Abstract:
PROBLEM TO BE SOLVED: To favorably perform pattern transfer to a blanket even if recesses of a plate are isolated. SOLUTION: This transfer pattern forming blanket (blanket 1) includes: a hard base material 11 on which a protruding section 11a is formed; and a PDMS layer 12 being a flexible base material which is composed of a material which is more flexible than the hard base material 11 and pasted to the hard base material 11 with the thickness at the position of the protruding section 11a of the hard base material 11 thinner than those at other sections. In this case, the width of the protruding section 11a of the hard base material 11 is formed to be wider than the width of a recess of a plate in order to leave an ink applied to the surface of the PDMS layer 12 while corresponding to a pattern to be formed. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide an electrode of which the kind of Si and a metal layer is not limited and the metal layer is not peeled off even by removal treatment for an oxide film of Si; a method for forming the electrode; and a semiconductor device having the electrode. SOLUTION: This forming method includes the steps of; forming a thin film of an organic molecular 12a which has any of a CH group, a CH 2 group and a CH 3 group at a first end and any of an amino group, a mercapto group, a phenyl group and a carboxyl group at a second end, on a substrate 11 having Si which has been subjected to an activation treatment, on its surface; imparting a catalytic metal 12b to the surface of the organic molecular film 12a; and forming the metal layer 13 on the surface of an adherent layer 12 which is the organic molecular film 12a having the catalytic metal 12b imparted thereon, with an electroless plating technique. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a method for forming a metal thin film which can easily form a tilted face by a simple process, to provide a metal thin film, and to provide a method for producing a thin film transistor. SOLUTION: A first substrate layer 13A including a catalyst material for electroless plating treatment is formed in a first region D1 and a second region D2 on a substrate 11, and thereafter, a second substrate layer 13B is formed in a region corresponding to the first region D1 on the first substrate layer 13A. The concentration distribution of the catalyst material for electroless plating treatment is made higher than that of the second region D2 in the first region D1. Thus, by applying electroless plating treatment to the substrate 11 in which the first substrate layer 13A and the second substrate layer 13B are formed, the film deposition rate in the first region D1 is made higher than that in the second region D2. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a method for forming conductive pattern without deterioration in shape accuracy of printing patterns with initial formation of printing when selectively forming conductive patterns on the printing pattern. SOLUTION: A printing pattern 9a formed of a first silane coupling material to be coupled with palladium is formed on the front surface of a substrate 11. A coating film 13 is formed through coupling with a second silane coupling material not coupled with palladium to the front surface of the substrate 11 exposed from the printing pattern 9a. A palladium layer 15 is selectively formed on the printing pattern 9a. A conductive pattern 17 is formed on the palladium layer 15 by selectively forming a conductive material. COPYRIGHT: (C)2007,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To suppress a reduction in utilizing efficiencies of incident light and reflected light. SOLUTION: A pair of electrodes 20a and 20b are provided on a driving circuit substrate 3 side. Thereby, light is made incident in a light controlling layer 4 without passing through a transparent electrode and the like and light reflected by the light controlling layer 4 is emitted without passing through the transparent electrode and the like. Thus, deterioration of incident light made incident in the light controlling layer 4 and reflected light reflected by the light controlling layer 4 by the transparent electrode and the like can be prevented and the reduction in light utilizing efficiency can be suppressed. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To improve, in particular, brightness and contrast by sufficiently employing the light-emitting properties of a display panel. SOLUTION: A scanning pulse width operation part 24 compares the maximum Dmax of each scan line 34, and optimizes the scanning select period of each scan line 34 by dividing one-frame period on the basis of the ratio. A column data operation part 25 carries out calculation for obtaining a new RGB data signal corresponding to the optimized scanning select period. The column data operation part 25 supplies the obtained new RGB data signal to a column drive circuit 31 as a column data signal S5. The display panel 10 is driven on the basis of the column data signal S5 obtained as above and a scanning control signal Hr. Thereby, the scanning select period of each scan line 34 is dynamically changed, and the light-emitting properties of the display panel 10 are sufficiently employed.
Abstract:
PROBLEM TO BE SOLVED: To improve an efficiency of writing in a display cell (liquid crystal) of an AC discharge type plasma-addressed display device, and further to permit uniform writing. SOLUTION: When driving the plasma-addressed display device wherein a display cell provided with column-form signal electrodes and a plasma cell provided with row-form discharge channels having exposed electrodes and coated electrodes with a dielectric are superimposed, the length of a voltage pulse for sweeping the electrodes of the discharge channel to generate plasma discharges is set so as to exceed a single selection period. Thus, for example, in the case of single electrode driving, a write time to the liquid crystal can be utilized at maximum within the single selection period. Moreover, in the case of two-electrode driving, the driving voltage can be reduced, uniform writing-in to the liquid crystal can be realized.
Abstract:
PROBLEM TO BE SOLVED: To realize a relatively simple and stable manufacturing process for increasing an opening rate of the plasma address display device, and extending a service life. SOLUTION: This plasma address display device has a flat panel in which a display cell 1 having column like signal electrodes Y and a plasma cell 2 having row like discharge channels X are laminated and pixels are disposed in a crossing part between respective signal electrodes Y and respective discharge channels X. Each discharge channel X is isolated from the adjacent discharge channels by a barrier rib 7, and has coated electrodes C of which the conductor surfaces are coated with a dielectric 20 and exposed electrodes B of which the conductor surfaces are not coated with the dielectric. The coated electrodes C are arranged so as to correspond to the barrier ribs 7 every other electrode, and shared between adjacent discharge channels X across both sides of the corresponding barrier rib 7. The exposed electrodes B are arranged so as to correspond to the barrier ribs 7 every other electrode so as to alternate the exposed electrodes B with the coated electrodes C, and shared between discharge channels X across both sides of the corresponding barrier rib 7.
Abstract:
PROBLEM TO BE SOLVED: To reduce difference in signal voltage application to liquid crystal by forming a pair of discharge electrodes formed on each discharge channel into a structure, wherein the electrodes are intricated mutually in a comb-tooth like shape. SOLUTION: This plasma address display device has a laminated structure, wherein a display cell 1 provided with column-like signal electrodes Y and a plasma cell 2 provided with row-like discharge channel 5 are superposed on each other. While the linear sequential scanning of the plasma cell 2 is performed by sequentially applying a selection pulse between a pair of discharge electrodes A, K assigned to each of the discharge channels 5 to excite plasma discharge, an image signal is applied to each of the signal electrodes Y of the display cell 1 synchronously with the linear sequential scanning so as to carry out image display. The pair of discharge electrodes A, K assigned to each of the discharge channels 5 have irregularities on the sides spaced apart in parallel with each other, and have respective comb-tooth like shapes, wherein the projecting parts of one of the discharge electrodes and the recessed parts of the other discharge electrode are intricated mutually.