About PI: PI Group is a leader in precision motion technologies, offering innovative and customer-specific solutions across various industries with a global presence.
Piezo Positioning Systems: Designed for nano-precision positioning, these systems are crucial for applications requiring high precision, such as microscopy. They include piezo scanners, amplifiers, and controllers.
Nanometrology and Technology: This section covers piezo technology fundamentals, emphasizing guiding and preload technology for precise motion control.
Hexapod and SpaceFAB Systems: Utilizing parallel kinematics for six-axis motion, these systems offer advanced control and precision for various applications.
Motorized Positioning Systems: Explores motorized systems like precision linear, XY, and rotary stages, and the role of motion controllers in enhancing performance.
Patents and Innovations: PI holds numerous patents in nanopositioning and piezoelectric drive systems, reflecting its commitment to innovation and quality.
Global Presence and Customer Focus: PI ensures local support and service through its global network, emphasizing long-term customer relationships and customized solutions.
Applications and Markets: PI's technologies are applied in fields like semiconductor technology, medical imaging, and biotechnology, adaptable for extreme conditions.
Industrial Automation: PI systems integrate seamlessly into automated production lines, suitable for precision alignment tasks.
Astronomy and Aerospace Research: PI's hexapods and piezo-driven mirrors are used in astronomy and space exploration, including the Mars rover Curiosity.
PI Ceramic Piezo Technology: PI Ceramic offers a wide range of piezo actuators and sensors for various applications.
PI miCos Motion Control: Specializes in high-precision positioning systems for research and industrial applications.
Technology and Customer Solutions: PI emphasizes customer-specific product development, providing comprehensive systems with necessary components.
Product Highlights: PI's piezo systems are known for precision, reliability, and dynamic performance, suitable for high-accuracy applications.
Specifications: Detailed specifications for piezo positioning systems, including models, dimensions, travel ranges, and performance metrics.
Procedures and Applications: Outlines applications of piezo amplifiers and controllers in nanopositioning systems, emphasizing high precision and dynamic applications.
Standards and Recommendations: Recommendations for improved accuracy and performance, including linearization algorithms and real-time operation systems.
Key Features and Options: Highlights features like high dynamics, low power consumption, and extensive software support for piezo controllers.
Sensor Technology: Describes the use of capacitive and incremental sensors for noncontact distance measurement in nanopositioning systems.
Conclusion: Piezo actuators and controllers are essential for high-precision nanopositioning applications, with comprehensive specifications and recommendations for effective use.
Overview: Comprehensive overview of nanopositioning systems utilizing piezomotors and flexure guides, highlighting precision, dynamics, and applications.
Specifications and Features: Nanometer-precise positioning with high dynamics and stability, suitable for various environments.
Piezomotor Technologies: Used for travel ranges over 1 mm, offering high stiffness and nanometer resolution.
Flexure Guides: Provide excellent guiding accuracy with sub-nanometer precision, suitable for vacuum environments.
Parallel Kinematics: Optimize motion in multiple axes, offering compact construction and improved dynamic performance.
Tip/Tilt Systems: Offer high linearity and compact design, suitable for dynamic operations.
Use in Special Conditions: Suitable for vacuum environments and strong magnetic fields, with models for low temperatures.
Sensor Technology: High-resolution sensors are crucial for nanopositioning, offering accuracies in the nanometer range.
Introduction: Discusses advanced nanopositioning systems, focusing on PIOne linear encoders and piezo positioning systems.
PIOne Linear Encoders: Achieve resolutions of 20 picometers RMS, suitable for nanopositioning systems.
Strain Gauge Sensors: Used for indirect position measurement, providing good thermal stability.
Direct Parallel Metrology: Involves multi-axis measurements for real-time correction of motion crosstalk.
Precision Motion Control: Offers high linearity, sub-nanometer accuracy, and low power consumption.
Closed-Loop vs. Open-Loop Control: Closed-loop systems offer higher linearity and repeatability.
Digital Controllers: Offer improved linearity and dynamic performance through digital algorithms.
Software and Integration: Comprehensive software packages support various operating systems and custom applications.
Conclusion: Highlights the capabilities and applications of PI's nanopositioning systems, emphasizing precision and flexibility.
Universal Command Set for Motion Control: Simplifies commissioning and programming with a General Command Set (GCS).
PIMikroMove Software: Provides a graphical user interface for digital controllers and positioning systems.
System Optimization: Offers tools for optimizing system response and stability.
Integration with Third-Party Software: Supports integration with LabVIEW, MATLAB, and other software environments.
Service and Support: PI systems come with necessary components for operation, prioritizing long-term availability.
Glossary of Technical Terms: Explains technical terms related to amplifiers, sensors, and positioning systems.
Piezo Drives and Motors: Offers a range of piezomotor technologies with features like self-locking and scalable travel ranges.
Operating Principle: NEXLINE® and NEXACT® drives utilize piezo actuators for stepping motion.
Stepping Motion Sequence: PiezoWalk® drives use paired piezo actuators for clamping and feeding.
Self-Locking and Reliability: Piezomotors are self-locking when at rest, enhancing reliability.
Applications and Compatibility: Suitable for vacuum and strong magnetic fields, with special versions for clean rooms.
PILine® Ultrasonic Piezomotors: Offer compact, fast, and self-locking solutions with high dynamic properties.
PIShift Piezo Inertia Drives: Cost-efficient and compact, offering high holding forces and unlimited travel ranges.
Piezo Actuators: Offer high precision and force generation for dynamic applications.
Lever-Mechanism Design: Discusses the design of piezo actuators that function like mechanical levers.
Preloaded and Cased Actuators: Piezoceramic actuators need protection from pulling and shearing stress.
Flexure Guides: Ensure precise straight motions, are frictionless, and allow hysteresis-free motion.
PiezoMove® OEM Flexure Actuators: Offer guided motion with long travel ranges and precision.
Integration Levels: Describes the transformation of
actuator travel range into straight motion using lever mechanisms.
PICMA® Actuators: Used in various applications, including the Mars Rover Curiosity.
Flexible Adjustment: PI Ceramic offers quick and flexible adjustments of piezo technology products.
Longitudinal Piezo Actuators: Offer high stiffness, sub-millisecond response time, and sub-nanometer resolution.
PICMA® Bender Multilayer Actuators: Ideal for dosing, pumping, and optical applications.
Unguided Piezo Actuators: Various designs are available for different applications.
Fundamentals of Piezo Technology: Explains the basic principles of piezoelectricity.
Overview of Piezoelectric Ceramics and Actuators: Discusses the basic principles of piezoelectricity and actuator materials.
1. Basic Principles of Piezoelectricity: Piezoceramic materials exhibit piezoelectric properties tailored for different applications.
2. Actuator Materials from PI Ceramic: Various PZT-based materials are used for different actuator applications.
3. Longitudinal Stack Actuators: Convert electrical energy to mechanical energy efficiently.
4. Shear Actuators: Utilize the largest piezoelectric coefficients for applications like stick-slip motors.
5. Tube Actuators: Use the transversal piezoelectric effect for radial and axial displacements.
6. Contracting Actuators: Achieve displacement perpendicular to the polarization direction.
7. Bending Actuators: Convert small transversal changes into large bending displacements.
Conclusion: PI Ceramic offers a wide range of piezoelectric materials and actuators tailored for specific applications.
Overview: Provides a comprehensive overview of the manufacturing processes, technologies, and properties of piezoelectric actuators.
Manufacturing Processes: Outlines the step-by-step manufacturing process of piezo actuators.
Multilayer Tape Technology: PICMA® actuators are manufactured using multilayer tape technology.
Pressing Technology: PICA stack actuators are produced using pressing technology.
Properties of Piezoelectric Actuators: Discusses the displacement behavior, nonlinearity, hysteresis, and temperature-dependent behavior.
Displacement Behavior: Piezo actuators exhibit nonlinear displacement curves with hysteresis.
Temperature-Dependent Behavior: Performance is affected by temperature, with displacement decreasing at cryogenic temperatures.
Conclusion: Provides detailed insights into the manufacturing and operational characteristics of piezoelectric actuators.
Temperature Effects on Actuators: Discusses the temperature expansion coefficient and operating range of actuators.
Temperature Operating Range: Standard glued actuators operate between -20 to 85°C, with extended ranges available.
Preload and Load Capacity: Piezoceramic actuators have low tensile strengths, necessitating mechanical preload.
Stiffness: Actuator stiffness is crucial for calculating force generation and system behavior.
Force Generation and Displacement: The actuator stiffness can be derived from the working graph.
Efficiency and Energy Balance: The efficiency of a piezo actuator system depends on various factors.
Resonant Frequency: Resonant frequencies apply when actuators are not clamped on both sides.
Dynamic Operation and Properties of Piezoelectric Actuators: Discusses dynamic properties influenced by effective mass and load.
Operating Voltage and Electrical Behavior: Piezo actuators operate at various voltages, behaving like capacitors below resonance.
Positioning Operation and Power Consumption: Power consumption increases with frequency and capacitance.
Driving Methods and Signal Shape: Piezo actuators can be driven with sine or triangular waveforms.
Environmental Considerations: Piezo actuators can operate in extreme conditions.
Applications and Limitations: Used in fast switching applications, with special considerations for operation in liquids.
Ambient Conditions and Lifetime of Piezoelectric Actuators: Discusses the impact of atmospheric humidity on actuator lifetime.
Accelerated Lifetime Testing: Used to test the reliability of PICMA® actuators under extreme conditions.
Dynamic Continuous Operation: Piezo actuators can endure high cycles-to-failure in cyclic load applications.
Design and Reliability: The patented design of PICMA® actuators reduces mechanical stress.
Piezo Electronics and Amplifiers: Require flexible drivers and controllers for precise positioning.
Charge Control: Offers a more linear displacement of piezo actuators compared to voltage control.
Handling and Installation: Piezo actuators require careful handling due to their brittle nature.
Cleaning and Handling Recommendations: Actuators should be cleaned with isopropanol or ethanol.
Mechanical Installation: Avoid torques and lateral forces by using appropriate structures or guides.
Preload Application: Preload can be applied externally or internally.
Load Application: Ensure even load distribution to avoid tensile stresses.
Electrical Connection: Piezo actuators are capacitors with high internal resistances.
Safe Operation: Reduce DC voltage during operation and avoid steep voltage rises.
Hexapod and SpaceFAB Systems: Offer six-axis positioning with high precision.
Product Highlights: Hexapod systems are ideal for precision applications.
Specifications: Outlines the specifications of Hexapod systems.
Controller Features: Highlights the C-887.11 controller for its powerful vector algorithms.
Digital Controller Versions: Two versions of the digital controller for 6-axis parallel kinematics are mentioned.
Interfaces and Software: Controllers support TCP/IP Ethernet, RS-232, and optional interfaces.
Accessories: Include control units, nanopositioning systems, and additional mounting platforms.
Technology and Advantages: Hexapods offer six degrees of freedom with a parallel-kinematic structure.
Motion Control and Software: Details advanced motion control capabilities.
Applications: Suitable for applications requiring precise trajectory control.
Overview: Provides a comprehensive overview of motion control software and motorized positioning systems.
Motion Control Software: Supports fast integration of PI controllers in third-party programming languages.
Hexapod-Specific Software: Provides tools for determining workspace limits and preventing collisions.
Motorized Positioning Systems: Details various motorized positioning systems, including linear
positioning stages.
Applications: Applicable in fields such as micro-processing and photonics production.
Overview: Provides detailed specifications and applications for various motorized positioning systems.
Specifications: Outlines specifications for different models, including repeatability and load capacity.
Highlights: Key features include covered mechanics for dust protection and high stiffness.
Applications: Used in various industrial applications, including wafer inspection and microscopy.
Motor Types and Controllers: Lists various motor types and recommended controllers.
Conclusion: Emphasizes the versatility and precision of the positioning systems.
Overview: Provides detailed specifications and applications for various motorized positioning systems.
Miniature Stages: Feature integrated optical encoders for direct position measurement.
Rotation Stages: Equipped with electric motors, offering unlimited rotation range.
Precision Rotation Stages: Feature backlash-compensated worm drives.
Ultraprecise Rotation Stages: Designed for high dynamics and positioning precision.
Goniometers and Tip/Tilt Stages: Provide smooth performance and uniform feed.
Motorized Precision Linear Actuators: Offer high-resolution drives for compact spaces.
Cost-Efficient Linear Actuators: Designed for cost-sensitive applications.
High-Load Actuators: Handle high loads with precision and reliability.
Compact Linear Actuators: Designed for the alignment of optomechanical components.
Overview: Provides detailed information on various motorized positioning systems.
Specifications: Specifies different types of motors and their controllers.
Controllers: Discusses various
motor controllers and digital controllers for piezomotors.
Motorized Positioning Systems: Discusses various motorized positioning systems, including linear drives and piezo drives.
Key Features and Technologies: Highlights the advantages of each system.
Applications and Use Cases: Outlines various applications for these systems.
Stepper Motor Drives: Stepper motors move in discrete steps, allowing precise positioning.
Hybrid Systems: Combine piezo actuators and electric motors for enhanced precision.
Drive Train Elements: Various components enhance torque, resolution, and efficiency.
Metrology: Metrology systems include absolute encoders for position feedback.
Guidings and Bearings: Different types of bearings offer varying levels of precision and load capacity.
Use in Vacuum: Stages can be adapted for vacuum use.
SMC Controller Technology: Ensures smooth motor operation with high position resolution.
Overview of SMC Controllers: Discusses SMC controllers used for precision positioning.
Precision Positioning: Highlights the precision of the PLS-85 linear stage.
Position Control: Positioning accuracy can be enhanced using position feedback control.
Velocity Control: Velocity is a critical parameter for positioning systems.
Position Error Correction: The SMC controller can correct errors by saving measured deviations.
Glossary: Includes a glossary explaining terms related to positioning systems.
Patents: Lists various patents related to the products discussed.
General Information: Issued by Physik Instrumente (PI) GmbH & Co. KG, with key management personnel listed.
Disclaimer: States that while the information has been compiled with care, errors may still exist.
Trademarks: Several trademarks are registered under Physik Instrumente (PI) GmbH & Co. KG.
Copyright: All content within the document is protected by copyright and other laws.