Abstract:
A structure fabricating method plastically deforms a target portion of a substrate, to thereby fabricate a structure having an inclined segment that is inclined relative to a principal surface of the substrate. The method includes forming a projection on the target portion to project from the principal surface of the substrate or from an opposing surface of the substrate on the side opposite to the principal surface, and applying a force to the projection to plastically deform the target portion such that the target portion is bent in a direction from one surface of the substrate on the side where the projection is formed, toward another surface on the side opposite to the one surface.
Abstract:
L'invention concerne un procédé de fabrication d'un motif métallique nanostructuré sur un support, le procédé comportant les étapes suivantes : - dépôt d'une couche de polymère (2) à la surface d'un substrat (101); - formation par indentation (5) d'un motif initial dans la couche de polymère (2) de façon à former une couche de polymère nanostructurée; - dépôt d'une couche métallique (6) sur la couche de polymère nanostructurée; - dépôt d'une couche de colle (8) sur la couche métallique; - application d'un support (9) sur la couche de colle; - séparation du support solidarisé à la couche métallique et de la couche de polymère.
Abstract:
PROBLEM TO BE SOLVED: To provide a manufacturing method capable of accurately making a required angle, when an angle of a structure portion is formed during manufacturing of a structure having the structure portion with an antiplane angle. SOLUTION: In a first step for producing the structure 001 making an angle between the structure portion 003 and surfaces A1, A2 in parallel with a main surface of a substrate, a machined portion 003 plastically deforming the structure 003 is provided with a projecting portion 004 projecting in a direction intersecting to the surface in parallel with the main surface of the substrate. In a second step, force is added to the projecting portion of the structure portion by a mold, thereby plastically deforming the machined portion 003 and making the angle to the main surfaces A1, A2 of the substrate. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a reliable microdevice for a display by making it with a simple configuration in a compact and thin form while improving productivity. SOLUTION: A protection film 13 is laminated on the surface of the liquidized surface of a liquid bulging part 12 by forming the liquid bulging part 12 of silicon oil which hardly evaporates even in high vacuum by using a high vacuum CVD method. Thus, the microdevice is made with a simple configuration in a compact and thin form and the productivity is improved all the more because a conventional complicated assembly step of bonding is eliminated. Further, the deformation of the liquid bulging part 12 due to a shock or gravity is prevented because the protection film 13 is used, and more reliable microdevice 1 for display is provided. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PURPOSE: A photosensitive glass processing method is provided to obtain a high precision fine structure by crystallizing the portion which is not exposed to an ultraviolet light and selectively etching the crystallized portion. CONSTITUTION: A photosensitive glass processing method comprises a first step of selectively radiating an ultraviolet light(9) generated from a light source to a photosensitive glass(8); a second step of crystallizing a portion(11) which is not exposed to the ultraviolet light by performing a heat treatment to the portion; and a third step of obtaining a fine structure(14) by selectively removing the crystallized portion through an etching process(13) by dipping the resultant structure into a hydrogen fluoride(HF) solution.
Abstract:
PURPOSE: A microactuator and a method for manufacturing the same are provided to manufacture the microactuator in a simple manner and maintain linearity in even case of moving in two-dimension. CONSTITUTION: A method for manufacturing a microactuator includes the steps of anodic-bonding a silicon substrate and a glass substrate by heating, thinning the exposed surface of the silicon substrate by lapping and polishing, applying a photosensitive film to the exposed surface of the silicon substrate and radiating light to the photosensitive film, developing the photosensitive film, etching the silicon substrate by using RIE(Reactive ion etching) for forming positioning controllers, removing polymer and the photosensitive film for completing positioning controller pattern, and wet-etching the glass substrate by making the positioning controllers as a mask and using HF solution.