Provided is a charge-transporting varnish comprising: a charge-transporting material such as an aniline derivative or a thiophene derivative; a fluorinated alkyl phosphate onium salt represented by the formula; and an organic solvent.

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Provided is a charge-transporting varnish comprising: a charge-transporting material such as an aniline derivative or a thiophene derivative; a fluorinated alkyl phosphate onium salt represented by the formula; and an organic solvent.

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A black positive-type photosensitive resin composition with high sensitivity is provided. The photosensitive resin composition of the invention includes (A) a binder resin, (B) a quinonediazide adduct of a phenol compound having 3 or more phenolic hydroxyl groups (hereunder also referred to as trivalent or greater phenol compound, and (C) a black coloring agent, wherein the quinonediazide adduct (B) includes (b1) a quinonediazide adduct wherein one of the hydroxyl groups of the phenolic hydroxyl groups of the trivalent or greater phenol compound is replaced by a structure represented by formula (I) or formula (II), and (b2) a quinonediazide adduct wherein two of the hydroxyl groups of the phenolic hydroxyl groups of the trivalent or greater phenol compound are replaced by structures represented by formula (I) or formula (II), and the total of (b1) and (b2) is at least 60 mol % of the entirety of (B). R.sup.a to R.sup.d and * in the formulas are as defined in the Specification.

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A display device including: a plurality of subpixels (SP) each including (i) a first electrode (22), (ii) a bank (23) covering an edge of the first electrode, (iii) an EL layer (24) provided in a layer higher than the first electrode, and (iv) a second electrode (25) provided in a layer higher than the EL layer, the bank having a first sloped part (23x) and a second sloped part (23y), the second sloped part having an inclination smaller than that of the first sloped part.

A manufacturing method of an organic EL display device including a plurality of subpixels where light emitting layers that emit first to third lights are formed, includes forming a reflective film that reflects light, forming a lower electrode that has conductivity and light transmitting characteristics, a first process where, in the subpixels where the light emitting layers that emit the first and second lights are formed, a part of an optical path length adjusting layer is formed at the same time, a second process where, in the subpixels where the light emitting layers that emit the first and third lights are formed, another part of the optical path length adjusting layer is formed at the same time so as to set its thickness different from that of the one formed in the first process, and forming an upper electrode having conductivity, light transmitting characteristics, and reflective characteristics.

A manufacturing method of an organic EL display device including a plurality of subpixels where light emitting layers that emit first to third lights are formed, includes forming a reflective film that reflects light, forming a lower electrode that has conductivity and light transmitting characteristics, a first process where, in the subpixels where the light emitting layers that emit the first and second lights are formed, a part of an optical path length adjusting layer is formed at the same time, a second process where, in the subpixels where the light emitting layers that emit the first and third lights are formed, another part of the optical path length adjusting layer is formed at the same time so as to set its thickness different from that of the one formed in the first process, and forming an upper electrode having conductivity, light transmitting characteristics, and reflective characteristics.

A method for manufacturing an organic EL display panel, including: forming first electrodes over a substrate; defining, above the substrate, pixel formation regions lining up in a row direction and a column direction, by forming banks over the substrate; applying ink to each pixel formation region by causing a plurality of nozzles lining up in a straight line to discharge the ink to the pixel formation regions while displacing the nozzles relative to the substrate in a scanning direction; drying the ink to form functional layers in the pixel formation regions; and forming a second electrode at a position covering the pixel formation regions. In the application of ink, an angle between the scanning direction and the row direction is set to more than 0 and less than 90 and each nozzle applies the ink across a plurality of rows of the pixel formation regions.

A method for manufacturing an organic EL display panel, including: forming first electrodes over a substrate; defining, above the substrate, pixel formation regions lining up in a row direction and a column direction, by forming banks over the substrate; applying ink to each pixel formation region by causing a plurality of nozzles lining up in a straight line to discharge the ink to the pixel formation regions while displacing the nozzles relative to the substrate in a scanning direction; drying the ink to form functional layers in the pixel formation regions; and forming a second electrode at a position covering the pixel formation regions. In the application of ink, an angle between the scanning direction and the row direction is set to more than 0 and less than 90 and each nozzle applies the ink across a plurality of rows of the pixel formation regions.

A deposition mask includes a mask body and a through-hole provided in the mask body and through which a deposition material passes when the deposition material is deposited on a deposition target substrate. The mask body satisfies y950 and y23x1280 when an indentation elastic modulus is x (GPa) and a 0.2% yield strength is y (MPa). When the mask body satisifies these inequalities, the generation of recesses during ultrasonic cleaning of the mask can be suppressed.

A deposition mask includes a mask body and a through-hole provided in the mask body and through which a deposition material passes when the deposition material is deposited on a deposition target substrate. The mask body satisfies y950 and y23x1280 when an indentation elastic modulus is x (GPa) and a 0.2% yield strength is y (MPa). When the mask body satisifies these inequalities, the generation of recesses during ultrasonic cleaning of the mask can be suppressed.