PI Japan Product Lineup

The X-365 is a modular XY gantry system equipped with a high-performance coreless linear motor. Its design reduces thermal effects, ensuring stable operation, and the absolute encoder with nanometer resolution guarantees high reproducibility. With its highly customizable configuration, it can accommodate a wide range of applications, including laser processing and inspection processes.

• Mechanical Design

In optical field adjustment work, precise positioning of the optical axis is a crucial factor that influences the performance of the system. Particularly in fiber alignment and the arrangement of optical elements, accurate adjustments at the sub-micron level are required. Conventional stages often have limited degrees of freedom for adjustment, making high-precision positioning difficult. The NanoCube 6-axis piezo system P-616.65S addresses these challenges with its six degrees of nano control. 【Application Scenarios】 - Fiber alignment - Position adjustment of optical elements - Precision instruments such as microscopes 【Benefits of Implementation】 - Enables fine positioning at the nanometer level - Achieves stable adjustments with high rigidity and low crosstalk - Reduces maintenance costs through long-term stable operation

• Other optical parts

In the field of research and development, particularly in interferometry and precision optical experiments, the control of minute optical phase shifts significantly affects the accuracy of experimental results. Even slight differences in displacement can impact measurement precision and analysis outcomes. The S-312 optical phase shifter is an open-loop piezo Z-stage designed for interferometer applications and optical phase control purposes. Its piezo-flexure structure enables smooth and high-resolution control of minute displacements, supporting precise phase adjustments. Due to its compact design, it is also suitable for integration into research equipment and optical systems. 【Usage Scenarios】 - Interferometer experiments - Optical phase shift control - Holography experiments - Precision optical measurements - Optical research involving nanopositioning 【Benefits of Implementation】 - Stable phase adjustments through minute displacement control - Achieving highly reproducible optical experiments - Improved device integration due to compact design - Flexible experimental configurations for research purposes

• Other optical parts
• Optical Measuring Instruments

In precision optical systems and interferometer applications, the control of minute optical phase shifts significantly impacts measurement accuracy and analysis results. Even slight displacement differences can affect the stability of interference fringes and measurement outcomes. The S-312 optical phase shifter is an open-loop piezo Z-stage designed for interferometers and precision optical applications. Its flexure guide structure enables smooth operation without backlash, supporting stable phase adjustments through fine displacement control. Its compact design makes it suitable for integration into optical benches and devices. 【Application Scenarios】 - Interferometer experiments - Optical phase shift control - Holography/wavefront control experiments - Precision optical alignment 【Benefits of Implementation】 - Stable phase adjustments through fine displacement control - Highly reproducible optical measurements - Improved device integration capability

• Other optical parts
• Optical Measuring Instruments

In the field of research and development, precise positioning of samples, optical elements, and sensors greatly affects experimental results. There are many cases where slight positional variations impact data accuracy, such as in the observation of fine structures or high-resolution measurements. The B-421 BIX miniature linear stage achieves high-resolution position control through piezoelectric drive, despite its ultra-compact design. It is easy to integrate into limited experimental spaces and is a suitable solution for precise positioning in research applications. It supports a maximum stroke of 33mm and can accommodate flexible experimental configurations and expansion into multi-axis systems. 【Application Scenes】 - Microscopic observation - Microfabrication experiments - Material property evaluation - Optical experiments / Laser experiments - Sensor evaluation tests 【Benefits of Implementation】 - Stable data acquisition through high-resolution position control - Contribution to space-saving of experimental equipment - High reproducibility in positioning - Flexible experimental design through multi-axis configuration

• Other machine elements

In optical systems, the positioning of lenses, mirrors, and optical elements greatly affects performance. Even slight misalignments can lead to image distortion or reduced measurement accuracy. The B-421 BIX miniature linear stage achieves high-resolution position control through piezoelectric drive, despite its ultra-compact design. It is easy to integrate into limited spaces and is suitable for precise optical alignment applications. It supports a maximum stroke of 33mm, addressing a wide range of optical adjustment needs from research and development to equipment integration. 【Application Scenes】 - Adjustment of microscope objective lenses - Focus adjustment for laser processing machines - Optical fiber alignment - Precision positioning for interferometers and measurement devices 【Benefits of Implementation】 - Stable alignment through high-resolution position control - Contribution to space-saving design of equipment - Achieving highly reproducible optical adjustments

• Other machine elements

In semiconductor manufacturing processes, high precision and reproducibility are required for the positioning of wafers and masks. Particularly in fine processing and inspection processes, positioning accuracy directly affects product quality and yield. The B-421 BIX miniature linear stage achieves high-resolution positioning through piezoelectric drive, despite its ultra-compact design. It is easy to integrate even in limited equipment space and is suitable for semiconductor devices that require precise position control. It supports a maximum stroke of 33mm, providing a compact and high-performance positioning solution. 【Application Scenes】 - Wafer probing equipment - Mask alignment equipment - Semiconductor inspection equipment - Precision assembly equipment 【Benefits of Implementation】 - Stable process control through high-resolution positioning - Contribution to space-saving of equipment - Improved process stability through high-precision control

• Other machine elements

In the field of biotechnology, particularly in cell observation, high-precision positioning is essential. To observe the fine structures of cells, accurate position control at the nanometer level is required. Conventional stages have sometimes hindered precise observation due to vibrations and drift. The N-332 piezo linear stage achieves high-precision positioning unaffected by stick-slip friction through the PICMAWalk drive, enhancing the quality of cell observation. 【Application Scenarios】 - Cell culture - Microscopic observation - Cell manipulation 【Effects of Implementation】 - Accurate positioning with nanometer resolution - Improved stability through a self-locking mechanism - Flexible response with multi-axis setup

• Other machine elements
• Actuator
• Piezoelectric Devices

In the field of nanotechnology, high-precision positioning at the sub-nanometer level is required for atomic and molecular manipulation and fine structure processing. At the same time, high generating force and rigidity are essential for stably holding measurement probes and workpieces. The N-332 Linear Stage is a piezo linear stage that achieves high generating force, long stroke, and sub-nanometer resolution in a high-dimensional manner through the Piezowalk drive system. It minimizes errors caused by thermal effects and vibrations, which are challenges with conventional stages, enabling stable high-precision positioning. It is ideal for applications that require extreme precision, starting with nanotechnology research. 【Application Scenarios】 - Scanning Probe Microscopy (SPM) - Nanoimprinting - Optical system adjustments 【Benefits of Implementation】 - High-precision positioning at the nanometer level - Stable operation and high reliability - Compatibility with diverse applications - Improved work efficiency

• Other machine elements
• Actuator
• Piezoelectric Devices

In optical microscopy, high magnification observation and wide-range scanning require positioning accuracy at the nano to sub-nanometer level and high stability. Particularly for long-term observation and high-resolution imaging, a high-rigidity stage that minimizes the effects of vibration and drift is essential. The N-332 addresses these challenges with its PICMAWalk drive. It is a piezo linear stage that achieves high output, long stroke, and sub-nanometer resolution in a high-dimensional manner. It enhances stability during microscopic observation and is ideal for optical microscope systems that require high-precision sample positioning and automatic scanning. 【Application Scenes】 - High-precision scanning in optical microscopy - Sample positioning in high magnification observation - Confocal microscope systems - Precise alignment of biological samples 【Benefits of Implementation】 - Compatible with vacuum applications - High-precision positioning with sub-nanometer resolution - Stable sample holding due to high output - Combination of long stroke scanning and high precision - Self-locking when power is off - High reproducibility and long-term stability

• Other machine elements
• Actuator
• Piezoelectric Devices

The H-850 Hexapod is a 6-degree-of-freedom parallel kinematics positioning system designed for astronomical research applications. It features high reproducibility of ±0.2µm and is equipped with absolute encoders, enabling high-precision position control without the need for homing. Its wide range of movement and rotation makes it suitable for integration into the precise alignment of telescope optical systems and detectors. Please refer to the catalog for detailed specifications. 【Usage Scenarios】 - Optical alignment of astronomical telescopes - Precision testing within vacuum chambers - Ground evaluation tests of satellite-mounted equipment 【Benefits of Implementation】 - High-precision optical adjustments with ±0.2µm reproducibility - Complex attitude control through simultaneous 6-axis control - Immediate operation with absolute encoders - Capability to accommodate large optical systems with a wide range of motion

• Actuator
• Other industrial robots
• encoder

In the field of research and development, experimental platforms require precise positioning and stable operation. This is especially important for experiments that require fine adjustments or when handling heavy samples, where high accuracy, rigidity, and immediate acquisition of positional information are crucial. The H-850 has been developed to meet these demands. 【Application Scenarios】 - Optical experiments - Material testing - Precision measurement 【Benefits of Implementation】 - Improved experimental accuracy through high-precision positioning - Reduced positioning time with absolute encoders - Capability to accommodate a wide range of experiments with a maximum load capacity of 250 kg

• Actuator
• Other industrial robots
• encoder

In the movement of parts in the manufacturing industry, accurate positioning and stable operation significantly affect production efficiency and quality. Especially in the case of heavy components or precise assembly processes, micron-level accuracy is required. Misalignment and vibrations can lead to the occurrence of defective products and delays in the process. The H-850 addresses these challenges with a maximum load capacity of 250 kg and a repeatability of ±0.2µm. By incorporating an absolute encoder, it reduces the positioning time at startup, contributing to increased productivity. 【Usage Scenarios】 - Alignment of heavy components - Supply of parts to robots - Positioning of parts in testing equipment 【Benefits of Implementation】 - Improved quality through high-precision positioning - Increased productivity through fast and stable operation - Reduced startup time with the absolute encoder

• Actuator
• Other industrial robots
• encoder

The H-825 Hexapod is a 6-degree-of-freedom parallel kinematics stage designed for research and experimental applications. With a reproducibility of ±0.1µm (Z-axis) and a high-rigidity structure, it is suitable for optical experiments and precision measurements where even minor positional errors are unacceptable. It achieves stable positioning under high load conditions with a maximum load capacity of 30kg and brushless DC gear motor drive. It is ideal for high-precision alignment and sample position control applications. Please refer to the catalog for detailed specifications. 【Application Scenes】 - Optical experiments / Laser alignment - Precision measurement and evaluation equipment - Semiconductor research and development - Sample stage / Optical system adjustment 【Benefits of Implementation】 - High-precision alignment through simultaneous control of 6 axes - Vibration suppression and stability improvement due to high-rigidity design - Immediate operation with built-in absolute encoder that requires no initialization

• Actuator
• Other industrial robots
• encoder

The H-825 Hexapod is a 6-degree-of-freedom parallel kinematics stage suitable for integration into manufacturing equipment and high-precision alignment applications. With a reproducibility of ±0.1µm (Z-axis) and a high-rigidity structure, it achieves stable precision positioning even with heavy workpieces. With a maximum load capacity of 30kg and brushless DC gear motor drive, it supports high-precision adjustment processes in production lines and inspection equipment. Please refer to the catalog for detailed specifications. 【Application Scenarios】 - High-precision alignment in semiconductor equipment - 6-axis position adjustment of optical components - Integration into inspection and measurement equipment - Precision assembly processes 【Benefits of Implementation】 - High-precision alignment through simultaneous 6-axis control - Vibration suppression and stable operation due to high-rigidity design - No initialization required with built-in absolute encoder for immediate operation - Capable of handling large workpieces with a 30kg load capacity

• Actuator
• Other industrial robots
• encoder

In experimental research fields, precise positioning is essential. Particularly when conducting fine and high-precision measurements, the accuracy of positioning significantly affects the experimental results. Low positioning accuracy can lead to inaccurate data and may compromise the reproducibility of the experiments. The Parallel Kinematic Hexapod H-811.I2 enhances the quality of research experiments through its high precision, rigidity, and flexible pivot point settings. 【Usage Scenarios】 - Optical alignment - Automation - Quality assurance testing - Use in testing equipment 【Benefits of Implementation】 - Improved experimental accuracy through high-precision positioning - Achievement of highly reproducible experimental results - Adaptability to various experiments

• Actuator
• Other industrial robots
• encoder

In positioning tasks within the manufacturing industry, high precision and reliability are required. Particularly in the precise assembly and inspection processes that influence product quality, fine and accurate positioning is essential. Traditional single-axis positioning systems have faced challenges due to the time and effort required for complex multi-axis adjustments. The Parallel Kinematic Hexapod H-811.I2 addresses these issues with its design featuring six degrees of freedom. Additionally, its compact design is a significant advantage due to its small footprint. 【Application Scenarios】 - Assembly of precision components - Positioning in inspection equipment - Fiber optic alignment - Automation systems 【Benefits of Implementation】 - Improved product quality through high-precision positioning - Reduced work time and increased efficiency - Adaptability to diverse applications - Stable operation due to high reliability

• Actuator
• Other industrial robots
• encoder

In the field of biotechnology, particularly in cell manipulation and live cell observation, even slight positional shifts of samples can significantly impact the results. To achieve smooth and high-precision positioning while minimizing damage to cells, sub-nanometer resolution and high reproducibility are essential. This product offers high resolution below 1nm and bidirectional reproducibility of ±0.2nm, ensuring high reliability and efficiency in cell manipulation. 【Application Scenarios】 - Biosensor evaluation - Integration into microfluidic devices 【Benefits of Implementation】 - Improved reproducibility of experiments - Enhanced research efficiency - For detailed product specifications, please refer to the catalog.

• Other machine elements
• Piezoelectric Devices
• Cartesian Robot

In the field of microscopy, it is essential to scan the observation target with high precision to obtain clear images. Particularly in the observation of fine structures and biological samples such as cells, the accuracy of positioning significantly influences the observation results. Low positioning accuracy can lead to a lack of focus, making accurate observation difficult. A compact XY-axis piezo stage achieves high-precision scanning with a resolution of less than 1nm and bidirectional reproducibility of ±0.2nm. 【Application Scenarios】 - Scanning samples in microscopic observation - Fine adjustments during high magnification observation - Cell imaging 【Benefits of Implementation】 - Clear image acquisition through high-precision positioning - Reduction of observation time - Improvement of experimental reproducibility

• Other machine elements
• Piezoelectric Devices
• Cartesian Robot

In semiconductor manufacturing, precise and stable positioning of wafers and masks is required. Nanometer-level positioning accuracy affects product quality. Positioning errors can lead to reduced yield and product defects. The P-620.2 to P-629.2 PIHera® series is an XY-axis piezo nano-positioning stage that employs long-life PICMA® actuators. With closed-loop control using capacitive sensors, it achieves excellent linearity and stability, providing high resolution below 1nm and bidirectional reproducibility of ±0.2nm. 【Application Scenarios】 - Semiconductor manufacturing equipment - Wafer inspection - Mask alignment - Probing 【Benefits of Implementation】 - Improved yield through high-precision positioning - Increased productivity due to stable operation - Ease of integration into equipment due to compact housing - Enhanced maintainability with long-life actuators

• Other machine elements
• Piezoelectric Devices
• Cartesian Robot

In the calibration work of the measurement equipment industry, the accuracy and reproducibility of measurement results are crucial. Particularly in the calibration of rotational angles, the rotation precision and stability of the stage directly affect the measurement results. The air bearing rotary stage PIglide A-62x achieves low wobble and smooth rotational motion through frictionless non-contact rotation, supporting high-precision angle calibration. 【Application Scenarios】 - Calibration of angle measuring instruments - Calibration of rotational angle sensors - Adjustment of optical systems 【Benefits of Implementation】 - Realization of high-precision calibration work - Improvement in the reliability of measurement results - Enhancement of work efficiency

• Other machine elements
• Other industrial robots
• encoder

In the optical industry, precise positioning of optical elements such as lenses and mirrors is a crucial factor that affects system performance. Particularly in high-precision optical inspection and alignment, even slight deviations in angle or position can significantly impact measurement results. The air-bearing rotary stage PIglideA-62x high-precision model achieves minimal wobble and eccentricity through frictionless, non-contact rotation, realizing flatness and eccentricity of less than 200nm. This enables precise positioning of optical elements and supports high-precision optical inspection and alignment. 【Usage Scenarios】 - Angle adjustment of optical lenses and mirrors - Precise alignment of optical elements - Construction of optical inspection systems 【Benefits of Implementation】 - Enables precise positioning at the nanometer level - Achieves high-precision optical measurements - Contributes to improved system performance

• Other machine elements
• Other industrial robots
• encoder

In the semiconductor manufacturing industry, high-precision positioning is a crucial factor that affects yield and product quality. Particularly in wafer inspection and exposure processes, accurate positioning at the nanometer level is required. Conventional rotary stages can cause minor vibrations and eccentricities due to friction, which may lead to a decline in quality. The PIglide A-62x series addresses these challenges with its frictionless air bearing technology. 【Application Scenarios】 - Wafer inspection - Exposure equipment - Precision measurement 【Benefits of Implementation】 - Improved yield through high-precision positioning - Stabilization of product quality - Increased productivity

• Other machine elements
• Other industrial robots
• encoder

The L-511 high-precision linear stage is designed for use in a wide range of industries. - It achieves sub-micron reproducibility of up to ±0.15 µm, making it ideal for tasks that require high precision, such as laser cutting and optical alignment. - With a circulating ball bearing guide and a maximum stroke of 155mm, it ensures stability and strength. - The stress-relieving aluminum base provides mechanical stability even in harsh environments, minimizing drift. - Multiple configurations of motors and encoders are available, accommodating a wide range of applications in automation, research and development, and biotechnology.

• Actuator

In the field of precision measurement, high-accuracy positioning is essential. Particularly in the measurement and inspection of fine structures, even slight vibrations or errors can significantly impact the measurement results. The A-143 PIglide, with its non-contact structure, eliminates the need for wear and lubrication, achieving long life and compatibility with clean rooms, making it ideal for measurement applications that require nanometer-level precision. 【Application Scenarios】 - Precision measurement instruments - Inspection devices - Optical equipment 【Benefits of Implementation】 - Achievement of high-accuracy measurement results - Establishment of a stable measurement environment - Reduction of long-term operational costs

• Other machine elements
• Cartesian Robot
• encoder

In the semiconductor manufacturing industry, precise positioning of wafers and masks is a crucial factor that affects product quality and yield. Particularly in fine processing and inspection processes, nanometer-level accuracy is required. Low positioning accuracy can lead to the occurrence of defective products and a decrease in production efficiency. The A-143 high-precision linear air bearing stage, with its non-contact structure, eliminates the need for wear and lubrication, achieving long life and compatibility with clean rooms, thus meeting the high-precision positioning needs in semiconductor manufacturing. 【Usage Scenarios】 - Semiconductor manufacturing equipment - Inspection equipment - Measurement instruments 【Benefits of Implementation】 - Improved quality through high-precision positioning - Extended lifespan due to non-contact structure - High reliability through clean room compatibility

• Other machine elements
• Cartesian Robot
• encoder

In the FPD manufacturing industry, high-precision positioning is required in the inspection process. Particularly in the detection of fine defects and dimensional measurements, accurate positioning is essential to suppress the occurrence of defective products and improve yield. Using a stage with low positional accuracy can compromise the reliability of inspection results and make accurate evaluation difficult. The A-143 PIglide contributes to the improvement of FPD inspection quality with its high-precision positioning of ±0.2 µm. 【Application Scenarios】 - FPD defect inspection - Dimensional measurement - Alignment 【Benefits of Implementation】 - Improved inspection accuracy - Reduced defect rate - Increased productivity

• Other machine elements
• Cartesian Robot
• encoder

In the laser processing industry, the positioning accuracy of the workpiece is crucial for achieving high-quality cutting. Particularly in cases where fine processing and high-precision cutting are required, positioning errors directly affect the quality of the product. The A-143 compact linear air bearing stage significantly enhances positioning accuracy in laser processing with a positioning precision of ±0.2 µm, enabling high-quality cutting. 【Application Scenes】 - Laser cutters - Laser marking 【Effects of Implementation】 - Improved product quality through high-precision cutting - Increased yield - Reduced processing time

• Other machine elements
• Cartesian Robot
• encoder

In the optical equipment industry, precise adjustments of components such as lenses and mirrors are crucial factors that influence product performance. Particularly in situations that require fine positional adjustments, a high-precision staging system is essential. If the adjustment accuracy is low, it can lead to a decline in the performance of the optical system, potentially adversely affecting the quality of the final product. The A-143 PIglide positions with nanometer-level accuracy, streamlining the adjustment tasks for optical equipment. 【Application Scenarios】 - Position adjustment of optical lenses - Calibration of precision measuring instruments - Fiber optic alignment 【Benefits of Implementation】 - Achieving high-precision adjustment tasks - Reducing work time - Improving product quality

• Other machine elements
• Cartesian Robot
• encoder

In the robotics industry, precise positioning and smooth operation are crucial for the performance of robotic arms and precision equipment. Particularly in situations where high-speed and accurate positioning is required, errors due to friction and backlash are unacceptable. The PIglide A-121 was developed to address these challenges. 【Application Scenarios】 - Positioning of robotic arms - Precision assembly processes - Inspection equipment 【Benefits of Implementation】 - Improved work efficiency through high-precision positioning - Increased longevity due to a non-contact structure - Reduced maintenance costs

• Other machine elements
• Cartesian Robot
• encoder

In the optical industry, the alignment process requires the ultra-precise positioning of optical components such as lenses and mirrors. In particular, misalignment of the optical axis significantly affects system performance, making high-precision positioning essential. Traditional stages that rely on friction are influenced by friction during small movements, making accurate positioning difficult. The PIglide A-121 eliminates friction and backlash, achieving positioning with nanometer-level precision, thus addressing the challenges of optical alignment. 【Application Scenes】 - Alignment of optical lenses - Fiber alignment - Manufacturing of optical fiber devices 【Benefits of Implementation】 - Improved optical performance through high-precision alignment - Increased yield - Enhanced productivity

• Other machine elements
• Cartesian Robot
• encoder

In the semiconductor manufacturing industry, high-precision positioning is a crucial factor that affects product quality and yield. Particularly in microfabrication and inspection processes, accurate positioning at the nanometer level is required. Conventional stages that involve friction have faced challenges with precision degradation due to wear and backlash. The PIglide A-121 combines magnetic direct drive and air bearing technology to address these issues. 【Application Scenarios】 - Semiconductor inspection equipment - Precision measurement devices - Microfabrication 【Benefits of Implementation】 - Improved quality through high-precision positioning - Extended lifespan due to non-contact structure - Reduced maintenance costs

• Other machine elements
• Cartesian Robot
• encoder

In measurements, testing, and inspections, accurate precision is required. Reducing errors and precise positioning are essential. The Direct Drive High-Precision Rotary Stage V-62x series supports accurate calibration work with less than 1µm of eccentricity and flatness. 【Application Scenarios】 - Optical measurement and inspection - Precision inspection of semiconductors and electronic components - Calibration of sensors and measuring instruments 【Benefits of Implementation】 - Reduction of measurement errors and improvement of reproducibility - High-precision and stable angular positioning - Enhanced measurement reliability through long-term stable operation

• Actuator
• Other industrial robots
• encoder

In the semiconductor manufacturing industry, precise positioning of wafers and masks is a crucial factor that affects product quality and yield. Particularly with advancements in microfabrication technology, there is a demand for higher precision and stability. Low positioning accuracy can lead to processing defects and a decline in device performance. The Direct Drive High-Precision Rotary Stage V-62x series achieves excellent rotational accuracy and minimal tilt error, enabling advanced alignment and rotation control. 【Application Scenarios】 - Wafer probing - Mask alignment - Laser processing - Inspection equipment 【Benefits of Implementation】 - Improved yield through high-precision positioning - Increased productivity through high-speed, high-precision operation - Compatibility with a wide range of fields

• Actuator
• Other industrial robots
• encoder

In the laser processing industry, high precision positioning and stable operation are required. Particularly in fine processing and precise pattern formation, misalignment and vibrations significantly affect processing accuracy. The Direct Drive High Precision Rotary Stage V-62x series contributes to improving the accuracy of laser processing with eccentricity and flatness of less than 1µm. 【Application Scenarios】 - Angle-dependent fine pattern processing - Prototype processing of optical and precision components - Development of laser processing processes and condition verification 【Effects of Implementation】 - Improvement in processing accuracy and quality - Enhanced reproducibility of fine processing - Increased reliability of processing processes

• Actuator
• Other industrial robots
• encoder

In laser microprocessing, even slight positional shifts or posture errors can significantly affect processing quality. The H-815 hexapod maintains optimal conditions for processing points, focal positions, and workpiece posture through sub-micron precision positioning and high reproducibility achieved by simultaneous control of six axes. This ensures stable processing quality. 【Application Scenarios】 - Reduction of processing variation - Integration into semiconductor manufacturing equipment - High-precision inspection processes 【Benefits of Implementation】 - Stabilization of manufacturing processes - Improved reproducibility of fine patterns - Stable operation 24 hours a day, 365 days a year

• Testing Equipment and Devices

In the optical components industry, precise and demanding positioning is a crucial factor that influences quality. Our H-815 industrial hexapod achieves high-precision positioning, contributing to the improvement of product quality. 【Application Scenarios】 - Addressing demanding alignment processes in photonics - Alignment of extremely small components such as lenses and other optical parts 【Benefits of Implementation】 - Increased productivity in complex manufacturing and measurement processes - Alignment of small components - Long-life design capable of handling high-load cycles

• Testing Equipment and Devices

In the manufacturing industry, there is a demand for improvements in quality and production efficiency. Particularly in the assembly and inspection processes of precision components, the accuracy of positioning is crucial for determining product quality. If the positioning accuracy is low, it can lead to the occurrence of defective products and an increase in assembly time. The Parallel Kinematic Hexapod H-811 addresses these challenges with its high-precision positioning performance. [Application Scenarios] - Improving productivity in complex manufacturing processes and measurement procedures [Benefits of Implementation] - Compact installation area - Increased productivity

• Actuator
• Other industrial robots
• encoder

The NanoCube P-616.65S is a multi-degree-of-freedom piezo stage that achieves 6-axis nanopositioning, including linear movement in the X, Y, and Z directions, as well as rotation in θX, θY, and θZ. Thanks to its parallel kinematics and flexure guide structure, it provides high rigidity, low crosstalk, and high dynamic performance that cannot be achieved with conventional stages. With a movement range of ±250 µm and a rotation range of ±26.2 mrad, it enables fine positioning at the nanometer level. It excels in environments requiring sub-micron precision, such as photonics and fiber alignment.

• Other optical parts

In research, high reproducibility and reliability are required even under limited conditions. For over 50 years, PI has provided positioning solutions that achieve both nanometer-level high precision and long-term stability. They can be smoothly integrated into existing research facilities and are compatible with major software such as LabVIEW, MATLAB, and Python. They enable precise and stable operation even in harsh environments, such as microscopy inspection, photonics, and quantum research. They can also flexibly respond to short-term projects and urgent needs. Please check the detailed page for PI's latest technologies that support precision research.

• Other inspection equipment and devices

- Precision nanopositioning stage designed for optical phase shifting in advanced interferometer applications. - Thin-stage - Achieves Z motion with tilt error correction through a tripod piezo-driven design. - Custom model support (e.g., closed-loop)

• Other optical parts
• Optical Measuring Instruments

A robust and highly precise hexapod designed for industrial applications, based on the premise of operating 24 hours a day, 365 days a year. Despite its compact design, it offers high durability and achieves reliable positioning even in harsh environments.

• Testing Equipment and Devices

The C-887.52X is equipped with a 32-bit PID controller optimized for hexapod control, allowing for 6 degrees of freedom positioning with a single command. It supports various communications such as EtherCAT, USB, and RS-232, and is also equipped with analog/digital I/O and BNC connectors. LabVIEW, Windows DLL, and Linux drivers are provided, enabling flexible control according to the development environment. It also features reference switches and stall detection functions, ensuring safety considerations are taken into account.

• controller
• Servo
• Amplifier

The H-850 is a high-rigidity hexapod boasting a maximum load capacity of 250 kg, capable of extensive movement with ±50 mm (XY) / ±25 mm (Z) and ±30° range of motion. Its reproducibility is highly precise, with a Z-axis accuracy of ±0.2 µm and a rotational axis accuracy of ±7.5 µrad. Smooth operation is achieved through a brushless DC gear motor, and immediate position acquisition is facilitated by an absolute encoder, allowing for fast and stable control. The structure employs a parallel kinematic design, making it ideal for robotics, heavy object alignment, and testing equipment.

• Actuator
• Other industrial robots
• encoder

The H-840 is a high-precision hexapod that employs a Stewart platform structure and is driven in parallel by six actuators. It achieves flexible motion with a Z-axis range of ±25mm, X/Y direction of ±50mm, and rotation of ±30°, enabling advanced position control for applications such as optical alignment and micromanipulation. It can accommodate loads of up to 30kg and features a position repeatability of ±0.1µm along with high control accuracy.

• Actuator
• Other industrial robots
• encoder