Abstract:
PROBLEM TO BE SOLVED: To avoid hot carrier deterioration in a thin film transistor having an LDD structure or a GOLD structure. SOLUTION: Doping to an LDD is made slightly high dose/high acceleration. An upper side layer which is subjected to doping of relatively low concentration and a lower side layer which is subjected to doping of relatively high concentration are formed for avoiding hot carrier deterioration and also avoiding an increase of ON resistance. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a semiconductor device which can be reduced in manufacturing cost by reducing the number of masks, and also to provide its manufacturing method. SOLUTION: In manufacturing the semiconductor device, a semiconductor layer 3 including a source and a drain regions 10 and 11 and LDD regions 16 and 17, a gate insulation film 5, and a gate electrode 6 are formed, and a first and a second interlayer insulation films 24 and 25 are formed thereon. In the interlayer insulation films, contact holes 25a and 25c which are positioned above the source and drain regions respectively and an opening 25b which is positioned above the gate electrode and the LDD regions are formed. Within the opening, a second gate electrode 26b consisting of a transparent conductive film is so formed as to cover the gate electrode and the LDD regions, and a pixel electrode 26a is formed on the second interlayer insulation film. Then, the gate insulation film inside the contact holes is removed, and interconnections 27 and 28 connected to the source and drain regions respectively are formed. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To reduce crosstalk between respective wires in a TFT array substrate. SOLUTION: The TFT array substrate is arranged on a transparent substrate, and is equipped with: a gate wire 1 which is branched from a gate electrode 4a and is extended; a semiconductor layer 3 covering the upper portion of the gate electrode 4a across a lower insulating film; source/drain electrodes 4b, 4c arranged on the upper side of the gate electrode 4a, while being independent of each other, in such a way that a portion of each of them overlaps the gate electrode 4a while not intersecting the gate wire 1 across the semiconductor layer 3; an upper insulating film covering the source/drain electrodes 4b, 4c; an upper source wire 8 arranged on the upper side of the upper insulating film in a direction intersecting the gate wire 1 and connected with the source electrode 4b; and a transparent pixel electrode 11 electrically connected to the drain electrode 4c, wherein the upper insulating film is arranged between the gate wire 1 and the upper source wire 8 at least on an intersection 21 where the gate wire 1 and the upper source wire 8 intersect each other. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a forming method of a pattern capable of forming a pattern having excellent pattern precision by a simple process. SOLUTION: The pattern forming method allows a pattern to be formed on a substrate 10 via an insulating layers 11. The method includes: a process for arranging the insulating layer 11 on the surface of the substrate 10; a process for forming a liquid-repellent layer 12 having repellency to a pattern forming material 15 of liquid for forming the pattern onto the surface of the insulating layer 11; a process for forming a recess 14 corresponding to the pattern at a region where the liquid-repellent layer 12 is formed on the surface of the insulating layer 11; a process for arranging the pattern forming material 15 at the recess 14; and a process for baking the pattern forming material 15. COPYRIGHT: (C)2008,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To enhance a numerical aperture without increasing a risk of leakage and crosstalk between wirings in a thin-film transistor (TFT) array substrate. SOLUTION: The TFT substrate is equipped with: a transparent substrate 50; gate wirings 1 and Cs common wirings 12 arranged on the transparent substrate 50; source electrodes 4b and drain electrodes 4c which are respectively and separately arranged so as to partially superimpose the upper sides of gate electrodes 4a via a semiconductor layer 3; an upper insulation film 6 which covers them; source wirings 8 arranged in the direction intersecting the gate wirings 1; Cs wirings 10 which superimpose the Cs common wirings 12; transparent pixel electrodes 11 electrically connected with the Cs lines 10; and drain-sub capacitance line wiring 10a which electrically connect the drain electrodes 4c with the Cs lines 10. The drain-sub capacitance line wiring 10a partially superimpose the source wirings 8 via the upper insulation film 6. COPYRIGHT: (C)2008,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a laser annealing device capable of keeping the average energy density of laser light with which a workpiece is irradiated constant even when a profile of the laser light is changed. SOLUTION: In the laser annealing device 10 when an irradiation optical system unit 12 irradiates laser light emitted from a laser oscillator unit 11 to an irradiation position of a substrate 17, a Joule meter 13 detects laser light energy, and a profile meter 14 detects the profile of the laser light. On the basis of these detection outputs, calculation means 15 calculates the average energy density of the laser light irradiated to the substrate 17, and control means 16 controls the average energy density of the laser light with which the substrate 17 is irradiated such that it becomes a predetermined constant value in response to an output of the calculation means 15. With the control, the average energy density of the laser light with which the substrate 17 is irradiated is kept unchanged. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To obtain a magnetoresistive effect element capable of making a desired size for the area in which magnetization rotates in accordance with an external magnetic field, and to obtain a manufacturing method of the element. SOLUTION: The magnetoresistive effect element is equipped with a magnetic domain control layer 3, 3 in such a manner as to come into contact with the end area E, E of a spin valve film 2. In addition, an electrode layer 4, 4 is arranged so as to cover the end area E, E of the spin valve film 2. The magnetoresistive effect is measured for the center area C where the magnetization of a free magnetizing layer 12 is unfixed by the magnetic domain control layer 3; therefore, regardless of the size of the control power of the magnetic domain control layer 3, the magnetoresistive effect can be measured constantly from the prescribed area (center area C). COPYRIGHT: (C)2000,JPO