the upper insulating layer; and a fan out interconnection structure (220F, 250F, 240F, Vss-F, F) configured to connect the plurality of upper electrodes (220S, 250S, 240S, Vss) to the FOG electrode (800, 800-1, 800-2) through the upper insulating layer.
A volume occupying separator float adapted for use with an associated sample tube having a first cross-sectional inner diameter and which is resiliently radially expandable during centrifugation to a second inner diameter, which float comprises: a rigid main body portion (112, 212, 312, 612, 712, 912, 1012, 1212, 1312, 1412, 1812, 1912, 2012, 2112, 2712) and one or more support members protruding from the main body portion to engage and support a sidewall of the sample tube, said main body portion and said support members having a cross-sectional diameter less than said second inner diameter of the tube when the sample tube is expanded, wherein said main body portion together with an axially aligned portion of said sidewall define an annular volume therebetween; and wherein said support members traverse said annular volume to produce one or more analysis areas, and characterised in that the float has a specific gravity in the range of from 1.029 to 1.089 and said support members comprise: a helical ridge (920, 1120, 1320), or a plurality of circumferentially spaced-apart axially extending parallel splines (1424,1824, 2024) and a plurality of radially spaced-apart splines intersecting said plurality of axially spaced-apart splines. a rigid main body portion (112, 212, 312, 612, 712, 912, 1012, 1212, 1312, 1412, 1812, 1912, 2012, 2112, 2712) and one or more support members protruding from the main body portion to engage and support a sidewall of the sample tube, said main body portion and said support members having a cross-sectional diameter less than said second inner diameter of the tube when the sample tube is expanded, wherein said main body portion together with an axially aligned portion of said sidewall define an annular volume therebetween; and wherein said support members traverse said annular volume to produce one or more analysis areas, and characterised in that the float has a specific gravity in the range of from 1.029 to 1.089 and said support members comprise: a helical ridge (920, 1120, 1320), or a plurality of circumferentially spaced-apart axially extending parallel splines (1424,1824, 2024) and a plurality of radially spaced-apart splines intersecting said plurality of axially spaced-apart splines. a helical ridge (920, 1120, 1320), or a plurality of circumferentially spaced-apart axially extending parallel splines (1424,1824, 2024) and a plurality of radially spaced-apart splines intersecting said plurality of axially spaced-apart splines.
A photocurable transparent ink composition for three-dimensional molding, comprising the following components in parts by weight: 60-125 parts of a photocuring agent, 0.01-5 parts of a yellowing adjusting agent, 0.5-5 parts of a photoinitiator, and 0.5-5 parts of an auxiliary agent; wherein the yellowing adjusting agent is capable of absorbing light in a wavelength range of 560 nm to 650 nm, so that the photocurable transparent ink composition for three-dimensional molding appears transparent; the yellowing adjusting agent is selected from one or more of a photocurable oligomer, a colorant, and a reducing agent; and a printed article with a thickness of 2 mm obtained by a three-dimensional inkjet printing of the photocurable transparent ink composition for three-dimensional molding has a hue range as follows: L value is 80 to 90, a value is -1.00 to 2.00, and b value is -10.00 to 0; and has a light transmittance value of greater than 92%. the yellowing adjusting agent is selected from one or more of a photocurable oligomer, a colorant, and a reducing agent; and a printed article with a thickness of 2 mm obtained by a three-dimensional inkjet printing of the photocurable transparent ink composition for three-dimensional molding has a hue range as follows: L value is 80 to 90, a value is -1.00 to 2.00, and b value is -10.00 to 0; and has a light transmittance value of greater than 92%.
A light emitting diode, comprising: an n-doped portion; a p-doped portion; and a light emitting region located between the n-doped portion and a p-doped portion, the light emitting region comprising: a light-emitting layer which emits light at a peak wavelength between 400 and 599 nm under electrical bias thereacross; wherein the light emitting diode comprises a porous region of III-nitride material, in which the LED comprises a connecting layer of III-nitride material positioned between the n-doped portion and the porous region, characterised by the light emitting region comprising a III-nitride layer located on the light-emitting layer, and a III-nitride barrier layer located on the III-nitride layer; a non-porous intermediate layer of III-nitride material positioned between the porous region and the connecting layer, and the LED emitting light with a full width half max (FWHM) of 50 nm or less. an n-doped portion; a p-doped portion; and a light emitting region located between the n-doped portion and a p-doped portion, the light emitting region comprising: a light-emitting layer which emits light at a peak wavelength between 400 and 599 nm under electrical bias thereacross; wherein the light emitting diode comprises a porous region of III-nitride material, in which the LED comprises a connecting layer of III-nitride material positioned between the n-doped portion and the porous region, a light-emitting layer which emits light at a peak wavelength between 400 and 599 nm under electrical bias thereacross; wherein the light emitting diode comprises a porous region of III-nitride material, in which the LED comprises a connecting layer of III-nitride material positioned between the n-doped portion and the porous region, characterised by the light emitting region comprising a III-nitride layer located on the light-emitting layer, and a III-nitride barrier layer located on the III-nitride layer; a non-porous intermediate layer of III-nitride material positioned between the porous region and the connecting layer, and the LED emitting light with a full width half max (FWHM) of 50 nm or less.
Domestic refrigerator, having an inner container, which has container walls (2a, 2b, 2c, 2d, 2e) with rear surfaces which delimit at least one coolable storage space (3, 14) for refrigerated goods, and a refrigerant circuit system with at least two evaporator plates (5a, 5b, 5c, 5d, 5e), the front sides of which rest on differently oriented rear surfaces of the container walls (2a, 2b, 2c, 2d, 2e) and the rear sides of which are occupied with at least one evaporator tube, wherein in the flow direction of a refrigerant flowing through the evaporator tube the at least one evaporator tube has a first evaporator tube section, which is placed along an evaporator plate resting on the container wall, said evaporator plate being assigned to the ceiling of the storage space and having a second evaporator tube section arranged downstream of the first evaporator tube section in the flow direction, which is placed along an evaporator plate which rests on the container wall and which is assigned to the base of the storage space and has a third evaporator tube section arranged downstream of the second evaporator tube section in the flow direction, said third evaporator tube section having a directional component aligned counter to the force of gravity, characterised in that the third evaporator tube section is placed along an evaporator plate resting on the container wall and is assigned to a rear wall or a side wall of the storage space.
A heat treatment apparatus for carbonaceous grains, performing heat treatment by directly energizing carbonaceous grains fed into a furnace body, the heat treatment apparatus comprising: a columnar upper electrode and a tubular lower electrode that are disposed above and below along a central axis of the furnace body; and a conductive tubular structure that is electrically connected to an upper end of the lower electrode in a manner of surrounding the upper electrode; wherein the tubular lower electrode is disposed to face the columnar upper electrode with a predetermined distance. a columnar upper electrode and a tubular lower electrode that are disposed above and below along a central axis of the furnace body; and a conductive tubular structure that is electrically connected to an upper end of the lower electrode in a manner of surrounding the upper electrode; wherein the tubular lower electrode is disposed to face the columnar upper electrode with a predetermined distance.
Induction cooking heater of the type comprising at least one inductor and magnetic field concentration means located beneath the inductor, characterized in that it further comprises a sensing circuit (10, 10a) associated to said magnetic field concentration means and adapted to monitor at least one electric parameter of said sensing circuit (10, 10a) in order to prevent the magnetic field concentration means from reaching the Curie point temperature.
A method for upgrading hydrocarbon compounds, in which hydrocarbon compounds synthesized in a Fisher-Tropsch synthesis reaction in a synthesis reactor are fractionally distilled, and the fractionally distilled hydrocarbon compounds are hydrotreated to produce liquid fuel products, the method comprising: (i) separating liquid heavy hydrocarbon compounds from a slurry discharged from the synthesis reactor; (ii) recovering light hydrocarbon compounds from a gas component discharged from the synthesis reactor in a gas-liquid separator; (iii) heating and fractionally distilling the liquid heavy hydrocarbon compounds into a first middle distillate and a wax fraction; (iv) heating and fractionally distilling the light hydrocarbon compounds into a second middle distillate and a light gas fraction; (v) separating hydrocarbon compounds equivalent to naphtha from the light gas fraction; (vi) mixing the hydrocarbon compounds equivalent to naphtha, the first middle distillate, and the second middle distillate; and (vii) subjecting the mixture to hydrotreating. (i) separating liquid heavy hydrocarbon compounds from a slurry discharged from the synthesis reactor; (ii) recovering light hydrocarbon compounds from a gas component discharged from the synthesis reactor in a gas-liquid separator; (iii) heating and fractionally distilling the liquid heavy hydrocarbon compounds into a first middle distillate and a wax fraction; (iv) heating and fractionally distilling the light hydrocarbon compounds into a second middle distillate and a light gas fraction; (v) separating hydrocarbon compounds equivalent to naphtha from the light gas fraction; (vi) mixing the hydrocarbon compounds equivalent to naphtha, the first middle distillate, and the second middle distillate; and (vii) subjecting the mixture to hydrotreating.
A high frequency component (1, 11, 21), in which a filter circuit is implemented, comprising: a multilayer body (2, 12, 22) including a plurality of insulating layers stacked in a stacking direction; linear conductors extending along surfaces of the insulating layers; interlayer connection conductors extending through at least one of the insulating layers; planar conductors expanding along the surfaces of the insulating layers; a transverse coil (4A-4D, 14A, 14B, 24A-24D) including the linear conductors and the interlayer connection conductors spirally wound in a plurality of turns around a winding axis extending in a direction perpendicular to the stacking direction in a plane perpendicular to the winding axis; an internal capacitor (6A-6E, 16A, 16B, 26A-26E) including the planar conductors being opposite each other such that at least one of the insulating layers is disposed therebetween, the internal capacitor being arranged within a coil opening of the transverse coil when seen along the winding axis of the transverse coil; and an external capacitor (7A-7F, 17A-17C, 27A-27D) including the planar conductors being opposite each other such that at least one of the insulating layers is disposed therebetween, the external capacitor being arranged outside the coil opening of the transverse coil when seen along the winding axis of the transverse coil, wherein the external capacitor (7A-7F, 17A-17C, 27A-27D) and the transverse coil (4A-4D, 14A, 14B, 24A-24D) constitute an LC resonant circuit, and wherein the internal capacitor (6A-6E, 16A, 16B, 26A-26E) forms part of the filter circuit. a multilayer body (2, 12, 22) including a plurality of insulating layers stacked in a stacking direction; linear conductors extending along surfaces of the insulating layers; interlayer connection conductors extending through at least one of the insulating layers; planar conductors expanding along the surfaces of the insulating layers; a transverse coil (4A-4D, 14A, 14B, 24A-24D) including the linear conductors and the interlayer connection conductors spirally wound in a plurality of turns around a winding axis extending in a direction perpendicular to the stacking direction in a plane perpendicular to the winding axis; an internal capacitor (6A-6E, 16A, 16B, 26A-26E) including the planar conductors being opposite each other such that at least one of the insulating layers is disposed therebetween, the internal capacitor being arranged within a coil opening of the transverse coil when seen along the winding axis of the transverse coil; and an external capacitor (7A-7F, 17A-17C, 27A-27D) including the planar conductors being opposite each other such that at least one of the insulating layers is disposed therebetween, the external capacitor being arranged outside the coil opening of the transverse coil when seen along the winding axis of the transverse coil, wherein the external capacitor (7A-7F, 17A-17C, 27A-27D) and the transverse coil (4A-4D, 14A, 14B, 24A-24D) constitute an LC resonant circuit, and wherein the internal capacitor (6A-6E, 16A, 16B, 26A-26E) forms part of the filter circuit.
An annuloplasty device comprising first and second support rings being configured to be arranged as a coil in a first configuration around an axial direction, wherein the first and second support rings are configured to be arranged on opposite sides of native heart valve leaflets of a heart valve, wherein the first and second support rings are separated with a first pitch distance (p 1) in the axial direction, in the first configuration, wherein the first and second support rings are configured to assume a contracted state having a second pitch distance (p 2) in the axial direction being shorter than the first pitch distance, and wherein the first and second support rings are configured to be transferable between the first configuration and the contracted state to pinch the heart valve leaflets, the annuloplasty device comprising a stiffening unit (105, 105'), characterized in that at least part of the first and second support rings comprises an interior channel configured to receive the stiffening unit, wherein insertion of the stiffening unit into the interior channel cause the first and second support rings to transfer from the first configuration to the contracted state. first and second support rings being configured to be arranged as a coil in a first configuration around an axial direction, wherein the first and second support rings are configured to be arranged on opposite sides of native heart valve leaflets of a heart valve, wherein the first and second support rings are separated with a first pitch distance (p 1) in the axial direction, in the first configuration, wherein the first and second support rings are configured to assume a contracted state having a second pitch distance (p 2) in the axial direction being shorter than the first pitch distance, and wherein the first and second support rings are configured to be transferable between the first configuration and the contracted state to pinch the heart valve leaflets, the annuloplasty device comprising a stiffening unit (105, 105'), characterized in that at least part of the first and second support rings comprises an interior channel configured to receive the stiffening unit, wherein insertion of the stiffening unit into the interior channel cause the first and second support rings to transfer from the first configuration to the contracted state.
A gas turbine engine comprising: a fan, a compressor section, a combustor, and a turbine section, said fan delivering a portion of air into said compressor section and a portion of air into a duct as bypass air; a bleed air system for bleeding a quantity of air from the compressor section into a chamber, said bleed air system having an opening which may be selectively closed to block bleed air, or opened to allow bleed flow from the compressor section to the chamber; and a heat exchanger having fluid containing passages to be cooled, said heat exchanger positioned such that a first surface of said heat exchanger is contacted by bypass air in the duct, and a second surface of said heat exchanger is contacted by bleed air when said bleed air system is directing air from the compressor section into the chamber, such that said bypass air and said bleed air cools fluid in said passages. a fan, a compressor section, a combustor, and a turbine section, said fan delivering a portion of air into said compressor section and a portion of air into a duct as bypass air; a bleed air system for bleeding a quantity of air from the compressor section into a chamber, said bleed air system having an opening which may be selectively closed to block bleed air, or opened to allow bleed flow from the compressor section to the chamber; and a heat exchanger having fluid containing passages to be cooled, said heat exchanger positioned such that a first surface of said heat exchanger is contacted by bypass air in the duct, and a second surface of said heat exchanger is contacted by bleed air when said bleed air system is directing air from the compressor section into the chamber, such that said bypass air and said bleed air cools fluid in said passages.
A piston assembly comprising: a piston skirt; and a piston crown formed by a casting method and coupled to an upper portion of the piston skirt by using a stud bolt, wherein oil galleries (140, 150) are formed between an upper wall of the piston skirt and an upper wall of the piston crown, a partial annular part having a partial circular ring shape and a plurality of ribs (422, 423) having a linear shape and radially arranged to form oil channels for flowing cooling oil are formed on the upper wall of the piston crown, and the plurality of ribs (422, 423) are divided into outer ribs and inner ribs by the partial annular part, wherein a lubrication passage is formed in the upper wall of the piston skirt at a position apart form the center region of the piston skirt, characterised in that coupling parts (460, 560) are formed in a center region of the piston crown and a center region of the piston skirt, and the coupling parts (460, 560) are coupled by using the stud bolt, and some of the plurality of ribs which extend to the coupling part formed in the center region of the piston crown and remaining ones of the plurality of ribs which do not extend to the coupling part formed in the center region of the piston crown are alternately arranged, a piston skirt; and a piston crown formed by a casting method and coupled to an upper portion of the piston skirt by using a stud bolt, wherein oil galleries (140, 150) are formed between an upper wall of the piston skirt and an upper wall of the piston crown, a partial annular part having a partial circular ring shape and a plurality of ribs (422, 423) having a linear shape and radially arranged to form oil channels for flowing cooling oil are formed on the upper wall of the piston crown, and the plurality of ribs (422, 423) are divided into outer ribs and inner ribs by the partial annular part, wherein a lubrication passage is formed in the upper wall of the piston skirt at a position apart form the center region of the piston skirt, characterised in that coupling parts (460, 560) are formed in a center region of the piston crown and a center region of the piston skirt, and the coupling parts (460, 560) are coupled by using the stud bolt, and some of the plurality of ribs which extend to the coupling part formed in the center region of the piston crown and remaining ones of the plurality of ribs which do not extend to the coupling part formed in the center region of the piston crown are alternately arranged,
A portable extraction cleaner comprising: a main housing; a recovery tank supported by the main housing, the recovery tank having portions at least partially defining a front side and a top side of the portable extraction cleaner; a supply tank spaced rearwardly of the recovery tank and supported by the main housing, the supply tank having portions at least partially defining at least one of the top side and a first lateral side of the portable extraction cleaner; and characterised in that a battery pack is spaced rearwardly of the supply tank and supported by the main housing at a rear side of the portable extraction cleaner opposite the front side. a main housing; a recovery tank supported by the main housing, the recovery tank having portions at least partially defining a front side and a top side of the portable extraction cleaner; a supply tank spaced rearwardly of the recovery tank and supported by the main housing, the supply tank having portions at least partially defining at least one of the top side and a first lateral side of the portable extraction cleaner; and characterised in that a battery pack is spaced rearwardly of the supply tank and supported by the main housing at a rear side of the portable extraction cleaner opposite the front side.
Raceway for a low voltage cabinet, including a body comprising a bottom and an intermediate wall jointly delimiting a compartment with a permanent opening extending along one side of the raceway, and a flap hinged on the body at the side of the raceway in which the permanent opening is delimited, this flap being mobile so that it can be folded to face the intermediate wall or to be separated from it, the compartment being designed to hold communication cables, the intermediate wall being designed to hold power cables on its face opposite the compartment, the flap thus being designed to support modules on its face opposite the intermediate wall, each module being connected to at least one communication cable and at least one power cable.