Abstract:
The present invention provides a transfer robot which has a simple structure and a small occupied area in an operation.A transfer robot of the present invention includes a support member fixed to a side wall or the like, a transfer arm by which a hand member is held capable of linear movement, and first and second link members. One end portions of the first and second link members are rotatably linked to the support member, respectively. Another end portions of the first and second link members are rotatably linked to the transfer arm, respectively. The hand member holds/transfers a work. A rotational driving force applied to a linking portion between the support member and the first link member is transmitted to the transfer arm by a predetermined mechanism and linearly moves the hand member. The transfer arm moves by rotating the first link member or the second link member.
Abstract:
A transfer box has a sealing structure hermetically sealable by means of tight coupling of a transfer box body and a transfer box door. The transfer box is structured in such a way that magnets on the transfer box body face magnetic bodies on the transfer box door when the transfer box door is closed on the transfer box body, with these magnets and magnetic bodies forming a magnetic closed circuit.
Abstract:
The wafer polishing apparatus comprises a polishing plate, a polishing head capable of holding a wafer, and a slurry supplying section. The polishing plate includes: a plurality of concentric polishing zones, each of which has a prescribed width for polishing the wafer and on each of which a polishing cloth is adhered; and a groove for discharging slurry being formed between the polishing zones. A head cleaning section, which cleans the polishing head, or a wafer cleaning section, which cleans the polished wafer, is provided to a center part of the polishing plate and located on the inner side of the innermost polishing zone.
Abstract:
A method of manufacturing semiconductor wafers is provided which facilitates formation of orientation flat lines and allows beveling work without problems.The method of manufacturing semiconductor wafers according to the present invention is a method of manufacturing semiconductor wafers, in which a plurality of small-diameter wafers is cut out from a large-diameter semiconductor wafer, the method including: a marking step of forming straight groove-like orientation flat lines by a laser beam so as to cross the respective small-diameter wafers in each row in the large-diameter semiconductor wafer, wherein cutout positions of the small-diameter wafers are aligned in rows in a specific direction, collectively for each of the rows; and a cutting step of cutting out the small-diameter wafers separately from the large-diameter semiconductor wafer by a laser beam after the marking step.
Abstract:
A semiconductor manufacturing system has a series of steps, from manufacturing of a semiconductor on a wafer until packaging, that can be easily linked. A semiconductor chip manufacturing device manufactures a semiconductor chip, and a semiconductor packaging device packages the semiconductor chip by attaching the semiconductor chip to a package substrate which is larger than the wafer. The semiconductor chip manufacturing device includes a PLAD system for loading the wafer into and out of the semiconductor chip manufacturing device through a shuttle which is capable of housing the wafer. The semiconductor packaging device includes a PLAD system capable of loading the package substrate into and out of the semiconductor packaging device through a shuttle which is capable of housing the package substrate. The shuttles have container bodies of a same shape.
Abstract:
To provide a plasma device that all functions required for a plasma etching process are incorporated into a narrow space of a minimal fabrication manufacturing device. A plasma processing chamber for performing the plasma etching process on a semiconductor wafer is provided, and a micro-plasma supply section and a lower electrode that superimposes RF on supplied micro-plasma are provided in the plasma processing chamber. A wafer support device that supports the semiconductor wafer supports the semiconductor wafer in the plasma processing chamber during the etching process. The wafer support device is coupled to and supported by a drive section that is arranged outside the plasma processing chamber. The drive section makes the wafer support device repetitively move scanningly in the plasma processing chamber in parallel with a wafer processing surface during the etching process.
Abstract:
A columnar laminar flow generation device includes: a placement part on which to place a processing target; a gas blow-out part having an opening; and a gas suction path; wherein the placement part is positioned in a space whose outer periphery surface is constituted by extending the interior wall of the opening in the direction vertical to the opening; the opening has, in its interior wall, a gas blow-out port through which a gas is blown out in one direction vertical to the opening; and the gas suction path is formed in such a way that it suctions the gas in the direction opposite to the one in which the gas is blown out. The columnar laminar generation device is capable of generating columnar laminar flows.
Abstract:
A wafer cleaner and a method therefor that efficiently cleans a wafer with a little amount of a cleaning liquid and efficiently performs a heating wet cleaning processing. The present invention includes a stage where a wafer is placed, a rotary driving unit that rotates the stage in a circumferential direction, a liquid discharge nozzle disposed facing the wafer placed on the stage and supplies a cleaning liquid on the wafer placed on the stage, and a control unit that causes the liquid discharge nozzle to supply a space between the wafer placed on the stage and the liquid discharge nozzle with a predetermined amount of the cleaning liquid to fill the space. The present invention also includes a lamp disposed on a position facing the wafer placed on the stage to heat at least an interface portion of the wafer and a cleaning liquid.
Abstract:
To provide a crystal orientation mark which can be formed easily and inexpensively, and which enables to perform high precision alignment and allows information other than crystal orientation to be included, even for a small diameter process substrate. A crystal orientation mark is drawn on the surface of the process substrate. The crystal orientation mark includes a marking region for crystal orientation detection, and a marking region for information. The marking region for crystal orientation detection is provided at two locations in an outer edge portion of the process substrate to be used for the alignment of the process substrate. The marking region for information is provided on a straight-line region connecting the marking regions for crystal orientation detection at the two locations, and includes a pattern for demonstrating predetermined information relating to the process substrate.
Abstract:
There is provided a substrate transfer antechamber mechanism for a compact manufacturing apparatus that produces various types of devices in small volume using a small-diameter processing substrate at low cost. A container placement table, on which a wafer transfer container housing a semiconductor wafer is placed, is provided on an upper surface of an apparatus antechamber for a compact semiconductor manufacturing apparatus, and the apparatus antechamber includes therein a wafer elevating mechanism and a horizontal transfer mechanism. The wafer elevating mechanism moves down while holding from below a delivery bottom of the wafer transfer container, on which the semiconductor wafer remains placed, to transfer the semiconductor wafer into the apparatus antechamber. The horizontal transfer mechanism transfers the semiconductor wafer into a processing chamber using a transfer arm that receives the semiconductor wafer from the delivery bottom and extends.