Abstract:
PROBLEM TO BE SOLVED: To provide a forming method of a metal thin film which can be made finer and higher in yield than before, without making the resistance value of thin film unnecessarily large.SOLUTION: Electroless plating processing is carried out on a substrate 40, to which ink 2A containing a catalyst material has been transferred. A metal thin film 42 is selectively formed in a transfer area of the ink 2A on the substrate 40. Furthermore, ink 2 is transferred by using a flat-plate blanket 1 and brought into contact by pressure compression in the transfer step. Positioning is facilitated, and a pressure during contacting is made uniform on the whole to improve the yield on formation of the metal thin film 42. Furthermore, the ink 2 contains not the material of the metal thin film 42, but also the catalyst material for electroless plating processing. The resistance value of the metal thin film 42 becomes less than before, and a pattern can be readily made fine.
Abstract:
PROBLEM TO BE SOLVED: To provide a printing method which can make a clear-cut printing compared with the conventional method, regardless of the film thickness of a printing pattern. SOLUTION: A protuberance 51 of a mold 5 is pressed to ink 2 on a flat plate blanket 1 to form a groove 21 with a pattern corresponding to the protuberance 51 on the ink 2. After that, the ink 2 on the flat plate blanket 1 is brought into contact with a letter press 3 under pressure, thus a part corresponding to a projecting part 31 of the ink 2 is selectively removed to form a printing pattern layer 2A on the flat plate blanket 1. Consequently, the part corresponding to the projecting part 31 of the ink 2 is easily sheared even when the film thickness of the ink 2 (the printing pattern layer 2A) is large. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a forming method of a metal thin film which can be made finer and higher in yield than before without making a resistance value of thin film unnecessarily large. SOLUTION: Electroless plating processing is carried out on a substrate 40 to which ink 2A containing a catalyst material has been transferred. A metal thin film is selectively formed in a transfer area of the ink 2A on the substrate 40. Further, ink 2 is transferred by using a flat-plate blanket 1 and brought into contact by pressure compression in the transfer step. Positioning is facilitated and pressure during contacting is made uniform on the whole to improve the yield on formation of the metal thin film. Further, the ink 2 contains not the material itself of the metal thin film, but the catalyst material for the electroless plating processing. The resistance value of the metal thin film becomes less than before and a pattern can easily be made fine. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a method for forming a conductive pattern without impairing the shape precision of a print pattern by the initial print formation when selectively forming the conductive pattern on the print pattern. SOLUTION: A metal layer 15 composed of a metallic material to be bonded to thiol is formed on a surface of a substrate 11. A print pattern 9a composed of alkyldithiol is formed on the metal layer 15. A coating film 17 composed of alkylthiol is selectively formed on the metal layer 15 exposed from the print pattern 9a. Thereafter, a metal pattern 19 composed of the metallic material to be selectively bonded to thiol is formed on the print pattern 9a. In addition, a conductive material layer 22 is selectively formed on an upper portion thereof to form a conductive pattern 23 composed of the metal pattern 19 and the conductive material layer 21. COPYRIGHT: (C)2007,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a printing plate which can maintain the shape precision and printing position precision of a printing pattern at a high level, and has high durability in using the plate repeatedly, and a method for manufacturing this printing plate. SOLUTION: This printing plate 1 is structured of a substrate 2 formed using a glass material and a liquid-repelling pattern 3, composed of a material containing fluorine, which is formed on the surface of the substrate 2. The liquid-repelling pattern 3 is composed of at least either one of a silane coupling agent or silazane, and is directly stuck to a glass material which constitutes the surface layer of the substrate 2. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a pattern forming method capable of forming various kinds of patterns with high fineness and high accuracy at a low cost. SOLUTION: A stamp 1 is produced by forming a liquid-repellent pattern 1b on a hydrophilic substrate 1a. After a material 3 having flowability is packed onto the substrate 1a of the stamp 1, the stamp 1 and the other substrate 5 are brought into tight contact with each other. By heating and vaporizing the material 3 in this state, steam 6 is generated within a minute hermetic space surrounded by the stamp 1, the substrate 5, and the pattern 1b. The pattern 7 is formed by allowing the steam 6 to adhere to the surface of the substrate 5. The material 3 having the flowability is a liquid, solution mixture, dispersion liquid, etc. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a pattern forming method capable of forming various kinds of patterns with high fineness and high accuracy by a simple process. SOLUTION: After a material 3 having flowability is applied on a substrate 1 having a hydrophilic portion 1a and a liquid-repellent portion 1b on the surface, the substrate 1 coated with the material 3 and a member 4 having a hydrophilic surface are relatively moved in such a manner that the member 4 and the material 3 come into contact with each other. The surface free energy of the hydrophilic portion 1a is made to ≥50 mJ/m 2 . The surface free energy of the liquid-repellent portion 1b is made to ≤30 mJ/m 2 . The surface free energy of the member 4 having the hydrophilic surface is made to ≥50 mJ/m 2 . The spacing between the substrate 1 and the member 4 is made to 0.1 μm to 10 mm. The material 3 having the flowability is a liquid, solution mixture, dispersion liquid, etc. The moving speed is made to 0./01 to 1,000 m/s. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract translation:要解决的问题:提供一种通过简单的工艺能够以高精度和高精度形成各种图案的图案形成方法。 解决方案:将具有流动性的材料3施加在表面上具有亲水部分1a和拒液部分1b的基底1上,涂覆有材料3的基底1和具有亲水表面的部件4是 相对移动,使得构件4和材料3彼此接触。 亲水部分1a的表面自由能被制成≥50mJ/ m 2。 防液部分1b的表面自由能被制成≤30mJ/ m 2 SP>。 具有亲水表面的构件4的表面自由能被制成≥50mJ/ m 2。 基板1与构件4的间隔为0.1μm〜10mm。 具有流动性的材料3是液体,溶液混合物,分散液等。移动速度为0./01至1,000m / s。 版权所有(C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide an electrochemical display device which can reduce the electric power consumption required for display in a display element of an electric deposition type and can shorten the time required for display and a driving method for the same. SOLUTION: The electrochemical display device forms pixels in the intersections of scanning electrodes and signal electrodes disposed in a matrix form and displays images by impressing a voltage between the scanning electrodes and the signal electrodes to deposit and melt metals, in which the first pixel groups formed by combinations of the first signal electrode groups and the first scanning electrode groups and the second pixel groups formed by combinations of the second signal electrode groups and the second scanning electrode groups are simultaneously addressed and driven. COPYRIGHT: (C)2004,JPO
Abstract:
PROBLEM TO BE SOLVED: To enable accurate precipitation display free of crosstalk by shortening the time needed for the display and to maintain an image for a long time. SOLUTION: When an image is displayed by applying a voltage to respective pixels by electrodes arranged in matrix and precipitating and dissolving metal, a voltage which is lower than a threshold voltage is applied after a voltage above the threshold voltage which is a precipitation overvoltage is applied to pixels where the metal is precipitated. In concrete, metal is additionally precipitated on address-driven pixels by applying the voltage lower than the threshold voltage after crystal as a core is precipitated on the specified pixels by address driving, thereby writing to the pixels. Or the voltage lower than the threshold voltage is applied after the specified pixels are written to by the address driving to hold the write state. COPYRIGHT: (C)2004,JPO
Abstract:
PROBLEM TO BE SOLVED: To stabilize plasma discharging by adjusting the potentials of pulses applied to discharge electrodes, and to suppress mis-discharging and irregular discharging. SOLUTION: In a plasma cell of panel 20, discharging channels, having a pair of discharging electrodes, are provided in a row form and a display cell which is provided with signal electrodes in a columnar form. The plasma cell and the display cell are laminated, and pixels are provided at the crossing sections of the discharging channels and the signal electrodes. Drive circuits 21 and 22 of the column side successively apply discharging pulses to the discharging channels to generate plasma. Thus, pixels are selected by units of rows. A driving circuit 23 of the column side supplies image signals to the signal electrodes and writes the image signals to selected pixels. In the circuit 22, plasma discharging is stabilized and the write operation of the image signals to the display cell is also stabilized by using discharging pulses, in which the rising voltage is set higher and the latter half voltage is made lower and the image quality is improved. COPYRIGHT: (C)2003,JPO