PI Japan Product Lineup

The PICMA(R) multi-layer piezo actuator P-882 and P-888 are strong against humidity and electrolytic corrosion due to their ceramic insulation structure, and they exhibit excellent temperature stability. Custom options allow for high-temperature resistance up to 200 degrees, support for high currents up to 20 A, and modifications in shape such as perforated, circular, and rectangular designs. Additionally, they are compatible with UHV 10⁻⁹ hPa, have no outgassing, can withstand high bake temperatures, and operate in harsh environments such as vacuum systems and cryogenic conditions. In addition to a wide variety of sizes and shapes, custom specifications and integrated sensor models are also available. *For more details, please contact us or refer to the catalog.*

The P-840 and P-841 series translators are high-resolution linear actuators for static and dynamic applications. They achieve sub-millisecond response times and sub-nanometer resolution.

The P-841 is a piezo actuator that incorporates a PICMA® multilayer stack in a preloaded metal case. It operates with a displacement of up to 90 µm at the nanometer level, providing a pushing force of 1000 N and a pulling force of 50 N. A variety of displacement ranges from 15 to 90 µm are available. The ceramic insulation technology of the internal piezo reduces leakage current and moisture intrusion, maintaining performance even during long-term continuous operation. Equipped with a strain gauge position sensor (SGS), it accurately corrects hysteresis and drift. It excels in applications requiring high rigidity and high responsiveness, such as alignment of fibers and optical elements, laser wavelength tuning, and nanotechnology testing fixtures. *For more details, please download the PDF or contact us.*

The P-844/P-845, which features a PICMA® multi-layer stack housed in a preloaded metal case, is a high-load piezo actuator that operates with a maximum stroke of 90 µm at sub-nanometer precision, enabling a maximum pushing force of 3000 N and a pulling force of 700 N. The P-845 type includes a built-in strain gauge sensor (SGS) that directly measures and provides feedback on the piezo movement, minimizing hysteresis and drift. The P-844 is the version without a sensor. *For more details, please download the PDF or contact us.*

The P-216 series is a high-resolution linear piezo actuator (translator) for static and dynamic applications. 【Features】 ○ Stroke up to 180μm ○ Push force up to 4500N ○ Pull force up to 500N ○ Sub-millisecond response ○ Sub-nanometer resolution ○ Options: vacuum, high temperature, and low temperature ● For more details, please contact us or refer to the catalog.

P-235 is a high-load piezo actuator (translator) with preload for static and dynamic applications. [Features] ○ Ultra-high rigidity ○ Push force up to 30,000N ○ Pull force up to 3,500N ○ Stroke up to 180μm ○ Options: Versions with vacuum, high temperature, low temperature, and waterproof cases ● For more details, please contact us or refer to the catalog.

In the semiconductor manufacturing industry, extremely high precision is required for tasks such as wafer and mask alignment. With advancements in microfabrication technology, the accuracy of positioning has become a crucial factor that influences product quality. Precise positioning at the sub-nanometer level, which is difficult to achieve with conventional technologies, is essential for improving yield and streamlining manufacturing processes. 【Application Scenarios】 - Wafer probing - Mask alignment - Semiconductor manufacturing equipment 【Benefits of Implementation】 - High-precision positioning at the sub-nanometer level - Streamlining of manufacturing processes - Improvement in yield

In the field of microscopy, achieving high precision in focusing on the observation target is essential for obtaining clear images. This is particularly important during high magnification observations or dynamic observations, where fine adjustments to the focus are crucial. If the focus is off, it becomes impossible to see the details of the observation target, hindering accurate analysis and research. The PICMA(R) multilayer piezo actuator P-882 and P-888 precisely control the focus of microscopes with sub-nanometer resolution and ultra-high rigidity, providing clear images. 【Application Scenarios】 - Microscope focus adjustment - Cell observation - Material analysis - Semiconductor inspection 【Benefits of Implementation】 - Clear image acquisition through high-precision focus control - Reduction in observation time - Increased efficiency in research and analysis

In the field of life sciences, high-precision manipulation and measurement of cells, tissues, and micro-samples are required. In particular, even slight positional errors and vibrations in microscopic manipulation and measurement systems can affect the reproducibility and reliability of experimental results. The PICMA piezo actuators P-882 and P-888 achieve stable precision control with sub-nanometer resolution and ultra-high rigidity, providing strong support for life science research. 【Application Scenarios】 - Precise manipulation of cells and samples under a microscope - Control of micromanipulators and stages - Integration into bio-measurement and interferometer systems 【Benefits of Implementation】 - Improved reproducibility of experiments and measurements - Stabilization of fine manipulation - Enhanced research efficiency

In the field of optics, high-precision positioning and fine-tuning are required. In particular, the adjustment of the position of lenses and mirrors is a crucial factor that affects the performance of optical systems. Even a slight misalignment can lead to a decrease in image quality or a deterioration in measurement accuracy. The multi-layer PICMA® piezo actuators P-882 and P-888 achieve precise positioning and fine-tuning of optical systems with sub-nanometer resolution and ultra-high rigidity. 【Application Scenarios】 - Wavefront correction of optical systems - Fine adjustment of lenses and mirrors - Control of reference mirrors for interferometers - Stabilization of laser optical systems 【Benefits of Implementation】 - Improved optical performance through high-precision positioning - Fine adjustments enabled by sub-nanometer resolution - Long lifespan and high reliability - Stable operation in harsh environments

In the field of nanotechnology, precise manipulation at the nanoscale is required. In particular, accurate positioning and stable operation are essential for manipulating materials at the atomic level and for manufacturing fine structures. Conventional technologies have faced challenges due to their susceptibility to environmental changes, making it difficult to maintain precision. The multi-layer PICMA® piezo actuators P-882 and P-888 address these challenges. 【Application Scenarios】 - Scanning Probe Microscopy (SPM) - Nanoindentation - Microfabrication - Precision adjustment of optical systems - Semiconductor manufacturing equipment 【Benefits of Implementation】 - High-precision operation with sub-nanometer resolution - Stable operation in harsh environments - Reduced maintenance costs due to longer lifespan - Flexible system construction through diverse shapes and custom options - Achievement of high throughput

In the field of precision measurement, measurements requiring nanometer-level accuracy and those conducted in harsh environments are essential. Various external factors, such as temperature changes, vibrations, and vacuum conditions, can affect measurement accuracy, making stable operation and high durability crucial. The PICMA(R) multilayer piezo actuator P-882 and P-888 address these challenges with high rigidity and environmental performance. 【Application Scenes】 - Scanning Probe Microscopes (SPM) - Semiconductor manufacturing equipment - Precision positioning of optical elements 【Benefits of Implementation】 - High-precision positioning with sub-nanometer resolution - Stable operation in harsh environments - Reduced maintenance costs due to increased lifespan

In the optical industry, precise adjustments such as those for optical fibers and lasers are required. In particular, fine positional adjustments are a crucial factor that affects the performance of the system. Traditional adjustment methods have been time-consuming and have limitations in accuracy. The P-841 addresses these challenges with sub-nanometer resolution and microsecond response times. 【Application Scenarios】 - Alignment of fibers and optical elements - Laser wavelength tuning 【Benefits of Implementation】 - Improved system performance through high-precision positioning - Reduced adjustment time - Increased efficiency in experiments

Precise adjustment of lens position in optical systems is a crucial factor that influences performance. In applications where high-precision positioning is required, even slight misalignments can significantly impact image quality and measurement accuracy. Equipped with sub-nanometer class resolution and high force performance using PICMA technology, it achieves precise position control of lenses and other components with fast response (on the order of microseconds) and high reliability. 【Application Scenarios】 - Precision position adjustment for microscopes - Alignment of optical measurement devices - Tuning of laser optical systems - Micro-positioning in optical communication and photonics equipment (general nano-positioning) 【Benefits of Implementation】 - Improved optical performance: Optimal focus and high resolution through micro-position adjustments - High-speed and high-precision positioning: Process improvement with sub-nanometer adjustments and microsecond response - Enhanced reliability: Longer lifespan and stable operation due to PICMA technology - Wide range of applications: Capable of handling everything from fine adjustments to high-load positioning

In the field of manufacturing, high load, high precision, and fast response are required. With a maximum stroke of 90 µm and sub-nanometer resolution, stable operation is achieved in processes that require fine positioning and high-precision control. Additionally, by adopting PICMA piezo elements, long life and highly reliable performance are provided. This contributes to improved product quality and process efficiency. 【Application Scenarios】 - Precision positioning in semiconductor manufacturing processes - High-precision alignment of optical fibers and laser optical systems - Micro-motion control in MEMS and micro-device manufacturing - Drive components for high-precision assembly and inspection equipment 【Effects of Implementation】 - High-precision positioning with sub-nanometer accuracy - Robust operation with high load capacity (maximum pushing force of 3000 N / pulling force of 700 N) - Fast control with microsecond response - Long life and highly reliable driving characteristics

In the field of nanotechnology, high precision and stability are required for the manipulation and positioning of fine structures. Particularly when operations at the atomic level or movements over small distances are necessary, conventional technologies may struggle to meet these demands. The P-841 offers sub-nanometer resolution and a maximum stroke of 90 µm, addressing these challenges. This contributes to improved accuracy and efficiency in experiments within nanotechnology research. 【Application Scenarios】 - Alignment of fiber and optical elements - Laser wavelength tuning - Nanotech testing jigs 【Benefits of Implementation】 - Improved reproducibility of experiments through high-precision positioning - Accurate manipulation of fine structures - Reduced experimental time - Up to 10 times longer lifespan compared to conventional polymer-insulated actuators

In the precision measurement industry, accurate calibration of measuring instruments is required. Particularly when nanometer-level precision is demanded, even slight misalignments in positioning can significantly affect measurement results. The P-841 achieves high-precision positioning with sub-nanometer resolution and a maximum stroke of 90µm, supporting the accurate calibration of measuring instruments. 【Application Scenarios】 - Calibration of precision measuring instruments - Position adjustment of optical elements - Nanotechnology research 【Benefits of Implementation】 - Achievement of high-precision measurement results - Improvement of measuring instrument performance - Increased efficiency in research and development