Tokyo Electron Limited

Iwatani Corporation

Toyko Electron Limited

Hidefumi Matsui

Junichi Kitano

Tsuyoshi Moriya

Takayuki Katano

Masami Yamashita

Satoru Shimura

Hiroyuki Iwaki

Yo Suzuki

Toru Aoyama

Masaki Narushima

Kousuke Yoshihara

Takahiro Kitano

Eiichi Nishimura

Jun Yamawaku

Naruaki Iida

Yuji Matsuyama

Nobuyuki Nagayama

Masashi Enomoto

Toyohisa Tsuruda

Masatoshi Deguchi

Atsushi Kubo

Ayuta Suzuki

Satohiko Hoshino

Keiko Hada

Yuko Ono

Satoshi Itoh

Masashi Imanaka

Kunio Miyauchi

Naoshige Fushimi

Toshiyuki Fukumoto

Shinichi Kawaguchi

Masahiro Yanagisawa

Hirokazu Kyokane

Provided are a process estimation system and a process data estimation method for appropriately estimating process data, and a program. The process estimation system includes: an input part configured to input actual sensor data detected by a sensor of a substrate processing apparatus; a virtual sensor data generation part configured to generate virtual sensor data for a virtual sensor based on the actual sensor data and a physical model; and a process data estimation part configured to estimate process data based on the virtual sensor data.

Process estimation system, process data estimation method, and recording medium

A substrate processing apparatus includes: an imaging portion configured to acquire a surface image of a film formed on a surface of a substrate; an optical property estimation portion configured to estimate an optical property of the film based on process information acquired during formation of the film; and a film thickness estimation portion configured to estimate a film thickness of the film based on the surface image and an estimation result of the optical property.

Substrate processing apparatus, substrate processing method, and storage medium

A measurement system including an imaging device and a plasma processing device having a plasma generator configured to generate plasma from a gas supplied into a processing chamber and a controller. The imaging device is configured to generate optical information of the plasma from image data of imaged plasma in the processing chamber, and the controller is configured to convert the generated optical information of the plasma into a plasma parameter that determines physical characteristics of the plasma with reference to a storage that stores correlation information between the optical information of the plasma and measurement results of the plasma parameter.

Measurement system, measurement method, and plasma processing device

A substrate cleaning method includes removing a foreign material attached to a substrate while preventing deterioration of the substrate and any film formed on or above the substrate. A cleaning gas at a pressure between 0.3 MPa and 2.0 MPa is sprayed towards a wafer W with attached foreign materialplaced in a near-vacuum, producing clustersmade up of a multitude of gas molecules, and the clusterscollide with the wafer W without undergoing ionization.

Substrate cleaning method and substrate cleaning device

A vacuum exhaust method of a substrate processing apparatus, after opening to the atmosphere, depressurizes a vacuum processing chamber having therein a mounting table for mounting a target substrate thereon. The vacuum exhaust method includes covering a surface of the mounting table with a protection member; sealing the vacuum processing chamber; vacuum evacuating the sealed vacuum processing chamber; and adsorbing at least one of foreign substances and out-gases by the protection member.

Vacuum exhaust method and a substrate processing apparatus therefor

In a substrate wiring method, copper is embedded all the way to the lowest parts of a wiring pattern formed on a substrate. The method is used to wire a substrate in a processing chamber kept in a vacuum state, the substrate having a wiring pattern formed thereon. The method includes a preprocessing step in which the wiring pattern on the substrate is cleaned using a desired cleaning gas and an embedding step in which, after the preprocessing step, metal nanoparticles are embedded in the wiring pattern using a clustered metal gas.

Substrate wiring method and semiconductor manufacturing device

There is provided a substrate cleaning method capable of cleaning a substrate on which a fine pattern is being formed in a short time with a simple configuration without having a harmful influence on the fine pattern. In the method, the substrate is transferred from a processing chamber for performing a process on the surface of the substrate therein to a cleaning chamber for cleaning the substrate therein. The substrate is cooled to a temperature in the cleaning chamber. A superfluid is supplied to the surface of the substrate, and contaminant components in the fine pattern are flowed out along with the superfluid as the superfluid flows over from the surface of the substrate.

Substrate cleaning method

A substrate cleaning method for cleaning and removing foreign materials adhered to a surface of a substrate includes heating the substrate to peel off the foreign materials from the surface of the substrate by a thermal stress, removing the foreign materials from the surface of the substrate by a temperature gradient created in a proximity of the surface of the substrate, and collecting the foreign materials removed from the surface of the substrate by a collecting unit facing the substrate.

Substrate cleaning method and apparatus

On top of respective areas divided by partition plates, that is, a cassette station, a processing station, and an interface section in a coating and developing processing system, gas supply sections for supplying an inert gas into the respective areas are provided. Exhaust pipes for exhausting atmospheres in the respective areas are provided at the bottom of the respective areas. The atmospheres in the respective areas are maintained in a clean condition by supplying the inert gas not containing impurities such as oxygen and fine particles from the respective gas supply sections into the respective areas and exhausting the atmospheres in the respective areas from the exhaust pipes.

Substrate processing apparatus and substrate processing method

The wafer coated with the resist is deliberately placed in the vapor before being transferred to an aligner that exposes the resist on the wafer, the vapor, for example, the moisture, uniformly adheres onto the resist on the wafer. As a result, the substrate can uniformly be exposed in the following exposing process, and the uniformity of the line width and the like can be improved.

Substrate processing method and substrate processing apparatus

A HMDS gas is supplied to a surface of a wafer W to perform a hydrophobic process, thereafter the wafer W is contained in an airtight container on a cassette stage, and is transferred to an analyzer provided at an external portion of a resist pattern forming apparatus. The analyzer performs mass spectrometry of the quantity of an ionic species such as CH Si , C H Si , C H Osi and the like on the surface of the wafer W using an analyzing section, for example, TOF-SIMS, whereby measuring a HMDS quantity (hexamethyldisilazane) on the surface of the wafer W. This method makes it possible to measure the HMDS quantity on the surface of the wafer W and to evaluate a hydrophobic process state with high reliability.

Evaluating method of hydrophobic process, forming method of resist pattern, and forming system of resist pattern

A developing unit, a coating unit and a plurality of cooling plates are arranged in a process station which performs a resist coating and so on and a wafer is transferred among them by a substrate transfer device. The temperature of an area to where the wafer is transferred is detected by a temperature/humidity detector and the temperature of the wafer which is cooled by the cooling plates is adjusted accordingly based on a detected value so that the temperature of the wafer when transferred to the coating unit becomes a coating temperature of a processing solution. Thereby, the wafer is transferred to the coating unit while maintaining its temperature with high accuracy to be coated with a resist solution, so that a formation of an uneven processing due to the temperature change can be prevented and a uniform processing can be performed.

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Nirasaki, Japan

Hidefumi Matsui