High-Speed Automated Alignment for Optics and Photonics: PI Introduces Next-Generation 6-Axis Nanopositioning Alignment System

6-DOF motion, ultra-compact footprint, and high-speed photonics alignment algorithms integrated directly into the controller firmware.

Shrewsbury, MA -- PI (Physik Instrumente), a global leader in nanopositioning and precision motion systems, today announced the launch of its newest 6-axis piezo alignment platform: the P-616.65S NanoCube® 6-DOF piezo-flexure nanopositioning system. With 500µm linear travel in X, Y, and Z, a rotational range of 3° in ?X, ?Y, ?Z, and true parallel-kinematic 6-DOF motion, the new platform establishes a new standard for compactness, dynamic performance, and precision in photonics, semiconductor, and microscopy applications. A user programmable virtual pivot point (center of rotation) and high-speed alignment routines built directly into the digital controller firmware further enhance versatility, accelerating setup and throughput.


PI's next-generation 6-axis automated alignment system for photonics and micro-optics features a user-programmable virtual pivot point and high-speed alignment routines.

High Stiffness = High Dynamics and Rapid Step and Settle
Its integrated, rigid, and friction-free flexure structure provides high stiffness—characterized by a resonant frequency of 350 Hz—and enables fast dynamics with rapid step-and-settle performance, ideal for fast scanning and automated multi-channel photonics alignment.

Powered by PICMA® all-ceramic actuators with demonstrated 100-billion-cycle lifetime, the system offers exceptional reliability even in 24/7 high-duty-cycle environments. Closed-loop position control with high-resolution sensors delivers nanometer-level repeatability across all motion axes.

Key Technical Highlights
• Ultra-compact 6-axis alignment system—small enough to fit in the palm of your hand
• 500µm travel range in X, Y, and Z
• 3° rotation in ?X, ?Y, ?Z for full 6-DOF adjustment
• User-selectable virtual pivot point—in software for intuitive multi-axis alignment
• Nanometer level resolution and repeatability for reduced insertion loss
• Parallel-kinematic flexure design for uniform stiffness and zero friction
• Compact aluminum construction, vacuum-compatible, and resistant to shock and vibration
Smart Firmware for Faster Alignment
In combination with PI's E-713 digital nanopositioning controllers the new NanoCube aligner features embedded high-speed routines for first-light detection, gradient search, coordinate scans, and multi-axis optimization. By eliminating the need for external scripts or PC-side computation, these firmware algorithms significantly shorten alignment times in production workflows.

A Compact Workhorse for Advanced Photonics
The NanoCube® complements a wide range of advanced and proven alignment solutions that PI offers to the photonics industry—from its award-winning hexapod-based FMPA system to its cost- and throughput-optimized modular PINovAlign product family. As manufacturers continue to push for smaller footprints and higher throughput, this new piezo-flexure-based solution provides a powerful tool for high-volume photonics assembly and testing.

The new NanoCube® automated alignment system is available now for OEM integration, research laboratories, and fully automated photonics-alignment subsystems.

Industries Served
Photonics wafer test, micro-optics assembly, photonics chip test and assembly, SR-microscopy

Featured Product

Strain Wave Gearheads by maxon - Highly precise, compact, and efficient.

Strain Wave Gearheads by maxon - Highly precise, compact, and efficient.

Strain wave gearheads are ideal for use in applications requiring precision motion control and high torque transmission in a compact design. maxon strain wave gearheads are a specialized type of gearhead where precision and compact design are crucial. This type of gearhead is often used in applications in a confined space. With their advanced gear tooth design, maxon's strain wave gearheads provide high efficiency and good back drivability. Typical applications include: Robotics, Aerospace, Medical technology and Optical systems .