Abstract: An adjustable mass-resolving slit assembly includes an aperture portion and an actuation portion. The aperture portion includes first and second shield members that define an aperture therebetween for receiving an ion beam during semiconductor processing operations. The actuation portion is coupled to the aperture portion and selectively and independently adjusts the position of the first and second shield members along first and second non-parallel axes. Adjusting the position of the first and second shield members along the first axis adjusts a width of the aperture. Adjusting the position of the first and second shield members along the second axis adjusts a region of the first and second shield members impinged by the ion beam. Methods for using the adjustable mass-resolving slit assembly are also disclosed.

Abstract: An apparatus for dynamically adjusting the pitch between substrates in a substrate stack comprises first and second lift portions. The first lift portion supports a first group of the plurality of substrates, and the second lift portion supports a second group of the plurality of substrates. The first and second lift portions are operable to move the first and second groups of substrates in a first direction independently from each other. This independent movement enables the pitch, or spacing, between adjacent substrates to be dynamically adjusted so that an end effector of a robot can be positioned between such adjacent substrates to pick one of the substrates without inadvertently engaging another substrate that is not being picked. Other embodiments are disclosed.

Abstract: Electronic device processing systems are described. The system includes a mainframe housing having a transfer chamber, a first facet, a second facet opposite the first facet, a third facet, and a fourth facet opposite the third facet, a first carousel assembly coupled to a first facet, a second carousel assembly coupled to the third facet, a first load lock coupled to the second facet, a second load lock coupled to the fourth facet, and a robot adapted to operate in the transfer chamber to exchange substrates from the first and second carousels. Methods and multi-axis robots for transporting substrates are described, as are numerous other aspects.

Abstract: Various embodiments of batch load lock apparatus are disclosed. The batch load lock apparatus includes a load lock body including first and second load lock openings, a lift assembly within the load lock body, the lift assembly including multiple wafer stations, each of the multiple wafer stations adapted to provide access to wafers through the first and second load lock openings, wherein the batch load lock apparatus includes temperature control capability (e.g., heating or cooling). Batch load lock apparatus is capable of transferring batches of wafers into and out of various processing chambers. Systems including the batch load lock apparatus and methods of operating the batch load lock apparatus are also provided, as are numerous other aspects.

Abstract: A wafer handling system may include upper and lower linked robot arms that may move a wafer along a nonlinear trajectory between chambers of a semiconductor processing system. These features may result in a smaller footprint in which the semiconductor processing system may operate, smaller transfer chambers, smaller openings in process chambers, and smaller slit valves, while maintaining high wafer throughput. In some embodiments, simultaneous fast wafer swaps between two separate chambers, such as load locks and ALD (atomic layer deposition) carousels, may be provided. Methods of wafer handling are also provided, as are other aspects.

Abstract: Embodiments of substrate handling systems capable of heating and/or cooling batches of substrates being transferred into and out of various substrate processing chambers are provided. Methods of substrate handling are also provided, as are numerous other aspects.

Abstract: A system for loading workpieces into a process chamber for processing in a matrix configuration includes a conveyor configured to transport multiple workpieces in a linear fashion. A workpiece hotel is configured to receive the multiple workpieces from the conveyor. The workpiece hotel comprises a matrix of cells arranged in N columns and M floors. A pick blade is configured to insert into the hotel and retract from the hotel in order to unload a plurality of substrates from a first floor into a single row of the pick blade, and to repeat the unloading operation to form a matrix comprising a plurality of rows of substrates disposed on the pick blade. In one example, the workpiece hotel has a staggered configuration that provides individual accessibility of each hotel cell.

Abstract: An ion implant apparatus configured to measure the temperature or monitor the degradation of components in the apparatus is provided. The ion implant apparatus may include a platen configured to move in a first direction, a mask frame to hold one or more masks disposed on the platen, a first optical sensor configured to project an optical beam to a second optical sensor, and a measurement bar disposed on the mask frame, the measurement bar raised above the surface of the mask frame to interrupt the optical beam when the platen moves in the first direction.

Abstract: A system for loading workpieces into a process chamber for processing in a matrix configuration includes a conveyor configured to transport multiple workpieces in a linear fashion. A workpiece hotel is configured to receive the multiple workpieces from the conveyor. The workpiece hotel comprises a matrix of cells arranged in N columns and M floors. A pick blade is configured to insert into the hotel and retract from the hotel in order to unload a plurality of substrates from a first floor into a single row of the pick blade, and to repeat the unloading operation to form a matrix comprising a plurality of rows of substrates disposed on the pick blade. In one example, the workpiece hotel has a staggered configuration that provides individual accessibility of each hotel cell.

Abstract: This apparatus has two mask segments. Each mask segment has apertures that an ion beam may pass through. These mask segments can move between a first and second position using hinges. One or more workpieces are disposed behind the mask segments when these mask segments are in a second position. The two mask segments are configured to cover the one or more workpieces in one instance. Ions are implanted into the one or more workpieces through the apertures in the mask segments.

Abstract: A system for loading workpieces into a process chamber for processing in a matrix configuration includes a conveyor configured to transport multiple workpieces in a linear fashion. A workpiece hotel is configured to receive the multiple workpieces from the conveyor. The workpiece hotel comprises a matrix of cells arranged in N columns and M floors. A pick blade is configured to insert into the hotel and retract from the hotel in order to unload a plurality of substrates from a first floor into a single row of the pick blade, and to repeat the unloading operation to form a matrix comprising a plurality of rows of substrates disposed on the pick blade. In one example, the workpiece hotel has a staggered configuration that provides individual accessibility of each hotel cell.

Abstract: This apparatus has two mask segments. Each mask segment has apertures that an ion beam may pass through. These mask segments can move between a first and second position using hinges. One or more workpieces are disposed behind the mask segments when these mask segments are in a second position. The two mask segments are configured to cover the one or more workpieces in one instance. Ions are implanted into the one or more workpieces through the apertures in the mask segments.