Abstract:
A substrate processing apparatus includes a transport robot (TR1) formed with a telescopic vertical movement mechanism of a so-called telescopically nestable multi-tier construction. A drive mechanism (D1) is initially driven to move a support member (48) upwardly to simultaneously elevate a vertical movement member (42d). As the vertical movement member (42d) rises, a pulley (47c) simultaneously moves upwardly. As the pulley (47c) moves upwardly, a vertical movement member (42c) is lifted upwardly by a belt (L1). Similar actions elevate a pair of transport arms (31a, 31b) provided on the top of a vertical movement member (42a). The increase in the number of tiers of the nestable multi-tier structure precludes the increase in height of the transport robot (TR1) in its retracted position. The substrate processing apparatus, if having an increased height, is capable of transporting a substrate to and from processing portions and eliminates the need to reassemble and adjust the transport robot (TR1) for transportation of the apparatus.
Abstract:
A document image is divided into areas of every various attributes such as composition, photograph, chart, title, and the like. The attribute of each area and information indicating to which page of which document image each area belongs are managed by the data base. When the user inputs a desired attribute, the document image including the area having the inputted attribute is retrieved.
Abstract:
There is disclosed an information input/output control device and a method for controlling the same which supervises a working condition of an information terminal device connected to the information input/output control device under a network circumstance executing various functional operations, memorizes status informations in a manner enabling to be restarted and executes the functional operations in the information terminal devices other than the preceding one in response to an input of an operation cease information of the preceding information terminal device.
Abstract:
The present gear mechanism includes a base body member, a first gear supported on the base body member so as to rotate about a first rotational axis, a second gear capable of being meshed with the first gear, a support member supporting the second gear so as to rotate about a second rotational axis and placed on the base body member so as to be movable in approaching and leaving directions respectively toward and away from the first rotational axis, and a retaining member engaged in a threaded hole formed in the base body member and capable of being turned so as to move in the approaching and leaving directions, and directly or indirectly engaged with the support member to restrain the support member from moving in the leaving direction away from the first rotational axis.
Abstract:
The apparatus includes a rotary mechanism for holding a semiconductor wafer and rotating the same, a detection mechanism for detecting a positioning cutout portion formed in the wafer, and a wafer transfer mechanism for lifting the wafer from a wafer mounting portion of the rotary mechanism or mounting the wafer on the same. The wafer transfer mechanism has a movable holding portion for holding the wafer at a position just above the wafer mounting portion and is constituted such that the movable holding portion moves up or down while avoiding the wafer held by the rotary mechanism.
Abstract:
An assembly method of assembling a substrate transfer device including: a transfer system unit forming step of fixing a robot and a substrate container retainer to a divided body which composes a part of the substrate transfer device and is formed separably on a main structural body as a residual part of the substrate transfer device, thereby forming a transfer system unit; an operation examination step of examining whether the robot fixed to the transfer system unit can operate as a part of the substrate transfer device or not; and a mounting step of mounting the transfer system unit on the main structural body of the substrate transfer device after the operation examination step.
Abstract:
An article carrier robot includes: a horizontal base; a horizontally movable unit supported by the horizontal base so as to be movable in a horizontal direction; a robot main body supported by the horizontally movable unit; at least one of wiring and piping introduced into the robot main body from the horizontal base; and a restriction unit supported by the horizontally movable unit so as to be swayable about a pivot provided to the horizontally movable unit. The restriction unit is configured to restrict deformation of a part of the at least one of wiring and piping.
Abstract:
A supporting structure is mounted on a hand body facing a circumferential edge of a substrate from below the substrate to support the substrate. First and second guiding members are mounted on the hand body, and having guiding surfaces in contact with an imaginary cylinder having an axis aligned with a reference axis of the hand body. First and second movable members are capable of moving in an imaginary plane perpendicular to the reference axis and are disposed on the radially outer-side of the circumferential edge of the substrate so as to face the circumferential edge. A driving unit simultaneously displaces the first and second movable members in the imaginary plane. The first and second guiding members and the first and second movable members are spaced apart on the circumference of the imaginary cylinder at intervals greater than the length of the arc of a segment in a substrate holding state.
Abstract:
An articulated robot is provided with first, second and third arms respectively having effective lengths substantially equal to each other and capable of turning respectively about first, second and third pivotal axes. The second and the third arm are interlocked by an interlocking mechanism such that the third arm turns about a third pivotal axis relative to the second arm in one of opposite directions through an angle twice as large as an angle through which the second arm turns about a second pivotal axis relative to the first arm in the other direction. The second arm 25 and the third arm 26 are moved in either of first and second working areas respectively extending on the opposite sides of an imaginary plane including a reference line and the first pivotal axis to move hand units along the reference line. Since the second and the third arm are necessarily only in one of the first and the second working region, the articulated robot is capable of operating in a narrow working area.
Abstract:
The present device includes a supporting structure (23) mounted on a hand body (22) so as to face a circumferential edge of a substrate from below the substrate to support it, first and second guiding members (51a, 51b) mounted on the hand body (22) and respectively having guiding surfaces (53a, 53b) in contact with an imaginary cylinder having an axis aligned with a reference axis (L1) of the hand body (22and having a radius equal to that of the substrate, first and second movable members (24, 25) capable of moving in an imaginary plane perpendicular to the reference axis (L1) and disposed on the radially outer side of the circumferential edge of the substrate so as to face the circumferential edge thereof, and driving means (26) for simultaneously displacing the first and second movable members (24, 25) in the imaginary plane. The first and second guiding members (51a, 51b) and the first and second movable member (24, 25) are spaced apart on the circumference of the imaginary cylinder at circumferential intervals greater than the length of the arc of a segment cut to form a circumferential cut part in a substrate holding state where the substrate is held by at least either of the first and second guiding members (51a, 51b) and at least either of the first and second movable members (24, 25).