Abstract:
An optimal development method and an apparatus of a resist formed on a half-inch size wafer. The development method is a development method of a resist formed on a wafer with a wafer size for manufacturing a number of minimized units of semiconductor devices. The method includes a first step, a second step, a third step, and a fourth step. The first step drops developer until a thickness of developer becomes maximum on the wafer whose rotation is stopped. The second step performs development while rotating the wafer. The third step supplies the developer about a half of the amount of developer of the first step on the wafer whose rotation is stopped. The fourth step performs development at a development period longer than the second step while rotating the wafer.
Abstract:
An encapsulated cleanroom system comprising a processing chamber and a storage section in which the processing chamber is stored, wherein, during operation, the pressure in the storage section is lower or higher than the pressures in the processing chamber and exterior space. The system can simultaneously prevent the entry of outside gases into its processing chamber and the leakage of the gases inside the processing chamber to the exterior space.
Abstract:
A wafer cleaner and a method therefor that efficiently cleans a wafer with a little amount of a cleaning liquid and efficiently performs a heating wet cleaning processing. The present invention includes a stage where a wafer is placed, a rotary driving unit that rotates the stage in a circumferential direction, a liquid discharge nozzle disposed facing the wafer placed on the stage and supplies a cleaning liquid on the wafer placed on the stage, and a control unit that causes the liquid discharge nozzle to supply a space between the wafer placed on the stage and the liquid discharge nozzle with a predetermined amount of the cleaning liquid to fill the space. The present invention also includes a lamp disposed on a position facing the wafer placed on the stage to heat at least an interface portion of the wafer and a cleaning liquid.
Abstract:
To provide a crystal orientation mark which can be formed easily and inexpensively, and which enables to perform high precision alignment and allows information other than crystal orientation to be included, even for a small diameter process substrate. A crystal orientation mark is drawn on the surface of the process substrate. The crystal orientation mark includes a marking region for crystal orientation detection, and a marking region for information. The marking region for crystal orientation detection is provided at two locations in an outer edge portion of the process substrate to be used for the alignment of the process substrate. The marking region for information is provided on a straight-line region connecting the marking regions for crystal orientation detection at the two locations, and includes a pattern for demonstrating predetermined information relating to the process substrate.
Abstract:
Arranging an application apparatus, an exposure apparatus, a developing apparatus, and similar apparatus together within a large yellow room makes it difficult to change a layout in association with a change of a recipe and to streamline a layout area and similar parameter. A yellow room system includes: a plurality of portable unit process apparatuses 50 that each have the same standardized outer shape and include a yellow room configured to shield a exposure light to a photosensitive material formed on a workpiece; conveyance containers 11 and 25 that convey the workpiece between the unit process apparatuses and itself is formed as the yellow room; and a light-shielding coupling structure that couples the unit process apparatus, which is formed on a docking port 56 disposed in the upper portion of a front chamber 80 of the unit process apparatus 50, and the conveyance containers together.
Abstract:
To provide a mask aligner that can appropriately manage very small-quantity production and multiproduct production. The present invention is a mask aligner 1 that exposes a wafer W in a predetermined size through a mask M, and has a configuration that includes: a conveying device 5 for conveying the wafer W and the mask M; an exposure stage 3f on which the wafer W conveyed by the conveying device 5 is installed; a mask holder 3b that is mounted to face the exposure stage 3f and on which the mask M conveyed by the conveying device 5 is installed; and an LED light source 8c mounted to face the exposure stage 3f via the mask holder 3b.
Abstract:
Mounting structure to allow a production line made up of movable manufacturing devices to be rearranged quickly, safely, and reliably. The mounting structure according to the present invention includes a fixing structure installed on a floor and a leg portion installed on a bottom plate of the movable manufacturing device. The fixing structure comprises a floor side positioning member and a floor side coupling member while the leg portion comprises a leg side positioning member and a leg side coupling member. The floor side positioning member and the leg side positioning member positions the movable manufacturing device accurately by fitting each other when the device is placed at the specified location of the fixing structure. The floor side coupling member and the leg side coupling member fixes the movable manufacturing device located on the fixing structure by coupling each other.
Abstract:
Provide a converging mirror-based furnace for heating a target by way of reflecting from a reflecting mirror unit the light emitted from a light source and then irradiating a target with the reflected light, wherein said target-heating converging-light furnace is such that: the reflecting mirror unit comprises a primary reflecting mirror and secondary reflecting mirror; the light emitted from the light source is reflected sequentially by the primary reflecting mirror and secondary reflecting mirror and then irradiated onto the target; and the light reflected by the secondary reflecting mirror and irradiated onto the target surface is not perpendicular to the target surface. Based on the above, a system that uses converged infrared light to provide heating can be made smaller while keeping its heating performance intact, even when the system uses a revolving ellipsoid.