Abstract:
An automated workpiece processing apparatus including a processing section including a processing module configured for processing a workpiece at a process location, a transport module including a first shuttle stage, a second shuttle stage independent of the first stage, and an end effector connected to at least one of the first and second stages, the end effector being configured to hold and transport the workpiece into and out of the processing module, and having a range of motion, defined by a combination of the first and second stage, extending from a workpiece holding station outside the processing module to the processing location inside the processing module so the end effector defines a processing stage of the processing module, and an automated loading and transport section including a load port module through which workpieces are loaded into the automated loading and transport section, and being communicably connected to the transport module.
Abstract:
An ion implantation system provides ions to a workpiece positioned in a vacuum environment of a process chamber on a cooled chuck. A pre-chill station within the process chamber has a chilled workpiece support configured to cool the workpiece to a first temperature, and a post-heat station within the process chamber, has a heated workpiece support configured to heat the workpiece to a second temperature. The first temperature is lower than a process temperature, and the second temperature is greater than an external temperature. A workpiece transfer arm is further configured to concurrently transfer two or more workpieces between two or more of the chuck, a load lock chamber, the pre-chill station, and the post-heat station.
Abstract:
A sample holder assembly includes a sample tray, a base plate, a stage mount, and a calibration standard mounted onto the stage mount. Three mating structures on the bottom of the base plate mate with corresponding structures on a stage mount that is attached to the sample stage of the SEM. An optional contacting conductor provides electrical contact between the stage mount and the base plate so that charge generated on the sample by the electron beam can leave the sample through the sample conductive layer to the sample tray, to the base plate, to the stage mount, and through the grounded stage.
Abstract:
A hydrogen ion implanter for the exfoliation of silicon from silicon wafers uses a large scan wheel (14) carrying 50+ wafers around its periphery and rotating about an axis. In one embodiment, the axis of rotation of the wheel is fixed and a ribbon beam (101) of hydrogen ions is directed down on a peripheral edge of the wheel. The ribbon beam extends over the full radial width of wafers on the wheel. The beam is generated by an ion source (16) providing an extracted ribbon beam having at least 100mm major cross-sectional diameter. The ion source may use core-less saddle type coils (112, 112a-c) to provide a uniform field confining the plasma in the ion source. The ribbon beam may be passed through a 90 bending magnet (17) which bends the beam in the plane of the ribbon.
Abstract:
Methods and apparatus for providing and processing serial tissue sections. In one example, an "automatic tape collecting lathe ultramicrotome" (ATLUM) slices a block of tissue sample having various geometries into a continuous ribbon of thin tissue, or multiple thin tissue sections, and disposes the sliced thin tissue on an appropriate substrate to facilitate subsequent imaging of the sliced thin tissue. Closed-loop control of section thickness of the sliced thin tissue sections or ribbons is implemented to produce thinner sliced tissue sections or ribbons and tightly regulate thickness. Thin tissue sections or ribbons may be particularly processed/prepared to facilitate imaging with a scanning electron microscope (SEM). Collected thin tissue sections or ribbons may be used to create UltraThin Section Libraries (UTSLs) that allow for fully automated, time-efficient imaging in the SEM to faciliate expansive tissue studies.
Abstract:
We disclose a gripper and associated apparatus and methods for delivering nano-manipulator probe tips inside a vacuum chamber. The gripper includes a tube; a compression cylinder inside of and coaxial with the tube; and at least one elastic ring adjacent to the compression cylinder. There is a vacuum seal coaxial with the compression cylinder for receiving and sealing against a probe tip. An actuator is connected to the compression cylinder for compressing the elastic ring and causing it to grip the probe tip. Thus the probe tip can be gripped, transferred to a different location in the vacuum chamber, and released there. Samples attached to the probe tips will be transferred to a TEM sample holder, shown in several embodiments, that includes a bar having opposed ends; an arm attached to each opposed end of the bar; one or more slots for receiving a probe tip; and, each slot having an inner part and an outer part, where the inner part is smaller than the outer part. The TEM sample holders just described are inserted into a carrier cassette. A cassette for transferring one or more TEM sample holders comprises a platform; at least one bar extending upwardly from the platform; the bar having a groove for receiving and holding a TEM sample holder. A rotatable magazine holds one or more probe tips and selectively releases the tips. The magazine includes a cartridge having a plurality of longitudinal openings for receiving probe tips and dispensing probe tips.
Abstract:
A B S T R A C T A method of visualizing a sample in a wet environment including introducing a sample into a specimen enclosure in a wet environment and scanning the sample in the specimen enclosure in a scanning electron microscope, thereby visualizing the sample.
Abstract translation:A B S T R A C T在潮湿环境中可视化样品的方法,包括将样品引入湿环境中的样品外壳中,并在扫描电子显微镜中扫描样品外壳中的样品,从而使样品可视化。