Abstract:
A load port provided adjacent to a wafer transport chamber for taking in and out a wafer W between the wafer transport chamber and a FOUP, includes a plate-shaped part that constitutes a part of a wall of the wafer transport chamber, and has an opening for opening the wafer transport chamber; a door part for opening and closing the opening; a mounting table that is configured to mount a wafer storage container so as to oppose a lid part for opening and closing an internal space to the door part, and to move to and from the plate-shaped part; and an elastic part that is provided on the mounting table side of the plate-shaped part along the peripheral edge of the opening, wherein the elastic part elastically contacts the periphery of the lid part in the wafer storage container by moving the mounting table toward the plate-shaped part.
Abstract:
There is provided a method for manufacturing semiconductor. The method includes providing a semiconductor manufacturing apparatus and providing an EFEM. The EFEM includes a shield gas curtain apparatus 6 that forms a gas curtain capable of shielding an opening 23 when an internal space 5S of a purge container 5, in which the humidity is reduced to a predetermined value by means of a bottom purge apparatus 25 provided in a load port 2, is brought into communication with an internal space 3S of a wafer transport chamber 3, the gas curtain being formed of a shield curtain gas blown immediately downward from a location near the opening 23 of the load port 2 and being closer to the wafer transport chamber 3 than the opening 23 at a higher height than an upper edge of the opening 23.
Abstract:
A laboratory system has a plurality of bottom opening sample transport pods for carrying one or more cassettes with cell culture vessels therein may have an aseptic interior environment and may cooperate with cell culture growing/processing stations having load ports allowing transfer of the cassettes with cell culture vessels into the stations while maintaining the aseptic integrity of the interior of the pods and the cassette and cell culture vessels. Internal environmental monitoring and control, purging, and tracking as well as automated robotic operation may be provided.
Abstract:
Reliability in the restriction of the movement of a container is improved.A content moving device 1 includes: a table portion 20 on which a container 50 is placed; and a restricting mechanism 30. A flange 55 of the container 50 is shaped to provide a recessed portion 56a. A restricting mechanism 30 includes: a collar portion 31; a first restricting portion 32 configured to be located in the recessed portion 56a; a second restricting portion 33a provided above the first restricting portion 32 and inward of the collar portion 31; and a second moving mechanism. The second moving mechanism is configured to move the second restricting portion 33a along an extending direction B between a first position, in which the second restricting portion 33a is opposed to the flange 55 of the container 50 in an up-down direction A, and a second position, in which the second restricting portion 33a is opposed to the recessed portion 56a in the up-down direction A without being opposed to the flange 55 in the up-down direction A.
Abstract:
The linear actuator includes an inner core (2), and an outer core (3) provided outside the inner core in a radial direction while being supported by a pair of flat springs (41 and 42). Permanent magnets (23 and 24) are formed at one of the inner core and the outer core, and magnetic pole portions (31a and 32a) are formed at the other of the inner core and the outer core to face the permanent magnet with predetermined gaps formed therebetween. Spacers (71 and 72) are respectively provided between the inner core and the flat springs, abutting portions are respectively configured by abutting facing surfaces of the spacers and the inner core and facing surfaces of the spacers and the flat springs adjacent to the spacers in the axial direction, and at least an engagement portion including a recess and a protrusion are arranged at the abutting portions.
Abstract:
A non-contact power supply device is used in a processing apparatus including a moving unit movable inside a closed container. The device supplies electric power to the moving unit from outside the closed container. The power supply device includes a feed unit and a heat dissipater. The feed unit includes a feed line and a power supply transformer. The feed line has a feed region arranged inside the closed container along the moving direction of the moving unit. The transformer is arranged inside the closed container so as to be opposed to the feed region in a non-contact manner and is provided so as to move together with the moving unit. The heat dissipater includes a portion on one end side connected to the feed region so as to be capable of conducting heat thereto, and a portion on the other end side extending outside the closed container, so that heat generated in the feed region is partially dissipated outside the closed container.
Abstract:
Multipliers 21a and 21b output values, which are obtained by multiplying a total drive command value Es by first and second gains G1 and G2, respectively, as first and second drive command values E1 and E2. Controllers 23a and 23b control first and second actuators (motors) 5 and 7, respectively, on the basis of the first and second drive command values. The detection values of the drive amounts of the actuators are denoted by Ef1 and Ef2, respectively, and the detection value of the drive amount of a driven body is denoted by Ef. A gain calculator 27 calculates the gains G1 and G2 on the basis of Ef1, Ef and Ef2. An upper limit value of Ef, which denotes the drive amount of the driven body, is denoted by Lmax. When Ef1, Ef2 or Ef approaches zero, the first gain G1 is brought close to (Ef1−Lmax/2)/(Ef−Lmax).
Abstract:
There is provided an EFEM that includes a shield gas curtain apparatus 6 that forms a gas curtain capable of shielding an opening 23 when an internal space 5S of a purge container 5, in which the humidity is reduced to a predetermined value by means of a bottom purge apparatus 25 provided in a load port 2, is brought into communication with an internal space 3S of a wafer transport chamber 3, the gas curtain being formed of a shield curtain gas blown immediately downward from a location near the opening 23 of the load port 2 and being closer to the wafer transport chamber 3 than the opening 23 at a higher height than an upper edge of the opening 23. The EFEM thus configured can prevent and suppress a rapid increase in the humidity in the purge container, in which the humidity in the interior space is reduced by performing the bottom purging, occurring immediately after a lid of the purge container is opened, so that quality degradation due to the moisture adhered on a wafer can be avoided.
Abstract:
An arm unit of a transfer robot includes an R-axis motor configured to relatively rotate a second arm with respect to a first arm. The R-axis motor is fixed to the first arm so as to protrude to below an arm axis holding portion of the first arm with an output shaft thereof facing upward. The output shaft is configured to penetrate the first arm from below. The output shaft is fixed to the second arm by a shaft fixing portion.
Abstract:
An EFEM includes a housing having a substantially closed substrate transfer space in the housing and a control part configured to perform a control of supplying an inert gas into at least the housing. The control part includes an inert gas total supply amount setting part configured to set a total supply amount of the inert gas to be supplied into the housing; a door open/purge determination part configured to determine whether a container door of a substrate storage container is in an open state and whether a purge device is performing a purge process; and an in-housing inert gas supply amount calculation part configured to calculate a supply amount of the inert gas to be supplied into the housing. The supply amount of the inert gas to be supplied into the housing is determined according to an inert gas supply amount command value determined based on a calculation result.