Compact Nanopositioning System Family with Long Travel Ranges

Similar documents
P-611.Z Piezo Z-Stage

PIHera Piezo Linear Precision Positioner

M-041 M-044 Tip/Tilt Stage

Miniature Nanopositioning Linear Stages

Piezo Z-Nanopositioning Flexure Stages. Nanometer Resolution, High Speed & Stability

P-810 P-830 Piezo Actuators

6-Axis Nanopositioning Systems

Fast Tip/Tilt Platform

PZ234E P-62x Positioning Systems. User Manual. Version: Date:

P-500 Series PZT Flexure Stages

Tip/Tilt & Z-Piezo Nanopositioning Stages. Optics Alignment, Beam Steering, Wavefront Sensing

Nanopositioning / Piezoelectrics

Q-Motion Miniature Linear Stage

P-736 PInano Z Microscope Scanner for Microtiter Plates

Piezo Steering Mirrors & Phase Shifters. For Photonics, Aerospace, Telecommunication, Medical

Q-Motion Miniature Linear Stage

PZ234E P-62x Positioning Systems. User Manual. Version: Date:

PIglide AT3 Linear Stage with Air Bearings

Microscope Stages, Tools for Imaging & Biomedical Design. Piezo Stages, Lens Positioners & Scanners, Steering Mirrors, Actuators

PL112 PL140 PICMA Bender

S-330 Tip/Tilt Platform

Contents: Movement & Positioning News M&P 23, 1997, Text Only Version

10 Things to Consider when Acquiring a Nanopositioning System

PIMag Precision Linear Stage

Fiber Optic Device Manufacturing

PICMA Stack Multilayer Piezo Actuators

High Power Piezo Driver

E-500 E-501 Modular Piezo Controller

E-500 E-501 Modular Piezo Controller

Automatic Testing of Photonics Components

M-227 DC-Mike Actuators

Why Nanopositioning is More than Just Nanometers or How to Find a State-of-the-Art System

PiezoMike Linear Actuator

Piezo Nano Positioning

nano Motion Technology ANT130XY Series Two-Axis XY Direct-Drive Nanopositioning Stages ANT130XY Series NANO Technology Introduction

PIRest Actuators ACTIVE SHIMS WITH LONG-TERM STABILITY AND NANOMETER RESOLUTION

PRECISION AND DYNAMICS WITH PIEZO MOTOR STAGES Q-MOTION PIEZOWALK CONSTANT VELOCITY PRECISION REPEATABILITY SUBNANOMETER

Magnetic Direct Drives and Air Bearing Technology PRECISION ENGINEERING AND MOTION CONTROL EXPERTISE

Synchronization Control Scheme for Hybrid Linear Actuator Based on One Common Position Sensor with Long Travel Range and Nanometer Resolution

Capacitive Position Sensors Nanometrology Solutions -2007

H-824 Hexapod Microrobots

PZ270E S-330 Tip/Tilt Platform. User Manual. Version: Date: This document describes the following products:

Fast Multi-Channel Photonics Alignment

Alignment for Optics & Silicon Photonics FAST MULTI-CHANNEL PHOTONIC ALIGNMENT SYSTEM

Alignment for Optics & Silicon Photonics

CATALOG Welcome to the world of SmarAct.

Piezo Nanopositioning Controllers. Analog Servo, Digital Interface Options

The New ID11 Nanoscope end-station A Nano-Tomography Scanner

Motion Solutions for Digital Pathology. White Paper

Motion Solutions for Digital Pathology

This is how PI Does Measuring - Part I

HexGen HEX HL Hexapod Six-DOF Positioning System

HexGen HEX HL Hexapod Six-DOF Positioning System

ATX115SL/SLE Series Mechanical-Bearing, Screw-Driven Linear Stage

QNPHDL Hardware Manual. Revision:

HexGen HEX HL Hexapod Six-DOF Positioning System

Nanomotion Tech Note 105 Using AC and DC Modes with Nanomotion AB2 Driver in Closed-Loop for Nanometer Level Positioning

Engineered Systems LEADING AUTOMATION SOLUTIONS FOR MOTION & POSITIONING

M-605 Linear Positioning Stages

Angle Encoder Modules

The Air Bearing Throughput Edge By Kevin McCarthy, Chief Technology Officer

E Charge-controlled amplifier module

queensgate a brand of Elektron Technology

Piezo Amplifiers and Controllers STANDARD AND OEM SOLUTIONS

FemtoFAB. Femtosecond laser micromachining system. tel fax Konstitucijos ave. 23C LT Vilnius, Lithuania

Non-Contact Capacitance Gauging Instrument & Series 2800 Capacitive Probes

MP67E M 686 XY Stage. User Manual. Version: Date:

Piezomechanik GmbH. PosiCon.an for piezoactuators (low voltage and high voltage actuators) Position Feedback control electronics

Description of options, upgrades and accessories for the laser beam stabilization system Compact

PZ167E E-625 Piezo Servo Controller. User Manual. Version: Date:

Fabrication, Assembly and Testing of a new X-Y Flexure Stage with substantially zero Parasitic Error Motions. Fig.1 Experimental Set-up

PZ292EN 9/28/2018. User Manual P PIREST ACTIVE SHIM

V2018 SPINSTAND AND NEW SERVO-8 SYSTEM

Mini-MAG Positioning Products

PIEZOELECTRIC OPTICAL MECHANISMS - PRODUCT AND WARRANTY INFORMATION

PZ166E E-625 Piezo Servo Controller. User Manual. Version: Date:

GUZIK V2002 Spinstand with XY-Positioning For Head, Headstack and Disk Testing

ATS50 Series. Mechanical Bearing, Lead-Screw Stage. Low profile, small footprint. Ultra-fine resolution

OPTICS IN MOTION. Introduction: Competing Technologies: 1 of 6 3/18/2012 6:27 PM.

High Precision Gantry Motion Systems

AMG-GR Series Gear-Driven Gimbals

Capacitive sensors capancdt

PZ236E User Manual E-482 High-Performance Piezo Amplifier/Controller Release: Date:

Scott C. Jordan PI (Physik Instrumente) L.P. San Jose, California, USA

ACCUMEASURE. Non-contact Capacitance Position Measurement with Nanometer Accuracy. A worldwide leader in precision measurement solutions

Screw Driven automation tables

PD32-32 Channel Piezo Driver Manual and Specifications

Compact Photonics Control Solutions

Precision Motion Control Solutions STAGES FOR MEDIUM LOADS AND TRAVEL RANGES TO 300 MM

Product Information. ERN 1085 Incremental Rotary Encoder with Z1 Track

CHEOPS CHaracterizing Exoplanets by Opto-infrared Polarimetry and Spectroscopy. CHEOPS Group

Optical Microscanning X-ray Real-time Imaging System

Advanced Nanoscale Metrology with AFM

LIGO PROJECT. Piezo-Electric Actuator Initial Performance Tests. Eric Ponslet April 13, Abstract

Kistler portable triaxial Force Plate

TD250 6 Channel 250V Amplifier Manual and Specifications

1. INTRODUCTION. Keywords: Piezo, Mechanism, Tip-tilt, Stability, Strain gages. BSM Mechanism context

hurryscan, hurryscan II

attocube systems Probe Stations for Extreme Environments CRYOGENIC PROBE STATION fundamentals principles of cryogenic probe stations

Active Vibration Isolation of an Unbalanced Machine Tool Spindle

Transcription:

P-620.1 P-629.1 PIHera Piezo Linear Stage Compact Nanopositioning System Family with Long Travel Ranges Physik Instrumente (PI) GmbH & Co. KG 2008. Subject to change without notice. All data are superseded by any new release. The newest release for data sheets is available for download at www.pi.ws. R1 09/09/08.0 PIHera piezo nanopositioning systems feature travel ranges from 50 to 1800 μm Travel Ranges 50 to 1800 μm High-Precision, Cost-Efficient Resolution to 0.1 nm Direct Metrology with 0.02 % Positioning Accuracy Frictionless, High-Precision Flexure Guiding System Outstanding Lifetime Due to PICMA Piezo Actuators X-, XY-, Z-, XYZ Versions Vacuum-Compatible Versions Available Single-axis PIHera systems are piezo-nanopositioning stages featuring travel ranges from 50 to 1800 μm. Despite the increased travel ranges, the units are extremely compact and provide rapid response and high guiding precision. This and the long travel range is achieved with a friction-free and extremely stiff flexure system. Application Examples Interferometry Microscopy Nanopositioning Biotechnology Quality assurance testing Semiconductor technology The PIHera piezo nanopositioning series also includes Z- and XY-stages (see p. 2-40, p. 2-54). Nanometer Precision in Milliseconds One of the advantages of PI- Hera stages over motordriven positioning stages is the rapid response to input changes and the fast and precise settling behavior. The P-622.1CD, for example, can settle to an accuracy of 10 nm in only 30 msec (other PI stages provide even faster response)! Superior Accuracy With Direct-Metrology A choice of tasks such as opticalpathadjustmentininterferometry, sample positioning in microscopy, precision alignment or optical tracking require the relatively long scanning ranges and nanometer precision offered by PIHera nanopositioning stages. PI's proprietary capacitive sensors measure position directly and without physical contact. They are free of friction and hysteresis, a fact which, in combination with the positioning resolution of well under 1 nm, makes it possible to achieve very high levels of linearity. A further advantage of direct metrology with capacitive sensors is the high phase fidelity and the high bandwidth of up to 10 khz. Designed for Precision High stiffness is achieved with the FEA-optimized design of the frictionless flexure elements, which assure excellent guiding accuracy and dynamics. A straightness and flatness in the nanometer range is achieved. System properties System configuration Closed-loop amplifier bandwidth, large signal Settling time (full travel) Ordering Information P-620.1CD* / P-620.1CL* Nanopositioning 50 μm, Direct Metrology, Capacitive Sensor P-621.1CD* / P-621.1CL* Nanopositioning 100 μm, P-622.1CD* / P-622.1CL* Nanopositioning 250 μm, P-625.1CD* / P-625.1CL* Nanopositioning 500 μm, P-628.1CD* / P-628.1CL* Nanopositioning 800 μm, P-629.1CD* / P-629.1CL* Nanopositioning 1500 μm, *.1CD with Sub-D Connector *.1CL with LEMO Connector Open-loop versions are available as P-62x.10L. Vacuum versions to 10-9 hpa are available as P-62x.1UD. P-625.1CD and E-500 modular piezo controller system with E-505.00F amplifier and E-509.C1A servo controller; 250 g load 30 Hz 31 ms Rapid scanning motion of a P-621.1CD (commanded rise time 5 ms) with the E-710 controller ##600300 and Digital Dynamic Linearization (DDL) option. DDL virtually eliminates the tracking error (<20 nm) during the scan. The improvement over a classical PI controller is up to 3 orders of magnitude, and increases with the scanning frequency

P-62x.1CD/.1CL/.10L dimensions in mm PIHera XYZ combination, P-62x.2 XY piezo stage (see p. 2-54), P-62x.Z vertical stage (see p. 2-40) Technical Data Model P-620.1CD/ P-621.1CD/ P-622.1CD/ P-625.1CD/ P-628.1CD/ P-629.1CD/ P-62x.10L Units Tolerance P-620.1CL P-621.1CL P-622.1CL P-625.1CL P-628.1CL P-629.1CL/ open-loop version Active axes X X X X X X X Motion and positioning Integrated sensor Capacitive Capacitive Capacitive Capacitive Capacitive Capacitive Open-loop travel, -20 to +120 V 60 120 300 600 950 1800 as P-62x.1CD μm min. (+20 %/-0 %) Closed-loop travel 50 100 250 500 800 1500 μm calibrated Closed-loop / open-loop resolution 0.2 / 0.1 0.4 / 0.2 0.7 / 0.4 1.4 / 0.5 1.8 / 0.5 3 / 2 as P-62x.1CD nm typ. Linearity, closed-loop 0.02 0.02 0.02 0.02 0.03* 0.03** % typ. Repeatability ±1 ±1 ±1 ±5 ±10 ±14 nm typ. Pitch / yaw ±3 ±3 ±3 ±6 ±6 ±10 as P-62x.1CD μrad typ. Mechanical properties Stiffness in motion direction 0.42 0.35 0.2 0.1 0.12 0.13 as P-62x.1CD N/μm ±20 % Unloaded resonant frequency 1100 800 400 215 125 125 as P-62x.1CD Hz ±20 % Resonant frequency @ 20 g 550 520 340 180 115 120 as P-62x.1CD Hz ±20 % Resonant frequency @ 120 g 260 240 185 110 90 110 as P-62x.1CD Hz ±20 % Push/pull force capacity 10 10 10 10 10 10 as P-62x.1CD N Max. in motion direction Load capacity 10 10 10 10 10 10 as P-62x.1CD N Max. Lateral Force 10 10 10 10 10 8 as P-62x.1CD N Max. Drive properties Ceramic type PICMA PICMA PICMA PICMA PICMA PICMA as P-62x.1CD P-883 P-885 P-885 P-885 P-887 P-888 Electrical capacitance 0.35 1.5 3.1 6.2 19 52 as P-62x.1CD μf ±20 % Dynamic operating 0.9 1.9 1.9 1.6 3 4.3 as P-62x.1CD μa/(hz μm) ±20 % current coefficient Miscellaneous Operating temperature range -20 to 80-20 to 80-20 to 80-20 to 80-20 to 80-20 to 80-20 to 150 C Material Aluminum Aluminum Aluminum Aluminum Aluminum Aluminum Aluminum Dimensions 30 x 30 x 12 40 x 40 x 15 50 x 50 x 15 60 x 60 x 15 80 x 80 x 17 100 x 100 x 22.5 as P-62x.1CD mm Mass 0.11 0.16 0.2 0.24 0.38 0.72 as P-62x.1CD kg ±5 % Cable length 1.5 1.5 1.5 1.5 1.5 1.5 1.5 m ±10 mm Sensor / voltage connection CD version: CD version: CD version: CD version: CD version: CD version: LEMO Sub-D special Sub-D special Sub-D special Sub-D special Sub-D special Sub-D special (no sensor) CL version: CL version: CL version: CL version: CL version: CL version: LEMO LEMO LEMO LEMO LEMO LEMO Resolution of PI Piezo Nanopositioners is not limited by friction or stiction. The value given is noise equivalent motion with E-710 controller (p. 2-128). *With digital controller. For analog controller 0.05 %. **With digital controller. For analog controller 0.07 %. Recommended controller / amplifier CD version: E-610 servo controller / amplifier (p. 2-110), E-625 servo controller, bench-top (p. 2-114), E-665 powerful servo controller, bench-top (p. 2-116) Single-channel digital controller: E-753 (bench-top) (p. 2-108) CL version: E-500 modular piezo controller system (p. 2-142) with E-505 amplifier module (high power) p. 2-147 and E-509 controller (p. 2-152) Open-loop version: E-500 modular piezo controller system (p. 2-142) with E-505 amplifier module (high power) (p. 2-147)

P-620.2 - P-629.2 PIHera XY Piezo Stage High-Precision Nanopositioner Family Compact and Long Travel Ranges Physik Instrumente (PI) GmbH & Co. KG 2008. Subject to change without notice. All data are superseded by any new release. The newest release for data sheets is available for download at www.pi.ws. R1 09/10/12.0 Two-axis (XY) PIHera systems are piezo-nanopositioning stages featuring travel ranges from 50 to 1800 μm. Despite the increased travel ranges, the units are extremely compact and provide rapid response and high guiding precision. This, and the long travel range is achieved with a friction-free and extremely stiff flexure system subnanometer resolution. The PI- Application Examples Interferometry Microscopy Nanopositioning Biotechnology Quality assurance testing Semiconductor technology PIHera XY nanopositioning systems provide travel ranges from 50 x 50 μm to 1800 x 1800 μm Travel Ranges 50 to 1800 μm High-Precision, Cost-Efficient Resolution to 0.1 nm Frictionless, High-Precision Flexure Guiding System 0,02 % Positioning Accuracy Outstanding Lifetime Due to PICMA Piezo Actuators X-, XY-, Z- and XYZ-Versions Vacuum-Compatible Versions Available Hera piezo nanopositioning series also includes Z and X stages (see p. 2-22 and p. 2-40). Nanometer Precision in Milliseconds One of the advantages of PI- Hera stages over motor-driven positioning stages is the rapid response to input changes and the fast and precise settling behavior. The P-622.1CD, for example, can settle to an accuracy of 10 nm in only 30 msec (other PI stages provide even faster response)! Superior Accuracy With Direct-Metrology Capacitive Sensors A choice of tasks such as optical path adjustment in interferometry, sample positioning in microscopy, precision alignment or optical tracking require the relatively long scanning ranges and nanometer precision offered by PIHera nanopositioning stages. PI's proprietary capacitive sensors measure position directly and without physical contact. They are free of friction and hysteresis, a fact which, in combination with the positioning resolution of well under 1 nm, makes it possible to achieve very high levels of linearity. A further advantage of direct metrology with capacitive sensors is the high phase fidelity and the high bandwidth of up to 10 khz. Designed for Precision High stiffness is achieved with the FEA-optimized design of the frictionless flexure elements, which assure excellent guiding accuracy and dynamics. A straightness and flatness in the nanometer range is achieved. Ordering Information P-620.2CD* / P-620.2CL* 50 x 50 μm, Direct Metrology, P-621.2CD* / P-621.2CL* 100 x 100 μm, Direct Metrology, P-622.2CD* / P-622.2CL* 250 x 250 μm, Direct Metrology, P-625.2CD* / P-625.2CL* 500 x 500 μm, Direct Metrology, P-628.2CD* / P-628.2CL* 800 x 800 μm, Direct Metrology, P-629.2CD* / P-629.2CL* 1500 x 1500 μm, Direct Metrology, *.2CD with Sub-D Connector *.2CL with LEMO Connector Open-loop versions are available as P-62x.20L. Vacuum versions to 10-9 hpa are available as P-62x.2UD.

P-62x.2CD/.2CL/.20L dimensions in mm Technical Data Model P-620.2CD/ P-621.2CD/ P-622.2CD/ P-625.2CD/ P-628.2CD/ P-629.2CD P-62x.20L Units Tolerance P-620.2CL P-621.2CL P-622.2CL P-625.2CL P-628.2CL P-629.2CL open-loop versions Active axes X, Y X, Y X, Y X, Y X, Y X, Y X, Y Motion and positioning Integrated sensor Capacitive Capacitive Capacitive Capacitive Capacitive Capacitive Open-loop travel X, Y, -20 to +120 V 60 120 300 600 950 1800 as P-62x.2CD μm min. (+20 %/-0 %) Closed-loop travel 50 100 250 500 800 1500 μm Open-loop resolution 0.1 0.2 0.4 0.5 0.5 2 as P-62x.2CD nm typ. Closed-loop resolution 0.2 0.4 0.7 1.4 3.5 3.5 nm typ. Linearity 0.02 0.02 0.02 0.03 0.03 0.03 % typ. Repeatability ±2 ±2 ±2 ±5 ±10 ±14 as P-62x.2CD nm typ. Pitch / yaw ±3 ±3 ±3 ±3 ±20 ±30 as P-62x.2CD μrad typ. Mechanical properties Stiffness 0.22 0.25 0.2 0.1 0.05 0.1 as P-62x.2CD N/μm ±20 % Unloaded resonant frequency in X, 575 420 225 135 75 60 as P-62x.2CD Hz ±20 % Unloaded resonant frequency in Y 800 535 300 195 105 100 as P-62x.2CD Hz ±20 % Resonant frequency in X @ 50 g 270 285 180 120 60 55 as P-62x.2CD Hz ±20 % Resonant frequency in Y @ 50 g 395 365 215 150 85 85 as P-62x.2CD Hz ±20 % Resonant frequency in X @ 100 g 285 220 160 105 55 50 as P-62x.2CD Hz ±20 % Resonant frequency in Y @ 100 g 300 285 175 125 75 80 as P-62x.2CD Hz ±20 % Push/pull force capacity in motion direction 10 / 5 10 / 8 10 / 8 10 / 8 10 / 8 10 / 8 as P-62x.2CD N Max. Load capacity 10 10 10 10 10 10 as P-62x.2CD N Max. Lateral Force 10 10 10 10 10 10 as P-62x.2CD N Max. Drive properties Ceramic type PICMA P-883 PICMA P-885 PICMA P-885 PICMA P-885 PICMA P-887 PICMA P-888 as P-62x.2CD Electrical Capacitance 0.35 1.5 3.1 6.2 19 52 as P-62x.2CD μf ±20 % Dynamic operating current coefficient 0.9 1.9 1.9 1.6 3 4.3 as P-62x.2CD μa/(hz μm) ±20 % Miscellaneous Operating temperature range -20 to 80-20 to 80-20 to 80-20 to 80-20 to 80-20 to 80-20 to 150 C Material Aluminum Aluminum Aluminum Aluminum Aluminum Aluminum Aluminum Mass 0.195 0.295 0.348 0.43 0.7 1.37 as P-62x.2CD kg ±5 % Cable length 1.5 1.5 1.5 1.5 1.5 1.5 1.5 m ±10 mm Sensor / voltage connection CD version: CD version: CD version: CD version: CD version: CD version: 2x LEMO 2x Sub-D special 2x Sub-D special 2x Sub-D special 2x Sub-D special 2x Sub-D special 2x Sub-D special (no sensor) CL version: CL version: CL version: CL version: CL version: CL version: LEMO LEMO LEMO LEMO LEMO LEMO Lower axis: X; upper axis: Y. Resolution of PI Piezo Nanopositioners is not limited by friction or stiction. The value given is noise equivalent motion with E-710 controller (p. 2-128) Recommended controller CD version: E-610 servo controller / amplifier (p. 2-110), E-625 servo controller, bench-top (p. 2-114), E-665 powerful servo controller, bench-top (p. 2-116) Multi-channel digital controllers: E-710 bench-top (p. 2-128), E-712 modular (p. 2-140), E-725 high-power (p. 2-126), E-761 PCI board (p. 2-140) CL version: E-500 modular piezo controller system (p. 2-142) with E-505 amplifier module (1 per axis, high power) (p. 2-147) and E-509 controller (p. 2-152) Open-loop versions: E-500 modular piezo controller system (p. 2-142) with E-505 amplifier module (1 per axis, high power) (p. 2-147)

P-620.Z P-622.Z PIHera Precision Z-Stage Nanopositioning System Family with Direct Metrology and Long Travel Ranges Physik Instrumente (PI) GmbH & Co. KG 2008. Subject to change without notice. All data are superseded by any new release. The newest release for data sheets is available for download at www.pi.ws. R1 09/05.0 P-620.ZCL, P-621.ZCL and P-622.ZCL (from left ) PIHera piezo nano-elevation stages, 50 to 400 μm (CD for size comparison) Vertical Travel Range 50 to 400 μm High-Precision, Cost-Efficient Resolution to 0.1 nm Direct Metrology with 0,02 % Positioning Accuracy Frictionless, High-Precision Flexure Guiding System Outstanding Lifetime Due to PICMA Piezo Actuators X-, XY-, Z- XYZ-Versionen Vacuum-Compatible Versions Available Z-axis PIHera systems are cost-efficient piezo nanopositioning stages featuring travel ranges up to 400 μm and provide sub-nanometer resolution. Despite the increased travel ranges, the units are extremely compact and provide subnanometer resolution. The long Application Examples Interferometry Microscopy Nanopositioning Biotechnology Quality assurance testing Semiconductor technology travel range is achieved with a friction-free and extremely stiff flexure system, which also offers rapid response and excellent guiding accuracy. PIHera piezo nanopositioning stages are also available as X- and XY-stages (see p. 2-22 and p. 2-54). Nanometer Precision in Milliseconds One of the advantages of PI- Hera stages over motor-driven positioning stages is the rapid response to input changes and the fast and precise settling behavior. The P-622.1CD, for example, can settle to an accuracy of 10 nm in only 30 msec (other PI stages provide even faster response)! Superior Accuracy With Direct-Metrology Capacitive Sensors A choice of tasks such as optical path adjustment in interferometry, sample positioning in microscopy, precision alignment or optical tracking require the relatively long scanning ranges and nanometer precision offered by PIHera nanopositioning stages. PI's proprietary capacitive sensors measure position directly and without physical contact. They are free of friction and hysteresis, a fact which, in combination with the positioning resolution of well under 1 nm, makes it possible to achieve very high levels of linearity. A further advantage of direct metrology with capacitive sensors is the high phase fidelity and the high bandwidth of up to 10 khz. Designed for Precision High stiffness is achieved with the FEA-optimized design of the frictionless flexure elements, which assure excellent guiding Ordering Information P-620.ZCD Stage, 50 μm, Capacitive Sensor, Sub-D Connector P-620.ZCL Stage, 50 μm, Capacitive Sensor, LEMO Connector P-621.ZCD Stage, 100 μm, Capacitive Sensor, Sub-D Connector P-621.ZCL Stage, 100 μm, Capacitive Sensor, LEMO Connector P-622.ZCD Stage, 250 μm, Capacitive Sensor, Sub-D Connector P-622.ZCL Stage, 250 μm, Capacitive Sensor, LEMO Connector Open-loop versions are available as P-62x.Z0L accuracy and dynamics. A straightness and flatness in the nanometer range is achieved.

System properties System configuration Amplifier bandwidth, small signal Amplifier bandwidth, large signal Settling time (full travel) P-621.ZCD with E-753 digital controller and 30 g load 25 Hz 25 Hz 15 ms PIHera XYZ combination Technical Data Model P-620.ZCD P-621.ZCD P-622.ZCD P-62x.Z0L Units Tolerance P-620.ZCL P-621.ZCL P-622.ZCL Open-loop versions Active axes Z Z Z Z Motion and positioning Integrated sensor Capacitive Capacitive Capacitive Open-loop travel, -20 to +120 V 65 140 400 as P-62x.ZCD μm min. (+20 %/-0 %) Closed-loop travel 50 100 250 μm Open-loop resolution 0.1 0.2 0.5 as P-62x.ZCD nm typ. Closed-loop resolution 0.2 0.3 1 nm typ. Linearity 0.02 0.02 0.02 % typ. Repeatability ±1 ±1 ±1 nm typ. Runout θ X, θ Y ) <20 <20 <80 as P-62x.ZCD μrad typ. Mechanical properties Stiffness 0.5 0.6 0.24 as P-62x.ZCD N/μm ±20 % Unloaded resonant frequency 1000 790 360 as P-62x.ZCD Hz ±20 % Resonant frequency @ 30 g 690 500 270 as P-62x.ZCD Hz ±20 % Push/pull force capacity 10 / 5 10 / 8 10 / 8 as P-62x.ZCD N Max. Load capacity 10 10 10 as P-62x.ZCD N Max. Lateral Force 10 10 10 as P-62x.ZCD N Max. Drive properties Ceramic type PICMA P-883 PICMA P-885 PICMA P-885 as P-62x.ZCD Electrical capacitance 0.7 3 6.2 as P-62x.ZCD μf ±20 % Dynamic operating current coefficient 1.8 3.8 3.1 as P-62x.ZCD μa/(hz μm) ±20 % Miscellaneous Operating temperature range -20 to 80-20 to 80-20 to 80-20 to 150 C Material Aluminum Aluminum Aluminum Aluminum Mass 0.12 0.17 0.24 as P-62x.ZCD kg ±5 % Cable length 1.5 1.5 1.5 as P-62x.ZCD m ±10 mm Sensor / voltage connection Sub-D special Sub-D special Sub-D special LEMO (no sensor) (CD-version) (CD-version) (CD-version) CL-version: CL-version: CL-version: LEMO LEMO LEMO Recommended controller CD-Versions: E-610 servo controller / amplifier (p. 2-110), E-625 servo controller, bench-top (p. 2-114), E-665 powerful servo controller, bench-top (p. 2-116) Single-channel digital controller: E-753 (bench-top) (p. 2-108) CL-Versions: Modular piezo controller system E-500 (p. 2-142) with amplifier module E-505 (high performance) (p. 2-147) and E-509 controller (p. 2-152) Open-loop versions: modular piezo controller system E-500 (p. 2-142) with amplifier module E-505 (high performance) (p. 2-147