china Linear Piezo Nano Displacement Stage
Release time:
2026-04-22
In the world of super-resolution microscopy, patch clamping, and optical trapping, the Linear Piezo Nano Displacement Stage provides the silent, vibration-free motion necessary to resolve structures below the diffraction limit. When imaging single molecules or positioning a micropipette against a living neuron,
Linear Piezoelectric Nano Displacement Stage MF30-40A, a large travel linear displacement stage, not only has compact mounting dimensions, but also has low temperature vacuum and other application environments, and supports customized Nano Displacement Stages.

- Product Advantages
△ Compact structure, high rigidity
△ Zero clearance, high precision flexible hinge guidance system
△ Room temperature to liquid helium operating temperature, ultra-high vacuum compatible
△ Piezoceramic actuator with long service life
△ Closed loop position and velocity control with displacement sensor
- Applications
Electron microscope in-situ nanoprobe stage, semiconductor chip inspection, photolithography workpiece stage, microbial manipulator, fiber optic welding, ultra-precision assembly, precision inspection and measurement.

In the world of super-resolution microscopy, patch clamping, and optical trapping, the Linear Piezo Nano Displacement Stage provides the silent, vibration-free motion necessary to resolve structures below the diffraction limit. When imaging single molecules or positioning a micropipette against a living neuron, any mechanical play or backlash would destroy experimental validity. The Linear Piezo Nano Displacement Stage solves this through piezoelectric stack actuators driving flexure hinges—a design with zero rolling elements, zero friction, and zero backlash. With step sizes as fine as 0.2 nm and travel ranges up to 500 µm, this stage allows researchers to scan a coverslip-mounted sample with nanometer precision or to track a moving organelle in real time. Unlike stepper motor stages that induce electrical noise, the Linear Piezo Nano Displacement Stage operates electromagnetically silent, making it safe for electrophysiology rigs and sensitive fluorescence detectors.
Ease of control and integration make the Linear Piezo Nano Displacement Stage a favorite among biologists and physicists. The stage can be driven by any standard piezo controller, with open-source software support for LabVIEW, MATLAB, and Python. Each Linear Piezo Nano Displacement Stage includes built-in position sensors (capacitive or piezoresistive), enabling closed-loop operation without external encoders. For long-term live-cell imaging, the stage offers exceptional thermal stability (<1 nm/°C drift), keeping your region of interest perfectly centered during hours of time-lapse acquisition. Multiple Linear Piezo Nano Displacement Stage units can be synchronized to perform automated high-content screening or to align a multi-color STED microscope. Researchers have successfully used the Linear Piezo Nano Displacement Stage for tasks ranging from atomic force microscope sample positioning to optical tweezer calibration, proving its versatility across life science disciplines.
Reliability and sample safety are paramount, and the Linear Piezo Nano Displacement Stage delivers both. Its smooth, jerk-free motion profile prevents mechanical shock to delicate specimens such as brain slices or live embryos. The stage is compatible with humidified incubators (up to 95% RH) and can be controlled from outside a Faraday cage via shielded cables. For OEMs building next-generation high-content imaging systems, the Linear Piezo Nano Displacement Stage offers a low-profile design (only 15 mm thick) that fits under standard microscope stages without blocking condensers or objectives. Ultimately, the Linear Piezo Nano Displacement Stage transforms biological investigation from coarse, sample-damaging movement into gentle, sub-nanometer exploration. Whether you are resolving synaptic vesicles or aligning a laser to a trapped bead, the Linear Piezo Nano Displacement Stage provides the precision your science demands.
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