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MCL Think Nano Nano-HS Series High-Speed Multi-Axis Piezoelectric Translation Stage

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Brand MCL Think Nano
Origin USA
Model Nano-HS Series
Type Motorized Piezoelectric Translation Stage
Motion Configurations XY (Nano-HS2), XYZ (Nano-HS3, Nano-HS3M)
Positioning Resolution 0.01 nm (10 pm)
Z-Axis Step Response Time ≤2 ms
Z-Axis Resonant Frequency 5.0 kHz ±20%
XY Resonant Frequency (HS2) 1.5 kHz ±20%
XY Resonant Frequency (HS3) 1.0 kHz ±20%
Max Scanning Frequency 300 Hz
Stiffness (Z-axis) 8 N/µm
Max Horizontal Load 0.1 kg
Max Vertical Load 0.1 kg
Body Materials Aluminum, Invar, or Titanium
Position Noise <2 pm RMS (all axes)
Control Architecture Closed-loop with integrated PicoQ® absolute position sensors
Controller Nano-Drive®

Overview

The MCL Think Nano Nano-HS Series is a high-performance, multi-axis piezoelectric translation stage engineered for ultra-precise, high-bandwidth positioning in demanding optical and nanoscale metrology applications. Based on direct-drive piezoelectric actuation and proprietary PicoQ® capacitive sensing technology, the Nano-HS platform delivers true closed-loop control with absolute position feedback—eliminating hysteresis, drift, and thermal retrace errors common in open-loop systems. Its core architecture integrates monolithic flexure-guided motion with resonant-frequency-optimized mechanical design: the Z-axis achieves a 5.0 kHz resonant frequency and sub-2 ms step response, enabling dynamic scanning up to 300 Hz while maintaining sub-picometer positional stability. The compact, low-noise mechanical structure—available in aluminum, Invar, or titanium variants—ensures minimal thermal expansion and vibration coupling, making it suitable for integration into vacuum-compatible, low-vibration, or active isolation environments typical of atomic force microscopy (AFM), scanning probe microscopy (SPM), near-field optical microscopy (NSOM), and interferometric metrology setups.

Key Features

  • True closed-loop operation with integrated PicoQ® absolute capacitive position sensors on all axes—no homing or referencing required
  • Picometer-scale resolution (0.01 nm) and repeatability across XY and XYZ configurations
  • Z-axis bandwidth optimized for high-speed scanning: ≤2 ms step response and sustained 300 Hz sinusoidal scanning
  • Ultra-low position noise floor: <2 pm RMS on X, Y, and Z axes under standard lab conditions
  • High mechanical stiffness (8 N/µm on Z-axis) ensures minimal deflection under load and improved dynamic tracking fidelity
  • Modular configuration options: Nano-HS2 (high-speed XY), Nano-HS3 (balanced XYZ), and Nano-HS3M (enhanced Z-speed XYZ)
  • Compatible with MCL’s Nano-Drive® controller, supporting analog/digital I/O, real-time waveform generation, and external trigger synchronization

Sample Compatibility & Compliance

The Nano-HS Series is designed for integration into research-grade and industrial metrology platforms where traceable, repeatable, and auditable positioning is required. Its mechanical construction adheres to standard cleanroom-compatible practices, and optional Invar or titanium body variants meet stringent coefficient-of-thermal-expansion (CTE) requirements for long-term dimensional stability. While not certified to specific ISO or ASTM standards as a standalone unit, the system supports compliance workflows when deployed in validated instruments—for example, AFM systems operating under GLP or GMP protocols may leverage its deterministic closed-loop behavior and controller audit-trail capabilities (via Nano-Drive® firmware logging) to satisfy FDA 21 CFR Part 11 data integrity expectations. All stages are RoHS-compliant and manufactured in the USA under controlled quality management procedures.

Software & Data Management

Control and integration are enabled through the Nano-Drive® controller suite, which provides native support for Windows and Linux environments via USB 2.0 and Ethernet interfaces. The SDK includes C/C++, Python, MATLAB, and LabVIEW APIs, allowing full programmatic access to waveform generation, position streaming (up to 100 kS/s per axis), and real-time feedback loop adjustment. Position data logs include timestamps, sensor raw values, commanded positions, and error signals—enabling post-acquisition analysis of tracking performance and thermal drift. For regulated environments, Nano-Drive® supports configurable user authentication, electronic signatures, and immutable log archiving—features aligned with instrument qualification requirements in pharmaceutical and semiconductor QA/QC labs.

Applications

  • High-speed, high-resolution scanning in AFM and SPM systems—particularly for dynamic mode imaging, force spectroscopy, and multi-frequency excitations
  • Near-field scanning optical microscopy (NSOM) requiring synchronized tip-sample positioning and laser modulation
  • Interferometric calibration and displacement metrology where sub-picometer noise floors and linearity are critical
  • Optical alignment and beam steering in ultra-stable laser cavities, quantum optics experiments, and adaptive optics testbeds
  • Integration into custom-built nanomanipulation workstations using the SPM-M Kit or MadPLL® phase-locked loop instrumentation
  • Dynamic testing of micro-electromechanical systems (MEMS) actuators and resonators

FAQ

What distinguishes the Nano-HS3 from the Nano-HS3M?
The Nano-HS3M features an enhanced Z-axis actuator design with higher bandwidth and reduced mechanical inertia, enabling faster Z-scanning—especially beneficial for topography-following modes in AFM.
Can the Nano-HS operate in vacuum?
Yes—when configured with Invar or titanium bodies and compatible cabling, the Nano-HS Series is rated for UHV-compatible operation down to 10⁻⁹ Torr; consult engineering for feedthrough and bake-out specifications.
Is third-party software integration supported?
Yes—the Nano-Drive® SDK provides documented APIs for Python, MATLAB, LabVIEW, and C/C++, including examples for synchronization with camera triggers, lock-in amplifiers, and DAQ systems.
What is the recommended maintenance schedule?
No routine maintenance is required; the monolithic flexure design is solid-state with no lubricants or wear-prone components. Long-term calibration verification is advised annually in metrology-critical applications.
How is positional linearity characterized and verified?
Linearity is validated using heterodyne laser interferometry traceable to NIST standards; full calibration reports—including residual nonlinearity maps and thermal drift coefficients—are available upon request for qualified applications.

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