Abstract:
Provided is a substrate processing apparatus including a processing chamber including a processing space, a substrate support configured to support a substrate in the processing chamber, an exhaust pipe arranged on a bottom wall of the processing chamber, an exhaust device configured to exhaust a fluid in the processing space via the exhaust pipe, a first supply pipe including a first portion inserted into the exhaust pipe and a second portion outside the exhaust pipe, and a fluid supply device configured to supply a fluid in a supercritical state to the processing space via the first supply pipe, wherein a first inlet at an end portion of the first supply pipe and an exhaust opening at an end portion of the exhaust pipe are on a central axis of the processing chamber.
Abstract:
A substrate processing apparatus includes: a first process chamber in which a developing process is performed by supplying a developer to a substrate that is in a dry state; a second process chamber in which a drying process is performed on the substrate by supplying a supercritical fluid to the substrate on which the developing process is performed and which is in a wet state; a third process chamber in which a bake operation is performed on the substrate on which the drying operation is performed and is in a dry state; a fourth process chamber in which a cooling operation is performed on the substrate on which the bake operation is performed and is in a dry state; and a substrate transferring unit configured to transfer the substrate between the first to fourth process chambers.
Abstract:
A method of modeling power consumption of an integrated circuit and an apparatus for supporting the same are provided. The method of modeling power consumption of an integrated circuit includes: grasping information about a clock gating enable signal of the integrated circuit; determining a modeling level using a change rate of the number of the clock enable signal; and extracting a power state according to the modeling level and the number of the clock gating enable signal and modeling power consumption in the power state. Thereby, because a power state can be defined with only the number of a clock gating enable signal, a dynamic power consumption amount can be quickly and accurately estimated.