Abstract:
According to various embodiments, a frame cassette may include: a housing; a mounting structure inserted in the housing, the mounting structure including a plurality of tape-frame slots, wherein each tape-frame slot is configured to receive a tape-frame, wherein the housing includes an opening to introduce a tape-frame into a tape-frame slot of the plurality of tape-frame slots or to remove a tape-frame from a tape-frame slot of the plurality of tape-frame slots, and a door mounted at the housing, wherein the door is configured to close the opening of the housing to seal the interior of the housing from the exterior of the housing.
Abstract:
The packaging system includes an enclosure having an interior volume. A wafer stack, comprising plural wafers and separators in contact with the wafers, is located in the interior volume. The separators have raised bumps extending from each side. The bumps create spaces that allow air to flow therethrough. The separator film intercepts and captures airborne molecular contaminants belonging to organic and inorganic chemical families. In addition, the film is dissipative to static discharge. Furthermore, the bumps provided by the separators protect the fragile wafers from damage due to mechanical shock. The separators are also provided with a peripheral ring or embossment, which contacts the wafer edges and further protects the wafers from damage to mechanical shock. Air cushions can be provided in the wafer stack, which cushions are provided with bands to regulate the compression.
Abstract:
A front opening wafer carrier formed principally of plastic and comprising an enclosure portion (20) and a door (24) has a path to ground with respect to the wafers (22), the path to ground effectuated by the door (24). The base “ground” may be provided at the machine interface upon which the carrier sits, or through the robotic arm that grasps, operates and moves the door (24).
Abstract:
The present invention provides a manufacturing method by which a substrate (typically, a TFT substrate) can be installed directly in a treatment apparatus by using a transfer container without shifting the substrate from the transfer container to another container. It is possible to use the container efficiently and transfer different substrates in size with one container. A manufacturing method in which a substrate is directly installed in an electrostatic-protected transfer container by a substrate supplier, and then the container is directly installed in a treatment apparatus by a substrate demander after transferring can be realized, thereby making it possible to transfer substrates such as a TFT substrate. A contamination of a substrate due to particles and electrostatic discharge damage of a TFT substrate can be avoided because a transferring operation is not needed. A manufacturing method in which a substrate holding portion of the container is replaced depending on the size of a substrate and different substrates in size can be transferred with one container may be employed.
Abstract:
A container suitable for storing and transporting photomasks and including a container body, a cover, first and second cushions and left and right channels disposed in slots formed in the container body. In one embodiment, the container of this invention is formed in a one-piece design by rotomolding. The cover is subsequently separated from the body and machined so as to provide a slidingly sufficient seal and disposed therein.
Abstract:
The present invention relates to a metal photomask box structure, which is composed of an upper cover member, a lower cover member, and a ring-shaped airtight washer positioned between the upper metal cover member and the lower metal cover member. At least a movable connecting mechanism is disposed on one side of the metal photomask box to connect the upper metal cover member and the lower metal cover member. And at least a latch piece is disposed on an opposite side of the movable connecting mechanism to latch the upper metal cover member and the lower metal cover member.
Abstract:
A substrate carrier to dissipate electrostatic charge has a conductive grid or network overmolded in a substantially integral container. The grid is electrically connected to an underlying and grounded saddle. The carrier may further include substantially transparent side walls and electrically conductive shelves to retain stored substrates in a generally axial alignment.
Abstract:
A novel vehicle which is suitable for transporting and/or temporarily storing objects such as masks or reticles and is effective in eliminating or preventing electrostatic discharges on the masks, reticles or other objects. The vehicle includes a frame for receiving the objects and at least one ESD eliminator provided on the frame for neutralizing electrostatic charges on the objects. Neutralization of the electrostatic charges prevents electrostatic discharges from damaging microelectronic circuits, for example, on the masks, reticles or other objects.
Abstract:
A substrate processing method comprising steps for forming a copper film on a surface of a substrate. These steps includes the step of filling a first metal in the trenches so as to form a plated film of the first metal on an entire surface of the substrate by electroplating, wherein the electromagnetic field is adjusted by the virtual anode so that differences of thickness of the plated film between the central portion and the peripheral portion of the substrate being minimized, and polishing and removing the plated film by pressing the substrate to the polishing surface, wherein the pressures pressing the substrate to the polishing surface at a central portion and a peripheral portion are adjusted.
Abstract:
The present invention is improving stamping process and structure of anti-magnetic cover. The said anti-magnetic cover is laid over electronic component for preventing the interference of electromagnetic wave. During stamping the said anti-magnetic cover, two plate materials are fed into one cavity from different directions. After stamping process, a frame and an upper cover are formed, where around the frame female latching parts are formed and around the corresponding positions on the upper cover male latching parts are formed. The design of male and female parts makes it easier to disassemble as well as to maintain the upper cover and thus avoid the necessity of exchanging the anti-magnetic cover.