A substrate processing apparatus includes a process module including a substrate support unit, an inverting unit and a processing unit, and a transfer module, wherein the inverting unit inverts a substrate so that a second surface faces upward, and provides the inverted substrate to the substrate support unit, wherein the processing unit performs a first processing on the second surface of the substrate seated on the substrate support unit, wherein the inverting unit inverts the first processed substrate so that the first surface faces upward, wherein the transfer module takes the substrate with a first surface facing upward out of the process module, and introduces again the substrate with a first surface facing upward into the process module to seat it on the substrate support unit, wherein the processing unit performs a second processing on the first surface of the substrate seated on the substrate support unit.

A method and apparatus for applying an electric field and/or a magnetic field to a photoresist layer without air gap intervention during photolithography processes is provided herein. The method and apparatus include a chamber body, which is configured to be filled with a process fluid, and a substrate carrier. The substrate carrier is disposed outside of the process volume while substrates are loaded onto the substrate carrier, but is rotated to a processing position either simultaneously or before entering the process fluid. The substrate carrier is rotated to a process position parallel to an electrode before an electric field is utilized to perform a post-exposure bake process on the substrate.

The present invention relates to a device and a method for the treatment of wafers. Proposed is a transport of the wafers in vertical alignment through the process solution which is used for the treatment of the wafers, whereby an increase of the throughput, a simplified aftertreatment of the exhaust air as well as a reduction of the consumption of components of the process solution are made possible. The invention can, inter alia, be used in the production of solar cells or also of printed boards, for example printed boards for the electrical industry.

One object of this application is to provide an advanced substrate holder including a clamper. A substrate holder for holding a substrate by interposing the substrate between frames is disclosed. The substrate holder includes a front frame, a rear frame, and one or a plurality of clampers. Each of the clampers includes a hook portion including a hook base and a hook main body, and a plate including at least one claw. At least one of the clampers includes the plate including a first claw for a lock and a second claw for a semi-lock.

Apparatus and methods for forming and using internally divisible physical vapor deposition (PVD) process chambers using shutter disks are provided herein. In some embodiments, an internally divisible process chamber may include an upper chamber portion having a conical shield, a conical adaptor, a cover ring, and a target, a lower chamber portion having a substrate support having inner and outer deposition rings, and wherein the substrate support is vertically movable, and a shutter disk assembly configured to internally divide the process chamber and create a separate sealed deposition cavity and a separate sealed oxidation cavity, wherein the shutter disk assembly includes one or more seals disposed along its outer edges and configured to contact at least one of the conical shield, the conical adaptor, or the deposition rings to form the separate sealed deposition and oxidation cavities.

Provided is a semiconductor manufacturing apparatus, comprising: a first device; one or more sensors that detect physical quantities indicating a state of the first device; a first calculation circuit that calculates one or more feature quantities of the first device from the detected physical quantities; and a failure prediction circuit that monitors a temporal change in the one or more feature quantities calculated in the first calculation circuit, and stops receiving a new substrate when a duration for which a degree of deviation of the one or more feature quantities from those at a normal time is increasing exceeds a first time, and/or when a number of increases and decreases per unit time in the degree of deviation of the one or more feature quantities from those at the normal time exceeds a first number.

With respect to a boat transfer method for transferring a boat holding a substrate into a processing chamber, the boat transfer method includes supplying a reducing gas into the processing chamber, and transferring the boat into the processing chamber in a state in which the reducing gas is present within the processing chamber.

A substrate liquid treatment apparatus includes an inner tank configured to store a treatment liquid and having an upper opening, an outer tank disposed outside the inner tank, and a lid movable between a close position for closing the upper opening of the inner tank and an open position for opening the upper opening of the inner tank. The lid includes a main portion that covers the upper opening of the inner tank when the lid is positioned at the close position, and a splash shielding portion connected to the main portion. When the lid is positioned at the close position, the splash shielding portion extends from a position higher than an upper end of a side wall of the inner tank adjacent to the splash shielding portion to a position which is lower than the upper end of the side wall and which is on the outer tank side of the side wall.

A chamber module and a test handler including the same are disclosed. The chamber module includes a soak chamber providing a temperature adjusting space for adjusting a temperature of semiconductor devices, an elevating member disposed in the soak chamber and for elevating a tray in which the semiconductor devices are accommodated, a guide member extending in a vertical direction in the soak chamber and for guiding movement of the elevating member, and a temperature adjusting part for adjusting a temperature of the guide member.

A substrate treatment apparatus includes a plurality of treatment chambers performing different treatment types on a substrate; a transfer device; and a controller that controls the transfer of the substrate and the substrate treatment. The controller enables fixation of a time for pulling up the substrate for each treatment chambers/treatment type and creation of a transfer schedule for transferring the substrate among the plurality of treatment chambers/treatment types and treating the substrate so as to maximize throughput, and enables correction of the transfer schedule to extend, based on a waiting time of the transfer device after storage of the substrate into a treatment chamber of one treatment type and a waiting time of the treatment chamber after treatment of the substrate, a time required for pulling up the substrate from a treatment chamber of an immediately previous treatment type in transfer order of the substrate.