Asm Japan K.k.

Asm IP Holding B.v.

Tokyo Electron Limited

Tokyo Electron Limi Ted

Asm IP Holdings B.v.

Takayuki Yamagishi

Naoto Tsuji

Kazuo Sato

Masaei Suwada

Takeshi Watanabe

Yukihiro Mori

Hiroki Arai

Kiyoshi Satoh

Tamihiro Kobayashi

Akira Shimizu

Hideaki Fukuda

Mitsusuke Kyogoku

Kiyoshi Mori

Baiei Kawano

Akira Watanabe

Kazunori Furukawara

Tomohiro Abe

Hiroyuki Tanaka

Kunihiro Kaneuchi

A system for processing a substrate using a plurality of vacuum processing chambers is provided. The system comprises: an atmospheric transfer chamber in an atmospheric atmosphere; a vacuum transfer chamber in a vacuum atmosphere; a plurality of processing modules configured by vertically arranging the vacuum processing chamber and a supplementary device; and a load lock chamber configured to switch an atmosphere therein between the atmospheric atmosphere and the vacuum atmosphere. The vacuum transfer chamber and the load lock chamber are arranged at a height position where a worker can enter thereunder, the load lock chamber and the plurality of vacuum processing chambers are connected to side surfaces of the vacuum transfer chamber, and a space below the vacuum transfer chamber is blocked from outside except for the side surface to which the load lock chamber is connected, and a space below the load lock chamber serves as a maintenance passage.

System for processing substrate and maintenance method thereof

A processing module includes: a processing container including therein processing spaces in which stages are disposed, respectively, wherein a center of each of the processing spaces is located on a same circumference; a rotation arm including holders configured to hold wafers, which are placed on the stages of the processing spaces, respectively, wherein the rotation arm is rotatable around a center of the circumference as a rotation axis; and a sensor located between adjacent processing spaces and configured to detect positions of the wafers held by the rotation arm during rotational operation of the rotation arm.

Processing module and processing method

Coupled processing containers include a first processing container and a second processing container provided side by side in a horizontal direction to form a gap therebetween, the first processing container and the second processing container being configured to store substrates, respectively, in order to perform vacuum processing, and a connecting part provided across the gap so as to connect the first processing container and the second processing container to each other, the connecting part being configured to be slidable in the horizontal direction with respect to at least one of the first processing container and the second processing container.

Coupled processing containers, substrate processing system, and substrate processing method

There is provided a vacuum processing apparatus for performing a vacuum process by supplying a processing gas onto a substrate arranged in a processing space kept in a vacuum atmosphere, the apparatus comprising: a first transfer space and a second transfer space in each of which the substrate is transferred; and an intermediate wall portion provided between the first transfer space and the second transfer space along the extension direction, wherein one or more processing spaces are arranged in the first transfer space along the extension direction, and two or more processing spaces are arranged in the second transfer space along the extension direction, and wherein a plurality of exhaust paths and a joined exhaust path where the plurality of exhaust paths are joined are formed in the intermediate wall portion.

Vacuum processing apparatus, vacuum processing system and vacuum processing method

A wafer-processing apparatus includes: multiple discrete units of reactors disposed on the same plane; a wafer-handling chamber having a polygonal shape having multiple sides corresponding to and being attached to the multiple discrete units, respectively, and one additional side for a load lock chamber; a load lock chamber attached to the one additional side of the wafer-handling chamber; multiple discrete gas boxes for controlling gases corresponding to and being connected to the multiple discrete units, respectively; and multiple discrete electric boxes for controlling electric systems corresponding to and being detachably connected to the multiple discrete units, respectively, wherein the gas boxes and the electric boxes are arranged alternately as viewed from above under the multiple discrete units, and the electric boxes can be pulled out outwardly without being disconnected from the corresponding units so that sides of the gas boxes are accessible.

High-throughput semiconductor-processing apparatus equipped with multiple dual-chamber modules

A dual section module with mass flow controllers, for processing wafers, includes: dual process sections integrated together; at least one mass flow controller (MFC) each shared by the dual process sections and provided in a gas line branching into two gas lines, at a branching point, connected to the respective interiors of the dual process sections and arranged symmetrically between the dual process sections; and at least one mass flow controller (MFC) each unshared by the dual process sections and provided in a gas line connected to the interior of each dual process section.

Dual section module having shared and unshared mass flow controllers

A film forming apparatus includes a susceptor, and a shower head provided above the susceptor and having a first passage and a second passage independent of the first passage formed therein, wherein the first passage is formed through the shower head by being provided with a first cavity surrounded by a first upper wall and a first lower wall, a first thin hole formed in the first upper wall, and a plurality of second thin holes formed in the first lower wall, the height of the first upper wall in the vertical direction is reduced with increase in distance from the first thin hole, and the second passage is formed in the same manner as the first passage.

Film forming apparatus

A method for positioning wafers in dual wafer transport, includes: simultaneously moving first and second wafers placed on first and second end-effectors to positions over lift pins protruding from first and second susceptors, respectively; and correcting the positions of the first and second wafers without moving any of the lift pins relative to the respective susceptors or without moving the lift pins relative to each other, wherein when the first and second wafers are moved to the respective positions, the distance between the first wafer and tips of the lift pins of the first susceptor is substantially smaller than the distance between the second wafer and tips of the lift pins of the second susceptor.

Method for positioning wafers in multiple wafer transport

An anti-slip end-effector for transporting a workpiece, which is configured to be attached to a robotic arm, includes: a workpiece-supporting area for placing a workpiece thereon for transportation; at least one front protrusion disposed at a distal end of the workpiece-supporting area for engaging an edge of the workpiece to restrict movement of the workpiece placed on the workpiece-supporting area beyond the front protrusion; and at least one anti-slip protrusion disposed in the workpiece-supporting area for contacting and supporting the backside of the workpiece, said anti-slip protrusion having a top face having a static friction coefficient of 1.0 or more as measured against the backside of the workpiece, and having a surface roughness of less than 0.4 &#x3bc;m.

Anti-slip end-effector for transporting workpiece

A wafer-processing apparatus includes: eight or ten reactors with identical capacity for processing wafers on the same plane, constituting four or five discrete units, each unit having two reactors arranged side by side with their fronts aligned in a line; a wafer-handling chamber including two wafer-handling robot arms each having at least two end-effectors; a load lock chamber; and a sequencer for performing, using the two wafer-handling robot arms, steps of unloading/loading processed/unprocessed wafers from/to any one of the units, and steps of unloading/loading processed/unprocessed wafers from/to all the other respective units in sequence while the wafers are in the one of the units.

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Tama, Japan

Takayuki Yamagishi