Introduction
Aerotech’s ANT95 series stages are the world’s first
nanometer-level positioning systems with greater than 25
mm travel. The ANT95-L-Z and ANT95-L-Z-PLUS crossed-roller
stages are the best-in-class in combining speed,
accuracy, resolution, repeatability, reliability, and size, and
are offered in two accuracy grades. As an evolution of the
popular ANT stage family, these linear stages exhibit
enhanced motion performance over Aerotech’s first
generation ANT series.
Noncontact Direct-Drive
All of the original ANT series’ direct-drive advantages have
been preserved in the ANT95-L-Z family. Only noncontact
direct-drive technology offers the robust, accurate, and
high-speed positioning necessary for mass production of
precision devices. ANT95-L-Z stages utilize advanced
direct-drive technology pioneered by Aerotech to achieve
the highest level of positioning performance. This direct-drive
technology is high-performance, non-cogging,
noncontact, high-speed, high-resolution, and high-accuracy.
This unique drive and bearing combination, packaged in an
extremely small-profile and footprint, offers tangible
advantages in many applications such as high-precision
positioning, disk-drive fabrication, fiber alignment, optical
delay element actuation, sensor testing, and scanning
processes that demand smooth and precise motion.
Flexible System Design
The ANT95-L-Z family has universal mounting and
tabletop patterns that allow for easy system integration.
Two, three, or more axes can be easily combined for
flexible system designs and multi-axis configurations.
System Characteristics
Outstanding accuracy, position repeatability, and in-position
stability require high system resolution. The
ANT95-L-Z stage’s industry-leading 2 nm minimum
incremental step size provides this high level of
performance. Excellent in-position stability, assisted by
high-quality, anti-creep crossed-roller bearings, enables
virtually maintenance-free operation over the life of the
product. Aerotech’s direct-drive technology has no
hysteresis or backlash, enabling accurate and repeatable
nanometer-scale motion.

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