Abstract:
There is provided a substrate processing apparatus comprising a liquid amount detecting part configured to detect a liquid amount of a liquid film formed on a substrate; and a coating state detecting part configured to detect a coating state of the substrate with the liquid film formed thereon.
Abstract:
The substrate processing method according to an exemplary embodiment includes a low temperature dissolving processing and an etching processing. The low temperature dissolving processing dissolves oxygen in an alkaline aqueous solution cooled to a predetermined temperature lower than the room temperature. The etching processing etches a substrate by supplying the alkaline aqueous solution in which oxygen is dissolved to the substrate.
Abstract:
A substrate processing apparatus includes a stationary cup body 51 provided to surround a substrate holding unit 31 and configured to receive a processing liquid or mist of the processing liquid discharged onto a substrate, the stationary cup body not being moved relatively with respect to a processing vessel; a mist guard 80; and a guard elevating mechanism 84 configured to elevate the mist guard. Here, the mist guard is provided at an outside of the stationary cup body to surround the stationary cup body and configured to block a liquid scattered outwards beyond a space above the stationary cup body. Further, the mist guard includes a cylindrical portion 81 of a cylindrical shape and a protruding portion 82 protruded from an upper portion of the cylindrical portion toward an inside of the cylindrical portion.
Abstract:
A liquid processing apparatus of the present disclosure performs a liquid processing by supplying a processing liquid to a substrate that is rotating. A substrate holding unit configured to be rotatable around a vertical axis is provided with a holding surface to attract and hold a bottom surface of the substrate horizontally. A guide unit is formed integrally with the substrate holding unit, disposed around the substrate held in the substrate holding unit, and provided at a position equal to or lower than a height of a top surface of a periphery of the substrate. The guide unit includes a guide surface configured to guide the processing liquid. A rotary cup rotates integrally with the substrate holding unit, and guides the processing liquid towards the cup between the rotary cup and the guide unit.
Abstract:
Disclosed is a processing apparatus including a chamber, at least one nozzle, a measuring unit, an opening/closing unit, and a controller. The chamber accommodates a workpiece therein. The nozzle is provided in the chamber to supply a processing fluid toward the workpiece. The measuring unit measures a supply flow rate of the processing fluid supplied to the nozzle. The opening/closing unit performs opening/closing of a flow path of the processing fluid to be supplied to the nozzle. The controller outputs opening and closing operation signals at a preset timing. After outputting the opening operation signal, the controller calculates an integrated amount of the processing fluid based on a measurement result of the measuring unit, and performs an output timing change processing to change a timing of outputting the opening or closing operation signal from the preset timing based on the calculated integrated amount.
Abstract:
There is provided a technique which can prevent poor processing of successive substrates in the event of a failure of a module or a transport mechanism for transporting a substrate between modules. A substrate processing apparatus includes: a plurality of modules from which a substrate holder of a substrate transport mechanism receives a substrate; a sensor section for detecting a displacement of the holding position of a substrate, held by the substrate holder, from a reference position preset in the substrate holder; and a storage section for storing the displacement, detected when the substrate holder receives a substrate from each of the modules, in a chronological manner for each module. A failure of one of the modules or the substrate transport mechanism is estimated based on the chronological data on the displacement for each module, stored in the storage section. This enables an early detection of a failure or abnormality.