A transport carrier docking device may be capable of forming an air-tight seal around a transport carrier while a front portion of the transport carrier is inserted into a chamber of the transport carrier docking device. Semiconductor wafers in the transport carrier may be accessed by a transport tool while the air-tight seal exists around the transport carrier, which prevents and/or reduces the likelihood that contaminants in a semiconductor fabrication facility will reach the semiconductor wafers. The air-tight seal around the transport carrier may reduce defects of the semiconductor wafers that might otherwise be caused by the contaminants, may increase manufacturing yield and quality in the semiconductor fabrication facility, and/or may permit the continued reduction in device and/or feature sizes of integrated circuits and/or semiconductor devices that are to be formed on semiconductor wafers.

A load port is capable of monitoring various environmental parameters associated with a transport carrier to minimize and/or prevent exposure of the semiconductor substrates therein to increased humidity, increased oxygen, increased vibration, and/or one or more other elevated environmental conditions that might otherwise contaminate the semiconductor substrates, damage the semiconductor substrates, and/or cause processing defects. For example, the load port may monitor the environmental parameters as indicators of a potential blockage of a diffuser of the transport carrier, and a relief valve may be used to divert a gas away from the transport carrier based on a determination that a diffuser blockage has occurred. In this way, the gas may be diverted through the relief valve and away from the transport carrier to prevent increased humidity, contaminants, and/or vibration from contaminating and/or damaging the semiconductor substrates.

The disclosure describes devices, systems, and methods for integrating load locks into a factory interface footprint space. A factory interface for an electronic device manufacturing system can include a load port for receiving a substrate carrier. The load port can include a frame adapted for connecting the load port to a factory interface, the frame comprising a transport opening through which one or more substrates are capable of being transported between the substrate carrier and the factory interface. The load port can also include an actuator coupled to the frame, and a load port door coupled to the actuator and configured to seal the transport opening. The frame height can be greater than the height of the load port door, and less than 2.5 times the height of the load port door.

A factory interface includes a housing, a front surface of the housing having multiple load ports, a robot having an arm and an end effector, and a track attached to a floor within the housing. The robot is adapted to move horizontally along the track to multiple positions from which the arm can reach the end effector of the robot into a front opening unified pod attached to any of the multiple load ports.

An airflow detection device is capable of detecting airflow issues associated with a transport carrier, such as a blockage of a diffuser in a transport carrier or leakage of a transition bracket, among other examples. The airflow detection device includes an air tunnel through which a gas in a transport carrier may flow. The airflow detection device includes an airflow sensor configured to generate airflow data based on a flow of the gas through the air tunnel. In some implementations, the airflow detection device is included in an airflow detection system to perform automated measurements and to determine, identify, and/or detect airflow issues associated with a transport carrier. In this way, the airflow detection system may perform one or more automated actions (or may cause one or more other devices to perform one or more automated actions) based on a detection of a diffuser blockage or a transition bracket leak.

A method is for sealing a backplane component of a load port system to an equipment front end module (EFEM). The method includes mounting a leveling block to the EFEM. A conical hole adjustment assembly is coupled between a first distal end of the leveling block and the backplane component. The method further includes rotating a first leveling adjustment bolt in the conical hole adjustment assembly to align the backplane component with the EFEM.

Electronic device processing systems including an equipment front end module (EFEM) with a side storage pod are described. The EFEM includes an EFEM chamber and a recirculation duct. The side storage pod is fluidly coupled to the recirculation duct. The side storage pod includes an interior chamber and a side storage container disposed within the interior chamber. The side storage container is configured to receive one or more substrates from the EFEM chamber. The electronic device processing system further includes an environmental control system. The environmental control system is configured to circulate a purge gas between the EFEM chamber and the side storage pod via the recirculation duct.

Systems and methods to manipulate stacks of silicon wafers and rings are described. In one aspect, a robotic actuator includes a robotic end effector that further a first surface having multiple attached wafer suction cups arranged to collectively grasp a silicon wafer. The robotic end effector also includes a second surface that further includes multiple attached ring suction cups arranged to collectively grasp a ring. The second surface also includes a bulk grabber positionable to grasp a collective stack of rings. The robotic actuator also includes an axial actuator configured to rotate the robotic end effector about a flip axis, such that either the first surface or the second surface faces vertically upwards.

A load port apparatus includes an installation section, a frame section, a first wheel, a second wheel, and a supporter. The installation section includes an installation surface for installing a container for containing a substrate. The frame section is disposed on one side of the installation section, extends upward from this one side, and includes a lower fixation unit located below the installation surface. The first wheel is attached below the installation section and has a first diameter. The second wheel is attached below the installation section and further away from the frame section than the first wheel and has a second diameter smaller than the first diameter. The supporter is attached below the installation section and further away from the frame section than the first wheel and has a vertically adjustable distance from the installation surface to a lower end of the supporter.

A multiple transport carrier docking device may be capable of storing and/or staging a plurality of transport carriers in a chamber of the multiple transport carrier docking device, and may be capable of forming an air-tight seal around a transport carrier in the chamber. Semiconductor wafers in the transport carrier may be accessed by a wafer transport tool while the air-tight seal around the transport carrier prevents and/or reduces the likelihood that contaminants in the semiconductor fabrication facility will reach the semiconductor wafers. The air-tight seal around the transport carrier may reduce defects of the semiconductor wafers that might otherwise be caused by the contaminants, may increase manufacturing yield and quality in the semiconductor fabrication facility, and/or may permit the continued reduction in device and/or feature sizes of integrated circuits and/or semiconductor devices that are to be formed on semiconductor wafers.