Abstract: An EFEM 1 includes a wafer transfer chamber 3 having an interior space in which a wafer transfer robot 5 is disposed and load ports 2 disposed adjacent to a front surface 32 of the wafer transfer chamber 3, and semiconductor processing equipment M can be disposed adjacent to a rear surface 33 of the wafer transfer chamber 3. The EFEM 1 has a configuration in which two buffer stations 4 capable of temporarily storing wafers W are disposed next to each other in the front-rear direction A on a side surface 31 of the wafer transfer chamber 3. The EFEM 1 thus configured adapts to an increase in wafer diameter and is capable of handling many wafers while preventing or minimizing an increase in the stroke distance in the height direction of the wafer transfer robot 5 and an increase in the footprint of the entire EFEM 1.

Abstract: An EFEM 1 includes a wafer transfer chamber 3 having an interior space in which a wafer transfer robot 5 is disposed and load ports 2 disposed adjacent to a front surface 32 of the wafer transfer chamber 3, and semiconductor processing equipment M can be disposed adjacent to a rear surface 33 of the wafer transfer chamber 3. The EFEM 1 has a configuration in which two buffer stations 4 capable of temporarily storing wafers W are disposed next to each other in the front-rear direction A on a side surface 31 of the wafer transfer chamber 3. The EFEM 1 thus configured adapts to an increase in wafer diameter and is capable of handling many wafers while preventing or minimizing an increase in the stroke distance in the height direction of the wafer transfer robot 5 and an increase in the footprint of the entire EFEM 1.

Abstract: A load port for semiconductor equipment includes a transporting apparatus 18 and/or a moving apparatus 30 for respectively transporting a carrier base 14 and moving a cover 15, using a smaller force until the carrier base 14 and/or the cover 15 reaches a predetermined position that is at a predetermined distance from an opening 16 of the equipment. This position is at a distance where it is no longer possible to catch a hand or other object between the carrier base 14 or cover 15 and the semiconductor equipment. Then, the carrier base 14 and/or the cover 15 is transported or moved towards the opening 16 by the transporting apparatus 18 and/or moving apparatus 30 respectively transporting the carrier base 14 and/or moving the cover 15 towards the opening 16 to completely close the opening 16 using a larger force.

Abstract: A mechanical interface apparatus which is capable of loading semiconductor wafers stored in a sealed container into a processing apparatus without adversely affecting the surfaces of the semiconductor wafers due to exposure to external air or dust. When a sealed container 100 is placed on top of a processing apparatus 200, latch mechanisms 201 are activated to engage with a flange 103, so as to affix the container body 101. Then, valves 3 and 5 are opened to perform a gas purge, after which a drive mechanism provided inside a lock operating mechanism 220 is operated in order to withdraw lock arms 111 from concave portions 103a, thereby unlocking the bottom lid 110. Then, wafer cassettes 106 inside the container are lowered to a predetermined position by means of an in-apparatus elevator mechanism 202, and the wafer cassettes are loaded into the processing apparatus 200 by a cassette loading mechanism.

Abstract: In an overhead hoist transfer having a moving carriage with a hand portion, which holds a load, elevatably suspended therefrom; and a means for teaching an appointed stop position on a placement base, on which said load is placed, to said moving carriage, LEDs 7a and 7b are installed at the hand portion 6, and a position detecting portion 12 consisting of a lens 12a and PSD 12b is installed at the placement base 53 side, in order to automatically and accurately enable a teaching of position correcting data in a short time without use of any manpower.