mhurhangee/ep-ind-claims huggingface dataset:
A method of forming at least one integrated light emitting device assembly, comprising: disposing a first assembly [10B, 301B] comprising a first source substrate and first light emitting devices that emit light of a first wavelength over a backplane, wherein first conductive bonding structures, second conductive bonding structures, and third conductive bonding structures are disposed between the backplane and respective first, second and third subsets of the first light emitting devices in the first assembly (10B, 301B); bonding the first subset of the first light emitting devices to the backplane through the first conductive bonding structures which comprise first solder material portions, by reflowing the first solder material portions while additional bonding is not formed between the backplane and second and third subsets of the first light emitting devices through the respective second and third conductive bonding structures (432, 433); detaching the first subset of the first light emitting devices from the first source substrate by laser ablation of material portions overlying the first subset of the first light emitting devices after the first subset of the first light emitting devices are bonded to the backplane by reflowing the first solder material portions; and separating an assembly comprising the first source substrate and the second and third subsets of the first light emitting devices from the backplane while the first subset of the first light emitting devices remains bonded to the backplane. disposing a first assembly [10B, 301B] comprising a first source substrate and first light emitting devices that emit light of a first wavelength over a backplane, wherein first conductive bonding structures, second conductive bonding structures, and third conductive bonding structures are disposed between the backplane and respective first, second and third subsets of the first light emitting devices in the first assembly (10B, 301B); bonding the first subset of the first light emitting devices to the backplane through the first conductive bonding structures which comprise first solder material portions, by reflowing the first solder material portions while additional bonding is not formed between the backplane and second and third subsets of the first light emitting devices through the respective second and third conductive bonding structures (432, 433); detaching the first subset of the first light emitting devices from the first source substrate by laser ablation of material portions overlying the first subset of the first light emitting devices after the first subset of the first light emitting devices are bonded to the backplane by reflowing the first solder material portions; and separating an assembly comprising the first source substrate and the second and third subsets of the first light emitting devices from the backplane while the first subset of the first light emitting devices remains bonded to the backplane.
Inkjet print head for generating a droplet of ink, the inkjet print head comprising: • an ink supply substrate; • a droplet forming unit embodied as a MEMS chip, wherein the droplet forming unit is arranged on the ink supply substrate, the droplet forming unit having an ink inlet surface and comprising a number of droplet ejection units, each droplet ejection unit comprising an ink flow path extending between an ink inlet port and an orifice, a piezoelectric actuator being arranged in operative communication with the ink flow path for generating a pressure wave in the ink in the ink flow path, the ink inlet port for receiving ink from the ink supply substrate being arranged in the ink inlet surface; • a manifold chamber (41, 42) formed over the ink inlet surface of the droplet forming unit; and • a filter arranged, as seen in an ink flow direction, between the ink supply substrate and the manifold chamber, the filter having a first filter surface at an upstream side and having a second filter surface at a downstream side, the second filter surface being opposite to the first filter surface and filter holes extending from the first filter surface to the second filter surface; wherein the filter is arranged over an area surrounding the manifold chamber. • an ink supply substrate; • a droplet forming unit embodied as a MEMS chip, wherein the droplet forming unit is arranged on the ink supply substrate, the droplet forming unit having an ink inlet surface and comprising a number of droplet ejection units, each droplet ejection unit comprising an ink flow path extending between an ink inlet port and an orifice, a piezoelectric actuator being arranged in operative communication with the ink flow path for generating a pressure wave in the ink in the ink flow path, the ink inlet port for receiving ink from the ink supply substrate being arranged in the ink inlet surface; • a manifold chamber (41, 42) formed over the ink inlet surface of the droplet forming unit; and • a filter arranged, as seen in an ink flow direction, between the ink supply substrate and the manifold chamber, the filter having a first filter surface at an upstream side and having a second filter surface at a downstream side, the second filter surface being opposite to the first filter surface and filter holes extending from the first filter surface to the second filter surface;
A mesh-shaped sheet-type porous heating and atomizing assembly comprising a porous liquid conducting member configured to absorb and conduct liquid and a planar sheet-like electric heating track arranged in the porous liquid conducting member; wherein the mesh-shaped sheet-type porous heating and atomizing assembly comprises one or more planar sheet-like electric heating track configured to heat and atomize the liquid; one or more through airflow holes are defined in the porous liquid conducting member, and the planar sheet-like electric heating track is configured to be a planar heating net composed of one or more heating tracks electrically connected in parallel and located in the same plane; wherein at least one inner wall surface of the through airflow holes in the porous liquid conducting member is a flat planar surface, the planar sheet-like electric heating track is inlaid in an inner wall of the porous liquid conducting member and is approximately parallel to the flat planar inner wall surface of the through airflow holes, and a distance between the planar sheet-like electric heating track and the flat planar inner wall surface of the through holes is 0-0.5 mm.
A composition for imparting a film to the lips comprising: (a) from 0.1 to 2.5% by weight Bis-Stearyl Ethylenediamine/Neopentyl Glycol/Stearyl Hydrogenated Dimer Dilinoleate copolymer having an average molecular weight of about 5,500 Daltons and being capable of forming a gel with low-polarity and nonpolar oils at or below a sol-gel transition temperature T gel wherein T gel is above body temperature; (b) from 5 to 12% by weight of a first wax component comprising linear polyethylene and microcrystalline petroleum wax having a melting point above T gel; (c) from 5 to 12% by weight of a second wax component comprising ozokerite and lanolin having a melting point at or below T gel; and (e) from 40 to 80% by weight of one or more low-polarity or nonpolar ester oils capable of forming a gel with said Bis-Stearyl Ethylenediamine/Neopentyl Glycol/Stearyl Hydrogenated Dimer Dilinoleate copolymer at or below said sol-gel transition temperature T gel; wherein said composition is self-supporting at room temperature and is further characterized by a viscosity measured during a second shear cycle that is within ±20% of the viscosity measured during a first shear cycle at every shear rate between 1 and 10 sec -1, wherein said first and said second shear cycles are identical and comprise increasing shear rates from 1 to 1,000 sec -1. (a) from 0.1 to 2.5% by weight Bis-Stearyl Ethylenediamine/Neopentyl Glycol/Stearyl Hydrogenated Dimer Dilinoleate copolymer having an average molecular weight of about 5,500 Daltons and being capable of forming a gel with low-polarity and nonpolar oils at or below a sol-gel transition temperature T gel wherein T gel is above body temperature; (b) from 5 to 12% by weight of a first wax component comprising linear polyethylene and microcrystalline petroleum wax having a melting point above T gel; (c) from 5 to 12% by weight of a second wax component comprising ozokerite and lanolin having a melting point at or below T gel; and (e) from 40 to 80% by weight of one or more low-polarity or nonpolar ester oils capable of forming a gel with said Bis-Stearyl Ethylenediamine/Neopentyl Glycol/Stearyl Hydrogenated Dimer Dilinoleate copolymer at or below said sol-gel transition temperature T gel;
Method for producing an immunoglobulin single variable domain in Pichia pastoris comprising a) applying conditions that reduce carbamylation of one or more amino acid residues in the immunoglobulin single variable domain, selected from: - lowering the pH at least in the step of inducing the host to produce the immunoglobulin single variable domain to a pH of 6.45 or less; - lowering the induction temperature from 30°C to 27.5°C, 27°C, 26.5°C, 26°C, 25.5°C, 25°C, 24.5°C, 24°C, 24.5°C, 23°C, 22°C or 20°C; - using a buffer without urea during purification, and b) removing the immunoglobulin single variable domain comprising one or more carbamylated amino acid residues. a) applying conditions that reduce carbamylation of one or more amino acid residues in the immunoglobulin single variable domain, selected from: - lowering the pH at least in the step of inducing the host to produce the immunoglobulin single variable domain to a pH of 6.45 or less; - lowering the induction temperature from 30°C to 27.5°C, 27°C, 26.5°C, 26°C, 25.5°C, 25°C, 24.5°C, 24°C, 24.5°C, 23°C, 22°C or 20°C; - using a buffer without urea during purification, and - lowering the pH at least in the step of inducing the host to produce the immunoglobulin single variable domain to a pH of 6.45 or less; - lowering the induction temperature from 30°C to 27.5°C, 27°C, 26.5°C, 26°C, 25.5°C, 25°C, 24.5°C, 24°C, 24.5°C, 23°C, 22°C or 20°C; - using a buffer without urea during purification, and b) removing the immunoglobulin single variable domain comprising one or more carbamylated amino acid residues.
Fuel injection system with a fuel distributor and at least one holder (1, 1A, 1B) which serves for fastening the fuel distributor to an internal combustion engine, wherein the holder (1, 1A, 1B) has a holding body and at least one bearing bushing, and wherein the bearing bushing is connected to the holding body, and wherein the bearing bushing is connectable to the internal combustion engine by a fastening means which extends through the inner bushing part of the bearing bushing, characterized in that the bearing bushing is designed with an inner bushing part, which is at least substantially formed from a metallic material, an outer bushing part, which is at least substantially formed from a metallic material, and with an elastically deformable damping element, wherein the outer bushing part has a continuous recess, wherein the inner bushing part is arranged at least in sections within the continuous recess, and wherein the damping element is arranged between the inner bushing part and the outer bushing part, and wherein the outer bushing part has a shoulder on the continuous recess, and the inner bushing part has a shoulder on the continuous recess, said shoulder being associated with the shoulder of the outer bushing part, and in that the inner bushing part is supported at the shoulder of the inner bushing part on the shoulder of the outer bushing part via the damping element.
A vehicle for driving on a road, said vehicle comprising an electronic control unit provided with processing means configured to enable a platooning drive of said vehicle with respect to at least a further vehicle of a convoy of platooning vehicles, said vehicle comprising security means, the electronic control unit being configured to control said security means to display information, relative to said convoy of vehicles and/or of said vehicle with respect to said convoy, visible to other users of said road, wherein said security means comprise projector means configured to project said information on said road, characterized in that said projector means are carried by a frame of said vehicle at a position closer to said road than to a top end of said vehicle along a vertical axis perpendicular to the plane of said road; said projector means being configured to project said information on said road transversally with respect to road direction, said projector means projecting from said vehicle with an upper angle comprised between 15° and 20° with respect to a horizontal axis parallel to the plane of said road; wherein said information comprises the indication of the presence of foreign vehicles in said convoy of vehicles; and/or wherein said information comprises a change in the distance between the vehicle with respect to said further vehicle of said convoy; and/or wherein said information comprises emergency conditions; and/or wherein said information comprises a mean distance between said vehicles of said convoy; and/or wherein said information comprises a mean speed of said vehicles of said convoy. wherein said information comprises the indication of the presence of foreign vehicles in said convoy of vehicles; and/or wherein said information comprises a change in the distance between the vehicle with respect to said further vehicle of said convoy; and/or wherein said information comprises emergency conditions; and/or wherein said information comprises a mean distance between said vehicles of said convoy; and/or wherein said information comprises a mean speed of said vehicles of said convoy.
An oral care dispenser comprising: a housing having a longitudinal axis and an internal cavity divided into an internal reservoir and a chamber by an elevator, the internal reservoir containing a fluid; a collar non-rotatably coupled to the housing, the collar comprising an inner surface forming an axial passageway, the inner surface of the collar comprising a plurality of features arranged in a circumferentially spaced-apart manner about the longitudinal axis; a drive component rotatably coupled to the collar, the drive component comprising a drive screw, a post, and one or more resilient arms extending radially outward from the post, the one or more resilient arms being curved in a second rotational direction about the longitudinal axis; wherein rotation of an actuator in a first rotational direction causes: the elevator to axially advance along the drive screw in a first axial direction to dispense the fluid from a dispensing orifice; and the one or more resilient arms to move over the plurality of features; and wherein interaction between the plurality of features and the one or more resilient arms prevents rotation of the actuator in the second rotational direction. a housing having a longitudinal axis and an internal cavity divided into an internal reservoir and a chamber by an elevator, the internal reservoir containing a fluid; a collar non-rotatably coupled to the housing, the collar comprising an inner surface forming an axial passageway, the inner surface of the collar comprising a plurality of features arranged in a circumferentially spaced-apart manner about the longitudinal axis; a drive component rotatably coupled to the collar, the drive component comprising a drive screw, a post, and one or more resilient arms extending radially outward from the post, the one or more resilient arms being curved in a second rotational direction about the longitudinal axis; wherein rotation of an actuator in a first rotational direction causes: the elevator to axially advance along the drive screw in a first axial direction to dispense the fluid from a dispensing orifice; and the one or more resilient arms to move over the plurality of features; and wherein interaction between the plurality of features and the one or more resilient arms prevents rotation of the actuator in the second rotational direction.
A recording ink for ink-jet recording comprising: a colorant, water, a humectant, a surfactant, and a wetting agent, wherein the colorant is at least one of carbon black treated with hypochlorous acid, carbon black treated with sulfonating agent, and carbon black having a free anionic group introduced by treating with a diazonium compound, characterized in that the decrease of image density under rubfastness test is 0.1 or less, wherein according to the rubfastness test solid black images were abraded 10 times using cotton cloth and Clock meter, and then the decrease of image density is measured, wherein the content of the water is 65 parts by mass or less and the content of the humectant is 20 parts by mass or more based on 100 parts by mass of the total recording ink, wherein the recoding ink is applied to an ink-jet recording apparatus capable of recording on a second recording side of a recording medium following recording on a first recording side of the recording medium, and the infiltrating period of the recording ink into the first recording side of the recording medium is 5 seconds or less, wherein the infiltrating period is defined as the period from the moment when the first recording side of the recording medium has been printed to the moment when a filter paper is brought into contact with the first recording side and the contacted filter paper has come not to carry any traces on separating from the first recording side. a colorant, water, a humectant, a surfactant, and a wetting agent, wherein the colorant is at least one of carbon black treated with hypochlorous acid, carbon black treated with sulfonating agent, and carbon black having a free anionic group introduced by treating with a diazonium compound, characterized in that the decrease of image density under rubfastness test is 0.1 or less, wherein according to the rubfastness test solid black images were abraded 10 times using cotton cloth and Clock meter, and then the decrease of image density is measured, wherein the content of the water is 65 parts by mass or less and the content of the humectant is 20 parts by mass or more based on 100 parts by mass of the total recording ink, wherein the recoding ink is applied to an ink-jet recording apparatus capable of recording on a second recording side of a recording medium following recording on a first recording side of the recording medium, and the infiltrating period of the recording ink into the first recording side of the recording medium is 5 seconds or less, wherein the infiltrating period is defined as the period from the moment when the first recording side of the recording medium has been printed to the moment when a filter paper is brought into contact with the first recording side and the contacted filter paper has come not to carry any traces on separating from the first recording side.
A robot cleaner comprising: a main body; a drive unit to drive the main body; a brush drum unit provided on the main body to form a dust inflow channel; and a dust inflow sensing unit to sense dust flowing into the main body through the dust inflow channel of the brush drum unit, wherein the dust inflow sensing unit includes a light emitting part configured to emit a beam having a transmission region (73a-73f), and a light receiving part having a reception region (74a-74f) overlapping the transmission region (73a-73f), the reception region (74a-74f) being restricted to a designated range; wherein the light receiving part includes a light receiving element and a light receiving guide member to restrict the reception region (74a-74f) of the light receiving element; and wherein the light receiving guide member includes: a case receiving the light receiving element; and a through hole formed through the case so that the beam of the light emitting part is received by the light receiving element, characterized in that the through hole has the shape of a slit. a main body; a drive unit to drive the main body; a brush drum unit provided on the main body to form a dust inflow channel; and a dust inflow sensing unit to sense dust flowing into the main body through the dust inflow channel of the brush drum unit, wherein the dust inflow sensing unit includes a light emitting part configured to emit a beam having a transmission region (73a-73f), and a light receiving part having a reception region (74a-74f) overlapping the transmission region (73a-73f), the reception region (74a-74f) being restricted to a designated range; wherein the light receiving part includes a light receiving element and a light receiving guide member to restrict the reception region (74a-74f) of the light receiving element; and wherein the light receiving guide member includes: a case receiving the light receiving element; and a through hole formed through the case so that the beam of the light emitting part is received by the light receiving element, a case receiving the light receiving element; and a through hole formed through the case so that the beam of the light emitting part is received by the light receiving element, characterized in that the through hole has the shape of a slit.
A knitted lacing element (124, 125, 624, 625, 724) comprising: a boundary (212, 214, 300, 302, 304, 306, 612, 614, 616, 618, 702, 704, 706); a first lace aperture (128, 628) disposed proximate the boundary (212, 214, 300, 302, 304, 306, 612, 614, 616, 618, 702, 704, 706); and a plurality of knit courses that comprise: a first knit course and a second knit course extending from the boundary (212, 214, 300, 302, 304, 306, 612, 614, 616, 618, 702, 704, 706), wherein the first lace aperture (128, 628) is disposed between the first knit course and the second knit course; a first contour section comprising at least one shortened knit course (318, 320, 322) extending between the first lace aperture (128, 628) and the boundary (212, 214, 300, 302, 304, 306, 612, 614, 616, 618, 702, 704, 706), J and wherein the first knit course and the second knit course are interlooped with the first contour section between the first lace aperture (128, 628) and the boundary (212, 214, 300, 302, 304, 306, 612, 614, 616, 618, 702, 704, 706), wherein the knitted lacing element (124, 125, 624, 625, 724) is characterized in that the first knit course is interlooped with the second knit course on an opposite side of the first lace aperture (128, 628). a boundary (212, 214, 300, 302, 304, 306, 612, 614, 616, 618, 702, 704, 706); a first lace aperture (128, 628) disposed proximate the boundary (212, 214, 300, 302, 304, 306, 612, 614, 616, 618, 702, 704, 706); and a plurality of knit courses that comprise: a first knit course and a second knit course extending from the boundary (212, 214, 300, 302, 304, 306, 612, 614, 616, 618, 702, 704, 706), wherein the first lace aperture (128, 628) is disposed between the first knit course and the second knit course; a first contour section comprising at least one shortened knit course (318, 320, 322) extending between the first lace aperture (128, 628) and the boundary (212, 214, 300, 302, 304, 306, 612, 614, 616, 618, 702, 704, 706), J and wherein the first knit course and the second knit course are interlooped with the first contour section between the first lace aperture (128, 628) and the boundary (212, 214, 300, 302, 304, 306, 612, 614, 616, 618, 702, 704, 706), wherein the knitted lacing element (124, 125, 624, 625, 724) is characterized in that the first knit course is interlooped with the second knit course on an opposite side of the first lace aperture (128, 628).