Abstract:
PROBLEM TO BE SOLVED: To improve the yield of a product by preventing defects in gate breakdown strength in a bottom gate type TFT. SOLUTION: The manufacturing method of a bottom gate type TFT 100A includes a step (1) of forming a gate electrode on a substrate, a step (2) of forming a gate insulating film on the gate electrode 2, a step (3) of forming a laminate made up of an protective insulating film 8 having a film thickness of 100 nm or smaller while an active-layer antecedent film (polysilicon film 7) and the protective insulating film 8 are laminated on the gate insulating film, a step (4) of implanting a dopant in an LDD region or in a source/drain region of the active-layer precursor film 8 through the protective insulating film 8, a step (5) of activating the implanted dopant and causing the other non-dopant part to be an active layer, a step (6) of modifying the quality of all or part of the protective insulating film 8, a step (7) of forming an interlayer insulating film on the modified protective insulating film 8, and a step (8) of forming a source/drain electrode on the interlayer insulating film.
Abstract:
PROBLEM TO BE SOLVED: To provide a semiconductor device having a contact structure interconnecting wires of three or more layers most efficiently and in the minimum area in the interconnection, and also to provide its manufacturing method, and a display device. SOLUTION: N (three or more) conductive layers 202-204 are laminated and formed on a substrate 201, n conductive layers are interconnected via a contact pattern, one main contact area in which a contact pattern is formed has (n-1) connecting areas 211 and 212 for interconnecting (n-1) conductive layers 202 and 203, the conductive layer upper than the first layer in the laminated direction (normal direction to the main surface of the substrate 201) to the substrate 201, of (n-1) conductive layers, is formed so that the terminal end faces part of the edge of a contact pattern CPTN, and (n-1) conductive layers are electrically interconnected through the n-th conductive layer. The n-th conductive layer is formed so that a contact hole as the contact pattern CPTN is filled up. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a semiconductor device allowing implementation of a contact structure usable for connecting wires on three or more layers with the highest degree of efficiency by making use of a minimum area, and also provide a manufacturing method thereof and a display apparatus.SOLUTION: On a substrate 201, n conductive layers 202-204 with n equal to or larger than three are created as stacked layers and connected through a contact pattern. A main contact area in which the contact pattern is created includes (n-1) connection areas 211, 212 for connecting (n-1) conductive layers 202, 203. Of the (n-1) conductive layers, the conductive layers upper than the first layer in the direction of stacking on the substrate 201 (the direction normal to the principal plane of the substrate 201) are created such that the end part thereof faces a portion of the edge of the contact pattern CPTN. The (n-1) conductive layers are connected electrically by the nth conductive layer. The nth conductive layer is created to fill up a contact hole serving as the contact pattern CPTN.
Abstract:
PROBLEM TO BE SOLVED: To provide a method of manufacturing an electronic apparatus that cures a resist pattern while maintaining a shape just after lithography without deteriorating characteristics of a thin film transistor covered with the resist pattern. SOLUTION: The method of manufacturing the electronic apparatus in which a resist pattern 24 is provided on a first transistor 1 comprising a thin film transistor Tr, includes the steps: of applying and forming a resist film 22 on the first substrate while covering the thin film transistor Tr; and of forming the resist pattern 24 by performing exposing and developing processing upon the resist film 22. Dry processing is then performed upon the first substrate 1 in which the resist pattern 24 is formed. While a channel part ch of the thin film transistor Tr is prevented from being irradiated with light of a shorter wavelength than a wavelength 260 nm, the resist pattern 24 after dry processing is irradiated thereafter at least either ultraviolet rays or visible light under a dry environment. The resist pattern 24 is then thermoset. COPYRIGHT: (C)2009,JPO&INPIT