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For <strong>the</strong> latest version go to http://www.pi.ws<br />
MicroPositioning, NanoPositioning, NanoAutomation ®<br />
Solutions for Cutting-Edge Technologies<br />
2004 Supplement<br />
Low Resolution <strong>PDF</strong> Version<br />
For better image quality, <strong>download</strong> <strong>the</strong> high-<br />
resolution <strong>PDF</strong> (8 MB) or request a printed copy.<br />
1
2<br />
For <strong>the</strong> latest version go to http://www.pi.ws<br />
Piezo Actuators<br />
Section 1<br />
Piezoelectric Ceramics<br />
Section 1<br />
Piezoelectric NanoPositioning Systems<br />
Active Optics (Piezo Steering Mirrors, etc.)<br />
Section 3<br />
Capacitive Position Sensors<br />
Motion Controllers for NanoPositioners<br />
(Piezo Controllers, Drivers, Power Amplifers)<br />
Section 6<br />
Section 2<br />
Section 5<br />
http://www.pi.ws<br />
info@pi.ws<br />
Request <strong>the</strong><br />
hardbound<br />
<strong>PI</strong> catalog:<br />
Go to<br />
http://www.pi.ws<br />
info@pi.ws<br />
Products<br />
Hexapod Parallel Kinematics 6D<br />
MicroPositioning Systems<br />
Piezo Motors/Ultrasonic Motor Driven Stages<br />
Photonics Alignment & Packing Systems<br />
Section 7<br />
Section 8<br />
Motion Controllers for MicroPositioners<br />
Tutorial—Piezoelectrics in Positioning<br />
Section 4<br />
Section 7<br />
Linear and Rotary MicroPositioners<br />
Section 7<br />
Section 9
Nanopositioning,<br />
Nanomechanics<br />
Leadership<br />
<strong>PI</strong> has been developing and<br />
manufacturing products in <strong>the</strong><br />
field of nanomechanics and<br />
nanotechnology for more than<br />
30 years. During this time, we<br />
have achieved and continually<br />
consolidated our position as a<br />
global market leader. Prime<br />
examples of our core competencies<br />
and cutting-edge technology<br />
are to be found in <strong>the</strong><br />
development of parallel kinematics—integrated<br />
6-axis positioners<br />
based on <strong>the</strong> Hexapod—and<br />
in <strong>the</strong> field of<br />
nanopositioning with piezoceramic<br />
actuators.<br />
<strong>PI</strong> employs more than 300<br />
staff worldwide and maintains<br />
sales, support and service<br />
offices in Germany, <strong>the</strong> USA,<br />
England, France, Italy, Japan<br />
and China with nanometrology<br />
capabilities on three continents.<br />
<strong>PI</strong> is represented in many<br />
countries around <strong>the</strong> world.<br />
<strong>PI</strong> Headquarters, Karlsruhe, Germany.<br />
<strong>PI</strong> employs <strong>the</strong> world’s most experienced<br />
design and manufacturing<br />
teams for nanopositioning and nanomechanics<br />
products.<br />
At <strong>the</strong> Heart of our<br />
Systems:<br />
<strong>the</strong> Piezo Effect<br />
One small step for Pierre<br />
Curie—one great leap for <strong>the</strong><br />
world. The piezo effect—<br />
Pierre Curie’s discovery of<br />
about a hundred years ago—<br />
now forms <strong>the</strong> basis of <strong>the</strong><br />
smallest mechanical, electronic<br />
or control-technology<br />
products. When voltage is applied<br />
to piezoelectric crystals<br />
or ceramics, <strong>the</strong>y expand. We<br />
exploit this effect to create<br />
positioning systems with<br />
nanometer accuracy.<br />
<strong>PI</strong> Products—<br />
Innovation &<br />
Superior Quality<br />
<strong>PI</strong> has been ISO 9001 certified<br />
since 1994. Our products are<br />
characterized by <strong>the</strong>ir quality<br />
and innovation. Developed to<br />
give <strong>the</strong> highest degree of precision,<br />
we employ <strong>the</strong> mostmodern<br />
tools and software for<br />
product development like FEM<br />
calculations and simulations.<br />
To determine <strong>the</strong> performance<br />
level of our products, we had<br />
to design equipment capable of<br />
resolving to fractions of a<br />
nanometer, pushing measurement<br />
accuracies to <strong>the</strong> limit.<br />
Precision<br />
Advances<br />
Over <strong>the</strong> years we have seen<br />
many technological advances<br />
make <strong>the</strong> transition from <strong>the</strong><br />
laboratory to daily life, advances<br />
requiring <strong>the</strong> utmost in<br />
positioning accuracy, advances<br />
inconceivable without <strong>PI</strong>. Finer<br />
and finer structures on semiconductor<br />
wafers for costeffective<br />
mass-production of<br />
high-performance electronics,<br />
or higher and higher density in<br />
telecommunications streams<br />
with millisecond switching<br />
from network to network, all in<br />
<strong>the</strong> minimum amount of<br />
space: this is where <strong>PI</strong> is at<br />
home.<br />
<strong>PI</strong>’s Customers<br />
<strong>PI</strong> customers come from all<br />
sectors of manufacturing, quality<br />
assurance, research and<br />
development. And <strong>the</strong>y are<br />
spread across many branches<br />
of industry:<br />
� Astronomy<br />
� Semiconductors<br />
� Semiconductor Test<br />
Systems<br />
� Medical Engineering<br />
� Bio- / Nanotechnology<br />
� Telecommunications<br />
� Precision Engineering<br />
� Aerospace Engineering<br />
<strong>PI</strong>’s customers even include<br />
national standardization institutes.<br />
As our customer, you also profit<br />
from our more than 30 years’<br />
experience in micro- and nanopositioning<br />
technology. You will<br />
join an ever-increasing number<br />
of renowned companies and<br />
institutes whose products are<br />
at <strong>the</strong> cutting edge of innovation,<br />
research and technology.<br />
<strong>PI</strong> moves <strong>the</strong> nanoworld.<br />
<strong>PI</strong> USA. The east coast office in Auburn, MA, also hosts a service department with<br />
nano metrology equipment.
4<br />
<strong>PI</strong>—History of Innovation<br />
The following examples emphasize <strong>PI</strong>’s four decades of innovation in micro- and nanopositioning technology<br />
70’s<br />
� First commercially<br />
available piezo translators<br />
� First PZT translators with<br />
integrated preload for<br />
industrial reliability<br />
For <strong>the</strong> latest version go to http://www.pi.ws<br />
80’s<br />
� First commercially<br />
available closed-loop<br />
piezo actuators<br />
� First flexure-guided piezodriven<br />
nanopositioning<br />
systems<br />
� First hybrid multiaxis fiber<br />
alignment systems<br />
� First preloaded actuators<br />
with monolithic lowvoltage<br />
PZTs<br />
� Nanopositioning systems<br />
with PC interface<br />
� First closed-loop, image<br />
stabilization platforms<br />
With over four decades experience, <strong>PI</strong> has evolved into <strong>the</strong><br />
world-leading supplier of nanopositioning technology.<br />
In <strong>the</strong> 70's, when space exploration spurred new research in optics,<br />
<strong>PI</strong> introduced piezo actuators to help scientists control motion to<br />
sub-micron levels.<br />
In <strong>the</strong> 80's, when <strong>the</strong> introduction of microcomputers created <strong>the</strong><br />
first semiconductor boom and <strong>the</strong> need for smaller and smaller<br />
feature sizes, <strong>PI</strong> nanopositioning systems were ready to take on<br />
<strong>the</strong> challenge.<br />
The fall of <strong>the</strong> Berlin wall in <strong>the</strong> 90's marked <strong>the</strong> end of <strong>the</strong> cold war<br />
and <strong>the</strong> beginning of a new age of borderless communications.<br />
It also meant <strong>the</strong> beginning of a new age for <strong>PI</strong>: <strong>the</strong> start of <strong>the</strong><br />
piezoceramic division <strong>PI</strong> Ceramic.<br />
The new millennium saw worldwide efforts advancing fiber-optic<br />
technologies, nanotechnology and biotechnology, fields where<br />
“smaller” and “more precise” is <strong>the</strong> key to success. <strong>PI</strong> is <strong>the</strong>re to<br />
lead <strong>the</strong> way with faster and higher-performance motion control<br />
systems.<br />
http://www.pi.ws<br />
info@pi.ws<br />
90’s<br />
� First flexure-guided, highspeed<br />
nano-focus device<br />
� First two-plate capacitive<br />
sensors / controllers w/<br />
integrated linearization for<br />
sub-nanometer precision<br />
� First parallel kinematics<br />
multiaxis piezo nanopositioning<br />
stage with integrated<br />
parallel metrology<br />
� First piezoelectrically driven<br />
high-speed tool servo<br />
� <strong>PI</strong> becomes <strong>the</strong> first<br />
nanopositioning systems<br />
supplier with piezoceramics-manufacturing<br />
capabilities<br />
� First sub-micron 6-DOF<br />
Hexapod<br />
� First fully automated fiber<br />
alignment system with<br />
high-resolution Piezo-<br />
Walk drive (10 nm)<br />
� First piezo stage with 6D<br />
active trajectory control<br />
� First fully automated<br />
6-DOF photonics<br />
alignment system with<br />
virtual pivot point<br />
� First piezo controller with<br />
InputShaping ® vibration<br />
elimination algorithms<br />
2000–<br />
� Patented high-force<br />
compact piezomotors<br />
� First 6-axis digital piezo<br />
controller<br />
� First piezo controller with<br />
dynamic linearization<br />
(improves dynamic<br />
linearity by up to 3 orders<br />
of magnitude)<br />
� First closed-loop piezodriven<br />
steering mirror<br />
with 50 mrad range<br />
� First <strong>PI</strong>CMA ® monolithic<br />
piezo actuators w/<br />
ceramic insulation for<br />
increased lifetime and<br />
zero outgassing<br />
� Fastest open-frame,<br />
closed-loop XY nanopositioning<br />
stage<br />
� Lowest out-of-plane<br />
motion nanopositioning<br />
stages (< 1 nm)
Parallel Kinematics Multi-<br />
Axis Micro- & Nanopositioning<br />
Systems<br />
reduced inertia, faster<br />
response, more compact,<br />
higher stiffness, no<br />
accumulation of errors, no<br />
moving cables (no friction),<br />
parallel metrology (higher<br />
multi-axis precision).<br />
InputShaping ®<br />
Eliminates self-generated<br />
ringing of components<br />
inside and outside <strong>the</strong><br />
servo-loop. Allows settling<br />
within one period of <strong>the</strong><br />
resonant frequency.<br />
Technologies that set <strong>PI</strong> apart:<br />
Parallel Metrology<br />
monitors all controlled<br />
degrees of freedom<br />
simultaneously; allows<br />
active trajectory control.<br />
Capacitive<br />
Sensors<br />
Non-contact,<br />
absolute measuring<br />
devices<br />
providing subnanometer<br />
resolution,<br />
very high linearity and<br />
high bandwidth. Excellent<br />
for parallel-metrology<br />
configurations.<br />
Active Trajectory Control<br />
allows active elimination<br />
of runout and off-axis errors<br />
to sub-nanometer and<br />
sub-microradian precision.<br />
<strong>PI</strong>CMA ®<br />
Technology<br />
A new monolithic<br />
piezo actuator<br />
design with allceramic<br />
insulation,<br />
insensitive to humidity<br />
and providing significantly<br />
higher reliability, lifetime<br />
and operating temperature<br />
ranges than conventional<br />
piezo actuators. Ideal for<br />
vacuum applications.<br />
Dynamic Digital<br />
Linearization<br />
reduces phase lag and<br />
non-linearity in high-speed<br />
positioning, scanning<br />
and tracking applications.<br />
Improves effective<br />
bandwidth up to 3 orders<br />
of magnitude.<br />
<strong>PI</strong>line Piezo Motors<br />
are based on a novel<br />
solid-state ultrasonic piezoceramic<br />
drive. They are<br />
lightweight, low-profile and<br />
provide a number of advantages<br />
over conventional<br />
motors, such as negligible<br />
EMI, ultra-fast response,<br />
auto-locking, zero-backlash<br />
and excellent power-toweight<br />
ratio.<br />
5
P-882 to P-888 <strong>PI</strong>CMA ® Piezo Actuators.<br />
P-620 to P-625 <strong>PI</strong>Hera low-cost<br />
piezo nanopositioning stages.<br />
P-363 PicoCube nano-manipulators &<br />
scanners.<br />
E-710 digital piezo controller, with dynamic<br />
linearization.<br />
6<br />
Contents<br />
Piezo Actuators<br />
See <strong>the</strong> hardbound <strong>PI</strong> catalog . . . . . . . . . . . . . . . . . . . 1-1 to 1-43<br />
P-882 - P-888 <strong>PI</strong>CMA ® High-Performance<br />
Monolithic Multilayer Piezo Actuators . . . . . . . . . . . . . . . . . . 1-44<br />
P-007 - P-056 <strong>PI</strong>CA-Stack Piezoceramic Actuators<br />
Versatile Piezoelectric Power . . . . . . . . . . . . . . . . . . . . . . . .1-46<br />
Piezo NanoPositioners & Scanners<br />
See <strong>the</strong> hardbound <strong>PI</strong> catalog . . . . . . . . . . . . . . . . . . . 2-1 to 2-45<br />
P-721<strong>PI</strong>FOC ® High-Speed Piezo Nano-Focussing<br />
Device with Direct Metrology Feedback . . . . . . . . . . . . . . . . 2-46<br />
P-725 <strong>PI</strong>FOC ® Long Range Microscope Objective<br />
Positioners & Scanners with Capacitive Sensors . . . . . . . . . 2-48<br />
P-620.1CD, P-621.1CD, P-622.1CD, P-625.1CD <strong>PI</strong>Hera<br />
Compact Long-Range Piezo Nano-Translation Stages . . . . . . 2-50<br />
P-620.2CD, P-621.2CD, P-622.2CD, P-625.2CD <strong>PI</strong>Hera<br />
Compact XY Long-Range Piezo Nano-Translation Stages . . . 2-52<br />
P-620.ZCD, P-621.ZCD, P-622.ZCD <strong>PI</strong>Hera<br />
Compact Vertical Piezo Nano-Elevation Stages . . . . . . . . . . . 2-54<br />
P-363 PicoCube Ultra-Fast, XY and XYZ NanoPositioning<br />
and Scanning Stages . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .2-56<br />
P-733.2DD, P-733.3DD High Speed Direct Drive<br />
XY & XYZ Piezo Scanning/Positioning Stages . . . . . . . . . . . . 2-58<br />
P-733 Single-Module, XY Piezo Flexure NanoPositioner<br />
and Scanner . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2-60<br />
P-560 <strong>PI</strong>Mars Multi-Axis Piezo Scanning- and<br />
NanoPositioning Stages . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2-62<br />
P-615 NanoCube 350C XYZ Piezo NanoAlignment<br />
Systems . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2-64<br />
Piezo Active Optics / Steering Mirrors<br />
See <strong>the</strong> hardbound <strong>PI</strong> catalog . . . . . . . . . . . . . . . . . . . 3-1 to 3-17<br />
S-334 Ultra-Long-Range Piezo Tip/Tilt Platform,<br />
50 mrad (3°) with Mirror . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3-18<br />
S-325 Ultra-Fast Piezo Tip/Tilt Platform and Z Positioner . . . 3-20<br />
Tutorial, Piezoelectrics in Positioning<br />
See <strong>the</strong> hardbound <strong>PI</strong> catalog . . . . . . . . . . . . . . . . . . . 4-1 to 4-48<br />
Capacitive Displacement Sensors<br />
See <strong>the</strong> hardbound <strong>PI</strong> catalog . . . . . . . . . . . . . . . . . . . . 5-1 to 5-8<br />
Piezo Control Electronics<br />
See <strong>the</strong> hardbound <strong>PI</strong> catalog . . . . . . . . . . . . . . . . . . . 6-1 to 6-46<br />
E-710 High-Speed Digital NanoAutomation ®<br />
Piezo Controllers . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6-48<br />
Dynamic Digital Linearization . . . . . . . . . . . . . . . . . . . 6-49<br />
NanoCapture Software for E-710 Digital<br />
Piezo Controllers . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6-50<br />
E-621 LVPZT Amplifier & Servo-Controller Module with<br />
High-Speed RS-232 Interface . . . . . . . . . . . . . . . . . . . . . . . . 6-52<br />
http://www.pi.ws<br />
info@pi.ws<br />
P-721, P-725 <strong>PI</strong>FOC ® nano-focus devices<br />
with Quicklock.<br />
P-733.xDD, high-speed,<br />
direct-drive scanning stages.<br />
400% faster.<br />
S-334, long-travel piezo steering mirror<br />
(50 mrad!).
E-831, piezo power amplifier module.<br />
M-840 HexaLight Hexapod,<br />
M-850 Hexapod.<br />
M-110 to M-116 micro-translation<br />
and rotation stages.<br />
C-862 Mercury low cost, motion<br />
contoller.<br />
C-843 PCI motion controller card.<br />
E-665 LVPZT Amplifier & Position Servo-Controller with<br />
High-Speed RS-232 Interface . . . . . . . . . . . . . . . . . . . . . . . . 6-54<br />
E-831, E-841, E-842 OEM Piezo Amplifier and<br />
Power Supply Modules . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6-56<br />
E-516 Computer Interface & Display Module . . . . . . . . . . . . 6-58<br />
WaveEditor-Function Generator . . . . . . . . . . . . . . . . . 6-59<br />
MicroPositioners / Hexapod Systems / Piezo Motors<br />
See <strong>the</strong> hardbound <strong>PI</strong> catalog . . . . . . . . . . . . . . . . . . . 7-1 to 7-96<br />
Advantages of <strong>PI</strong>line Linear Piezo Motor Drives . . . . . . . . 7-98<br />
Ultrasonic Piezo Drives—How do <strong>the</strong>y work? . . . . . . 7-98<br />
M-661, M-662, M-663 <strong>PI</strong>line Miniature Translation<br />
Stages with Ultrasonic Piezo Linear Motors . . . . . . . . . . . . . 7-99<br />
M-665.2PM <strong>PI</strong>line Low-Profile Translation<br />
Stages with Piezo Linear Motor . . . . . . . . . . . . . . . . . . . . . 7-102<br />
P-661, P-665 <strong>PI</strong>line OEM Ultrasonic<br />
Piezo Linear Motors . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7-104<br />
M-840 HEXALIGHT<br />
Fast Six-Axis Parallel Kinematics Robot (Hexapod) . . . . . . . 7-106<br />
M-850 HEXAPOD<br />
Six-Axis Parallel-Kinematics MicroMotion Robot . . . . . . . . . 7-108<br />
M-235 Heavy-Duty High-Resolution Closed-Loop<br />
DC-Mike & Stepper Actuators . . . . . . . . . . . . . . . . . . . . . . . 7-110<br />
M-451 Vertical Micro Positioning Stage . . . . . . . . . . . . . . . 7-112<br />
M-110.1, M-111.1, M-112.1 High-Resolution<br />
Micro-Translation Stages . . . . . . . . . . . . . . . . . . . . . . . . . . . 7-114<br />
M-110.2, M-111.2, M-112.2 High-Resolution<br />
Micro-Translation Stages with Ballscrew Drive . . . . . . . . . . 7-116<br />
M-116 Micro Rotation Stages with Worm Gear Drive . . . . 7-118<br />
M-060, M-061, M-062 Series Rotation Stages<br />
with Worm Gear Drive . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7-120<br />
C-161.2i <strong>PI</strong>IntelliStep Stepper Motor with Integrated<br />
Controller/Driver . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7-123<br />
Photonics Alignment & Packaging Systems<br />
See <strong>the</strong> hardbound <strong>PI</strong> catalog . . . . . . . . . . . . . . . . . . . 8-1 to 8-28<br />
F-311 <strong>PI</strong>Motion&Vision—Integration of Vision System<br />
and Micro-/Nanopositioning . . . . . . . . . . . . . . . . . . . . . . . . . . 8-30<br />
F-361 High-Speed Integrating Sphere Optical Power<br />
Meter . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 8-32<br />
Motor Controllers<br />
See <strong>the</strong> hardbound <strong>PI</strong> catalog . . . . . . . . . . . . . . . . . . . 9-1 to 9-18<br />
C-862 Mercury II DC-Motor Controller/Driver . . . . . . . . . . 9-20<br />
C-630 Apollo Motion Controller/Driver for Stepper Motors . . 9-22<br />
Network Capability . . . . . . . . . . . . . . . . . . . . . . . . . . . 9-23<br />
C-843.20, C-843.40 Servo Motion Controller /<br />
Driver PCI Board . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 9-24<br />
C-848 Multi-Axis DC-Motor Controller . . . . . . . . . . . . . . . . . . 9-26<br />
C-809.40 4-Channel Servo-Amplifier Motion I/O Interface<br />
for NI Motion Controllers . . . . . . . . . . . . . . . . . . . . . . . . . . . . 9-28<br />
M-662 to M-665 piezo motor driven<br />
stages, P-662 & P-665 piezo motors.<br />
M-060 to M-062 rotation stages.<br />
F-311 <strong>PI</strong>Motion&Vision system.<br />
C-809 Motion interface for NI controllers.<br />
7
<strong>PI</strong>CMA ® piezo actuators are currently available with cross-sections<br />
of 2x3, 3x3, 5x5 and 10x10 mm 2 .<br />
<strong>PI</strong>CMA ® actuator with optional rounded<br />
top piece for decoupling lateral forces<br />
and optional wire leads.<br />
1-44<br />
P-882-<br />
P-888<br />
Application<br />
Examples<br />
� Precision Mechanics and<br />
Mechanical Engineering<br />
� NanoPositioning / High-Speed<br />
Switching<br />
� Active and Adaptive Optics<br />
� Vibration cancellation<br />
� Pneumatic & Hydraulic Valves<br />
� Metrology / Interferometry<br />
� Life Sciences, Medicine and Biology<br />
1-1 to 1-43 see <strong>the</strong><br />
hardbound <strong>PI</strong> catalog<br />
<strong>PI</strong>CMA ® High-Performance Monolithic<br />
Multilayer Piezo Actuators<br />
� Low Operating Voltage<br />
� Superior Lifetime Even<br />
Under Extreme<br />
Conditions<br />
� Very Large Operating-<br />
Temperature Range<br />
� High Humidity Resistance<br />
� Excellent Temperature<br />
Stability<br />
� High Stiffness<br />
� UHV Compatible<br />
to 10 -9 hPa<br />
� Sub-Millisecond<br />
Response & Sub-<br />
Nanometer Resolution<br />
Increased Lifetime and<br />
Higher Performance<br />
<strong>PI</strong>CMA ® (<strong>PI</strong> Ceramic Monolithic<br />
Actuator) piezo actuators<br />
are characterized by <strong>the</strong>ir high<br />
performance and reliability,<br />
even in extremely harsh environments.<br />
They are superior to<br />
conventional multilayer actuators<br />
in industrial applications<br />
and high-endurance situations,<br />
where <strong>the</strong>y show substantially<br />
longer lifetimes both in static<br />
and dynamic operation.<br />
New Production Process,<br />
Optimized PZT Ceramics<br />
<strong>PI</strong>CMA ® piezo actuators are<br />
made from a ceramic material<br />
http://www.pi.ws<br />
info@pi.ws<br />
in which <strong>the</strong> piezoceramic properties<br />
such as stiffness, capacitance,<br />
displacement, temperature<br />
stability, leakage current<br />
and lifetime are optimally<br />
combined. The actuators’<br />
monolithic construction and<br />
special electrode structure<br />
was made possible by<br />
advances in production technology.<br />
This development is<br />
just one reflection of <strong>the</strong> more<br />
than 30 years experience of <strong>PI</strong><br />
Ceramic with thousands of<br />
industrial PZT applications.<br />
Increased Lifetime through<br />
Humidity Resistance<br />
The monolithic, ceramic-insulated<br />
design makes polymerfilm<br />
insulation unnecessary.<br />
Diffusion of water molecules<br />
into <strong>the</strong> insulation layer, <strong>the</strong><br />
major cause of dielectric<br />
breakdown, is greatly reduced<br />
by <strong>the</strong> use of cofired, outer<br />
ceramic insulation.<br />
High-Level Dynamic<br />
Performance—Very Wide<br />
Temperature Range<br />
The high Curie temperature of<br />
320 °C gives <strong>PI</strong>CMA ® actuators<br />
a usable temperature<br />
range extending up to 150 °C.<br />
This means that <strong>the</strong>y can be<br />
operated in hotter environments,<br />
or <strong>the</strong>y can be driven<br />
harder in dynamic operation<br />
(with conventional multilayer<br />
actuators, heat generation —<br />
which is proportional to operating<br />
frequency — ei<strong>the</strong>r limits<br />
<strong>the</strong> operating frequency or<br />
duty cycle in dynamic operation,<br />
or makes ungainly cooling<br />
provisions necessary).<br />
At <strong>the</strong> low end, operation<br />
down to a few kelvin is possible<br />
(with some reduction in<br />
performance specifications).<br />
Optimum UHV<br />
Compatibility—Minimal<br />
Outgassing<br />
The lack of polymer insulation<br />
and <strong>the</strong> high Curie temperature<br />
make for optimal ultrahigh-vacuum<br />
compatibility (no<br />
measurable outgassing / high<br />
bakeout temperatures, up to<br />
150 °C)<br />
Ideal for Closed-Loop<br />
Operation<br />
The ceramic surface of <strong>the</strong><br />
actuators is extremely well<br />
suited for use with resistive or<br />
optical fiber strain gauge sensors.<br />
Such sensors can be easily<br />
applied to <strong>the</strong> actuator surface<br />
and exhibit significantly<br />
higher stability and linearity<br />
than with conventional polymer-insulated<br />
actuators.<br />
Amplifiers, Drivers &<br />
Controllers<br />
<strong>PI</strong> offers a wide range of control<br />
electronics for piezo<br />
actuators (see section 6 and<br />
www.pi.ws) from low-power<br />
drivers to multichannel, closed-loop,<br />
digital controllers. Of<br />
course, <strong>PI</strong> also designs custom<br />
amplifiers and controllers.
The displacement of <strong>PI</strong>CMA ® actuators exhibits very low<br />
temperature dependence. This, in combination with <strong>the</strong>ir<br />
low heat generation, makes <strong>PI</strong>CMA ® actuators optimal<br />
for dynamic operation. (Operating frequency f = 200 Hz)<br />
<strong>PI</strong>CMA ® actuators are also available with<br />
100 mm leads (order number extension.x1).<br />
Shown here is <strong>the</strong> 15 µm P-885.51 (battery<br />
for size comparsion).<br />
<strong>PI</strong>CMA ® dimensions, in mm<br />
<strong>PI</strong>CMA ® piezo actuators (bottom curve) compared with conventional<br />
multilayer actuators with polymer insulation (top curve).<br />
<strong>PI</strong>CMA ® Actuators are not affected by <strong>the</strong> high-humidity test<br />
conditions. Conventional piezo actuators exhibit increased<br />
leakage current after only a few hours. Leakage current is an<br />
indication of insulation quality and expected lifetime.<br />
Test conditions: U = 100 V DC ; T = 25 °C; Relative Humidity = 70%.<br />
Technical Data / Ordering Numbers<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
Ordering Dimensions Nominal Max. Blocking Stiffness Electrical Resonant<br />
Number* A x B x L Displacement Displacement Force [N/µm] Capacitance Frequency<br />
[mm] [µm @ 100 V] [µm @ 120 V] [N @ 120 V] [µF] [kHz]<br />
(±10%) (±10%) (±20%)<br />
P-882.10 2 x 3 x 9 7 9 215 26 0.13 135<br />
P-882.20 2 x 3 x11 8.5 11 215 21 0.18 110<br />
P-882.30 2 x 3 x 13.5 11 13 215 16 0.22 90<br />
P-882.50 2 x 3 x 18 15 18 215 12 0.31 70<br />
P-883.10 3 x 3 x 9 7 9 325 38 0.21 135<br />
P-883.20 3 x 3 x 11 8.5 11 325 32 0.27 110<br />
P-883.30 3 x 3 x 13.5 11 13 325 24 0.35 90<br />
P-883.50 3 x 3 x 18 15 18 325 18 0.48 70<br />
P-885.10 5 x 5 x 9 7 9 900 115 0.6 135<br />
P-885.20 5 x 5 x 11 8.5 11 900 88 0.8 110<br />
P-885.30 5 x 5 x 13.5 11 13 900 68 1.1 90<br />
P-885.50 5 x 5 x 18 15 18 900 50 1.5 70<br />
P-885.90 5 x 5 x 36 30 35 900 28 3,1 40<br />
P-887.20 7 x 7 x 11 ask about availability !<br />
P-887.30 7 x 7 x 13.5 ask about availability !<br />
P-887.50 7 x 7 x 18 ask about availability !<br />
P-887.90 7 x 7 x 36 ask about availability !<br />
P-888.20 10 x 10 x 11 8.5 11 3600 353 3.5 110<br />
P-888.30 10 x 10 x 13.5 11 13 3600 273 4.4 90<br />
P-888.50 10 x 10 x 18 15 18 3600 200 6.2 70<br />
P-888.90 10 x 10 x 36 30 35 3600 105 12,4 40<br />
* For optional PTFE insulated wires, pigtail length 100 mm, change order number extension to .x1 (e.g. P-882.11).<br />
Resonant frequency measured at 1 V , capacitance measured at 1 V , 1 kHz.<br />
pp pp<br />
Standard PZT ceramic type: <strong>PI</strong>C 252 (see page 40, <strong>PI</strong> Ceramic catalog)<br />
Max. operating voltage: -20 to +120 V<br />
Max. operating temperature: -40 to +150 °C<br />
Max. load 100 MPa<br />
Dielectric loss 0.02<br />
Standard Mechanical Interface: ceramic (top & bottom)<br />
Standard Electrical Interface: solderable termination<br />
Available Options: Strain Gauge Sensors, special mechanical interfaces, etc.<br />
O<strong>the</strong>r specifications on request.<br />
Specifications subject to change without notice.<br />
1-45
Application<br />
Examples<br />
� NanoPositioning<br />
� High-load positioning<br />
� Precision mechanics<br />
� Semiconductor manufacturing<br />
and testing<br />
� Laser tuning<br />
� Switching<br />
� Smart structures (adaptronics)<br />
Notes<br />
<strong>PI</strong>CA-Stack actuators are delivered<br />
with metal endcaps for improved<br />
robustness and reliability.<br />
Adherence to <strong>the</strong> mounting<br />
and handling guidelines will<br />
help you obtain maximum performance<br />
and lifetime from your<br />
piezo actuators.<br />
Please contact a <strong>PI</strong> Ceramic applications<br />
engineer for additional<br />
technical support.<br />
1-46<br />
P-007-<br />
P-056<br />
Variety of standard and custom <strong>PI</strong>CA-Stack piezo actuators.<br />
<strong>PI</strong>CA-Stack Piezoceramic Actuators<br />
Versatile Piezoelectric Power<br />
� High Load Capacity<br />
to 100 kN (40 MPa)<br />
� High Force Generation<br />
to 80 kN<br />
� Large Cross Sections<br />
(to 56 mm Diameter)<br />
� Variety of Shapes<br />
� Extreme Reliability<br />
>10 9 Cycles<br />
� Proven and Flexible<br />
Design<br />
� Sub-Nanometer-<br />
Resolution / Sub-<br />
Millisecond-Settling-Time<br />
� Vacuum-Compatible<br />
Versions<br />
<strong>PI</strong>CA-Stack piezo ceramic actuators<br />
are offered in a large variety<br />
of standard shapes and<br />
sizes with additional custom<br />
designs to suit any application.<br />
http://www.pi.ws<br />
info@pi.ws<br />
Ultra-High Reliability, High<br />
Displacement, Low Power<br />
Requirements<br />
<strong>PI</strong>CA-Stack actuators are<br />
specifically designed for highduty-cycle<br />
applications. With<br />
our extensive applications<br />
knowledge, gained over several<br />
decades, we know how to<br />
build performance that does<br />
not come at <strong>the</strong> price of<br />
reliability. All materials used<br />
are specifically matched for<br />
robustness and lifetime.<br />
Endurance tests on <strong>PI</strong>CA actuators<br />
prove consistent performance,<br />
even after billions<br />
(1,000,000,000) of cycles. The<br />
combination of high displacement<br />
and low electrical capacitance<br />
provides for excellent<br />
dynamic behavior with reduced<br />
driving power requirements.<br />
Flexibility: <strong>PI</strong> Ceramic’s<br />
Strength<br />
All manufacturing processes at<br />
<strong>PI</strong> Ceramic are setup for maximum<br />
flexibility. Should our<br />
standard actuators not fit your<br />
application, let us provide you<br />
with a custom design. Our<br />
engineers will work with you<br />
to find <strong>the</strong> optimum solution<br />
for your application at a very<br />
attractive price, even for small<br />
quantities. Some of our custom<br />
capabilities are listed<br />
below:<br />
� Custom Materials<br />
� Custom Voltage Ranges<br />
� Custom Geometries (Circular,<br />
Rectangular, Triangular,<br />
Layer Thickness ...)<br />
� Custom Displacement<br />
� Custom Load / Force<br />
Ranges<br />
� Custom Flat or Spherical<br />
Endplates (Alumina, Glass,<br />
Sapphire, ...)<br />
� Extra-Tight Length<br />
Tolerances<br />
� Custom-Molded Versions<br />
� Integrated Piezoelectric<br />
Sensor Discs<br />
� Special High / Low<br />
Temperature Versions<br />
� Vacuum Compatible<br />
Versions<br />
Short Leadtime, Standard &<br />
Custom Designs<br />
Because all piezoelectric materials<br />
used in <strong>PI</strong>CA actuators are<br />
manufactured at <strong>PI</strong> Ceramic,<br />
leadtimes are short and quality<br />
is outstanding. All standard<br />
and custom <strong>PI</strong>CA-Stack actuators<br />
are delivered with performance<br />
test sheets.<br />
Amplifiers, Drivers &<br />
Controllers<br />
<strong>PI</strong> offers a wide range of control<br />
electronics for piezo actuators<br />
(see section 6 and<br />
www.pi.ws) from low-power<br />
drivers to multi-channel,<br />
closed-loop, digital controllers.<br />
Of course, <strong>PI</strong> also designs custom<br />
amplifiers and controllers.<br />
Custom <strong>PI</strong>CA-Stack actuator with<br />
350 µm displacement.
Technical Data / Ordering Numbers<br />
Ordering Number Displacement Diameter Length L Blocking Stiffness Capacitance Resonant<br />
[µm -10/+20%] D [mm ] [mm ±0.5] force [N] [N/µm] [nF ±20%] frequency [kHz]<br />
P-007.00 5 7 8 650 130 11 126<br />
P-007.10 15 7 17 850 59 33 59<br />
P-007.20 30 7 29 1000 35 64 36<br />
P-007.40 60 7 54 1150 19 130 20<br />
P-010.00 5 10 8 1400 270 21 125<br />
P-010.10 15 10 17 1800 120 64 59<br />
P-010.20 30 10 30 2100 71 130 35<br />
P-010.40 60 10 56 2200 38 260 20<br />
P-010.80 120 10 107 2400 20 510 10<br />
P-016,10 15 16 17 4600 320 180 59<br />
P-018,20 30 16 29 5500 190 340 36<br />
P-016.40 60 16 54 6000 100 680 20<br />
P-016.80 120 16 101 6500 54 1300 11<br />
P-016.90 180 16 150 6500 36 2000 7<br />
P-025.10 15 25 18 11000 740 400 56<br />
P-025.20 30 25 30 13000 440 820 35<br />
P-025.40 60 25 53 15000 250 1700 21<br />
P-025.80 120 25 101 16000 130 3400 11<br />
P-025.90 180 25 149 16000 89 5100 7<br />
P-025.150 250 25 204 16000 65 7100 5<br />
P-025.200 300 25 244 16000 54 8500 5<br />
P-035.10 15 35 20 20000 1300 830 51<br />
P-035.20 30 35 32 24000 810 1700 33<br />
P-035.40 60 35 57 28000 460 3400 19<br />
P-035.80 120 35 104 30000 250 6900 11<br />
P-035.90 180 35 153 31000 170 10000 7<br />
P-045.20 30 45 33 39000 1300 2800 32<br />
P-045.40 60 45 58 44000 740 5700 19<br />
P-045.80 120 45 105 49000 410 11000 10<br />
P-045.90 180 45 154 50000 280 17000 7<br />
P-050.20 30 50 33 48000 1600 3400 32<br />
P-050.40 60 50 58 55000 910 7000 19<br />
P-050.80 120 50 105 60000 500 14000 10<br />
P-050.90 180 50 154 61000 340 22000 7<br />
P-056.20 30 56 33 60000 2000 4300 32<br />
P-056.40 60 56 58 66000 1100 8900 19<br />
P-056.80 120 56 105 76000 630 18000 10<br />
P-056.90 180 56 154 78000 430 27000 7<br />
Resonant frequency measured at 1 V pp , capacitance measured at 1 V pp , 1 kHz. Blocking force measured at 1000 V.<br />
Standard PZT ceramic type: <strong>PI</strong>C 151 (see page 40, <strong>PI</strong> Ceramic catalog)<br />
Operating voltage range: 0 to 1000 V<br />
Operating temperature range: -20 to +85 °C<br />
Standard mechanical interface (top & bottom): steel plates, 0.5 - 2 mm thick (depends on model)<br />
Standard electrical interface: two PTFE insulated wires, pigtail length 100 mm<br />
Available options: integrated piezo force sensor or strain gauge sensors, non magnetic, vacuum compatible, etc.<br />
O<strong>the</strong>r specifications on request.<br />
Specifications subject to change without notice.<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
Custom <strong>PI</strong>CA-Stack actuators with<br />
rectangular cross-sections.<br />
Custom <strong>PI</strong>CA-Stack actuator, each layer<br />
wired individually.<br />
http://www.pi.ws<br />
info@pi.ws<br />
<strong>PI</strong>CA-Stack dimensions, in mm,<br />
see technical data table for fur<strong>the</strong>r information.<br />
1-47
Application<br />
Examples<br />
� Scanning interferometry<br />
� Surface structure analysis<br />
� Disk drive testing<br />
� Autofocus systems<br />
� Confocal microscopy<br />
� Biotechnology<br />
� Semiconductor test equipment<br />
Ordering<br />
Information<br />
P-721.CLQ<br />
<strong>PI</strong>FOC ® Objective Positioner &<br />
Scanner, 100 µm, Capacitive Sensor,<br />
LEMO Connectors, for Quick Lock<br />
Thread Adapters<br />
P-721.CDQ<br />
<strong>PI</strong>FOC ® Objective Positioner &<br />
Scanner, 100 µm, Capacitive Sensor,<br />
Sub-D connector, for Quick Lock<br />
Thread Adapters<br />
P-721.LLQ<br />
<strong>PI</strong>FOC ® Objective Positioner &<br />
Scanner, 100 µm, LVDT Sensor,<br />
LEMO Connectors, for Quick Lock<br />
Thread Adapters<br />
Custom Designs<br />
for Volume Buyers<br />
2-46<br />
P-721<br />
P-721.CLQ with quick lock option P-721.12Q<br />
and objective (not included).<br />
2-1 to 2-45 see <strong>the</strong><br />
hardbound <strong>PI</strong> catalog<br />
<strong>PI</strong>FOC ® High-Speed Piezo Nano-Focussing<br />
Device with Direct Metrology Feedback<br />
� Scans and Positions<br />
Objectives with Sub-nm<br />
Resolution<br />
� High Linearity and<br />
Stability with Direct-<br />
Measuring Capacitive<br />
Sensors/LVDTs<br />
� Travel to 100 µm<br />
� Straightness of Travel<br />
� 13 µrad<br />
� Fast Settling Time<br />
� Compatible with<br />
Metamorph Imaging<br />
Software<br />
P-721 are high-end microscope<br />
objective nanofocussing devices<br />
for travel ranges to 100 µm<br />
with a resolution to less than<br />
a nanometer. The units are<br />
screwed between <strong>the</strong> turret<br />
and <strong>the</strong> objective, providing a<br />
positioning and scanning range<br />
of up to 100 µm with subnanometer<br />
resolution, while<br />
extending <strong>the</strong> optical path by<br />
only 12.5 mm (infinity-corrected<br />
microscope required;<br />
extension tubes are available<br />
to adjust path lengths of o<strong>the</strong>r<br />
objectives on <strong>the</strong> turret).<br />
Superior Accuracy Through<br />
Direct Motion Metrology /<br />
Capacitive Feedback<br />
P-721.CLQ and .CDQ are<br />
equipped with direct-measuring<br />
capacitve position sensors.<br />
Unlike conventional systems,<br />
<strong>the</strong>y measure <strong>the</strong> position<br />
ra<strong>the</strong>r than strain in <strong>the</strong> actuator<br />
/ guiding system. This technique,<br />
combined with <strong>the</strong><br />
inherent precision of <strong>the</strong> noncontact<br />
capacitive sensor and<br />
<strong>the</strong> temperature compensated<br />
design, results in higher linearity<br />
scans, and provides superior<br />
responsiveness, resolution,<br />
repeatability and stability at <strong>the</strong><br />
nanometer level.<br />
http://www.pi.ws<br />
info@pi.ws<br />
Model P-721.LLQ is a lower<br />
cost version, equipped with a<br />
direct measuring LVDT sensor<br />
providing 10 nm resolution.<br />
A variety of analog and digital<br />
controllers (OEM, bench-top<br />
and rackmount) are available to<br />
drive <strong>the</strong> units. Model<br />
P-721.CDQ can be operated<br />
with <strong>the</strong> new E-665 servo-controller<br />
through an anlalog or<br />
RS-232 interface or <strong>the</strong> E-750<br />
high-speed digital NanoAutomation<br />
® controller. This controller<br />
also features a number of<br />
options such as high-throughput<br />
<strong>PI</strong>O (parallel I/O port) or<br />
fiber link interfaces and Input-<br />
Shaping signal processing for<br />
<strong>the</strong> fastest possible settling.<br />
Working Principle<br />
<strong>PI</strong>FOC ® positioners are equiped<br />
with high-performance<br />
piezoelectric drives integrated<br />
into a sophisticated flexure<br />
guiding system. The force<br />
exerted by <strong>the</strong> piezo drive<br />
pushes a flexure parallelogram<br />
via an integrated motion amplifier.<br />
The wire-EDM-cut flexures<br />
are FEA modeled for zero<br />
stiction/friction, high resolution<br />
and exceptional guiding precision.<br />
Integrated, absolute measuring,<br />
direct metrology position<br />
sensors provide highest<br />
possible resolution, linearity<br />
and stability in closed-loop operation.<br />
Quick Lock<br />
The new quicklock thread adapter<br />
options allow<br />
� Easy attachment of <strong>the</strong><br />
<strong>PI</strong>FOC ® to <strong>the</strong> microscope.<br />
� Flexible use of several<br />
thread adapter options with<br />
one <strong>PI</strong>FOC ® nanofocussing<br />
device.<br />
After <strong>the</strong> thread adapter is<br />
screwed into <strong>the</strong> microscope,<br />
<strong>the</strong> <strong>PI</strong>FOC ® is attached to <strong>the</strong><br />
adapter with <strong>the</strong> quick lock<br />
system in <strong>the</strong> desired position.<br />
Mounting does not require<br />
rotation of <strong>the</strong> <strong>PI</strong>FOC ® unit, so<br />
<strong>the</strong>re are no cable twisting<br />
issues.<br />
Please order thread adapters<br />
separately, <strong>the</strong> basic <strong>PI</strong>FOC ®<br />
units P-721.CDQ, P-721.CLQ<br />
and P-721.LLQ do not include<br />
any thread adapter.<br />
O<strong>the</strong>r <strong>PI</strong>FOC ® s<br />
<strong>PI</strong>FOC ® s are also available with<br />
up to 400 µm travel (P-725, see<br />
p. 2-48) and for open loop operation<br />
only (P-720, see p. 2-10).<br />
Custom units for moving <strong>the</strong><br />
whole turret are available on<br />
request.<br />
Quick lock thread adapter P-721.12Q<br />
exploded view with microscope<br />
objective and <strong>PI</strong>FOC ® P-721.CLQ.<br />
Mounting tools are included.
Dimensions of <strong>the</strong> P-721.CLQ, CDQ or LLQ in mm<br />
(dimensions including thread adapter).<br />
Notes<br />
Quick Lock Thread Adapters<br />
P-721.11Q<br />
Quick lock Thread Adapter M25 x 0.75<br />
P-721.12Q<br />
Quick lock Thread Adapter W0.8 x 1/36”<br />
P-721.02Q<br />
Quick lock Thread Adapter M26 x 0.75<br />
P-721.03Q<br />
Quick lock Thread Adapter M27 x 0.75<br />
P-721.04Q<br />
Quick lock Thread Adapter M28 x 0.75<br />
P-721.05Q<br />
Quick lock Thread Adapter M32 x 0.75<br />
Technical Data<br />
P-721.06Q<br />
Quick lock Thread Adapter M26 x 1/36”<br />
P-721.08Q<br />
Quick lock Thread Adapter M19 x 0.75<br />
Objective Extension Tubes<br />
P-721.90Q<br />
Objective extension tube, 12.5 mm,<br />
thread W0.8 x 1/36”<br />
P-721.91Q<br />
Objective extension tube, 12.5 mm,<br />
thread M25 x 0.75<br />
P-721.92Q<br />
Objective extension tube, 12.5 mm,<br />
thread M26 x 0.75<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
Models P-721.CLQ P-721.LLQ units Notes<br />
see p. 2-44<br />
Max. objective diameter 39 39 mm<br />
Open-loop travel @ 0 to 100 V 90 90 µm ± 20% A2<br />
Closed-loop travel 100 100 µm A5<br />
Integrated feedback sensor Capacitive LVDT B<br />
Closed-loop ** resolution 0.7 10 nm C1<br />
Closed-loop linearity (typ.) 0.03 0.1 %<br />
Full-range repeatability (typ.) ± 5 ± 20 nm C3<br />
Stiffness 0.3 0.3 N/µm ± 20% D1<br />
Push/pull force capacity (in operating direction) 100 / 20 100 / 20 N D3<br />
Tilt (� ) (typ.) X 0.5 0.5 µrad E1<br />
Tilt (� ) (typ.) Y 13 13 µrad E1<br />
Lateral runout (Y) (typ.) 100 100 nm E2<br />
Electrical capacitance 3.6 3.6 µF ±20% F1<br />
* Dynamic operating current coefficient (DOCC) 5 5 µA/(Hz �µm) F2<br />
Unloaded resonant frequency 580 580 Hz ±20% G2<br />
Resonant frequency @ 120 g load 250 250 Hz ±20% G3<br />
Resonant frequency @ 200 g load 190 190 Hz ±20% G3<br />
Operating temperature range – 20 to 80 – 20 to 80 °C H2<br />
Voltage connection P-721.CLQ: VL;<br />
P-721.CDQ: D VL J1<br />
Sensor connection P-721.CLQ: 2 � C;<br />
P-721.CDQ: D L J2<br />
Weight (with cables) 240 230 g ±5%<br />
Body material<br />
Recommended driver/controller<br />
Al Al L<br />
(codes explained in <strong>the</strong> catalog p. 6-46p. 6-46) H, M, F H, E<br />
** Dynamic Operating Current Coefficient in µA per hertz and µm.<br />
Example: Sinusoidal scan of 30 µm at 10 Hz requires approximately 1.4 mA drive current.<br />
** Resolution of PZT NanoPositioners is not limited by friction or stiction.<br />
Noise equivalent motion with E-503 amplifier.<br />
P-721.93Q<br />
Objective extension tube, 12.5 mm,<br />
thread M27 x 0.75<br />
P-721.94Q<br />
Objective extension tube, 12.5 mm,<br />
thread M28 x 0.75<br />
P-721.95Q<br />
Objective extension tube, 12.5 mm,<br />
thread M32 x 0.75<br />
P-721.96Q<br />
Objective extension tube, 12.5 mm,<br />
thread M26 x 1/36”<br />
P-721.98Q<br />
Objective extension tube, 12.5 mm,<br />
thread M19 x 0.75<br />
2-47
Ordering<br />
Information<br />
P-725.1CL<br />
<strong>PI</strong>FOC ® Objective Positioner &<br />
Scanner, 100 µm, Capacitive Sensor,<br />
LEMO Connectors, for QuickLock<br />
Thread Adapters<br />
P-725.1CD<br />
<strong>PI</strong>FOC ® Objective Positioner & Scanner,<br />
100 µm, Capacitive Sensor, Sub-D connector,<br />
for QuickLock<br />
Thread Adapters<br />
P-725.2CL<br />
<strong>PI</strong>FOC ® Objective Positioner & Scanner,<br />
250 µm, Capacitive Sensor, LEMO<br />
Connectors, for QuickLock Thread<br />
Adapters<br />
P-725.2CD<br />
<strong>PI</strong>FOC ® Objective Positioner & Scanner,<br />
250 µm, Capacitive Sensor, Sub-D connector,<br />
for QuickLock<br />
Thread Adapters<br />
P-725.4CL<br />
<strong>PI</strong>FOC ® Objective Positioner & Scanner,<br />
400 µm, Capacitive Sensor,<br />
LEMO Connectors, for QuickLock<br />
Thread Adapters<br />
P-725.4CD<br />
<strong>PI</strong>FOC ® Objective Positioner & Scanner,<br />
400 µm, Capacitive Sensor,<br />
Sub-D connector, for QuickLock<br />
Thread Adapters<br />
Custom Designs<br />
for Volume Buyers<br />
2-48<br />
P-725<br />
P-725.2CL with QuickLock option<br />
P-721.12Q for W0.8 x 1/36” threads<br />
and objective.<br />
<strong>PI</strong>FOC ® Long Range Microscope Objective<br />
Positioners & Scanners with Capacitive Sensors<br />
� Scans and Positions<br />
Objectives with Sub-nm<br />
Resolution<br />
� High Linearity and Stability<br />
with Direct-Measuring<br />
Capacitive Sensors<br />
� Travel to 500 µm<br />
� Most-Compact Unit with<br />
Direct Metrology<br />
� Enhanced Guiding<br />
Precision for Better Focus<br />
Stability<br />
� Fast Response &<br />
Settling Time<br />
� Compatible with<br />
Metamorph Imaging<br />
Software<br />
� QuickLock Adapter for<br />
Easy Attachment<br />
P-725s are long-range-travel<br />
additions to our <strong>PI</strong>FOC ® family<br />
of microscope objective nanofocussing<br />
devices. Despite <strong>the</strong><br />
increased travel ranges (up to<br />
500 µm) <strong>the</strong> units are 20 %<br />
shorter than <strong>the</strong> P-721 series<br />
(page 2-46), while providing<br />
sub-nanometer resolution. The<br />
long travel range is achieved<br />
with a newly designed, friction-free<br />
and extremely stiff<br />
flexure system which also<br />
offers high guiding accuracy<br />
and rapid settling.<br />
P-725 <strong>PI</strong>FOCs ® are screwed<br />
between <strong>the</strong> turret and <strong>the</strong> objective,<br />
extending <strong>the</strong> optical<br />
path by only 12.5 mm (infinitycorrected<br />
microscope required;<br />
extension tubes are available<br />
to adjust path lengths of<br />
o<strong>the</strong>r objectives on <strong>the</strong> turret).<br />
Superior Accuracy<br />
Through Direct-Motion-<br />
Metrology Capacitive<br />
Feedback Sensors<br />
P-725s are equipped with<br />
direct-measuring capacitve po-<br />
http://www.pi.ws<br />
info@pi.ws<br />
sition sensors. Unlike conventional<br />
indirect systems, <strong>the</strong>y<br />
measure <strong>the</strong> position ra<strong>the</strong>r<br />
than strain in <strong>the</strong> actuator /<br />
guiding system. Capacitive<br />
sensors are absolute-measuring<br />
devices and show none of<br />
<strong>the</strong> periodic errors found in<br />
incremental linear encoders.<br />
This permits motion linearity of<br />
better than 0.03% and resolution<br />
in <strong>the</strong> sub-nanometer<br />
range. This technique, combined<br />
with <strong>the</strong> inherent precision<br />
of <strong>the</strong> non-contact, twoplate<br />
capacitive sensor and <strong>the</strong><br />
temperature-compensated design,<br />
results in higher linearity<br />
scans, and provides superior<br />
responsiveness, resolution,<br />
repeatability and stability at <strong>the</strong><br />
nanometer level.<br />
Fastest Step-and-Settle:<br />
25 Milliseconds for<br />
250 Microns<br />
The P-725.2CL can perform a<br />
250 µm step to 1% accuracy in<br />
only 25 ms (E-665.CR controller<br />
no load) and 50 ms with<br />
a load of 150 g.<br />
A variety of analog and digital<br />
controllers (OEM, bench-top<br />
and rackmount) are available to<br />
drive <strong>the</strong> units. The P-725.xCD<br />
model can be operated with<br />
<strong>the</strong> new E-665 servo-controller<br />
through an analog or RS-232<br />
interface 60901)or ernumer itsor<br />
•• ( <strong>the</strong> E-750 highspeed<br />
digital NanoAutomation<br />
® controller (see page 6-12).<br />
This controller also features a<br />
number of options such as<br />
high-throughput <strong>PI</strong>O (parallel<br />
I/O) or fiber link interfacing and<br />
InputShaping ® signal processing<br />
for even faster settling.<br />
se page 6-<br />
Application<br />
Examples<br />
� Scanning interferometry<br />
� Surface structure analysis<br />
� Disk drive testing<br />
� Autofocus systems<br />
� Confocal microscopy<br />
� Biotechnology<br />
� Semiconductor test equipment<br />
Increased Lifetime<br />
with New Piezoceramic<br />
The P-725 <strong>PI</strong>FOC ® units are<br />
driven with <strong>PI</strong> Ceramic’s<br />
<strong>PI</strong>CMA ® high-performance,<br />
multilayer piezo ceramic actuators.<br />
These newly designed<br />
and highly optimized drives are<br />
more robust than conventional<br />
piezo actuators, and feature<br />
superior lifetime in dynamic<br />
and static applications. Because<br />
guidance and sensors are all<br />
frictionless and maintenancefree,<br />
<strong>PI</strong>FOC ® systems achieve<br />
exceptional levels of reliability.<br />
Working Principle<br />
<strong>PI</strong>FOC ® positioners are equipped<br />
with high-performance<br />
piezoelectric drives integrated<br />
in a sophisticated flexure guiding<br />
system. The force exerted<br />
by <strong>the</strong> piezo drive pushes a<br />
flexure parallelogram via an<br />
integrated motion amplifier.<br />
The wire-EDM-cut flexures are<br />
FEA modeled for zero stiction/friction,<br />
high resolution<br />
and exceptional guiding precision.<br />
An integrated, directmeasuring,<br />
non-contact, twoplate<br />
capacitive position sensor<br />
provides <strong>the</strong> highest possible<br />
resolution, linearity and stability<br />
in closed-loop operation.<br />
O<strong>the</strong>r <strong>PI</strong>FOC ® s<br />
<strong>PI</strong>FOC ® s are also available in<br />
different form factors (P-721,<br />
see p. 2-46) and for open loop<br />
operation only (P-720, see p.<br />
2-10). Custom units for moving<br />
<strong>the</strong> whole turret are available<br />
on request.
P-721.12Q QuickLock thread adapter,<br />
exploded view with microscope objective<br />
and <strong>PI</strong>FOC ® . Mounting tools are<br />
included.<br />
QuickLock<br />
The new QuickLock thread<br />
adapter options allow<br />
� Easy attachment of <strong>the</strong><br />
<strong>PI</strong>FOC ® to <strong>the</strong> microscope.<br />
� Flexible use of different thread<br />
adapter options with one<br />
<strong>PI</strong>FOC ® nanofocussing device.<br />
After <strong>the</strong> thread adapter is<br />
screwed into <strong>the</strong> microscope,<br />
<strong>the</strong> <strong>PI</strong>FOC ® is attached to <strong>the</strong><br />
adapter with <strong>the</strong> QuickLock<br />
system in <strong>the</strong> desired position.<br />
Mounting does not require<br />
rotation of <strong>the</strong> <strong>PI</strong>FOC ® unit, so<br />
<strong>the</strong>re are no cable twisting<br />
issues. Be sure to order <strong>the</strong><br />
required thread adapters separately:<br />
<strong>the</strong> basic P-725 <strong>PI</strong>FOC ®<br />
units do not include any Quick-<br />
Lock thread adapters.<br />
Technical Data<br />
25 ms for a 250 µm step-top dynamic performance<br />
of <strong>the</strong> P-725.2CL <strong>PI</strong>FOC ® .<br />
Dimensions of <strong>the</strong> P-725 in mm (dimensions in<br />
mm, thread adapter ordered separately, decimal<br />
places separated by commas in drawings).<br />
Models P-725.1CL, P-725.2CL, P-725.4CL, Units Notes see<br />
P-725.1CD P-725.2CD P-725.4CD page 2-44<br />
Max. objective diameter 39 39 39 mm<br />
Min. Open-loop travel @ -20 to 120 V 150 330 460 µm ±20% A2<br />
Closed-loop travel 100 250 400 µm A5<br />
Integrated feedback sensor Capacitive Capacitive Capacitive B<br />
Closed-loop ** resolution 0.65 0.75 1.25 nm C1<br />
Closed-loop linearity (typ.) 0.03 0.03 0.03 %<br />
Full-range repeatability (typ.) ±5 ±5 ±5 nm C3<br />
Stiffness 0.25 0.2 N/µm ±20% D1<br />
Push/pull force capacity (in operating direction) 100 / 20 100 / 20 100 / 20 N D3<br />
Tilt (� X) (typ.) 1 6 18 µrad E1<br />
Tilt (� Y) (typ.) 20 45 25 µrad E1<br />
Lateral runout (Y) (typ.) 40 40 40 nm E2<br />
Electrical capacitance 4.2 6.0 6.0 µF ±20% F1<br />
* Dynamic operating current coefficient (DOCC) 4.0 2.5 1.9 µA/(Hz � µm) F2<br />
Unloaded resonant frequency 530 330 200 Hz ±20% G2<br />
Resonant frequency @ 120 g load 205 180 115 Hz ±20% G3<br />
Resonant frequency @ 200 g load 160 140 Hz ±20% G3<br />
Operating temperature range - 20 to 80 -20 to 80 -20 to 80 °C H2<br />
Voltage connection P-725.xCL: VL; P-725.xCD: D J1<br />
Sensor connection P-725.xCL: 2 � C; P-725.xCD: D J2<br />
Weight (with cables) 215 (230) 230 (245) 230 (245) g ±5%<br />
Body material Al Al Al L<br />
Recommended driver/controller<br />
(codes explained p. 6-46) H, M, F H, M, F H, M, F<br />
* Dynamic Operating Current Coefficient in µA per hertz and µm.<br />
Example (P-725.2C): Sinusoidal scan of 30 µm at 10 Hz requires approximately 0.75 mA drive current.<br />
** Resolution of <strong>PI</strong> Piezo NanoPositioners is not limited by friction or stiction. Noise equivalent motion with E-503 amplifier.<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
Notes<br />
QuickLock Thread adapters<br />
P-721.11Q<br />
QuickLock Thread Adapter<br />
M25 x 0.75<br />
P-721.12Q<br />
QuickLock Thread Adapter<br />
W0.8 x 1/36”<br />
P-721.02Q<br />
QuickLock Thread Adapter<br />
M26 x 0.75<br />
P-721.03Q<br />
QuickLock Thread Adapter<br />
M27 x 0.75<br />
P-721.04Q<br />
QuickLock Thread Adapter<br />
M28 x 0.75<br />
P-721.05Q<br />
QuickLock Thread Adapter<br />
M32 x 0.75<br />
P-721.06Q<br />
QuickLock Thread Adapter<br />
M26 x 1/36”<br />
P-721.08Q<br />
QuickLock Thread Adapter<br />
M19 x 0.75<br />
Objective Extension Tubes<br />
P-721.90Q<br />
Objective extension tube,<br />
12.5 mm, thread W0.8 x 1/36”<br />
P-721.91Q<br />
Objective extension tube,<br />
12.5 mm, thread M25 x 0.75<br />
P-721.92Q<br />
Objective extension tube,<br />
12.5 mm, thread M26 x 0.75<br />
P-721.93Q<br />
Objective extension tube,<br />
12.5 mm, thread M27 x 0.75<br />
P-721.94Q<br />
Objective extension tube,<br />
12.5 mm, thread M28 x 0.75<br />
P-721.95Q<br />
Objective extension tube,<br />
12.5 mm, thread M32 x 0.75<br />
P-721.96Q<br />
Objective extension tube,<br />
12.5 mm, thread M26 x 1/36”<br />
P-721.98Q<br />
Objective extension tube,<br />
12.5 mm, thread M19 x 0.75<br />
2-49
Ordering<br />
Information<br />
P-620.1CD<br />
<strong>PI</strong>Hera Nanopositioning System,<br />
50 µm, Capacitive Sensors, Sub-D<br />
Connector<br />
P-620.1CL<br />
<strong>PI</strong>Hera Nanopositioning System,<br />
50 µm, Capacitive Sensors, LEMO<br />
Connectors<br />
P-620.10L<br />
<strong>PI</strong>Hera Nanopositioning System,<br />
50 µm, Open-Loop, LEMO Connector<br />
P-621.1CD<br />
<strong>PI</strong>Hera NanoPositioning System,<br />
100 µm, Capacitive Sensors, Sub-D<br />
Connector<br />
P-621.1CL<br />
<strong>PI</strong>Hera NanoPositioning System,<br />
100 µm, Capacitive Sensors, LEMO<br />
Connectors<br />
P-621.10L<br />
<strong>PI</strong>Hera NanoPositioning System,<br />
100 µm, Open-Loop, LEMO<br />
Connector<br />
P-622.1CD<br />
<strong>PI</strong>Hera NanoPositioning System,<br />
250 µm, Capacitive Sensors, Sub-D<br />
Connector<br />
P-622.1CL<br />
<strong>PI</strong>Hera NanoPositioning System,<br />
250 µm, Capacitive Sensors, LEMO<br />
Connectors<br />
P-622.10L<br />
<strong>PI</strong>Hera NanoPositioning System,<br />
250 µm, Open-Loop, LEMO<br />
Connector<br />
P-625.1CD<br />
<strong>PI</strong>Hera NanoPositioning System,<br />
500 µm, Capacitive Sensors, Sub-D<br />
Connector<br />
P-625.1CL<br />
<strong>PI</strong>Hera NanoPositioning System,<br />
500 µm, Capacitive Sensors, LEMO<br />
Connectors<br />
P-625.10L<br />
<strong>PI</strong>Hera NanoPositioning System,<br />
500 µm, Open-Loop, LEMO<br />
Connector<br />
Vacuum versions available!<br />
XY & Z Versions: See separate<br />
Datasheets.<br />
Custom sizes & specifications<br />
available!<br />
2-50<br />
P-620.1CD<br />
P-621.1CD<br />
P-622.1CD<br />
P-625.1CD<br />
<strong>PI</strong>Hera Compact Long-Range Piezo<br />
Nano-Translation Stages<br />
P-622.1CD, P-621.1CD, P-620.1CD and P-625.1CD <strong>PI</strong>Hera TM piezo nano-translation<br />
stages, from left to right (credit card for size comparison).<br />
� Travel to 500 µm<br />
� Compact Design<br />
� Resolution < 1 nm<br />
� Low Cost<br />
� New Longlife Piezo Drive<br />
� Capacitive Feedback<br />
(Closed-Loop)<br />
� 0.01 % Position Accuracy<br />
� X, XY, Z, XYZ Versions<br />
� Vacuum-Compatible<br />
Versions<br />
P-620.1CD - P-625.1CD <strong>PI</strong>Hera<br />
systems are piezo nano-translation<br />
stages featuring travel<br />
ranges from 50 to 500 µm.<br />
Despite <strong>the</strong> increased travel<br />
ranges <strong>the</strong> units are extremely<br />
compact, while providing subnanometer<br />
resolution. The<br />
long travel range is achieved<br />
with a newly designed, friction-free<br />
and extremely stiff<br />
flexure system which also<br />
http://www.pi.ws<br />
info@pi.ws<br />
offers excellent guiding accuracy<br />
(typically less than 5 µrad<br />
pitch/yaw over <strong>the</strong> full travel<br />
range) and rapid settling.<br />
Multi-Axis Versions,<br />
X, XY, Z, XYZ<br />
<strong>PI</strong>Hera TM stages are also<br />
available in XY and Z versions.<br />
See p. 2-52 and 2-54.<br />
XZ and XYZ combinations<br />
can be assembled (no<br />
adapters required).<br />
Superior Accuracy<br />
Through Direct-Motion-<br />
Metrology Capacitive<br />
Feedback Sensors<br />
Applications such as optical<br />
path control in interferometry,<br />
or sample positioning in microscopy<br />
require long travel<br />
ranges with nanometer positioning<br />
accuracy. <strong>PI</strong>Hera<br />
Rapid scanning motion of a P-621.1CD (commanded rise time 5 ms) with <strong>the</strong><br />
E-710 controller and DDL option. Digital Dynamic Linearization virtually eliminates<br />
<strong>the</strong> tracking error (
Dimensions of <strong>the</strong> P-62x.1CD/.1CL/.10L in mm,<br />
decimal places separated by commas.<br />
Technical Data<br />
<strong>PI</strong>Hera XYZ combination<br />
Models P-620.1CD P-621.1CD P-622.1CD P-625.1CD P-62x.1CL P-62x.10L Units<br />
Active axes X X X X X X<br />
Closed-loop travel 50 100 250 500 same as µm<br />
CD version —<br />
Min. open-loop travel -20 to 120V 60 120 300 600 same as same as mm<br />
CD version CD version<br />
Integrated feedback sensor capacitive capacitive capacitive capacitive capacitive —<br />
Open-loop resolution* 0.1 0.2 0.4 0.5 same as same as nm<br />
CD version CD version<br />
Closed-loop resolution* 0.2 0.4 0.7 1.4 same as<br />
CD version<br />
— nm<br />
Closed-loop linearity (typ.) 0.01 0.01 0.01 0.01 0.01 — %<br />
Stiffness 0.42 0.35 0.15 0.1 same as same as N/µm<br />
CD version CD version<br />
Push/pull force capacity (in X) 10/5 10/8 10/8 10/8 same as same as N<br />
CD version CD version<br />
Max. Load 10 10 10 10 10 10 N<br />
Lateral force limit 10 10 10 10 10 10 N<br />
Tilt (�Y, �Z) (typ.) 3 3 3 6 same as same as µrad<br />
CD version CD version<br />
Electrical capacitance 0.75 1.5 3.0 6.0 same as same as µF ±20%<br />
CD version CD version<br />
Unloaded resonant frequency 1240 800 400 215 same as same as Hz ±20%<br />
CD version CD version<br />
Resonant frequency @ 20 g load 550 520 340 180 same as same as Hz ±20%<br />
CD version CD version<br />
Resonant frequency @ 120 g load 260 240 185 110 same as same as Hz ±20%<br />
CD version CD version<br />
Operating temperature range -40 to 120 -40 to 120 -40 to 120 -40 to 120 -40 to 120 -40 to 150 °C<br />
Voltage and sensor connection Sub-D special Sub-D special Sub-D special Sub-D special Voltage: LEMO Voltage: LEMO<br />
connector connector connector connector FFA.00.250 FFA.00.250,<br />
male; sensor:<br />
2xLEMO FFA.<br />
00.250 female<br />
no sensor<br />
Weight (with cables) 108 158 195 238 g ±5%<br />
Body material Al Al Al Al Al Al<br />
Recommended controller E-500 System, E-665, E-750 (digital), E-710 (digital) E-500 System, E-610<br />
*Resolution of <strong>PI</strong> Piezo NanoPositioners is not limited by friction or stiction. Noise equivalent motion with E-710 controller.<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
results in higher linearity scans,<br />
and provides superior responsiveness,<br />
resolution, repeatability<br />
and stability.<br />
Rapid Positioning<br />
over Long Ranges<br />
One of <strong>the</strong> advantages of<br />
<strong>PI</strong>Hera stages over (linear)<br />
motor driven positioning stages<br />
is <strong>the</strong> rapid response to<br />
motion inputs and fast and precise<br />
settling behavior. The<br />
P-622.1CD, for example, can<br />
settle to an accuracy of 10 nm<br />
in only 30 msec after a 10 µm<br />
step (o<strong>the</strong>r <strong>PI</strong> stages provide<br />
even faster response)!<br />
Dynamic Digital Control for<br />
Best Scanning Linearity<br />
Use our new digital control electronics<br />
with <strong>the</strong> dynamic digital<br />
control option for <strong>the</strong> highest<br />
linearity in scanning applications.<br />
These systems virtually<br />
eliminate tracking errors and<br />
permit use of <strong>the</strong> entire travel<br />
range with high dynamic accuracy<br />
in <strong>the</strong> nanometer range.<br />
Increased Lifetime with New<br />
Piezoceramic Technology<br />
The <strong>PI</strong>Hera stage drive units<br />
are based on our P-885<br />
<strong>PI</strong>CMA ® low-voltage multilayer<br />
piezo ceramics. These newly<br />
designed and highly optimized<br />
drives are more robust than conventional<br />
piezo actuators, and<br />
feature superior lifetime in dynamic<br />
and static applications.<br />
Because guidance and sensors<br />
are all frictionless and maintenance-free,<br />
<strong>PI</strong>Hera systems<br />
achieve exceptional levels of<br />
reliability.<br />
2-51
Ordering<br />
Information<br />
P-620.2CD<br />
<strong>PI</strong>Hera XY Nanopositioning<br />
System, 50 µm, Capacitive Sensors,<br />
Sub-D Connector<br />
P-620.2CL<br />
<strong>PI</strong>Hera XY Nanopositioning<br />
System, 50 µm, Capacitive Sensors,<br />
LEMO Connectors<br />
P-620.20L<br />
<strong>PI</strong>Hera XY Nanopositioning<br />
System, 50 µm, Open-Loop,<br />
LEMO Connector<br />
P-621.2CD<br />
<strong>PI</strong>Hera XY Nanopositioning<br />
System, 100 µm, Capacitive<br />
Sensors, Sub-D Connector<br />
P-621.2CL<br />
<strong>PI</strong>Hera XY Nanopositioning<br />
System, 100 µm, Capacitive<br />
Sensors, LEMO Connectors<br />
P-621.20L<br />
<strong>PI</strong>Hera XY Nanopositioning<br />
System, 100 µm, Open-Loop,<br />
LEMO Connector<br />
P-622.2CD<br />
<strong>PI</strong>Hera XY Nanopositioning<br />
System, 250 µm, Capacitive<br />
Sensors, Sub-D Connector<br />
P-622.2CL<br />
<strong>PI</strong>Hera XY Nanopositioning<br />
System, 250 µm, Capacitive<br />
Sensors, LEMO Connectors<br />
P-622.20L<br />
<strong>PI</strong>Hera XY Nanopositioning<br />
System, 250 µm, Open-Loop,<br />
LEMO Connector<br />
P-625.2CD<br />
<strong>PI</strong>Hera XY Nanopositioning<br />
System, 500 µm, Capacitive<br />
Sensors, Sub-D Connector<br />
P-625.2CL<br />
<strong>PI</strong>Hera XY Nanopositioning<br />
System, 500 µm, Capacitive<br />
Sensors, LEMO Connectors<br />
P-625.20L<br />
<strong>PI</strong>Hera XY Nanopositioning<br />
System, 500 µm, Open-Loop,<br />
LEMO Connector<br />
Vacuum versions available!<br />
X & Z Versions: See separate<br />
Datasheets.<br />
Custom sizes & specifications<br />
available!<br />
2-52<br />
For <strong>the</strong> latest version go to http://www.pi.ws<br />
P-620.2CD<br />
P-621.2CD<br />
P-622.2CD<br />
P-625.2CD<br />
<strong>PI</strong>Hera Compact XY Long-Range Piezo<br />
Nano-Translation Stages<br />
P-621.2CD, P-622.2CD and P-625.2CD <strong>PI</strong>Hera XY piezo nano-translation stages,<br />
from left to right (CD for size comparsion).<br />
� XY-Travel to 500 µm<br />
� Compact Design<br />
� Resolution
Dimensions of <strong>the</strong> P-62x.2CD/.2CL/.20L in mm, decimal places separated by commas.<br />
Technical Data<br />
Models P-620.2CD P-621.2CD P-622.2CD P-625.2CD P-62x.2CL P-62x.20L Units<br />
Active axes X, Y X, Y X, Y X, Y X, Y X, Y<br />
Closed-loop travel per axis 50 100 250 500 same as µm<br />
CD version —<br />
Min. open-loop travel 60 120 300 600 same as same as µm<br />
-20 to 120 V per axis CD version CD version<br />
Integrated feedback sensor capacitive capacitive capacitive capacitive capacitive —<br />
Open-loop resolution* 0.1 0.2 0.4 0.5 same as same as nm<br />
CD version CD version<br />
Closed-loop resolution* 0.2 0.4 0.7 1.4 same as nm<br />
CD version —<br />
Closed-loop linearity (typ.) 0.03 0.03 0.03 0.03 0.03 — %<br />
Stiffness 0.40 0.25 0.20 0.10 same as same as N/µm<br />
CD version CD version<br />
Push/pull force capacity (in X and Y) 10/5 10/8 10/8 10/8 same as same as N<br />
CD version CD version<br />
Max. Load 10 10 10 10 10 10 N<br />
Lateral force limit 10 10 10 10 10 10 N<br />
Tilt (� Y, � Z) (typ.) 3 3 3 same as same as µrad<br />
CD version CD version<br />
Electrical capacitance per axis 0.75 1.5 3 6 same as same as µF ±20%<br />
CD version CD version<br />
Unloaded resonant frequency 800/600 635/535 435/270 350/150 same as same as Hz ±20%<br />
(upper/lower axis) CD version CD version<br />
Resonant frequency @ 50 g load 395/270 380/365 300/220 280/125 same as same as Hz ±20%<br />
(upper/lower axis) CD version CD version<br />
Resonant frequency @ 100 g load same as same as Hz ±20%<br />
(upper/lower axis) 300/285 290/285 235/190 210/115 CD version CD version<br />
Operating temperature range -40 to 120 -40 to 120 -40 to 120 -40 to 120 -40 to 120 -40 to 150 °C<br />
Voltage and sensor connection Sub-D special Sub-D special Sub-D special Sub-D special Voltage: 2x Voltage: 2x<br />
connector connector connector connector LEMO FFA.00. LEMO FFA.00.<br />
250 male;<br />
sensor: 4x<br />
LEMO FFA.00.<br />
250 female<br />
250, no sensor<br />
Weight (with cables) 195 295 348 430 g ±5%<br />
Body material Al Al Al Al Al Al<br />
Recommended controller E-500 System, E-665, E-750 (digital), E-710 (digital) E-500 System, E-610<br />
*Resolution of <strong>PI</strong> PZT NanoPositioners is not limited by friction or stiction. Noise equivalent motion with E-710 controller.<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
permit use of <strong>the</strong> entire travel<br />
range with high dynamic accuracy<br />
in <strong>the</strong> nanometer range.<br />
Increased Lifetime<br />
with New Piezoceramic<br />
Technology<br />
The <strong>PI</strong>Hera stage drive units<br />
are based on our P-885<br />
<strong>PI</strong>CMA ® low-voltage multilayer<br />
piezo ceramics. These<br />
newly designed and highly<br />
optimized drives are more<br />
robust than conventional piezo<br />
actuators, and feature superior<br />
lifetime in dynamic and static<br />
applications. Because guidance<br />
and sensors are all frictionless<br />
and maintenancefree,<br />
<strong>PI</strong>Hera systems achieve<br />
exceptional levels of reliability.<br />
2-53
Application<br />
Examples<br />
� (Dynamic) interferometry<br />
� Microscopy<br />
� Nanopositioning<br />
� Biotechnology<br />
� Quality assurance Semiconductor<br />
technology<br />
Ordering<br />
Information<br />
P-620.ZCD<br />
<strong>PI</strong>Hera Vertical Nanopositioning<br />
System, 50 µm, Capacitive Sensors,<br />
Sub-D Connector<br />
P-620.ZCL<br />
<strong>PI</strong>Hera Vertical Nanopositioning<br />
System, 50 µm, Capacitive Sensors,<br />
LEMO Connectors<br />
P-620.Z0L<br />
<strong>PI</strong>Hera Vertical Nanopositioning<br />
System, 50 µm, Open-Loop,<br />
LEMO Connector<br />
P-621.ZCD<br />
<strong>PI</strong>Hera Vertical Nanopositioning<br />
System, 100 µm, Capacitive Sensors,<br />
Sub-D Connector<br />
P-621.ZCL<br />
<strong>PI</strong>Hera Vertical Nanopositioning<br />
System, 100 µm, Capacitive Sensors,<br />
LEMO Connectors<br />
P-621.Z0L<br />
<strong>PI</strong>Hera Vertical Nanopositioning<br />
System, 100 µm, Open-Loop,<br />
LEMO Connector<br />
P-622.ZCD<br />
<strong>PI</strong>Hera Vertical Nanopositioning<br />
System, 250 µm, Capacitive Sensors,<br />
Sub-D Connector<br />
P-622.ZCL<br />
<strong>PI</strong>Hera Vertical Nanopositioning<br />
System, 250 µm, Capacitive Sensors,<br />
LEMO Connectors<br />
P-622.Z0L<br />
<strong>PI</strong>Hera Vertical Nanopositioning<br />
System, 250 µm, Open-Loop,<br />
LEMO Connector<br />
Vacuum versions available!<br />
X & XY Versions: See separate<br />
Datasheets.<br />
Custom sizes & specifications<br />
available!<br />
2-54<br />
P-620.ZCD<br />
P-621.ZCD<br />
P-622.ZCD<br />
<strong>PI</strong>Hera Compact Vertical Piezo<br />
Nano-Elevation Stages<br />
P-620.ZCL, P-621.ZCL and P-622.ZCL (from left to right)<br />
<strong>PI</strong>Hera piezo nano-elevation stages (CD for size comparison).<br />
� Z-Travel to 250 µm<br />
� Ultra-Compact Design<br />
� Resolution < 1 nm<br />
� Low Cost<br />
� New Longlife Piezo Drive<br />
� Capacitive Feedback<br />
(Closed-Loop)<br />
� 0.01 % Position Accuracy<br />
� X, XY, Z, XYZ Versions<br />
� Vacuum-Compatible<br />
Versions<br />
P-620.ZCD - P-622.ZCD <strong>PI</strong>Hera<br />
systems are novel piezo nanoelevation<br />
stages featuring travel<br />
ranges from 50 to 250 µm.<br />
Despite <strong>the</strong> increased travel<br />
ranges <strong>the</strong> units are extremely<br />
compact, while providing subnanometer<br />
resolution. The<br />
long travel range is achieved<br />
with a newly designed, friction-free<br />
and extremely stiff<br />
flexure system which also<br />
offers excellent guiding accuracy<br />
and rapid settling.<br />
Superior Accuracy Through<br />
Direct-Motion-Metrology<br />
Capacitive Feedback Sensors<br />
Applications such as optical<br />
path control in interferometry,<br />
or sample positioning in<br />
microscopy require long travel<br />
http://www.pi.ws<br />
info@pi.ws<br />
ranges with nanometer positioning<br />
accuracy. <strong>PI</strong>Hera offers<br />
Z-travel ranges to 250 µm<br />
(500 µm X and XY versions are<br />
also available). The closed-loop<br />
versions are equipped with<br />
Multi-Axis Versions, X,<br />
XY, Z, XYZ<br />
<strong>PI</strong>Hera TM stages are also<br />
available in X and XY versions.<br />
See p. 2-50 and 2-52.<br />
XZ and XYZ combinations<br />
can be assembled (no<br />
adapters required).<br />
non contact, zero friction,<br />
direct-measuring two-plate<br />
capacitve position sensors.<br />
Unlike conventional indirect<br />
sensors (such as strain gauge /<br />
piezo resistive sensors), <strong>the</strong>y<br />
measure <strong>the</strong> position directly<br />
ra<strong>the</strong>r than <strong>the</strong> strain in <strong>the</strong><br />
actuator / guiding system.<br />
Capacitive sensors are absolute-measuring<br />
high-bandwidth<br />
devices and show none of <strong>the</strong><br />
periodic errors found in incremental<br />
encoders. This permits<br />
motion linearity of better than<br />
0.01 % and effective resolution<br />
in <strong>the</strong> sub-nanometer range.<br />
This technique, combined with<br />
<strong>the</strong> inherent precision of <strong>the</strong> <strong>PI</strong><br />
two-plate capacitive sensor and<br />
<strong>the</strong> temperature-compensated<br />
design, results in higher linearity<br />
scans, and provides superior<br />
responsiveness, resolution, repeatability<br />
and stability.<br />
The settling time of a P-621.1CD<br />
(10 µm steps) is 15 milliseconds.<br />
Repeatability of a P-621.ZCD.<br />
<strong>PI</strong>Hera XYZ combination
Dimensions of <strong>the</strong> P-62x.ZCD/.ZCL/.Z0L in mm, decimal places separated by commas.<br />
Technical Data<br />
Models P-620.ZCD P-621.ZCD P-622.ZCD P-62x.ZCL P-62x.Z0L Units<br />
preliminary data preliminary data<br />
Active axes Z Z Z Z Z<br />
Closed-loop travel 50 100 250 same as µm<br />
CD version —<br />
Min. open-loop travel -20 to 120 V 120 275 same as same as µm<br />
CD version CD version<br />
Integrated feedback sensor capacitive capacitive capacitive capacitive —<br />
Open-loop resolution* 0.2 same as same as nm<br />
CD version CD version<br />
Closed-lop resolution* 0.3 same as nm<br />
CD version —<br />
Closed-loop linearity (typ.) 0.01 0.01 0.01 0.01 — %<br />
Stiffness 0.8 0.8 0.3 same as same as N/µm<br />
CD version CD version<br />
Push/pull force capacity (in X) 10/5 10/8 10/8 same as same as N<br />
CD version CD version<br />
Max. Load 10 10 10 10 10 N<br />
Lateral force limit 10 10 10 10 10 N<br />
Tilt (� Y, � Z) (typ.) 30 same as same as µrad<br />
CD version CD version<br />
Electrical capacitance 1.5 3.0 6.0 same as same as µF ±20%<br />
CD version CD version<br />
Unloaded resonant frequency 880 same as same as Hz ±20%<br />
CD version CD version<br />
Resonant frequency @ 20 g load 600 same as same as Hz ±20%<br />
CD version CD version<br />
Resonant frequency @ 100 g load 400 same as same as Hz ±20%<br />
CD version CD version<br />
Resonant frequency @ 200 g load 300 same as same as Hz ±20%<br />
CD version CD version<br />
Operating temperature range -40 to 120 -40 to 120 -40 to 120 -40 to 120 -40 to 150 °C<br />
Voltage and sensor connection Sub-D special Sub-D special Sub-D special Voltage: LEMO Voltage: LEMO<br />
connector connector connector FFA.00.250 FFA.00.250,<br />
male; sensor:<br />
2 x LEMO<br />
FFA.00.250 female<br />
no sensor<br />
Weight (with cables) 170 g ±5%<br />
Body material Al Al Al Al Al<br />
Recommended controller E-500 System, E-665, E-750 (digital), E-500 System, E-610<br />
E-710 (digital)<br />
*Resolution of <strong>PI</strong> Piezo NanoPositioners is not limited by friction or stiction. Noise equivalent motion with E-710 controller.<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
Rapid Positioning over Long<br />
Ranges<br />
One of <strong>the</strong> advantages of<br />
<strong>PI</strong>Hera stages over (linear)<br />
motor driven positioning stages<br />
is <strong>the</strong> rapid response to<br />
motion inputs and fast and<br />
precise settling behavior. The<br />
P-622.1CD, for example, can<br />
settle to an accuracy of 10 nm<br />
in only 30 msec after a 10 mm<br />
step (o<strong>the</strong>r <strong>PI</strong> stages provide<br />
even faster response)!<br />
Dynamic Digital Control for<br />
Best Scanning Linearity<br />
Use our new digital control<br />
electronics with <strong>the</strong> dynamic<br />
digital control option for <strong>the</strong><br />
highest linearity in scanning<br />
applications. These systems<br />
virtually eliminate tracking<br />
errors and permit use of <strong>the</strong><br />
entire travel range with high<br />
dynamic accuracy in <strong>the</strong> nanometer<br />
range.<br />
Increased Lifetime with New<br />
Piezoceramic Technology<br />
The <strong>PI</strong>Hera stage drive units<br />
are based on our P-885<br />
<strong>PI</strong>CMA ® low-voltage multilayer<br />
piezo ceramics. These<br />
newly designed and highly<br />
optimized drives are more<br />
robust than conventional piezo<br />
actuators, and feature superior<br />
lifetime in dynamic and static<br />
applications. Because guidance<br />
and sensors are all frictionless<br />
and maintenance-free,<br />
<strong>PI</strong>Hera systems achieve<br />
exceptional levels of reliability.<br />
2-55
Ordering<br />
Information<br />
Application<br />
Examples<br />
� Atomic Force Microscopy<br />
� Micromanipulation<br />
� Biotechnology<br />
� Nanomanipulation<br />
� Nano-imprinting<br />
� Nanometrology<br />
� Nanolithography<br />
2-56<br />
P-363<br />
P-363.2CD and .3CD (background)<br />
PicoCube, high-performance piezo positioning-<br />
and scanning systems.<br />
Smart media card for size comparsion.<br />
P-363.3CD<br />
PicoCube XYZ Positioning- and<br />
Scanning System, 6x6x6 µm,Parallel-<br />
Motion Metrology, Capacitive Sensors,<br />
Sub-D Connectors<br />
P-363.2CD<br />
PicoCube XY Positioning- and<br />
Scanning System, 6 x 6 µm, Parallel-<br />
Motion Metrology, Capacitive Sensors,<br />
Sub-D Connectors<br />
P-363.3CL<br />
PicoCube XYZ Positioning- and<br />
Scanning System, 6x6x6 µm,Parallel-<br />
Motion Metrology, Capacitive Sensors,<br />
Lemo Connectors<br />
P-363.2CL<br />
PicoCube XY Positioning- and<br />
Scanning System, 6 x 6 µm, Parallel-<br />
Motion Metrology, Capacitive Sensors,<br />
Lemo Connectors<br />
Different travel ranges or<br />
dimensions on request.<br />
PicoCube Ultra-Fast, XY and<br />
XYZ NanoPositioning and Scanning Stages<br />
� Ultra-High-Performace<br />
Closed-Loop Scanner for<br />
AFM/SPM<br />
� Superior Manipulation<br />
Tool for Nanotechnology<br />
� Resonant Frequency 9.8 kHz<br />
� Ultra-High-Resolution<br />
Capacitive Feedback<br />
� Parallel-Motion Metrology<br />
for Highest Linearity and<br />
Stability<br />
� 50 Picometer Resolution<br />
� 6 x 6 x 6 µm Travel Range<br />
� Very Small Package<br />
� Rugged Design<br />
Ultra-High-Performance<br />
Scanner/Manipulator<br />
for Nanotechnology<br />
The P-363 PicoCube XY/XYZ<br />
is an ultra-high-performance<br />
closed-loop piezo scanning system.<br />
Designed for AFM, SPM<br />
and nanomanipulation applications,<br />
it combines an ultra-low<br />
inertia, high-speed XY/XYZ<br />
piezo scanner with non-contact,<br />
direct-measuring, parallelmetrology<br />
capacitive feedback<br />
capable of 50 picometers resolution.<br />
On top of being extremely<br />
precise, <strong>the</strong> PicoCube<br />
system is also very small and<br />
rugged. Measuring only 30 x<br />
30 x 40 mm (30 x30 x26 mm<br />
for XY version), it is easy to<br />
integrate in any scanning apparatus.<br />
AFM, STM, SPM, Nanolithography,<br />
Nano-Imprinting,<br />
Nanometrology<br />
The PicoCube was specifically<br />
developed to overcome<br />
<strong>the</strong> limitations of <strong>the</strong> piezoelectric<br />
scanners currently<br />
available for STM, AFM and<br />
SPM. In addition to <strong>the</strong>se applications,<br />
<strong>the</strong> PicoCube is also<br />
<strong>the</strong> ideal scanning and manipu-<br />
http://www.pi.ws<br />
info@pi.ws<br />
lation tool for nano-imprinting,<br />
nanolithography, ultra-high-resolution<br />
near-field scanning optical<br />
microscopy and nano-surface-metrology<br />
applications.<br />
Higher Precision Through<br />
Parallel-Motion Metrology<br />
The PicoCube is based on a<br />
proprietary, newly developed<br />
ultra-fast, frictionless XY/XYZ<br />
piezo scanner equipped with<br />
direct-measuring, multi-axis<br />
capacitve position sensors<br />
(parallel metrology). The capacitive<br />
sensors measure <strong>the</strong><br />
position of <strong>the</strong> moving platform<br />
ra<strong>the</strong>r than strain in <strong>the</strong><br />
actuator (as is common with<br />
lower-precision piezo resistive<br />
strain gauge sensors). Parallel<br />
metrology can “see” all controlled<br />
degrees of freedom<br />
simultaneously and compensate<br />
for runout and crosstalk of<br />
orthogonal axes.<br />
This technique, combined with<br />
<strong>the</strong> inherent linearity and precision<br />
of <strong>the</strong> <strong>PI</strong> non-contact twoplate<br />
capacitive sensor and <strong>the</strong><br />
ultra-compact, temperaturecompensated<br />
design, results<br />
in higher linearity scans and<br />
provides superior responsiveness,<br />
resolution, repeatability<br />
and stability at <strong>the</strong> sub-nanometer<br />
level. <strong>PI</strong> capacitive sen-<br />
sors are equipped with <strong>the</strong> proprietary<br />
ILS (Integrated Linearization<br />
System) for enhanced<br />
linearity and are also much less<br />
sensitive to EMI than o<strong>the</strong>r<br />
high-resolution sensors.<br />
Nanometer Accuracy<br />
in 1 Millisecond with<br />
50-Picometer Resolution.<br />
PicoCube systems provide<br />
resolution of 50 picometers<br />
and below. The ultra-fast<br />
XY/XYZ piezo drives offer resonant<br />
frequencies of 9.8 kHz in<br />
Z and >3 kHz in X and Y! The<br />
high resonant frequency and<br />
high-bandwidth capacitive feedback<br />
allow step & settle to 1%<br />
accuracy in as little as one millisecond.<br />
Rugged Design<br />
In spite of its ability to move<br />
and position on an atomic<br />
scale, <strong>the</strong> PicoCube boasts a<br />
rugged design for real-world<br />
applications. For extra-high stability<br />
and reduced mass, <strong>the</strong><br />
body is precision machined<br />
from heat-treated and stressrelieved<br />
titanium. The sophisticated<br />
frictionless design also<br />
ensures that <strong>the</strong> (moving) top<br />
plate protects <strong>the</strong> internal actuator/sensor<br />
unit from foreign<br />
objects.<br />
The P-363 settles<br />
to within 1 nm<br />
in 1 ms (100 nm<br />
step, X and Y<br />
motion; faster<br />
response in Z).
Dimensions of <strong>the</strong> P-363.3CD in mm. Removable top plate.<br />
Dimensions of <strong>the</strong> P-363.2CD in mm. Removable top plate.<br />
Control<br />
The PicoCube controller is<br />
based on <strong>the</strong> E-500, 19” rackmount<br />
chassis with one<br />
E-509.CA3 servo-controller and<br />
three E-507.36 power amplifier<br />
modules. This controller is<br />
equipped with high-speed analog<br />
interfaces (0 to 10 V). An<br />
optional E-516 20-bit interface<br />
module (see page 6-58) is also<br />
available.<br />
Technical Data<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
Model P-363.3CL P-363.2CL Units<br />
Active axes X, Y, Z X, Y<br />
Closed-loop travel 6, 6, 6 6, 6 µm<br />
Min. open-loop travel -250 to +250V 7, 7, 6.5 7, 7 µm<br />
Integrated feedback sensor capacitive capacitive<br />
Closed- / Open-loop resolution* 0.1/0.05 0.1/0.05 nm<br />
Closed-loop linearity (X,Y, typ.) 1 1 nm<br />
Max. Load 10 10 N<br />
Tilt, off-axis (typ.) 0.5 0.5 µrad<br />
Electrical capacitance 60 (X, Y); 110 (Z) 60 nF ±20%<br />
Unloaded resonant frequency (X,Y) 3.1 4.2 kHz ±20%<br />
Unloaded resonant frequency (Z) 9.8 – kHz ±20%<br />
Resonant frequency @20g load (X,Y) 1.5 2.1 kHz ±20%<br />
Operating temperature range -40 to 120 – 40 to 120 °C<br />
Voltage and sensor connection Sub-D special Sub-D special<br />
connector with connector with<br />
Lemo adapter Lemo adapter<br />
Weight (with cables) 225 190 g ±5%<br />
Body material Titanium Titanium<br />
Recommended controller E-500 System with E-500 System with<br />
E-507.36 amplifier E-507.36 amplifier<br />
* Resolution of <strong>PI</strong> Piezo NanoPositioners is not limited by friction or stiction.<br />
Noise equivalent motion with E-509.C3A controller and E-507.36 amplifier.<br />
http://www.pi.ws<br />
info@pi.ws<br />
2-57
P-733.3DD (left side) and P-733.2DD, high-speed, direct drive XY(Z) scanning stages are<br />
<strong>the</strong> fastest scanning stages with large aperture currently available (2.2 kHz resonant<br />
frequency!). Both units feature a footprint of only 100 x 100 mm. Compact disc for<br />
size comparison.<br />
Application<br />
Examples<br />
� Imaging (resolution enhancement)<br />
� Scanning microscopy<br />
� Surface structure analysis<br />
� Biotechnology<br />
� Atomic force microscopy<br />
� Semiconductor test equipment<br />
� Precision mask and wafer alignment<br />
� Scanning interferometry<br />
� Nanomanipulation and o<strong>the</strong>r<br />
applications where high-precision,<br />
single-plane multi-axis motion is<br />
required<br />
Ordering<br />
Information<br />
P-733.2DD<br />
XY High-Speed Direct Drive Piezo<br />
Scanning Stage, 30 x 30 µm,<br />
Capacitive Sensors, Sub-D Connector<br />
P-733.3DD<br />
XYZ High-Speed Direct Drive Piezo<br />
Scanning Stage, 30 x 30 x 10 µm,<br />
Capacitive Sensors, Sub-D Connector<br />
P-733.2UD nonmagnetic XY nanopositioner<br />
for ultra-high vacuum up to 10 -9 hPa.<br />
2-58<br />
P-733.2DD<br />
P-733.3DD<br />
High Speed Direct Drive XY & XYZ<br />
Piezo Scanning/Positioning Stages<br />
� 4 x Faster,<br />
Through Direct Drive<br />
� To 2.2 kHz Resonant<br />
Frequency in X and Y<br />
� 100PicometersResolution<br />
� Parallel-Metrology with<br />
Capacitive Sensors for<br />
Highest Multi-Axis<br />
Precision<br />
� Parallel-Kinematics<br />
Design for Enhanced<br />
Responsiveness<br />
� Active Runout<br />
Compensation<br />
� 30x30or30x30x10µm<br />
Travel Range<br />
� 50 x 50 mm Clear<br />
Aperture<br />
Fastest Multi-Axis Systems<br />
w/Large Aperture<br />
P-733.2DD and .3DD directdrive<br />
stages are <strong>the</strong> fastest and<br />
most accurate multi-axis piezo<br />
scanning systems with a large<br />
aperture currently available.<br />
They provide a positioning and<br />
scanning range of 30 x 30 (x10)<br />
µm and are equipped with parallel-metrology<br />
capacitive position<br />
feedback for superior<br />
multi-axis linearity and repeatability.<br />
The novel, high-stiffness direct<br />
drive system leads to a resonant<br />
frequency of more than<br />
2 kHz, (4 x more than similar<br />
systems) enabling millisecond<br />
scanning rates and >500 Hz<br />
scanning frequency with subnanometer<br />
resolution.<br />
http://www.pi.ws<br />
info@pi.ws<br />
Low-Profile and<br />
Clear Aperture–Ideal for<br />
Microscopy<br />
Only 20mm high, <strong>the</strong><br />
P-733.2DD provides one of <strong>the</strong><br />
lowest profiles available for parallel-metrologyNanoPositioning<br />
systems. The 50 x 50 mm<br />
clear aperture is ideal for transmitted-light<br />
applications such<br />
as near-field scanning microscopy,<br />
confocal microscopy and<br />
mask alignment. P-733 stages<br />
are designed for applications<br />
with loads up to 2 kg.<br />
Higher Precision through<br />
Parallel Kinematics/<br />
Metrology<br />
P-733 piezo scanning stages<br />
feature a parallel-kinematics<br />
design with direct-measuring,<br />
multi-axis non-contact capacitve<br />
position sensors (parallel<br />
metrology). The capacitive sensors<br />
measure <strong>the</strong> position of<br />
<strong>the</strong> moving platform (ra<strong>the</strong>r<br />
than strain in <strong>the</strong> actuator, as<br />
common with lower-precision<br />
strain gauge sensors). Parallel<br />
metrology can “see” all controlled<br />
degrees of freedom<br />
simultaneously and compensate<br />
for runout and crosstalk of<br />
orthogonal axes (active trajectory<br />
control).<br />
A major advantage of <strong>the</strong> single-module,<br />
parallel-kinematics<br />
design is <strong>the</strong> identical dynamic<br />
performance of <strong>the</strong> X and Y<br />
axes, important for high scanning<br />
rates. In addition, <strong>the</strong>re are<br />
no moving cables and no cable<br />
management issues to be<br />
resolved when integrating <strong>the</strong><br />
unit. This design increases reliability,<br />
enhances responsiveness<br />
and also increases<br />
repeatability and accuracy at<br />
<strong>the</strong> nanometer level, because<br />
<strong>the</strong> force and friction exerted<br />
by a moving cable are eliminated<br />
(see <strong>the</strong> “Tutorial” section<br />
for fur<strong>the</strong>r details).<br />
Dynamic Digital Control for<br />
Best Scanning Linearity<br />
Use our new digital control<br />
electronics with <strong>the</strong> DDL<br />
(Dynamic Digital Linearization)<br />
control option for <strong>the</strong> highest<br />
linearity in scanning applications.<br />
These systems virtually<br />
eliminate tracking errors and<br />
permit use of <strong>the</strong> entire travel<br />
range with high dynamic accuracy<br />
in <strong>the</strong> nanometer range.<br />
Working Principle/Reliability<br />
P-733 NanoPositioners units<br />
are equipped with ultra-highperformance<br />
<strong>PI</strong>CMA ® monolithic<br />
multilayer piezo actuators<br />
integrated into a sophisticated<br />
single-module, parallel-kinematics<br />
flexure guiding system.<br />
The newly designed and highly<br />
optimized piezo drives (first<br />
with 100% ceramic insulation)<br />
are more robust than conventional<br />
piezo actuators, and feature<br />
superior lifetime in dynamic<br />
and static applications. The<br />
wire-EDM-cut flexures are FEA<br />
modeled for zero-stiction/zerofriction,<br />
ultra-high resolution<br />
and exceptional guiding precision.<br />
Integrated capacitive position<br />
feedback sensors in a parallel-metrology<br />
configuration<br />
provide sub-nanometer resolution<br />
and stability in closed-loop<br />
operation (with <strong>PI</strong> electronics).<br />
Because guidance, actuators<br />
and sensors are all frictionless<br />
and maintenance-free, P-733<br />
systems achieve exceptional<br />
levels of reliability.<br />
Non-Magnetic<br />
Vaccum Versions<br />
For applications in ultrahigh<br />
vacuum, <strong>the</strong> P-733.2UD (see<br />
page 2-60) is available. It is both<br />
nonmagnetic and non-magnetizable,<br />
important for SEM applications.<br />
To guarantee minimal<br />
outgassing rates and optimal<br />
UHV suitability, P-733.2UD<br />
units contain vacuum qualified<br />
components only.
Dimensions of P-733.2DD and .3DD in mm.<br />
0 to 100 % travel in 1.36 msec, without<br />
overshoot. The P-733.2DD is <strong>the</strong> fastest,<br />
highest precision closed-loop XY scanning<br />
stage with large aperture currently<br />
available.<br />
Technical Data<br />
The P-733.2DD provides more than 2.2 kHz<br />
resonant frequency for highest scanning dynamics.<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
Models P-733.2DD P-733.3DD Units Notes<br />
see page 2-44<br />
Active axes X,Y X,Y,Z<br />
Min. open-loop travel @ -20 to 120 V 33 x 33 33 x 33 x 14 µm ±20% A2<br />
Closed-loop travel 30 x 30 30 x 30 x 10 µm A5<br />
Integrated feedback sensor capacitive capacitive B<br />
Closed-loop / open-loop ** resolution 0.1 / 0.1 0.1 / 0.1 nm C1<br />
Closed-loop linearity (typ.) 0.03 0.03 %<br />
Full-range repeatability (typ.) ±1.0 ±1.0 nm C3<br />
Stiffness (X,Y,Z) 20, 20, - 4, 4, 10 N/µm ±20% D1<br />
Push/pull force capacity (in operating direction) 300 / 100 300 / 100 N D3<br />
Max. (±) normal load 2 2 kg D4<br />
Tilt (�X/�Y) (typ.) 3 3 µrad E1<br />
Electrical capacitance (X,Y,Z) 6.0, 6.0, - 6.0, 6.0, 4.4 µF ±20% F1<br />
*Dynamic operating current µA/<br />
coefficient (DOCC) (X,Y,Z) 25, 25,- 25, 25, 50 (Hz x µm) F2<br />
Unloaded resonant frequency (X,Y,Z) 2230, 2230, - 1200, 1200, 1200 Hz ±20% G2<br />
Resonant frequency @ 50 g load (X, Y, Z) 1800, 1800, - Hz ±20% G3<br />
Resonant frequency @ 200 g load (X, Y, Z) 530, 530, 635 Hz ±20% G3<br />
Operating temperature range - 20 to 80 - 20 to 80 °C H2<br />
Voltage connection sub-D, special sub-D, special J1<br />
Sensor connection sub-D, special sub-D, special J2<br />
Weight (with cables) 525 635 g ±5%<br />
Body material Al Al L<br />
Recommended Amplifier/ Controller H, F, L H, F, L<br />
(codes explained see page 6-46)<br />
* Dynamic Operating Current Coefficient in µA per hertz and µm. Example: Sinusoidal scan of 10 µm at 100 Hz requires<br />
approximately 25 mA drive current.<br />
** Resolution of <strong>PI</strong> Piezo NanoPositioners is not limited by friction or stiction. Noise equivalent motion with E-503 amplifier.<br />
2-59
P-733 Flexure NanoPositioner is ideal for<br />
single molecule microscopy.<br />
Application<br />
Examples<br />
� Scanning microscopy<br />
� Semiconductor test equipment<br />
� Precision mask and wafer alignment<br />
� Scanning interferometry<br />
� Imaging (resolution enhancement)<br />
� Surface structure analysis<br />
� Biotechnology<br />
� Micromanipulation and o<strong>the</strong>r<br />
applications where single-plane<br />
high-precision XY motion is<br />
required<br />
Notes<br />
See <strong>the</strong> “PZT Control Electronics”<br />
section for our comprehensive line of<br />
low-noise modular and OEM control<br />
electronics for computer and manual<br />
control.<br />
2-60<br />
P-733<br />
Single-Module, XY Piezo Flexure<br />
NanoPositioner and Scanner<br />
� Precision Trajectory<br />
Control<br />
� Single-Module, Parallel-<br />
Kinematics Design<br />
Features Enhanced<br />
Responsiveness and<br />
Automatic Runout<br />
Compensation<br />
� For XY Scanning &<br />
Positioning<br />
� 100 � 100 µm Travel<br />
Range<br />
� Integrated Capacitive<br />
Sensors for Resolution<br />
< 0.3 nm<br />
� 50 � 50 mm Clear<br />
Aperture<br />
� Ultrahigh Vacuum Version<br />
Available<br />
� Ultra-Fast XY and XYZ<br />
Versions Available<br />
http://www.pi.ws<br />
info@pi.ws<br />
P-733 NanoPositioning Stages<br />
are fast and highly accurate,<br />
low-profile, XY scanning and<br />
positioning systems. They provide<br />
a positioning and scanning<br />
range of 100 � 100 µm and are<br />
equipped with capacitive feedback<br />
sensors for highest accuracy<br />
and repeatability, in <strong>the</strong><br />
nanometer and sub-nanometer<br />
range.<br />
Clear Aperture<br />
The 50 � 50 mm, clear aperture<br />
is ideal for transmittedlight<br />
applications such as nearfield<br />
scanning microscopy,<br />
confocal microscopy and mask<br />
alignment. P-733 stages are<br />
designed for applications with<br />
loads up to 2 kg.<br />
Higher Precision through<br />
Parallel Kinematics/<br />
Metrology<br />
P-733 piezo scanning stages<br />
are equipped with direct-measuring,<br />
multi-axis capacitve position<br />
sensors (parallel metrology).<br />
The capacitive sensors<br />
measure <strong>the</strong> position of <strong>the</strong><br />
moving platform ra<strong>the</strong>r than<br />
strain in <strong>the</strong> actuator (as common<br />
with lower-precision strain<br />
gauge sensors). Parallel metrology<br />
can “see” all controlled<br />
degrees of freedom simultaneously<br />
and compensate for<br />
runout and crosstalk of orthogonal<br />
axes.<br />
A major advantage of <strong>the</strong> single-module<br />
parallel-kinematics<br />
design is that <strong>the</strong>re are no<br />
moving cables and no cable<br />
management issues to be<br />
resolved when integrating <strong>the</strong><br />
unit. This design increases reliability,<br />
enhances responsiveness<br />
and also increases repeatability<br />
and accuracy at <strong>the</strong><br />
nanometer level, because <strong>the</strong><br />
friction and force exerted by a<br />
moving cable are eliminated<br />
(see <strong>the</strong> “Tutorial” section,<br />
page 4-1 ff. for fur<strong>the</strong>r details).<br />
Working Principle<br />
P-733 NanoPositioners are<br />
equipped with low-voltage<br />
piezoelectric drives (0 to 100 V)<br />
integrated into a sophisticated<br />
flexure guiding system. The<br />
force exerted by <strong>the</strong> piezo<br />
drive pushes a multi-flexure<br />
parallelogram via an integrated<br />
motion amplifier. The wire-<br />
EDM-cut flexures are FEA<br />
modeled for zero stiction/friction,<br />
ultra-high resolution and<br />
exceptional guiding precision.<br />
Integrated capacitive position<br />
feedback sensors provide subnanometer<br />
resolution and stability<br />
in closed-loop operation<br />
(with <strong>PI</strong> electronics).<br />
Operation in UHV<br />
For applications in ultrahigh<br />
vacuum down to 10 -9 hPa <strong>PI</strong><br />
offers a special version of <strong>the</strong><br />
P-733.2UD.<br />
It is nonmagnetic (as well as<br />
non magnetizable) and contains<br />
vacuum qualified components<br />
only. These guarantee<br />
mimimal outgassing rates and<br />
an optimal UHV suitability.<br />
Ultra-Fast Scanning<br />
in XY and XYZ<br />
With <strong>the</strong> same footprint as <strong>the</strong><br />
P-733, <strong>the</strong> P-733.2DD and<br />
P-733.3DD Versions offer a<br />
resonant frequency of up to<br />
2 kHz in X and Y. This enables<br />
millisecond scanning rates<br />
with sub-nanometer resolution<br />
over a range of 30 µm x 30 µm<br />
( x 10 µm).
Technical Data<br />
Models P-733.2CL P-733.2CD Units Notes see<br />
p. 2-44<br />
Active axes X,Y X,Y<br />
Open-loop travel @ 0 to 100 V 100 � 100 100 � 100 µm ±20% A2<br />
Closed-loop travel � 100 � 100 100 � 100 µm A5<br />
Integrated feedback sensor<br />
Closed-loop / open-loop **<br />
2 x capacitive 2 x capacitive B<br />
resolution � 0.3 / 0.2 0.3 / 0.2 nm C1<br />
Closed-loop linearity (typ.) 0.03 0.03 %<br />
Full-range repeatability (typ.) ±2.5 ±2.5 nm C3<br />
Stiffness<br />
Push/pull force capacity<br />
2 2 N/µm<br />
±20%<br />
D1<br />
(in operating direction) 300 / 100 300 / 100 N D3<br />
Max. (±) normal load 2 2 kg D4<br />
Tilt (� /� ) (typ.) X Y 1/3 1/3 µrad E1<br />
Electrical capacitance 7.2 / axis 7.2 / axis µF ±20% F1<br />
* Dynamic operating current µA/<br />
coefficient (DOCC) 9 / axis 9 / axis (Hz x µm) F2<br />
Unloaded resonant frequency<br />
Resonant frequency @<br />
500 500 Hz ±20% G2<br />
200 g load<br />
Resonant frequency @<br />
340 340 Hz ±20% G3<br />
500 g load 230 230 Hz ±20% G3<br />
Operating temperature range - 20 to 80 - 20 to 80 °C H2<br />
Voltage connection 2 x VL sub-D, special J1<br />
Sensor connection 4 x C sub-D, special J2<br />
Weight (with cables) 580 580 g ±5%<br />
Body material<br />
Recommended Amplifier/<br />
Al Al L<br />
Controller<br />
(codes explained p. 6-46)<br />
H, F, L H, F, L<br />
* Dynamic Operating Current Coefficient in µA per hertz and µm. Example: Sinusoidal<br />
scan of 30 µm at 10 Hz requires approximately 2.7 mA drive current.<br />
** Resolution of PZT NanoPositioners is not limited by friction or stiction.<br />
Noise equivalent motion with E-503 amplifier.<br />
P-733.2UD nonmagnetic XY nanopositioner for ultrahigh vacuum up to 10 -9 hPa.<br />
Ordering<br />
Information<br />
P-733.2CL<br />
XY PZT Flexure Stage,<br />
100 � 100 µm, Capacitive<br />
Sensors, Lemo Connectors<br />
P-733.2CD<br />
XY PZT Flexure Stage,<br />
100 � 100 µm, Capacitive<br />
Sensors, Sub-D Connector<br />
P-733.2UD<br />
Ultrahigh Vacuum – XY PZT<br />
Flexure Stage, 100 � 100 µm,<br />
Capacitive Sensors,<br />
Non-Magnetic, Sub-D Connector<br />
Custom Designs<br />
for Volume Buyers<br />
P-733 dimensions (in mm)<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
2-61
Ordering<br />
Information<br />
P-561.3CD<br />
<strong>PI</strong>Mars XYZ NanoPositioner,<br />
100x100x100 µm 3 ,<br />
Capacitive Sensors, Sub-D Connector<br />
P-562.3CD<br />
<strong>PI</strong>Mars XYZ NanoPositioner,<br />
200x200x200 µm 3 ,<br />
Capacitive Sensors, Sub-D Connector<br />
P-563.3CD<br />
<strong>PI</strong>Mars XYZ NanoPositioner,<br />
300x300x250 µm 3 ,<br />
Capacitive Sensors, Sub-D Connector<br />
P-561.2DD<br />
<strong>PI</strong>Mars XY NanoPositioner, 45x45 µm 2 ,<br />
Capacitive Sensors,<br />
High-Speed, Direct-Drive<br />
P-561.3DD<br />
<strong>PI</strong>Mars XYZ NanoPositioner,<br />
45x45x10 µm 3 , Capacitive Sensors,<br />
High-Speed, Direct-Drive<br />
Vacuum Versions:<br />
P-561.3VD<br />
<strong>PI</strong>Mars XYZ NanoPositioner,<br />
100x100x100 µm 3 ,<br />
Capacitive Sensors, 10 -6 hPa<br />
P-562.3VD<br />
<strong>PI</strong>Mars XYZ NanoPositioner,<br />
200x200x200 µm 3 ,<br />
Capacitive Sensors, 10 -6 hPa<br />
P-563.3VD<br />
<strong>PI</strong>Mars XYZ NanoPositioner,<br />
300x300x250 µm 3 ,<br />
Capacitive Sensors, 10 -6 hPa<br />
P-561.3UD<br />
<strong>PI</strong>Mars XYZ NanoPositioner,<br />
100x100x100 µm 3 ,<br />
Capacitive Sensors, 10 -9 hPa<br />
P-562.3UD<br />
<strong>PI</strong>Mars XYZ NanoPositioner,<br />
200x200x200 µm 3 ,<br />
Capacitive Sensors, 10 -9 hPa<br />
P-563.3UD<br />
<strong>PI</strong>Mars XYZ NanoPositioner,<br />
300x300x250 µm 3 ,<br />
Capacitive Sensors, 10 -9 hPa<br />
Fur<strong>the</strong>r Vacuum Versions<br />
Available Invar, Super-Invar &<br />
Titanium Versions Available<br />
6-DoF Versions Available<br />
2-62<br />
P-560<br />
<strong>PI</strong>Mars Multi-Axis Piezo Scanningand<br />
NanoPositioning Stages<br />
P-562.3CD <strong>PI</strong>Mars NanoPositioning stage: 200 µm x 200 µm x 200 µm travel.<br />
� Single-Module, Parallel-<br />
Kinematics Design<br />
� Parallel Metrology /<br />
Capacitive Feedback for<br />
Nanometer Resolution<br />
� Low Out-of-Plane Motion<br />
� To 300 x 300 x 250 µm<br />
Travel Range<br />
� 66 x 66 mm Clear<br />
Aperture<br />
� Versions to 6-DoF<br />
� Ultra-fast XY and XYZ<br />
Versions Available<br />
� Ultrahigh Vacuum<br />
Versions up to 10 -9 hPa<br />
Available<br />
� Invar, Super-Invar and<br />
Titanium Versions<br />
Available<br />
Large Variety of Models<br />
and Options<br />
<strong>PI</strong>Mars piezo stages are fast<br />
and highly accurate multi-axis<br />
scanning and nanopositioning<br />
systems that are offered in a<br />
large variety of travel ranges.<br />
Derived from <strong>the</strong> XYZ standard<br />
versions (including high-speed<br />
and vacuum versions) custom<br />
designs to 6 degrees of freedom<br />
are available on request.<br />
<strong>PI</strong>Mars piezo stages are equipped<br />
with capacitive feedback<br />
sensors for highest linearity,<br />
accuracy and repeatability, in<br />
http://www.pi.ws<br />
info@pi.ws<br />
<strong>the</strong> nanometer and sub-nanometer<br />
range, and provide a<br />
positioning and scanning range<br />
of up to 300 x 300 x 250 µm.<br />
Higher Precision through<br />
Parallel Kinematics/<br />
Metrology<br />
P-560 <strong>PI</strong>Mars piezo scanning<br />
stages are equipped with<br />
direct-measuring, multi-axis<br />
capacitve position sensors<br />
(parallel metrology). The capacitive<br />
sensors measure <strong>the</strong><br />
position of <strong>the</strong> moving platform<br />
ra<strong>the</strong>r than strain in <strong>the</strong><br />
actuator (as is common with<br />
lower-precision strain gauge<br />
sensors). Parallel metrology<br />
can “see” all controlled<br />
degrees of freedom simultaneously<br />
and compensate for<br />
runout and crosstalk of orthogonal<br />
axes. A major advantage<br />
of <strong>the</strong> single-module parallelkinematics<br />
design is that <strong>the</strong>re<br />
are no moving cables and no<br />
cable management issues to<br />
be resolved when integrating<br />
<strong>the</strong> unit. This design increases<br />
reliability, enhances responsiveness<br />
and also increases<br />
repeatability and accuracy at<br />
<strong>the</strong> nanometer level, because<br />
<strong>the</strong> friction and force exerted<br />
by a moving cable are eliminated<br />
(see <strong>the</strong> “Tutorial” section,<br />
page 4-1 ff. for fur<strong>the</strong>r details).<br />
<strong>PI</strong>Mars—Up to 6 Degrees of<br />
Freedom<br />
The new <strong>PI</strong>Mars family of<br />
nanopositioning stages offers<br />
up to 6 degrees of freedom in<br />
<strong>the</strong> footprint 150 x 150 mm 2<br />
with travel ranges from<br />
100 µm to 300 µm per axis<br />
(and rotation up to 6 mrad).<br />
Direct Drive—Ultra-Fast<br />
Scanning and Positioning<br />
With <strong>the</strong> same footprint as<br />
standard <strong>PI</strong>Mars stages, <strong>the</strong><br />
P-561.2DD and P-561.3DD<br />
Versions provide a resonant<br />
frequency of up to 1 kHz in X<br />
and Y. This enables millisecond<br />
scanning rates with sub-nanometer<br />
resolution over a range<br />
of 45 µm x 45 µm ( x 10 µm).<br />
Dynamic Digital Control for<br />
Best Scanning Linearity<br />
Use our new digital control<br />
electronics with <strong>the</strong> DDL<br />
(Dynamic Digital Linearization)<br />
control option for <strong>the</strong> highest<br />
linearity in scanning applications.<br />
These systems virtually<br />
eliminate tracking errors and<br />
permit use of <strong>the</strong> entire travel<br />
range with high dynamic accuracy<br />
in <strong>the</strong> nanometer range.<br />
Working Principle/<br />
Reliability<br />
<strong>PI</strong>Mars NanoPositioning stages<br />
are equipped with ultrahigh-performance<br />
<strong>PI</strong>CMA ®<br />
monolithic multilayer piezo<br />
actuators integrated into a<br />
Application<br />
Examples<br />
� Scanning microscopy<br />
� Mask & wafer alignment<br />
� Scanning interferometry<br />
� Surface metrology<br />
� Biotechnology<br />
� Micromanipulation
sophisticated single-module,<br />
parallel-kinematics flexure guiding<br />
system. The newly designed<br />
and highly optimized<br />
piezo drives (first with 100%<br />
ceramic insulation) are more<br />
robust than conventional piezo<br />
actuators, and feature superior<br />
lifetime in dynamic and static<br />
applications. The wire-<br />
EDM-cut flexures are FEA<br />
modeled for zero-stiction/zerofriction,<br />
ultra-high resolution<br />
and exceptional guiding precision.<br />
Integrated capacitive<br />
position feedback sensors in a<br />
parallel-metrology configuration<br />
provide sub-nanometer<br />
resolution and stability in closed-loop<br />
operation (with <strong>PI</strong><br />
electronics).<br />
Because guidance, sensors<br />
and actuators are all friction-<br />
P-562.3CD (unloaded) step and settle<br />
is faster than 15 ms in X, Y and Z.<br />
P-562.3CD with 330 g load settles<br />
within 40 milliseconds.<br />
less and maintenance-free,<br />
<strong>PI</strong>Mars systems achieve<br />
exceptional levels of reliability.<br />
Ultra-High Vacuum Option<br />
For applications in ultrahigh<br />
vacuum (to 10 -9 hPa) <strong>PI</strong> offers<br />
a special version of <strong>the</strong><br />
P-562.3UD. It is non-magnetic<br />
(as well as non magnetizable)<br />
and contains vacuum qualified<br />
components only. These guarantee<br />
minimal outgassing<br />
rates and an optimal UHV<br />
suitability.<br />
P-561.3DD: same footprint, different direct-drive technology for<br />
highest resonant frequencies and ultra-fast scanning dynamics.<br />
Technical Data<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
P-562.3CD dimensions in mm.<br />
http://www.pi.ws<br />
info@pi.ws<br />
Model P-561.3CD P-562.3CD P-563.3CD P-561.3DD Units<br />
Active axes XYZ XYZ XYZ XYZ<br />
Closed-loop travel 100x100x100 200x200x200 300x300x250 45x45x10 µm<br />
Min. open-loop travel -20 to 120V 150x150x150 220x220x220 55x55x15 µm<br />
Integrated feedback sensor capacitive capacitive capacitive capacitive<br />
Open-loop resolution* 0.2 0.4 0.7 0.1 nm<br />
Closed-loop resolution* 0.8 1 1 0.2 nm<br />
Closed-loop linearity (typ.) 0.03 0.03 0.03 0.03 %<br />
Push force capacity (in X, Y, Z) 200, 200, 50 200, 200, 50 200, 200, 50 200, 200, 50 N<br />
Pull force capacity (in X, Y, Z) 30, 30, 30 30, 30, 30 30, 30, 30 30, 30, 30 N<br />
Maximal load 50 50 50 50 N<br />
Resonant frequency unloaded (X, Y, Z) 190, 190, 380 170, 170, 315 920, 920, 1050 Hz ±20%<br />
Resonant frequency with 66 g load (X, Y, Z) 810, 810, 880 Hz ±20%<br />
Resonant frequency with 330 g load (X, Y, Z) 140, 140, 300 140, 140, 195 Hz ±20%<br />
Operating temperature -20 to 80 -20 to 80 -20 to 80 -20 to 80 °C<br />
Voltage & sensor connection Sub-D special Sub-D special Sub-D special Sub-D special<br />
Body material Al Al Al Al<br />
Recommended controller E-710, E-710, E-710, E-710,<br />
E-500 System E-500 System E-500 System E-500 System<br />
* Resolution of <strong>PI</strong> Piezo NanoPositioners is not limited by friction or stiction. Noise equivalent motion with E-710 digital piezo controller.<br />
2-63
P-615 NanoCube 350C NanoPositioning<br />
System, 350 x 350 x 250 µm travel range.<br />
Application<br />
Examples<br />
� Micromachining<br />
� Micromanipulation<br />
� Life sciences<br />
� Semiconductor test systems<br />
� Photonics packaging<br />
P-615 with optional fiber holder F-603.22.<br />
2-64<br />
P-615<br />
Ordering<br />
Information<br />
P-615.3CD<br />
NanoCube XYZ Piezo NanoPositioning<br />
Stage, 350 � 350 � 250 µm,<br />
Capacitive Sensors, Sub-D-Connector<br />
P-615.3CL<br />
NanoCube XYZ Piezo NanoPositioning<br />
Stage, 350 � 350 � 250 µm,<br />
Capacitive Sensors, Lemo Connectors<br />
P-615.30L<br />
NanoCube XYZ Piezo NanoPositioning<br />
Stage, 350 � 350 � 250 µm,<br />
Open-Loop, Lemo Connector<br />
NanoCube 350C XYZ<br />
Piezo NanoAlignment Systems<br />
� 350 � 350 � 250 µm<br />
Closed-Loop Travel Range<br />
� Parallel-Kinematics<br />
Design & Direct Capacitive<br />
Metrology for<br />
Highest Multi-Axis<br />
Accuracy<br />
� Compact Design:<br />
80 � 80 � 42 mm<br />
(Closed-Loop Version!)<br />
� 10 mm Clear Aperture<br />
� New <strong>PI</strong>CMA ® PZT Drive<br />
with Extended Lifetime<br />
� 1 nm Resolution<br />
� Ideal for Alignment and<br />
Photonics Packaging<br />
Applications<br />
� Closed- and Open-Loop<br />
Versions<br />
� Vacuum Compatible to<br />
10 -6 hpa<br />
The P-615 NanoCube 350C<br />
is a novel, closed-loop, multiaxis<br />
Piezo NanoPositioning and<br />
alignment system. Its 350 �<br />
350 � 250 µm, XYZ positioning<br />
and scanning range comes<br />
in an extremely compact package.<br />
Equipped with a zero-stiction,<br />
zero-friction guiding system,<br />
this NanoCube provides<br />
motion with ultra-high<br />
resolution and settling times of<br />
only a few milliseconds. Openand<br />
closed-loop versions are<br />
offered to suit your application.<br />
Higher Precision Through<br />
Parallel-Motion Metrology<br />
& Parallel-Kinematics<br />
P-615s are based on a newly<br />
developed frictionless XYZ<br />
piezo scanner, equipped with<br />
direct-measuring, multi-axis<br />
capacitve position sensors<br />
(parallel metrology). The capacitive<br />
sensors directly measure<br />
<strong>the</strong> position of <strong>the</strong> moving platform<br />
(ra<strong>the</strong>r than strain in <strong>the</strong><br />
http://www.pi.ws<br />
info@pi.ws<br />
drive system,as is common with<br />
lower-precision strain gauge<br />
sensors). Parallel metrology<br />
can “see” all controlled degrees<br />
of freedom simultaneously and<br />
compensate for runout and<br />
crosstalk of orthogonal axes.<br />
This technique, combined with<br />
<strong>the</strong> inherent precision of <strong>the</strong><br />
non-contact capacitive sensor<br />
an <strong>the</strong> parallel-kinematics design<br />
results in higher linearity,<br />
and provides superior responsiveness,<br />
resolution, repeatability<br />
and stability at <strong>the</strong> nanometer<br />
level.<br />
Double Stiffness<br />
As do <strong>the</strong> single-axis Nano-<br />
Positioners of <strong>the</strong> P-620<br />
<strong>PI</strong>Hera Series, <strong>the</strong> P-615<br />
NanoCube 350C provides<br />
high stiffness combined with<br />
very large travel ranges. The<br />
unique flexure design provides<br />
for twice <strong>the</strong> stiffness in<br />
<strong>the</strong> vertical axis, (compared to<br />
X or Y), allowing for faster<br />
response and higher operating<br />
frequencies under load. For<br />
example, <strong>the</strong> settling-time<br />
(with 100 g load!) to reach a<br />
commanded position with 1%<br />
accuracy is only 15 ms in<br />
<strong>the</strong> Z-axis (approximately 35 %<br />
faster without load).<br />
Photonics Alignment<br />
The NanoCube 350C is<br />
equipped with a fiber adapter<br />
interface similar to <strong>the</strong><br />
P-611.3SF NanoCube (page<br />
8-16) and accommodates all<br />
F-603-series fiber holders and<br />
accessories (page 8-26).<br />
Working Principle with<br />
Increased Lifetime<br />
P-615 NanoPositioners are<br />
equipped with <strong>the</strong> unique<br />
P-885 <strong>PI</strong>CMA ® monolithic<br />
multilayer piezo actuators integrated<br />
into a sophisticated<br />
flexure guiding system. The<br />
wire-EDM-cut flexures are FEA<br />
(finite element analysis) modeled<br />
for zero stiction and zero<br />
friction, highest possible resolution<br />
and exceptional guiding<br />
precision. The newly designed<br />
and highly optimized drives are<br />
more robust than conventional<br />
piezo actuators, and feature<br />
superior lifetime in dynamic and<br />
static applications. Because<br />
guidance and sensors are all<br />
frictionless and maintenancefree,<br />
NanoCube systems<br />
achieve exceptional levels of<br />
reliability. Integrated capacitive<br />
position feedback sensors provide<br />
nanometer-scale resolution<br />
and stability in closed-loop<br />
operation (with <strong>PI</strong> control electronics).<br />
Notes<br />
See <strong>the</strong> “PZT Control Electronics”<br />
section for our comprehensive line<br />
of low-noise modular and OEM<br />
control electronics for computer<br />
and manual control.
P-615 dimensions in mm. The clear aperture has a diameter of 10 mm.<br />
P-615, X-axis with 100 g load performing 100 nm steps in rapid<br />
sequence without overshoot. Settling time for <strong>the</strong> Z-axis to reach<br />
a commanded position with 1 % accuracy is only 15 ms.<br />
Technical Data<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
Models P-615.3CD P-615.30L Units Notes see<br />
p. 2-44<br />
Active axes X,Y,Z X,Y,Z<br />
Min. open-loop travel 400 in X,Y; 400 in X,Y;<br />
-20 to 120 V 300 in Z 300 in Z µm A2<br />
Closed-loop travel 350 in X, Y;<br />
250 in Z - µm A5<br />
Integrated feedback sensor capacitive - B<br />
Closed / open-loop* resolution 1.0/0.5 - /0.5 nm C1<br />
Closed loop linearity (typ.) 0.02 - %<br />
Pitch and yaw
S-334.2SL<br />
Application<br />
Examples<br />
� Laser beam steering and scanning<br />
� Image stabilization<br />
� Laser beam stabilization<br />
� Beam switching<br />
� Adaptive optics systems<br />
� Imaging systems<br />
Ordering<br />
Information<br />
S-334.2SL<br />
Piezo Tip/Tilt Platform, 50 mrad,<br />
Closed-Loop<br />
Notes<br />
The S-334 is equipped with a factory<br />
installed mirror 10 mm in diameter and<br />
2 mm thick (flatness �/5, reflectivity<br />
> 98% from 500 nm to 2 µm).<br />
Custom coatings and mirrors up to<br />
12.5 mm diameter are available on<br />
request. Please contact your <strong>PI</strong> sales<br />
engineer.<br />
3-18<br />
3-1 to 3-17 see <strong>the</strong><br />
hardbound <strong>PI</strong> catalog<br />
S-334<br />
Ultra-Long-Range Piezo Tip/Tilt Platform,<br />
50 mrad (3°) with Mirror<br />
� Tilt Range up to 50 mrad<br />
(3°) in 2 Fixed Orthogonal<br />
Axes<br />
� 1.0 kHz Resonant<br />
Frequency with Mirror<br />
� Closed-Loop Version<br />
� For Mirrors up to<br />
12.5 mm (0.5”) Diameter<br />
� Common Pivot Point<br />
� Sensor Configuration for<br />
Excellent Temperature<br />
Stability<br />
S-334 dimensions in mm<br />
http://www.pi.ws<br />
info@pi.ws<br />
S-334 tip/tilt platforms are fast<br />
and compact units, providing<br />
precise angular movements of<br />
a mirror around two orthogonal<br />
axes. The tip/tilt range is<br />
50 mrad with sub-µrad resolution.<br />
In closed-loop operation,<br />
highest stability and accuracy<br />
is available.<br />
Huge Tip/Tilt Ranges<br />
with Excellent Motion<br />
Characteristics<br />
The novel lever design combines<br />
<strong>the</strong> exceptional large<br />
tip/tilt range of 3° (mechanical<br />
tilt, which is equivalent to<br />
100 mrad optical beam deflection)<br />
with <strong>the</strong> high resonant<br />
frequency of 1.0 kHz (including<br />
<strong>the</strong> mirror). These parameters<br />
make <strong>the</strong> system unique in <strong>the</strong><br />
market of high-speed, longrange<br />
scanners.<br />
Sub-Microradian Resolution<br />
and Stable Positioning<br />
The S-334 provides sub-microradian<br />
resolution. When operated<br />
in closed-loop mode, it<br />
offers absolute position control<br />
and high linearity of typically<br />
under ±0.25% over <strong>the</strong> entire<br />
travel range. This is achieved<br />
by high-resolution, full-bridge<br />
strain gauge sensors (SGS),<br />
calibrated specifically for each<br />
unit with <strong>the</strong> control electronics.<br />
Recommended control electronics:<br />
<strong>the</strong> E-500 system, configured<br />
for tip/tilt mirrors with<br />
E-501.00 chassis, E-503.00S<br />
amplifier and E-509.S3S servocontroller.<br />
Working Principle<br />
The S-334 is equipped with<br />
two pairs of low-voltage piezoelectric<br />
linear drives (0 – 100 V)<br />
operating as a unit in push/pull<br />
mode. The linear drive actuators<br />
are driven differentially<br />
in diagonal pairs. The casing<br />
is equipped with integrated,<br />
FEA-modeled flexures featuring<br />
zero stiction, zero friction<br />
and exceptional guiding precision.
Technical Data<br />
Models S-334.2SL<br />
Active Axes � X , � Y<br />
* Open-loop tilt angle @ 0 to 100 V 50 mrad (±25 mrad) ±20%<br />
* Closed-loop tilt angle 50 mrad (±25 mrad)<br />
Integrated feedback sensor full-bridge strain gauge sensors<br />
Closed-loop / open-loop angular resolution < 5 / 0.5 µrad<br />
Closed-loop linearity (typ.) ±0.25%<br />
Electrical capacitance 3.6 µF/axis ±20%<br />
Resonant frequency with 10 mm diam. 1.0 kHz ±20%<br />
x 2 mm glass mirror<br />
Resonant frequency with 12.5 mm diam. 0.8 kHz ±20%<br />
x 2.5 mm glass mirror<br />
Distance of pivot point to platform surface 2 ±0.5 mm<br />
(lower mirror surface)<br />
Operating temperature range -20 to 80 °C<br />
Voltage connection 3 x LEMO FFA.00.250 male, 2 m<br />
Sensor connection 2 x LEMO FFA.0S.304 female, 2 m<br />
Weight (without cables) 65 g ±5%<br />
Standard mirror diameter: 10 mm,<br />
thickness: 2 mm,<br />
BK7, �/5, R > 98%<br />
(�=500 nm to 2 µm)<br />
Material casing Titanium<br />
* Mechanical tilt, optical beam deflection is 100 mrad.<br />
S-334.2SL cable configuration<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
3-19
S-325.20L<br />
Ordering<br />
Information<br />
3-20<br />
S-325<br />
S-325.2SL<br />
Piezo Tip/Tilt Platform and Z-Positioner,<br />
5 mrad, 30 µm, Closed-Loop<br />
S-325.20L<br />
Piezo Tip/Tilt Platform and Z-Positioner,<br />
5 mrad, 30 µm, Open-Loop<br />
Application<br />
Examples<br />
� Image stabilisation<br />
� Laser beam stabilization<br />
� Beam switching<br />
� Adaptive optics systems<br />
� Laser beam steering and scanning<br />
� Laser cavity tuning<br />
S-325 cable configuration (upper picture S-325.20L,<br />
lower picture S-325.2SL)<br />
High-Speed Piezo Tip/Tilt<br />
Platform and Z Positioner<br />
� Tip/Tilt Range<br />
up to 5 mrad<br />
� Piston Movement<br />
up to 30 µm<br />
� Compact Design<br />
� Closed-Loop Versions<br />
� For mirrors up to 25 mm<br />
(1”) Diameter<br />
The S-325 multi-axis tip/tilt<br />
platforms and Z-positioners are<br />
fast and compact units based<br />
on <strong>the</strong> triple-piezo-drive supported<br />
platform design (see<br />
page 3-7 in <strong>the</strong> <strong>PI</strong> NanoPositioning<br />
catalog for details).<br />
http://www.pi.ws<br />
info@pi.ws<br />
High Resolution,<br />
Rapid Motion and<br />
Stable Positioning<br />
The S-325 offers piston movement<br />
up to 30 µm (ideal for<br />
path length adjustment) and<br />
tilt movement up to 5 mrad<br />
(mechanical tilt, which is equivalent<br />
to 10 mrad optical beam<br />
deflection) with sub-msec<br />
response and settling. The<br />
zero-friction PZT drives allow<br />
sub-nm linear resolution and<br />
sub-µrad angular resolution.<br />
The S-325 systems are designed<br />
for mirrors and optics<br />
up to 25 mm diameter and can<br />
be mounted in any orientation.<br />
OEM Proven<br />
Developed for industrial applications,<br />
S-325s have performed<br />
109 motion cycles<br />
without failure for OEM applications.<br />
Working Principle<br />
The S-325 tip/tilt platforms are<br />
equipped with three low-voltage<br />
piezoelectric (0 to 100 V)<br />
linear drives. The closed-loop<br />
model features additional position<br />
feedback.<br />
S-325.20L Open-Loop Z,<br />
Tip/Tilt Positioner<br />
The S-325.20L open-loop model<br />
is ideal for applications where<br />
<strong>the</strong> position is controlled by an<br />
external loop based on data<br />
provided by a sensor (e. g. PSD<br />
quad cell, CCD chip,...). All three<br />
piezo linear actuators can be<br />
driven individually (or in parallel)<br />
by a three-channel amplifier.<br />
Vertical (piston movement)<br />
positioning and tip/tilt positioning<br />
is possible.<br />
Recommended control electronics:<br />
E-663.00, <strong>the</strong> E-500<br />
system, configured for 3 channels<br />
(low or high-power amplifiers)<br />
or 3 x E-610.00 or 3 x<br />
E-621.00.<br />
S-325.2SL Closed-Loop Z,<br />
Tip/Tilt Positioner<br />
The S-325.2SL closed-loop version<br />
allows absolute position<br />
control, high linearity and repeatability<br />
based on <strong>the</strong> internal<br />
position sensors. All three<br />
piezo linear actuators are<br />
equipped with high-resolution<br />
strain gauge sensors and can<br />
be driven individually (or in<br />
parallel). Vertical positioning<br />
(piston movement) and tip/tilt<br />
positioning is possible. The<br />
integrated position feedback<br />
sensors provide sub-µrad (subnanometer<br />
for piston mode)<br />
resolution (with <strong>PI</strong> control electronics).<br />
Recommended control electronics:<br />
The E-500 system,<br />
configured for 3 channels<br />
(low or high-power amplifiers)<br />
and E-509 controller, or 3 x<br />
E-610.SR or 3 x E-621.SR.
S-325.20L dimensions in mm<br />
S-325.2SL dimensions in mm<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
Technical Data<br />
http://www.pi.ws<br />
info@pi.ws<br />
Models S-325.20L S-325.2SL Units<br />
Active Axes � X , � Y , Z � X , � Y , Z<br />
* Open-loop tilt mrad<br />
angle @ 0 to 100 V ** 5 (± 2.5) ** 5 (± 2.5) ± 20%<br />
* Closed-loop<br />
tilt angle - ** 4 (± 2) mrad<br />
* Open-loop linear µm<br />
travel @ 0 to 100 V 30 30 ± 20%<br />
* Closed-loop linear<br />
travel @ 0 to 100 V - 30 µm<br />
Integrated feedback strain<br />
sensor - gauge<br />
sensor<br />
Closed-loop/open-loop<br />
angular resolution<br />
Closed-loop/open-loop<br />
-/±0.05 0.1/±0.05 µad<br />
linear resolution -/1.0 0.5/1.0 nm<br />
Electrical capacitance 3 x 3.6 3 x 3.6 µF<br />
±20%<br />
Unloaded resonant kHz<br />
frequency<br />
Resonant frequency<br />
2 2 ±20%<br />
with 25 x 8 mm glass kHz<br />
mirror<br />
Distance of pivot point<br />
1 1 ±20%<br />
to platform surface<br />
Platform moment of<br />
6 ±0.5 6 ±0.5 mm<br />
inertia 515 515 gmm2 Operating temperature<br />
range -20 to 80 -20 to 80 °C<br />
Voltage connection 3 x VL, 3 x VL,<br />
2.0 m 2.0 m<br />
Sensor connection - 3 x L,<br />
2.0 m<br />
Weight (without cables) 65 65 g ±5%<br />
Material casing Al Al<br />
* For maximum tilt range, all three piezo actuators<br />
must be biased at 50 V.<br />
Linear travel and and tilt angle are interdependent.<br />
The values quoted here refer to pure linear / pure<br />
angular motion.<br />
** Mechanical tilt, optial beam deflection is twice as<br />
large.<br />
3-21
Ordering<br />
Information<br />
6-48<br />
E-710<br />
E-710.3CD<br />
Digital Piezo Controller, 3 Axes,<br />
Sub-D-Special Connector, RS-232 &<br />
IEEE-488 Interface<br />
E-710.4CL<br />
Digital Piezo Controller, 4 Axes, Lemo<br />
Connectors, RS-232 & IEEE 488 Interface<br />
E-710.4CD<br />
Digital Piezo Controller, 4 Axes, Sub-D<br />
Connector, RS-232 & IEEE 488 Interface<br />
E-710.P3D<br />
Digital Piezo Controller, 3 + 1 Axes,<br />
Sub-D-Connectors, RS-232, IEEE-488<br />
& High-Speed <strong>PI</strong>O Interface<br />
E-710.P4L<br />
Digital Piezo Controller, 4 Axes,<br />
LEMO Connectors, RS-232, IEEE 488<br />
& High-Speed <strong>PI</strong>O Interface<br />
E-710.P4D<br />
Digital Piezo Controller, 4 Axes,<br />
Sub-D Connectors, RS-232, IEEE 488<br />
& High-Speed <strong>PI</strong>O Interface<br />
E-710.6CD<br />
Digital Piezo Controller, 6 Axes,<br />
Sub-D-Special Connectors RS-232<br />
& IEEE 488 Interface<br />
Options<br />
E-710.SCN<br />
Dynamic Digital Linearization<br />
Upgrade<br />
E-710.3x3<br />
Extension Cable Piezo NanoPositioning<br />
Stage / E-710.3CD Controller, 3 m<br />
E-710.3x5<br />
Extension Cable Piezo NanoPositioning<br />
Stage / E-710.3CD Controller, 5 m<br />
E-710.1x3<br />
Extension Cable 3m, E-750 / E-710<br />
to Piezo Flexure Stage, 1 Channel Sub-D<br />
High-Speed Digital NanoAutomation ®<br />
Piezo Controllers<br />
E-710.6CD 6-axis digital piezo controller<br />
shown with custom Super Invar 6-DOF<br />
piezo flexure NanoPositioning stage.<br />
� For Piezo NanoPositioners<br />
with Capacitive Feedback<br />
Sensors<br />
� 3-, 4- & 6-Channel Versions<br />
� 32-Bit Digital Filters<br />
� Polynomial Linearization<br />
� Coordinate Transformation<br />
for Parallel Kinematics /<br />
Parallel Metrology Systems<br />
� Optional Dynamic Digital<br />
Linearization (Firmware<br />
Option) Improves<br />
Scanning Linearity<br />
� AutoCalibrate Function<br />
for Easy Controller /<br />
Stage Interchangeability<br />
� Fast RS-232 and IEEE 488<br />
Interfaces<br />
� Optional High-Speed<br />
Parallel Port Interface<br />
� Extensive Software<br />
Support<br />
E-710 digital piezo controllers/<br />
drivers are <strong>the</strong> most advanced<br />
and flexible controllers for<br />
piezo nanopositioning and<br />
scanning stages on <strong>the</strong> market.<br />
Based on powerful 32-bit<br />
DSPs (digital signal processor)<br />
<strong>the</strong>y control up to six-degrees<br />
of freedom with integrated<br />
power amplifiers for multilayer<br />
PZT drives (-20 to 110 V) and<br />
http://www.pi.ws<br />
info@pi.ws<br />
signal conditioning electronics<br />
for two-plate capacitive position<br />
sensors. E-710 controllers<br />
represent a major advance<br />
over conventional multi-axis<br />
controllers because <strong>the</strong> sensor<br />
and output channels of two or<br />
more axes can participate in an<br />
internal coordinate transformation<br />
for multi-axis parallel-kinematics<br />
positioning systems with<br />
parallel-motion metrology, e.g.<br />
<strong>the</strong> P-500 series on page 2-32.<br />
Parallel Motion Metrology<br />
“Sees” all Controlled<br />
Degrees of Freedom<br />
Simultaneously<br />
Parallel-kinematics nanopositioning<br />
systems with parallelmetrology<br />
position feedback<br />
are superior to stacked or nested<br />
multi-axis positioning systems.<br />
They allow active trajectory<br />
control, automatic crosstalk<br />
and runout compensation<br />
and provide direct, non-contacting<br />
position information,<br />
measuring motion exactly<br />
where it matters (ra<strong>the</strong>r than<br />
measuring <strong>the</strong> strain in <strong>the</strong><br />
drive system, a technique<br />
common in lower-precision<br />
positioning systems relying on<br />
<strong>the</strong> feedback of piezo resistive<br />
sensors).<br />
Integrated Linearization<br />
Systems<br />
E-710-controlled nanopositioning<br />
systems boast outstanding<br />
linearity, achieved by <strong>PI</strong>’s proprietary<br />
ILS (Integrated Linearization<br />
System) and additional<br />
digital polynomial linearization.<br />
The ILS, part of <strong>the</strong> E-710’s<br />
capacitive position sensor signal<br />
conditioning circuitry, compensates<br />
for influences caused<br />
by non-parallelism of <strong>the</strong> sensor<br />
plates. The digital polynomial<br />
linearization is calibrated<br />
for each individual nanopositioning<br />
system and can<br />
improve linearity to 0.001%<br />
over <strong>the</strong> full travel range.<br />
Custom Designs<br />
for Volume Buyers E-710 data acquisition and analysis functions (Bode plots, etc.) help optimize<br />
performance of NanoPositioning systems.<br />
Section 4, 5 and pages 6-1 to 6-46<br />
see <strong>the</strong> hardbound <strong>PI</strong> catalog
System Analysis—Advanced<br />
Software Tools<br />
The E-710 comes with <strong>the</strong><br />
NanoCapture software featuring<br />
advanced functions for<br />
measuring-system response,<br />
step-and-settle and Bode plots.<br />
All positioning commands use<br />
standard units such as micrometers<br />
or microradians, for easy<br />
programming. In addition, all<br />
control parameters are nonvolatile,<br />
user-accessible and<br />
can be easily modified and<br />
optimized. Fully programmable<br />
low-pass & notch filters round<br />
out <strong>the</strong> E-710.<br />
Integrated Wave<br />
Generator & Look-up Table<br />
The implementation of a wave<br />
generator for all E-710 models<br />
allows <strong>the</strong> synchronous driving<br />
of several axes with a ma<strong>the</strong>matical<br />
function or with a userdefined<br />
random signal stored<br />
in a lookup table containing<br />
65,535 points. Programmable<br />
trigger inputs and outputs facilitate<br />
synchronization with<br />
external events.<br />
Communication / Interfaces<br />
E-710 controllers are equipped<br />
with fast RS-232 and IEEE 488<br />
interfaces. The optional parallel<br />
port I/O (<strong>PI</strong>O) interface allows<br />
<strong>the</strong> fastest possible position<br />
setting/reading (20,000 positions<br />
per second bypassing <strong>the</strong><br />
command parser).<br />
Dynamic Digital Linearization<br />
Improves Scanning<br />
Linearity up to 3 Orders of<br />
Magnitude<br />
Control <strong>the</strong>ory predicts that<br />
conventional <strong>PI</strong>D (proportional<br />
Extensive<br />
Software Support<br />
The E-710 controller comes with a<br />
variety of software tools as well as<br />
LabView TM drivers and DLL’s for easy<br />
setup, system analysis and integration.<br />
Dynamic Digital Linearization<br />
integral derivative) servo motion<br />
controllers exhibit phase<br />
lag and tracking errors in<br />
dynamic operation (due to <strong>the</strong><br />
fact that a <strong>PI</strong>D controller needs<br />
to see an error first before a<br />
reaction occurs, and also due<br />
to <strong>the</strong> nonlinear nature of PZT<br />
material). Depending on <strong>the</strong><br />
controller settings and specs<br />
of <strong>the</strong> nanopositioning system<br />
driven, tracking errors (<strong>the</strong> difference<br />
between <strong>the</strong> commanded<br />
position and actual<br />
position) can reach double-digit<br />
percentage values even at<br />
Triangular scanning signal at 312 Hz. There is a significant<br />
difference (2.6 µm max.) between target and real position with<br />
<strong>the</strong> conventional <strong>PI</strong>D motion controller.<br />
Elliptical scan in a laser micro-drilling application with XY<br />
piezo scanning stage, conventional controller, 60 msec/rev.<br />
The outer curve ellipse describes <strong>the</strong> target position, <strong>the</strong> inner<br />
ellipse shows <strong>the</strong> actual motion at <strong>the</strong> stage.<br />
moderate scanning rates.<br />
Consequently, scanning stages<br />
often cannot be driven at <strong>the</strong><br />
desired rates, or <strong>the</strong> acquired<br />
data has poor linearity.<br />
The new E-710.SCN Dynamic<br />
Digital Linearization upgrade<br />
(standard for <strong>the</strong> E-710.6CD<br />
6-axis controller, optional for<br />
<strong>the</strong> 3- and 4-channel versions)<br />
solves this problem. This <strong>PI</strong>exclusive<br />
technology is a<br />
breakthrough for scanning<br />
applications, reducing phase<br />
lag and nonlinearity to indiscernible<br />
levels, even with high-<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
frequency dynamic actuation<br />
under load. The effect is an<br />
improvement in linearity (and<br />
usable bandwidth) of up to<br />
three orders of magnitude,<br />
resulting in significantly increased<br />
throughput. Dynamic<br />
Digital Linearization works<br />
both in single-axis and multiaxis<br />
applications (see graphs).<br />
Triangular scanning signal at 312 Hz, with <strong>the</strong> E-710 with dynamic<br />
digital linearization. The difference between <strong>the</strong> target positon<br />
and <strong>the</strong> actual motion is indiscernible. The maximum error is<br />
only 7 nanometers.<br />
Same scan as before, with dynamic digital linearization.<br />
Target and actual data can hardly be discerned.<br />
6-49
6-50<br />
NanoCapture TM Software for E-710 Digital Piezo Controllers<br />
� Allows Optimization<br />
of all Servo Parameters<br />
� Measures System Response,<br />
Step and Settle,<br />
Resonant Frequency,<br />
Bode Plots<br />
� Increases Throughput<br />
� Wave Generator: Defines<br />
and Simulates Waveforms<br />
and Reports Wave<br />
Generation Results<br />
The NanoCapture software<br />
provided with <strong>the</strong> E-710 digital<br />
piezo controller is a versatile tool<br />
for system response analysis<br />
and optimization and for <strong>the</strong><br />
definition and generation of<br />
waveforms.<br />
Advanced Analysis Tools<br />
In addition to standard functions<br />
for <strong>the</strong> operation of piezo<br />
NanoPositioning systems,<br />
NanoCaptureTM features advanced<br />
measuring and analysis<br />
functions for resonant frequency,<br />
overshoot, step-andsettle,<br />
Bode plots, etc. These<br />
features are specifically useful<br />
when <strong>the</strong> mechanical properties<br />
of a factory-calibrated system<br />
are changed at <strong>the</strong> operating<br />
site by parameters such as<br />
an increased or reduced payload,<br />
a different orientation or<br />
different damping conditions.<br />
In this case, parameters such<br />
as servo-gain, notch-filter frequency,<br />
or <strong>the</strong> position sensor’s<br />
zero point, etc. need to<br />
be adjusted to maintain optimum<br />
system response and<br />
stability. NanoCaptureTM supports<br />
<strong>the</strong> operator in determining<br />
system resonant frequency,<br />
rise time, and settling<br />
time by analyzing <strong>the</strong> dynamic<br />
position feedback data from<br />
<strong>the</strong> NanoPositioning system’s<br />
integrated capacitance sensors<br />
(no o<strong>the</strong>r metrology or measur-<br />
ing instruments are required!).<br />
Based on this data, servo<br />
parameters are easily adjusted<br />
for optimized settling under<br />
any load condition.<br />
Wave Generator Handling<br />
In addition to its system analysis<br />
and optimization functionalities,<br />
<strong>the</strong> NanoCaptureTM software<br />
allows convenient handling<br />
of <strong>the</strong> wave generator<br />
feature of <strong>the</strong> E-710 controller:<br />
� Rapidly perform simple<br />
waveforms as well as<br />
circular trajectories with<br />
two axes<br />
� Design complex waveforms<br />
� Save defined wave segments<br />
to <strong>the</strong> controller<br />
The NanoCapture TM software<br />
also permits <strong>the</strong> user to see<br />
<strong>the</strong> effects of <strong>the</strong> E-710.SCN<br />
Dynamic Digital Linearization<br />
upgrade on <strong>the</strong> position accuracy<br />
of repetitive functions<br />
such as scans.<br />
http://www.pi.ws<br />
info@pi.ws<br />
Step response of a (poorly damped), open-loop NanoPositioning system. Data acquisition<br />
with E-710 and NanoCapture TM software.<br />
Closed-loop response of a NanoPositioning system with optimized servo settings.<br />
Data acquisition with E-710 and NanoCapture TM software.<br />
E-710 internal wave generator. Data acquisition with E-710 and NanoCapture TM software.
Technical Data<br />
Model E-710.3CD E-710.4CD/E-710.4CL/E-710.P3D/ E-710.6CD<br />
E-710.P4D/E-710.P4L<br />
Function Digital NanoAutomation ® Digital NanoAutomation ® Digital NanoAutomation ®<br />
PZT controller and PZT controller and PZT controller and<br />
power amplifier power amplifier power amplifier<br />
Axes 3 4 6<br />
Sensor Capacitive sensors Capacitive sensors Capacitive sensors<br />
Processor DSP 32-bit floating point, 33 MHz DSP 32-bit floating point, 33 MHz 2 x DSP 32-bit floating point, 33 MHz<br />
Sampling interval 50 µs (sensor), 50 µs (sensor), 40 µs (sensor),<br />
200 µs (servo-loop, 4 axes) 200 µs (servo loop, 4 axes) 200 µs (servo-loop, 6 axes)<br />
Effective Resolution DAC 20-bit 20-bit 20-bit<br />
Maximum output power 25 W / channel 25 W / channel 25 W / channel<br />
Average output power 6 W / channel 6 W / channel 6 W / channel<br />
Peak output current < 20 ms 200 mA / channel 200 mA / channel 200 mA / channel<br />
Average output current > 20 ms 60 mA / channel 60 mA / channel 60 mA / channel<br />
Current limitation Short-circuit proof Short-circuit proof Short-circuit proof<br />
Output voltage -20 to +110 V -20 to +110 V -20 to +110 V<br />
PZT voltage output sockets 3-channel sub-D special 3-ch. + 1ch. sub-D, special LEMO ERN.00.250.CTL<br />
(models E-710.P3D only), 4x 1-ch. (E-710.xxL only)<br />
Sub-D, special (models E-710.4CD<br />
and E-710.P4D only)<br />
2x 3-channel sub-D special<br />
Sensor sockets 3-channel sub-D, special 3-ch. + 1 ch. sub-D, special<br />
(models E-710.P3D only), 4x 1-ch.<br />
Sub-D, special (models E-710.4CD<br />
and E-710.P4D only)<br />
LEMO PSA.00.250.CTAC22<br />
(models E-710.xxL only)<br />
2x 3-channel sub-D, special<br />
Interfaces RS-232 and IEEE 488 RS-232 and IEEE 488, RS-232 and IEEE 488, all models<br />
all models (for ASCII<br />
command structure)<br />
<strong>PI</strong>O (models E-710.Pxx only)<br />
(for ASCII command structure)<br />
Software PZT Control, NanoCapture, PZT Control, NanoCapture, PZT Control, NanoCapture,<br />
LabViewTM Drivers, DLLs LabViewTM Drivers, DLLs LabViewTM Drivers, DLLs<br />
Dimensions 450 x 105 x 390 mm 450 x 105 x 390 mm 450 x 105 x 390 mm<br />
Weight 7 kg 7 kg 7 kg<br />
Power consumption (max) 60 W 60 W 60 W<br />
Operating voltage 90-120 or 220-264 VAC, 50-60 Hz 90-120 or 220-264 VAC,50-60 Hz 90-120 or 220-264 VAC, 50-60 Hz<br />
Connectors of E-710.4CD and E-710.P4D. <strong>PI</strong>O interface and status LEDs present on<br />
<strong>the</strong> E-710.P4D version only.<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
Connectors of E-710.4CL and E-710.P4L. <strong>PI</strong>O interface and status LEDs present on<br />
<strong>the</strong> E-710.P4L version only.<br />
Connectors of E-710.3CD and E-710.P3D. <strong>PI</strong>O interface, status LEDs and 4th-channel<br />
connector present on <strong>the</strong> E-710.P3D version only.<br />
6-51
Ordering<br />
Information<br />
6-52<br />
E-621<br />
E-621.SR<br />
LVPZT Amplifier & Servo-Controller<br />
Module, Strain Gauge Sensor,<br />
RS-232 Interface<br />
E-621.LR<br />
LVPZT Amplifier & Servo-Controller<br />
Module, LVDT Sensor, RS-232 Interface<br />
E-500.621<br />
Basic Chassis, 19”, for up to<br />
12 Modules, Including Power Supply<br />
E-501.621<br />
Basic Chassis, 9.5”, for up to<br />
4 Modules, Including Power Suppy<br />
Technical Data<br />
LVPZT Amplifier & Servo-Controller<br />
Module with High-Speed RS-232 Interface<br />
� Integrated 20-Bit High-<br />
Speed RS-232 Interface<br />
� Network Capability<br />
with up to 12 Channels<br />
� For LVDT and Strain<br />
Gauge Position Sensors<br />
The E-621 is a newly developed<br />
improvement on <strong>the</strong><br />
E-610-series modular controller/amplifier<br />
for low-voltage<br />
PZTs and offers <strong>the</strong> full functionality<br />
of that line. In addition,<br />
<strong>the</strong> E-621 is equipped with an<br />
RS-232 interface and command<br />
interpreter, <strong>the</strong> submodule.<br />
New and Fast<br />
Communications Interface<br />
The RS-232 interface handles<br />
<strong>the</strong> communications with <strong>the</strong><br />
outside world. It performs up<br />
to 300 read or write operations<br />
per second and incorporates<br />
Models E-621.SR, E-621.LR<br />
Function Power amplifier & position servo-control of LVPZTs<br />
Channels<br />
Amplifier<br />
1<br />
Maximum output power 14 W<br />
Average output power 6 W<br />
Peak output current < 5 ms 140 mA<br />
Average output current 60 mA<br />
Current limitation Short-circuit proof<br />
Voltage gain 10 +/- 0.1<br />
Polarity Positive<br />
DC-offset setting 0 to +100 V<br />
Input Impedance 100 k�<br />
Dimensions 7T wide, 3H high<br />
Operating voltage 13 to 30 VDC, stabilized<br />
Operating current<br />
RS-232 Interface<br />
2 A<br />
D/A converter 20-bit resolution<br />
A/D converter (sensor) 20-bit resolution<br />
Baudrate 9.6 kBaud – 115.2 kBaud (default 115.2)<br />
Wave table<br />
Position Servo-Control<br />
64 values, 100 Hz, externally triggered (in preparation)<br />
Sensor types Strain gauge (E-621.SR), LVDT (E-621.LR)<br />
Servo characteristics<br />
Connectors<br />
P-I analog, notch filter<br />
PZT connector LEMO ERA.00.250.CTL<br />
Sensor connector LEMO EPL.0S.304.HLN<br />
Analog input SMB<br />
Monitor output SMB<br />
RS-232 9-pin sub-D (male)<br />
http://www.pi.ws<br />
info@pi.ws<br />
E-621 Module<br />
precision 20-bit D/A and A/D<br />
converters for exceptional<br />
positional stability and resolution.<br />
The sub-module assumes<br />
all communications tasks with<br />
<strong>the</strong> host PC and/or with o<strong>the</strong>r<br />
networked modules in <strong>the</strong><br />
system.<br />
Multi-Axis Network<br />
Communications between<br />
several E-621s with any combination<br />
of SGS and LVDT sensors,<br />
is also handled by <strong>the</strong><br />
interface sub-module. Up to<br />
12 modules can be networked<br />
and controlled over a single<br />
RS-232 interface. The different<br />
modules are connected in parallel<br />
(not daisy-chained) over<br />
<strong>the</strong> link. A special chassis<br />
(E-500.621) is available for up to<br />
12 E-612 modules. It automatically<br />
provides <strong>the</strong> power and<br />
network connections to <strong>the</strong><br />
individual E-621 modules, so<br />
no additional wiring is required.<br />
Only an additional 10 ms internal<br />
bus communications time<br />
is required to reach any of <strong>the</strong><br />
units behind <strong>the</strong> one actually<br />
connected to <strong>the</strong> host PC.<br />
<strong>PI</strong> General Command Set<br />
The E-621 is to a large extent<br />
freely programmable and its<br />
command structure conforms<br />
to <strong>the</strong> <strong>PI</strong> General Command<br />
Set. This command set is common<br />
to <strong>the</strong> E-516 Piezo<br />
Interface and Display Module<br />
(see p. 6-58) and an increasing<br />
number of <strong>PI</strong> controllers. All<br />
new controllers for motors and<br />
actuators will understand <strong>the</strong>se<br />
commands, ei<strong>the</strong>r directly or<br />
via command libraries. This will<br />
greatly reduce <strong>the</strong> effort required<br />
to produce custom programs,<br />
especially in environments<br />
which include a number<br />
of different controllers. Included<br />
with <strong>the</strong> E-621 is userinterface<br />
software as well<br />
LabView and o<strong>the</strong>r driver<br />
sets.
E-621 open-loop frequency response with various PZT loads. Values shown are capacitance in µF, measured in actual PZT.<br />
4 x E-621 in an E-501.621 chassis<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
6-53
E-665.SR<br />
Ordering<br />
Information<br />
E-665.SR<br />
LVPZT Amplifier & Position Controller,<br />
Strain Gauge Sensors, RS-232 Interface<br />
E-665.LR<br />
LVPZT Amplifier & Position Controller,<br />
LVDT Sensors, RS-232 Interface<br />
E-665.CR<br />
LVPZT Amplifier & Position Controller,<br />
Capacitive Sensors, RS-232 Interface<br />
Custom Designs for Volume Buyers<br />
6-54<br />
E-665<br />
LVPZT Amplifier & Position Servo-Controller<br />
with High-Speed RS-232 Interface<br />
� Integrated 20-Bit High-<br />
Speed RS-232 Interface<br />
� Network Capability with<br />
up to 12 Channels<br />
� 36 W Peak Power<br />
� Position Servo-Control<br />
� For Strain Gauge, LVDT<br />
and Capacitive Sensors<br />
The E-665 is a bench-top, lowvoltage<br />
PZT amplifier and position<br />
servo-controller with integrated<br />
high-speed RS-232<br />
computer interface and a 20bit<br />
D/A converter. The E-665<br />
supports all position sensors<br />
offered with <strong>PI</strong> piezo translators<br />
and NanoPositioning stages:<br />
strain gauge sensors, LVDT<br />
sensors and capacitive sensors.<br />
It is ideal for use with single-axis<br />
translators such as<br />
� P-841 stack actuators with<br />
strain gauge sensors<br />
� P-721 <strong>PI</strong>FOC ® microscope<br />
objective positioners with<br />
LVDT or capacitive sensors<br />
� P-620 <strong>PI</strong>Hera series singleaxis<br />
stages with travel up to<br />
500µmandcapacitive sensors<br />
� P-753 LISA/P-752 series<br />
NanoAutomation ® stages<br />
with capacitive sensors<br />
http://www.pi.ws<br />
info@pi.ws<br />
New and Fast<br />
Communications Interface<br />
The RS-232 interface handles<br />
communications with <strong>the</strong> outside<br />
world. It performs up to<br />
300 bidirectional read or write<br />
operations per second and<br />
incorporates precision 20-bit<br />
D/A and A/D converters for<br />
exceptional positional stability<br />
and resolution.<br />
Multi-Axis Network<br />
Up to 12 E-665s can be networked<br />
and controlled over a<br />
single RS-232 interface.<br />
<strong>PI</strong> General Command Set<br />
The E-665 is to a large extent<br />
freely programmable and its<br />
command structure conforms<br />
to <strong>the</strong> <strong>PI</strong> General Command<br />
Set. This command set is common<br />
to <strong>the</strong> E-516 Computer<br />
Control and Display Module<br />
and an increasing number of <strong>PI</strong><br />
controllers, and is designed for<br />
multi-axis operation. It is <strong>PI</strong>’s<br />
goal to make all of its controllers<br />
“understand” <strong>the</strong>se<br />
commands, ei<strong>the</strong>r directly or<br />
via command libraries. This will<br />
greatly reduce <strong>the</strong> effort<br />
required to produce custom<br />
programs, especially in environments<br />
which include a<br />
number of different controllers.<br />
Included with <strong>the</strong> E-665 is<br />
user-interface software as well<br />
LabView and o<strong>the</strong>r driver<br />
sets.<br />
Screenshot of PZT-Control software for E-665. The commands listed in <strong>the</strong> editor are<br />
part of <strong>the</strong> <strong>PI</strong> General Command Set.
E-665, open-loop frequency with various PZT loads. Capacitance values are in µF,<br />
measured in actual PZT.<br />
Technical Data<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Models E-665.SR E-665.LR E-665.CR<br />
Index<br />
http://www.pi.ws<br />
Function Power amplifier & sensor/ Power amplifier & sensor/ Power amplifier & sensor/<br />
position servo-control of LVPZTs position servo-control of LVPZTs position servo-control of LVPZTs<br />
Channels 1 1 1<br />
Amplifier<br />
Maximum output power 36 W 36 W 36 W<br />
Average output power 12 W 12 W 12 W<br />
Peak output current < 5 ms 360 mA 360 mA 360 mA<br />
Average output current > 5 ms 120 mA 120 mA 120 mA<br />
Current limitation short-circuit proof short-circuit proof short-circuit proof<br />
Voltage gain 10 ± 0.1 10 ± 0.1 10 ± 0.1<br />
Polarity Positive Positive Positive<br />
Control input voltage -2 to +12 V -2 to +12 V -2 to +12 V<br />
Output voltage -20 to 120 V -20 to 120 V -20 to 120 V<br />
DC offset setting 0 to 100 V with 10-turn pot. 0 to 100 V with 10-turn pot. 0 to 100 V with 10-turn pot.<br />
Input impedance 100 k� 100 k� 100 k�<br />
Display 2 x 4 1/2-digit, LED 2 x 4 1/2-digit, LED 2 x 4 1/2-digit, LED<br />
Control input socket: BNC BNC BNC<br />
PZT voltage output socket LEMO ERA.00.250.CTL LEMO ERA.00.250.CTL Combo sub-D; size DB<br />
Dimensions 235 x 103 x 288 mm 235 x 103 x 288 mm 235 x 103 x 288 mm<br />
Weight 2.5 kg 2.5 kg 2.5 kg<br />
Operating voltage 90 –120 / 220–240 VAC, 90–120 / 220–240 VAC, 90 –120 / 220–240 VAC,<br />
50 –60 Hz (linear P/S) 50–60 Hz (linear P/S) 50–60 Hz (linear P/S)<br />
RS-232 Interface<br />
D/A Converter 20-bit resolution 20-bit resolution 20-bit resolution<br />
Baudrate 9.6 kBaud –115.2 kBaud 9.6 kBaud –115.2 kBaud 9.6 kBaud – 115.2 kBaud<br />
(default 115.2 kBaud) (default 115.2 kBaud) (default 115.2 kBaud)<br />
Wave Table 64 data points, 100 Hz, 64 data points, 100 Hz, 64 data points, 100 Hz,<br />
externally triggered externally triggered externally triggered<br />
Position Servo-Control<br />
Sensor Type SGS LVDT capacitive<br />
Servo Characteristics P-I (analog) + notch filter P-I (analog) + notch filter P-I (analog) + notch filter<br />
Sensor socket LEMO ERA.0S.304.CLL LEMO ERA.0S.304.CLL Combo sub-D; size DB<br />
Sensor monitor output socket BNC BNC BNC<br />
info@pi.ws<br />
6-55
E-831.02 amplifier module.<br />
Ordering<br />
Information<br />
E-831.02<br />
Single-Channel Amplifier Module<br />
for LVPZTs<br />
E-841.05<br />
Power Supply Module for E-831,<br />
Input 10 to 30 V<br />
E-842.05<br />
Power Supply Module for E-831,<br />
Input 30 to 72 V<br />
E-841.05 power supply module<br />
6-56<br />
E-831<br />
E-841<br />
E-842<br />
OEM Piezo Amplifier and<br />
Power Supply Modules<br />
� Cost Effective<br />
� Small Size<br />
� Low Noise, High Stability<br />
� Easy-to-Use<br />
� Full Overcurrent, Short-<br />
Circuit and Temperature<br />
Protection<br />
� Power-up/down Without<br />
Voltage Spikes<br />
The E-831.02 OEM piezo<br />
amplifier module is a very<br />
compact, cost-effective, single-channel<br />
power amplifier for<br />
low-voltage piezoelectric actuators<br />
(LVPZTs).<br />
It provides a peak output<br />
power of 12 W and average<br />
power of 2 W (expandable to<br />
5 W with external heat sink).<br />
The E-831.02 is a high-precision<br />
amplifier with a fixed gain<br />
of 10.0 and outputs voltages in<br />
<strong>the</strong> range of -20 to 120 V for<br />
control input signals ranging<br />
from of -2 to 12 V. The output<br />
is fully compensated for <strong>the</strong><br />
capacitive loads of up to 10 µF<br />
typical of <strong>PI</strong>’s low-voltage PZTs<br />
such as <strong>PI</strong>CMA ® piezo actuators.<br />
For monitoring purposes,<br />
<strong>the</strong> output voltage is internally<br />
divided by 100 and provided at<br />
a special monitor pin.<br />
Because piezo actuators require<br />
virtually no power in ste-<br />
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adystate operation and <strong>the</strong><br />
power consumption depends<br />
on <strong>the</strong> operating frequency,<br />
high-powered amplifiers are<br />
not required for many applications.<br />
With a peak output current<br />
of 100 mA (sink/source)<br />
<strong>the</strong> E-831 is well-suited for<br />
switching applications and fast<br />
transitions where <strong>the</strong> capacitive<br />
load (<strong>the</strong> piezo actuator)<br />
needs to be charged as quickly<br />
as possible. The small-signal<br />
bandwidth is about 3kHz.<br />
Power Supplies for E-831.02<br />
The E-841.05 (input voltage<br />
range 10 to 30V) and E-842.05<br />
(input voltage range 30 V to<br />
72 V) switched power supply<br />
modules provide all <strong>the</strong> operating<br />
voltages (+/-15 V, -26 V<br />
and +127 V DC) required by<br />
<strong>the</strong> E-831.02 amplifier module.<br />
Both models supply enough<br />
power for up to three E-831.02<br />
amplifiers with a total output<br />
power of 5 W.<br />
A sync. input on <strong>the</strong> power<br />
supply allows synchronization<br />
of <strong>the</strong> internal switching frequency<br />
with an external clock<br />
(185 to 220 kHz) for elimination<br />
of interference in ACdriven<br />
position sensors or<br />
DACs.<br />
Easy Implementation<br />
E-831 and E-841/E-842 modules<br />
are enclosed in metal<br />
cases with solderable pins for<br />
PCB mounting. They are designed<br />
to work toge<strong>the</strong>r without<br />
additional components.<br />
Triple Safety<br />
The E-831 amplifier is shortcircuit<br />
proof with both a lowspeed<br />
current limiter of 50 mA<br />
and a high-speed (8 msec) current<br />
limiter of 100 mA. When<br />
<strong>the</strong> case temperature rises<br />
above 70°C (can be reached<br />
after a few minutes with maximum<br />
current) an internal temperature<br />
sensor shuts down<br />
<strong>the</strong> output stage until <strong>the</strong> temperature<br />
drops below 60°C.<br />
This operation mode is indicated<br />
by <strong>the</strong> active-high<br />
TEMP-OFL TTL status line.<br />
Scheme for a three-channel amplifier consisting of an E-841 power supply<br />
and three E-831 amplifiers.
Tiny: E-841.05/E-842.05 dimensions in mm.<br />
Tiny: E-831.02 dimensions in mm, decimal places<br />
separated by commas in drawings.<br />
Technical Data E-831.02<br />
Model: E-831.02<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
Function: Single-channel piezo amplifier module<br />
Operating voltages: +15 V / 20 mA (14 to16 V)<br />
(all currents without dynamic load) -15 V / 20 mA (-14 th -16 V)<br />
+127 V / 1.8 mA (+125 to 135 V)<br />
-26 V / 1.8 mA (-24 to -30 V)<br />
Output voltage range: from U+ - 6 V (121 V for U+ = 127 V)<br />
to U- + 8 V (-20 V for U- = 28 V)<br />
Gain 10 +/-0.1<br />
Max. output current: 100 mA for 8 ms (sink/source)<br />
Max. average current: 50 mA for 3 min without heatsink<br />
http://www.pi.ws<br />
Output protection: short-circuit protected, <strong>the</strong> module is overload<br />
protected to 70°C case temperature<br />
Max. output power: 2 W without ext. heatsink<br />
5 W with ext. heatsink or forced airflow<br />
Control input range: -2 to +12 V<br />
Input impedance: 100 kohm<br />
Dynamic current requirements: depend on load, amplitude and slew rate<br />
Cut off frequency: 3.5 kHz, no load<br />
Operating temperature range: +5° to +50° Celsius<br />
Case Metal shielded case, size: 50x30x14 mm<br />
Soldering pins 1 mm diameter, 4 mm length<br />
Technical Data E-84x.05<br />
Models: E-841.05, E-842.05<br />
Function: Power Supply Module for E-831<br />
info@pi.ws<br />
Output voltages: +127 V, 30 mA<br />
-26 V, 30 mA<br />
+15 V, 50 mA<br />
-15 V, 50 mA<br />
Max. output Power: 8 W<br />
Max. average Power 8 W with forced air flow (5W without)<br />
Output protection: short-circuit protected (1 min.)<br />
Input voltage: 10 - 30 V (E-841.05)<br />
30 - 72 V (E-842.05)<br />
Quiescent current: 70 mA @15 V<br />
35 mA @30 V<br />
15 mA @72 V<br />
Max. input current: 1000 mA (E-841.05 @ 10V)<br />
200 mA (E-842.05 @ 72V)<br />
Power-on, peak current: 1500 mA<br />
Switching frequency 100 kHz typical<br />
External clock frequency: 200 kHz (185 - 220 kHz possible)<br />
Synchronization signal: preferred TTL-level with duty cycle 50%; operating<br />
from 1.8 Vpp and offsets within ±7 V<br />
Output ripple: < 100 mVpp<br />
Operating temperature range: 5° to +50° Celsius (with power derating above 40 °C)<br />
Case Metal shielded case, size: 50x44x14 mm<br />
Soldering pins 1 mm diameter, 4 mm length<br />
6-57
Ordering<br />
Information<br />
E-516.i3<br />
20-bit DAC Interface/Display Module,<br />
IEEE 488/RS-232, 3 Channels<br />
E-516.i1<br />
20-bit DAC Interface/Display Module,<br />
IEEE 488/RS-232, 1 Channel<br />
Custom Designs<br />
for Volume Buyers<br />
6-58<br />
E-516<br />
Computer Interface & Display Module<br />
� 6-digit LCD Display for<br />
Voltage & Displacement<br />
Data<br />
� Low-Noise, 20-Bit D/A<br />
Converters<br />
� IEEE 488 & RS-232<br />
Computer Interface<br />
� 1 or 3 Output Channels<br />
The E-516 is a microprocessorcontrolled<br />
interface and display<br />
module with integrated 20-bit<br />
D/A converters and IEEE 488 &<br />
RS-232-ports.<br />
The E-516 can be computercontrolled<br />
with more than 20<br />
ASCII commands that are<br />
interpreted and executed by<br />
<strong>the</strong> internal DSP. Each of <strong>the</strong><br />
output channels can be addressed<br />
individually. The E-516<br />
provides an effective output<br />
resolution of 20-bits. Additional<br />
20-bit A/D converters read <strong>the</strong><br />
PZT voltage and position.<br />
Communication/<br />
Command Set<br />
For computer communication,<br />
both RS-232 and IEEE 488<br />
interfaces are installed. The<br />
E-516 support <strong>the</strong> <strong>PI</strong> General<br />
Command Set. To reduce your<br />
programming effort in <strong>the</strong> face<br />
of complex multi-axis positioning<br />
tasks, <strong>PI</strong> has introduced<br />
<strong>the</strong> <strong>PI</strong> General Command Set.<br />
All new controllers for motors<br />
and actuators will understand<br />
<strong>the</strong> commands of this set, ei<strong>the</strong>r<br />
directly or through <strong>the</strong> use<br />
of command libraries which<br />
translate <strong>the</strong> standardized commands<br />
to low-level instructions<br />
to save communications<br />
time and/or bandwidth. The <strong>PI</strong><br />
General Command Set is valid<br />
for different devices, and multiple<br />
devices can be controlled<br />
from one host PC with one or<br />
more interfaces.<br />
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E-516.i3<br />
Operation<br />
The E-516 can be used for both<br />
static and dynamic operation.<br />
Any desired functions can be<br />
uploaded to <strong>the</strong> internal data<br />
tables and executed per software<br />
command. Windows<br />
operating software, DLLs and<br />
LabView drivers are included.<br />
Technical Data<br />
Notes<br />
The E-516 is not a stand-alone<br />
device. It is designed to work<br />
in <strong>the</strong> E-500/E-501 chassis,<br />
<strong>the</strong> E-471 or E-480 amplifier<br />
with integrated power supply.<br />
Models E-516.i3 E-516.i1<br />
Function 20-bit D/A converter interface/display module, IEEE 488/RS-232<br />
Channels 3 1<br />
Output voltage range -1 to +11 V -1 to +11 V<br />
Resolution 20-bit 20-bit<br />
Stability Better than 0.2 mV Better than 0.2 mV<br />
Linearity 0.01% 0.01%<br />
Computer interfaces RS-232, IEEE 488 RS-232, IEEE 488<br />
D/Aconverters 20-bit, ±12 V 20-bit, ±12 V<br />
A/D converters 20-bit, -1 to +11 V 20-bit, -1 to +11 V<br />
LCD Display 4x20 characters 4x20 characters<br />
Dimensions One 21T slot wide, 3H high One 21T slot wide, 3H high<br />
Weight 0.3 kg 0.3 kg<br />
Operating voltage Requires E-530/E-531 power supply (E-500/E-501 system, etc.)
WaveEditor-Function Generator<br />
WaveEditor<br />
with sample wave.<br />
The E-516 has a built-in wave<br />
generator which can store up<br />
to 8192 data points for each<br />
channel. These values can<br />
<strong>the</strong>n be output output at a rate<br />
of 20 kHz. Alternatively, <strong>the</strong><br />
output can also be controlled<br />
by an external signal and programmed<br />
for point-by-point,<br />
line-by-line or full-scan triggering.<br />
The wave point values can be<br />
calculated with <strong>the</strong> included<br />
function generator. With <strong>the</strong><br />
WaveEditor's graphic interface<br />
software, you need only<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
choose <strong>the</strong> desired function<br />
and set <strong>the</strong> parameters to <strong>the</strong><br />
values you need. Your wave is<br />
displayed on <strong>the</strong> screen as you<br />
edit it, before being output.<br />
The WaveEditor is also availble<br />
as a DLL and can be called up<br />
from all <strong>the</strong> E-516 driver sets<br />
(LabView TM ), COM server, DLL)<br />
and from <strong>the</strong> PZTControl user<br />
interface software. Selected<br />
and edited parameters may be<br />
saved for later use.<br />
6-59 6-59
<strong>PI</strong>line Linear Piezo Motors are based on a novel solid-state ultrasonic<br />
piezoceramic drive. They are lightweight, low-profile and<br />
provide a number of features and advantages not available with<br />
conventional magnetic motors, such as negligible EMI, ultra-fast<br />
response, auto-locking, backlash-free motion and excellent powerto-weight<br />
ratio.<br />
7-98<br />
Advantages of <strong>PI</strong>line Linear Piezo Motor Drives<br />
� Compact Size: The direct-drive principle allows <strong>the</strong> design of<br />
ultra-compact translation stages, with travel/ size ratios close to 1.<br />
The M-661.4P0, for example, provides 20 mm travel in a<br />
25 x25 x8 mm 3 package.<br />
� Low Inertia: High Acceleration, Speed and Resolution:<br />
<strong>PI</strong>line drives achieve Velocities to 800 mm/s and accelerations<br />
to 20 g. They are also very stiff, a prerequisite for<br />
<strong>the</strong>ir fast step-and-settle times—on <strong>the</strong> order<br />
of a few milliseconds—and provide resolution<br />
to 0.1 µm. The lack of a<br />
leadscrew means no lubricant<br />
flow and material relaxation to<br />
cause submicron creep. There is<br />
also no rotational inertia to limit<br />
acceleration and deceleration.<br />
� Excellent Power-to-Weight Ratio:<br />
<strong>PI</strong>line drives are optimized for high<br />
performance in a minimum package. No<br />
comparable drive can offer <strong>the</strong> same combination<br />
of acceleration, speed and precision.<br />
� Safe: <strong>PI</strong>line drives do not require limit switches. Even if<br />
driven into <strong>the</strong> hard stop, <strong>the</strong> motor and stage will not be damaged.<br />
The minimum inertia of <strong>the</strong> moving platform toge<strong>the</strong>r<br />
with <strong>the</strong> “slip clutch” effect of <strong>the</strong> friction drive, give excellent<br />
protection against damage.<br />
<strong>PI</strong> linear ultrasonic drives consist of a piezoelectric oscillator made<br />
from a rectangular piezoelectric plate upon which are mounted<br />
one, two or more frictional elements. Due to electrical excitation<br />
of <strong>the</strong> actuator, each friction tip installed on it moves along an<br />
elliptical trajectory, transmitting pushing forces to a friction bar on<br />
<strong>the</strong> moving portion of <strong>the</strong> translation stage. The pushing force<br />
exerted by <strong>the</strong> actuator comes basically from <strong>the</strong> energy of <strong>the</strong><br />
longitudinal wave, i.e. in <strong>the</strong> actuator shown, <strong>the</strong> longitudinal<br />
wave is <strong>the</strong> pushing wave. The transversal oscillation energy in <strong>the</strong><br />
actuator is used basically for switching <strong>the</strong> longitudinal motion at<br />
regular intervals by pressing <strong>the</strong> frictional elements against <strong>the</strong><br />
frictional trunk. The transversal oscillation force regulates <strong>the</strong><br />
maximal available frictional force between friction tip or tips and <strong>the</strong><br />
frictional trunk on <strong>the</strong> moved element, i.e. <strong>the</strong> transversal oscillation<br />
has an engage/disengage function.<br />
Precision fixtures and devices are much safer than with leadscrew-driven<br />
stages. <strong>PI</strong>line drives are also “finger-safe”:<br />
Despite <strong>the</strong> high speeds and accelerations, <strong>the</strong>re is no risk of<br />
pinching or worse. This means users do not need interlocks,<br />
light curtains or o<strong>the</strong>r measures to keep <strong>the</strong>m safe.<br />
� AutoLock Feature: <strong>PI</strong>line drives create a braking force when<br />
not energized without causing <strong>the</strong> position shift common with<br />
conventional mechanical brakes. O<strong>the</strong>r benefits of <strong>the</strong><br />
AutoLock feature are <strong>the</strong> elimination of servo di<strong>the</strong>r and steadystate<br />
heat dissipation.<br />
� Vacuum Compatible: <strong>PI</strong>line drives are 100% ceramic and can<br />
be used in a vaccum without performance loss.<br />
� Negligible EMI: <strong>PI</strong>line drives do not create magnetic<br />
fields nor are <strong>the</strong>y influenced by <strong>the</strong>m, a decisive<br />
advantage in many applications.<br />
� Custom Solutions / Flexibility for OEMs:<br />
<strong>PI</strong>line drives are available in open-loop and<br />
closed-loop trans-lation stages and as OEM<br />
components. <strong>PI</strong> develops and manufactures<br />
all piezo ceramic components inhouse.<br />
This gives us <strong>the</strong> flexibility to provide<br />
custom motors (size, force, environmental<br />
conditions) for OEM and research applications.<br />
� Quality, Lifetime, Experience: Based on<br />
<strong>PI</strong>’s 30+ years of experience with piezo<br />
nanopositioning technology, <strong>PI</strong>line drives<br />
offer exceptional precision and reliability<br />
with an MTBF of > 20,000 hours. Components<br />
such as gears, shafts and moving<br />
cables that are prone to failure in conventional motion systems, are<br />
simply not part on <strong>the</strong> Piline design.<br />
P-661 OEM drive with<br />
electronics and differentfriction<br />
bars (compact<br />
disc for size comparison).<br />
Ultrasonic Piezo Drives—How do <strong>the</strong>y work?<br />
7-1 to 7-96 see <strong>the</strong><br />
hardbound <strong>PI</strong> catalog<br />
http://www.pi.ws<br />
info@pi.ws<br />
Principle design<br />
of a <strong>PI</strong> piezo<br />
linear motor<br />
driven translation<br />
stage.
M-661<br />
M-662<br />
M-663<br />
<strong>PI</strong>line ultra-compact 20 mm-translation stages<br />
from left to right: M-663.4PM closed-loop,<br />
M-662.4P0 open-loop, XY mountable, M-661.4P0.<br />
Ordering<br />
Information<br />
M-663.4PM<br />
<strong>PI</strong>line Ultra-Compact Translation<br />
Stage, 20 mm, Piezo Linear Motor,<br />
Closed-Loop, 0.1 µm Linear Encoder,<br />
w/Driver & Power Supply<br />
M-663.4PR<br />
<strong>PI</strong>line Ultra-Compact Translation<br />
Stage, 20 mm, Piezo Linear Motor,<br />
Closed-Loop, 1.0 µm Linear Encoder,<br />
w/Driver & Power Supply<br />
M-661.4P0<br />
<strong>PI</strong>line Ultra-Compact Translation<br />
Stage, 20 mm, Piezo Linear Motor,<br />
Open-Loop, w/Driver & Power Supply<br />
M-662.4P0<br />
<strong>PI</strong>line Ultra-Compact Translation<br />
Stage, 20 mm, Piezo Linear Motor,<br />
Open-Loop, XY Mountable,<br />
w/Driver & Power Supply<br />
Custom Designs<br />
for Volume Buyers<br />
Application<br />
Examples<br />
� BioTechnology<br />
� Micromanipulation<br />
� Microscopy<br />
� Quallity control<br />
� Semiconductor test equipment<br />
� Metrology<br />
� Disk drive test assemblies<br />
� R&D<br />
� Photonics packaging<br />
<strong>PI</strong>line Miniature Translation Stages<br />
with Ultrasonic Piezo Linear Motors<br />
� Smallest Linear Motor-<br />
Driven Translation Stages<br />
on <strong>the</strong> Market<br />
� Velocity to 800 mm/s<br />
� Acceleration to 20 g<br />
� Resolution to 0.1 µm<br />
� Open-Loop and Closed-<br />
Loop Models<br />
� Direct-Motion Metrology<br />
Linear Encoders Available<br />
� 20 mm Travel<br />
� AutoLock Feature<br />
Eliminates Servo Di<strong>the</strong>r<br />
� XY Combinations<br />
Available<br />
� 20,000 h MTBF<br />
<strong>PI</strong>line – Ultimate motion<br />
in <strong>the</strong> smallest package<br />
Piline M-661, M-662 and<br />
M-663 are <strong>the</strong> smallest piezomotor-driven<br />
translation stages<br />
currently available on <strong>the</strong> market,<br />
combining <strong>the</strong> advantages<br />
of piezo-motor drives with<br />
<strong>PI</strong> precision micro mechanics.<br />
They are available in open-loop<br />
and closed-loop configuration<br />
featuring an integrated, noncontact<br />
linear encoder. Both<br />
versions are driven by a novel,<br />
ultra-small, high-speed ultrasonic<br />
piezo-motor drive, developed<br />
and manufactured by <strong>PI</strong><br />
and <strong>PI</strong> Ceramic. The ultrasonic<br />
piezo motor operating principle<br />
is based on <strong>the</strong> simultaneous<br />
longitudinal and transversal oscillation<br />
of a special piezoelectric<br />
ceramic plate, creating an el-<br />
liptical motion at <strong>the</strong> ceramic<br />
tip. Each cycle produces a<br />
minute step, as small as a few<br />
nanometers, allowing continuous<br />
smooth motion with virtually<br />
unlimited travel when installed<br />
in an appropriate-length<br />
translation (or rotation) stage.<br />
The lightweight, low-profile<br />
drive combines extremely high<br />
acceleration (up to 20 g) and<br />
velocity up to 800 mm/s with<br />
excellent position resolution<br />
and high holding forces. Since<br />
<strong>the</strong> ceramic tip of <strong>the</strong> motor is<br />
preloaded against <strong>the</strong> moving<br />
part of <strong>the</strong> stage, it creates a<br />
braking force while at rest. The<br />
benefits are <strong>the</strong> elimination of<br />
servo di<strong>the</strong>r and heat dissipation<br />
in steady-state mode<br />
(note that <strong>the</strong>re will not be a<br />
position shift in holding mode,<br />
as is common with mechanical<br />
motor brakes). There are no<br />
gears, leadscrews or o<strong>the</strong>r<br />
mechanical components to<br />
contribute play or backlash.<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
Closed-Loop Operation with<br />
Direct-Motion Metrology—M-663<br />
These translation stages are<br />
equipped with integrated highprecision<br />
optical linear encoders<br />
(direct motion metrology) for<br />
closed-loop operation with<br />
standard servo-motor controllers,<br />
such as <strong>the</strong> <strong>PI</strong> C-843 card,<br />
C-862 Mercury stand-alone<br />
unit, or o<strong>the</strong>r off-<strong>the</strong>-shelf DCmotor<br />
servo-controllers. Combining<br />
<strong>the</strong> advantages of both<br />
<strong>the</strong> linear drive and non-contact<br />
linear encoder, M-663.4PM<br />
and M-663.4PR stages provide<br />
high-speed and high-precision<br />
positioning at <strong>the</strong> same time.<br />
<strong>PI</strong>line M-663.4PM with<br />
0.1 µm Linear Encoder:<br />
Small, High-Resolution,<br />
Fast Step & Settle.<br />
The M-663.4PM is equipped<br />
with a 0.1 µm linear encoder.<br />
For optimum closed-loop performance,<br />
we recommend it<br />
be operated with a motion<br />
controller that allows setting of<br />
M-663.4PM driven with 1 µm steps. Piezo linear motors are auto locking. Once a<br />
stable position has been reached, <strong>the</strong>re is no servo di<strong>the</strong>r as is common with o<strong>the</strong>r<br />
linear motors.<br />
7-99
7-100<br />
M-663.4PM driven with 10 mm steps,<br />
commanded velocity 2 mm/s. Note <strong>the</strong><br />
excellent velocity constancy.<br />
<strong>the</strong> full range of parameters<br />
tailored to piezo motor operation,<br />
such as <strong>the</strong> <strong>PI</strong> C-843, <strong>the</strong><br />
GALIL DMC-1810, DMC-2020<br />
or <strong>the</strong> NI 7344*. With such a<br />
controller, <strong>the</strong> M-663.4PM<br />
achieves a repeatability of<br />
0.3 µm and step-and-settle<br />
times of less than 1 millisecond<br />
for 1 µm steps.<br />
<strong>PI</strong>line M-663.4PR with<br />
1 µm Linear Encoder:<br />
Small, Fast, Cost Effective<br />
The M-663.4PR comes with a<br />
1 µm resolution linear encoder<br />
and is ideally suited for operation<br />
with <strong>the</strong> compact, standalone<br />
C-862.00 Mercury controller<br />
(and o<strong>the</strong>r servo-controllers<br />
as well). It achieves<br />
closed-loop velocities of up to<br />
The typical settling time of an M-663.4PM is less than 10 ms.<br />
330 mm/s, an astonishing<br />
speed for such a small, closedloop<br />
translation stage.<br />
<strong>PI</strong>line M-661 and M-662<br />
Open-Loop Stages<br />
M-661.4P0 and M-662.4P0 are<br />
<strong>the</strong> open-loop models. They<br />
achieve velocities to 800 mm/s<br />
and, due to <strong>the</strong> lack of <strong>the</strong><br />
position encoder, are smaller<br />
than <strong>the</strong> closed-loop models.<br />
The M-662.4P0 has a square<br />
footprint and can be mounted<br />
in an XY configuration. The<br />
M-661.4P0 is intended for single-axis<br />
use only and is even<br />
smaller. Both stages are driven<br />
by a small external driver<br />
(included) that converts <strong>the</strong><br />
control into ultrasonic oscillations<br />
for <strong>the</strong> piezo motor.<br />
XY combination of two M-662.4P0, open-loop piezo motor translation stages.<br />
Dip switch for size comparison.<br />
M-661.4P0, open-loop translation stage, shown with OEM driver board. This is <strong>the</strong><br />
smallest linear-motor-driven stage <strong>PI</strong> currently offers. Dip switch for size comparison.<br />
http://www.pi.ws<br />
info@pi.ws<br />
Control is ei<strong>the</strong>r external or<br />
through a manual pad (included)<br />
providing two operating<br />
modes: stepping mode and<br />
continuous motion.<br />
External control is achieved<br />
through a PWM drive signal of<br />
12 V. The distance traveled by<br />
<strong>the</strong> stage corresponds to <strong>the</strong><br />
width of <strong>the</strong> pulse. The smallest<br />
step is on <strong>the</strong> order of<br />
0.1 µm and corresponds to a<br />
10 µs input pulse (shorter<br />
pulses are not recognized). By<br />
varying <strong>the</strong> length of <strong>the</strong> inputactive<br />
period, <strong>the</strong> step length<br />
and thus <strong>the</strong> velocity can be<br />
controlled.<br />
Complete Package with<br />
Driver, Power Supply<br />
and Cables<br />
All M-661, M-662 and M-663<br />
<strong>PI</strong>line translation stages<br />
come complete with driver,<br />
power supply and cables, facilitating<br />
setup and operation.<br />
OEM drivers and motors are<br />
available as well.<br />
<strong>PI</strong>line M-665.2PM Closed-<br />
Loop 50 mm Stage<br />
A larger footprint (114x114 mm)<br />
closed-loop translation stage<br />
with 50 mm travel is also available.<br />
Request our separate<br />
datasheet.<br />
* For using NI controllers, please request<br />
fur<strong>the</strong>r info on <strong>the</strong> C-809 motion<br />
interfaces (see p. 9-28). For using GALIL<br />
cotrollers, <strong>the</strong> M-663K005 option<br />
is required.<br />
The linear stage M-661.4P0 (right side in <strong>the</strong> front) uses <strong>the</strong> ultra-compact piezo<br />
motor P-661.4P0, which is available as an separate OEM product. The standard driver<br />
electronics C-862.PMD (right side in <strong>the</strong> back) can also be used with <strong>the</strong>se OEM P-661<br />
instead of <strong>the</strong> OEM electronics (left side in <strong>the</strong> back).
Technical Data<br />
Did you know that <strong>PI</strong> also<br />
makes <strong>the</strong> world’s smallest<br />
rotary piezo motors?<br />
C-171 rotary piezo motor, match for size<br />
comparison. The C-171 is currently <strong>the</strong> world’s<br />
smallest commercially available rotary piezo<br />
motor. It measures only 3 mm in diameter and<br />
provides velocity to 1000 rev/min and torque<br />
of 0.4 mNm. Request our datasheet!<br />
M-662.4P0 dimensions (in mm).<br />
Models M-663.4PM M-663.4PR M-661.4P0 M-662.4P0 Units Notes<br />
Travel range 20 20 20 20 mm<br />
Design resolution 0.1 1.0 — — µm A3<br />
Min. incremental motion 0.2 2.0 0.1)* 0.1)* µm A4<br />
Bidirectional repeatability ± 0.3 ± 3.0 — — µm<br />
Max. velocity 400)** 330 800 800 mm/sec<br />
Max. normal load capacity 0.5 0.5 0.5 0.5 kg B1<br />
Max. push/pull force 3 3 3 3 N B2<br />
Max. holding force 5 5 5 5 N<br />
Operating voltage (driver) 12 12 12 12 V<br />
Operating voltage (piezo) 60 60 60 60 V<br />
Operating current 20,000 L<br />
Recommended controller C-843<br />
GALIL, NI***<br />
C-843 — —<br />
* Open-loop system<br />
** 130 mm/s with C-843 controller. 400 mm/s with GALIL controllers, M-663K005 option required!<br />
***For using NI controllers, please request fur<strong>the</strong>r info on <strong>the</strong> C-809 motion interfaces<br />
(see p. 9-28). For using GALIL controllers, <strong>the</strong> M-663K005 option is required.<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
M-663.4PM, M-663.4PR dimensions (in mm).<br />
http://www.pi.ws<br />
info@pi.ws<br />
M-661.4P0 dimensions (in mm),<br />
decimal places separated by<br />
commas in drawing.<br />
7-101
7-102<br />
M-665.2PM<br />
M-665.2PM piezo linear motor stage with integrated linear encoder (direct motion<br />
metrology) and ActivePiezoDrive.<br />
Application<br />
Examples<br />
� Bio Technology<br />
� Micromanipulation<br />
� Microscopy<br />
� Quallity control<br />
� Semiconductor test equipment<br />
� Metrology<br />
� Disk drive test assemblies<br />
� R&D<br />
� Photonics Packaging<br />
Ordering<br />
Information<br />
M-665.2PM<br />
<strong>PI</strong>line Low-Profile Translation Stage,<br />
50 mm, Piezo Linear Motor,<br />
Closed-Loop, 0.1 µm Linear Encoder,<br />
ActivePiezoDrive Integrated Driver,<br />
Power Supply<br />
<strong>PI</strong>line Low-Profile Translation<br />
Stages with Piezo Linear Motor<br />
� Piezo-Motor-Driven<br />
Translation Stage<br />
� Low-Profile, only 26.5 mm<br />
� Velocity to 130 mm/s<br />
� Integrated ActivePiezo-<br />
Drive Piezo Power<br />
Amplifier<br />
� Acceleration to 10 g<br />
� 0.1 µm Linear Encoder<br />
(Direct-Motion Metrology)<br />
� 50 mm Travel<br />
� AutoLock Feature<br />
Eliminates Servo Di<strong>the</strong>r<br />
� XY Combinations<br />
Available<br />
� 20,000 h MTBF<br />
� Vacuum Versions to<br />
10 -8 hPa Available<br />
<strong>PI</strong>line—Ultimate motion<br />
in <strong>the</strong> smallest package<br />
The <strong>PI</strong>line M-665.2PM is a<br />
low profile, closed-loop translation<br />
stage combining <strong>the</strong> advantages<br />
of linear piezo-motor<br />
drives with <strong>PI</strong> precision micro<br />
mechanics.<br />
Its novel linear motor is based<br />
on a ultra-small, high-speed<br />
ultra-sonic piezo-drive, developed<br />
and manufactured by <strong>PI</strong><br />
and <strong>PI</strong> Ceramic. The ultrasonic<br />
http://www.pi.ws<br />
info@pi.ws<br />
piezo motor operating principle<br />
is based on <strong>the</strong> simultaneous<br />
longitudinal and bending oscillation<br />
of a special piezoelectric<br />
ceramic plate, creating an elliptical<br />
motion at <strong>the</strong> ceramic tip.<br />
Each cycle produces a tiny<br />
step, as small as a few nanometers,<br />
allowing continuous<br />
smooth motion with virtually<br />
unlimited travel when installed<br />
in an appropriate-length translation<br />
(or rotation) stage.<br />
The lightweight, low-profile<br />
drive combines extremely high<br />
acceleration (up to 20 g) and<br />
velocity up to 130 mm/s with<br />
excellent position resolution<br />
and high holding forces. Since<br />
<strong>the</strong> ceramic tip of <strong>the</strong> motor is<br />
preloaded against <strong>the</strong> moving<br />
part of <strong>the</strong> stage, it creates a<br />
braking force while at rest. The<br />
benefits are <strong>the</strong> elimination of<br />
heat dissipation and servo<br />
di<strong>the</strong>r (if used with a closedloop<br />
system) in steady-state<br />
mode. Note that <strong>the</strong>re will not<br />
be a position shift in holding<br />
mode, as is common with<br />
mechanical motor brakes!<br />
There are no gears, leadscrews<br />
or o<strong>the</strong>r mechanical<br />
components to contribute play<br />
or backlash.<br />
High-Speed Closed-Loop<br />
Operation with Direct-<br />
Motion Metrology<br />
M-665 translation stages are<br />
equipped with integrated highprecision<br />
optical linear encoders<br />
(non-contact, direct motion<br />
metrology) for closed-loop<br />
operation with standard DC<br />
servo-motor controllers, such<br />
as <strong>the</strong> <strong>PI</strong> C-843 card. Special<br />
controllers such as <strong>the</strong> NI<br />
7344, <strong>the</strong> GALIL DMC-1810 or<br />
DMC-2020* allow <strong>the</strong> setting<br />
of additional piezo motor relevant<br />
parameters and provide<br />
even higher performance.<br />
Complete Package<br />
with Driver, Power Supply<br />
and Cables<br />
Unlike conventional piezo<br />
motor stages, <strong>the</strong> M-665<br />
comes as a complete package,<br />
ready for operation. M-665<br />
stages are equipped with <strong>the</strong><br />
ActivePiezoDrive, a special<br />
piezo amplifier circuit integrated<br />
into <strong>the</strong> stage, fur<strong>the</strong>r<br />
facilitating setup and operation.<br />
A power supply for <strong>the</strong><br />
integrated driver and a motor<br />
cable are also included.<br />
Lifetime<br />
<strong>PI</strong>line drives are based on<br />
<strong>PI</strong>’s 30+ years of experience<br />
with piezo nanopositioning technology<br />
and offer exceptional<br />
precision and reliability with an<br />
MTBF of > 20,000 hours. Components<br />
such as gears, shafts<br />
and moving cables that are<br />
prone to failure in conventional<br />
motion systems, are simply<br />
not part on <strong>the</strong> <strong>PI</strong>line design.<br />
* For using NI controllers please request<br />
fur<strong>the</strong>r info on <strong>the</strong> C-809 motion<br />
interfaces (see p. 9-28). For GALIL<br />
controllers, a special option is required.<br />
Custom long travel XY microscopy<br />
stage (<strong>PI</strong>line piezo motor driven)<br />
with P-527 sub-nanometer resolution<br />
XYZ Piezo NanoScanning stage<br />
mounted on top. CD for size<br />
comparison.
Dimensions of <strong>the</strong> M-665.2PM in mm.<br />
M-665 for vacuum applications to 10 -8 hPa<br />
Technical Data<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
Models M-665.2PM Units Notes<br />
Travel range 50 mm<br />
Design resolution 0.1 µm A3<br />
Min. incremental motion 0.5 µm A4<br />
Unidirectional repeatability ± 0.3 µm<br />
Pitch (� Y ) 70 µrad<br />
Yaw (� Z ) 70 µrad<br />
Max. velocity 130 mm/sec<br />
Max. normal load capacity 10 kg B1<br />
Max. push/pull force 3 N B2<br />
Max. holding force 5 N<br />
Operating voltage 12 V<br />
Operating current < 200 mA<br />
Weight 0.8 kg<br />
Body material Al L<br />
Recommended controller C-843<br />
info@pi.ws<br />
<strong>PI</strong>line Stage driven with 1 µm steps. Piezo linear motors are auto locking.<br />
Once a stable position has been reached, <strong>the</strong>re is no servo di<strong>the</strong>r as is common<br />
with o<strong>the</strong>r linear motors (measurement taken with GALIL controller).<br />
7-103
Ordering<br />
Information<br />
P-661.2P0<br />
<strong>PI</strong>line ultra-compact OEM Piezo<br />
Linear Motor, OEM Driver, 10 mm<br />
Travel Friction Bar<br />
P-661.4P0<br />
<strong>PI</strong>line ultra-compact OEM Piezo<br />
Linear Motor, OEM Driver, 20 mm<br />
Travel Friction Bar<br />
P-661.6P0<br />
<strong>PI</strong>line ultra-compact OEM Piezo<br />
Linear Motor, OEM Driver, 50 mm<br />
Travel Friction Bar<br />
P-665.2PM<br />
<strong>PI</strong>line ultra-compact OEM Piezo<br />
Linear Motor, OEM Driver, 10 mm<br />
Travel Friction Bar<br />
P-665.4PM<br />
<strong>PI</strong>line ultra-compact OEM Piezo<br />
Linear Motor, OEM Driver, 20 mm<br />
Travel Friction Bar<br />
P-665.6PM<br />
<strong>PI</strong>line ultra-compact OEM Piezo<br />
Linear Motor, OEM Driver, 50 mm<br />
Travel Friction Bar<br />
Optional:<br />
C-182.P0<br />
Bench-top Driver, Power Supply<br />
and Motor Cable<br />
7-104<br />
P-661<br />
P-665<br />
P-661 and P-665 piezo linear motor drives with P-661 OEM driver board and 30 mm<br />
friction bar presented on a credit card for size comparison.<br />
<strong>PI</strong>line OEM Ultrasonic<br />
Piezo Linear Motors<br />
� Smallest Linear Piezo<br />
Motors on <strong>the</strong> Market<br />
� New Design boasts<br />
Significantly Higher<br />
Forces<br />
� Velocity to 800 mm/s<br />
� Acceleration to 20 g<br />
� Resolution to 0.1 µm<br />
� AutoLock Feature<br />
� 20,000 h MTBF<br />
<strong>PI</strong>line—OEM Business in<br />
Motion<br />
<strong>PI</strong>line P-661 and P-665 are<br />
<strong>the</strong> smallest piezo linear motor<br />
drives currently available on<br />
<strong>the</strong> market. In addition to<br />
being ultra-compact <strong>the</strong>y also<br />
boast significantly higher drive<br />
and holding forces than conventional<br />
piezo motors.<br />
Both versions incorporate a<br />
novel, ultra-small, high-speed<br />
ultra-sonic piezo-drive, developed<br />
and manufactured by <strong>PI</strong><br />
and <strong>PI</strong> Ceramic. The ultrasonic<br />
piezo motor operating principle<br />
is based on <strong>the</strong> simultaneous<br />
longitudinal and transversal oscillation<br />
of a special piezoelectric<br />
ceramic plate, creating an elliptical<br />
motion at <strong>the</strong> ceramic tip.<br />
http://www.pi.ws<br />
info@pi.ws<br />
Each cycle produces a tiny<br />
step, as small as a few nanometers,<br />
allowing continuous<br />
smooth motion with virtually<br />
unlimited travel when installed<br />
in an appropriate-length translation<br />
(or rotation) stage.<br />
High Speed & Acceleration,<br />
Self-Locking<br />
<strong>PI</strong>line piezo linear motors<br />
can be operated in any orientation.<br />
The lightweight, low-profile<br />
drive combines extremely<br />
high acceleration (up to 20 g)<br />
and velocity up to 800 mm/s<br />
with excellent position resolution<br />
and high holding forces.<br />
Since <strong>the</strong> ceramic tip of <strong>the</strong><br />
motor is preloaded against <strong>the</strong><br />
moving part of <strong>the</strong> stage, it<br />
creates a braking force while<br />
Custom high-force, low-profile pusher with<br />
<strong>PI</strong>line TM piezo motor drives for automation purposes.<br />
Application<br />
Examples<br />
� Bio Technology<br />
� Micromanipulation<br />
� Microscopy<br />
� Quallity control<br />
� Semiconductor test equipment<br />
� Metrology<br />
� Disk drive test assemblies<br />
� R&D<br />
� Photonics Packaging<br />
at rest. The benefits are <strong>the</strong><br />
elimination of heat dissipation<br />
and servo di<strong>the</strong>r (if used with a<br />
closed-loop system) in steadystate<br />
mode. Note that <strong>the</strong>re<br />
will not be a position shift in<br />
holding mode, as is common<br />
with mechanical motor brakes!<br />
There are no gears, leadscrews<br />
or o<strong>the</strong>r mechanical<br />
components to contribute play<br />
or backlash.<br />
Integration<br />
P-661 and P-665 series piezo<br />
motors can be mounted in any<br />
orientation, horizontally or vertically.<br />
To achieve <strong>the</strong> best performance,<br />
<strong>the</strong> motor and friction<br />
bar have to be mounted<br />
on even surfaces to avoid torsion<br />
of <strong>the</strong> basic profiles. The<br />
0.3 µm steps performed in open-loop with a P-661.4P0 built into a M-662.4P0 translation<br />
stage.
P-661 and P-665 series motors<br />
and associated electronics<br />
should be operated in clean<br />
environments, protected from<br />
metal dust and liquid spray.<br />
Driver Included<br />
<strong>PI</strong>line piezo linear motors are<br />
powered by a small external<br />
driver board (included) that<br />
converts PWM input signals<br />
into ultrasonic oscillations for<br />
<strong>the</strong> piezo motor. An optional<br />
bench-top driver, motor cable<br />
and power supply “starter<br />
package” is also available.<br />
The drivers are controlled<br />
through a 12 V PWM (Pulse<br />
Width Modulation) signal. The<br />
distance moved by <strong>the</strong> motor<br />
corresponds to <strong>the</strong> width of<br />
<strong>the</strong> pulse. The smallest achievable<br />
step is on <strong>the</strong> order of<br />
0.1 µm and corresponds to a<br />
10 µs input pulse (shorter<br />
pulses are not recognized). By<br />
varying <strong>the</strong> length of <strong>the</strong> inputactive<br />
period, <strong>the</strong> step length<br />
and thus <strong>the</strong> velocity can be<br />
controlled.<br />
Technical Data<br />
Lifetime<br />
<strong>PI</strong>line drives are based on<br />
<strong>PI</strong>’s 30+ years of experience<br />
with piezo nanopositioning<br />
technology and offer exceptional<br />
precision and reliability<br />
with an MTBF of > 20,000<br />
hours. Components such as<br />
gears, shafts and moving cables<br />
that are prone to failure in<br />
conventional motion systems,<br />
are simply not part on <strong>the</strong><br />
<strong>PI</strong>line design.<br />
P-665.xPM dimensions (in mm)<br />
Models P-661.xP0 P-665.xPM Units Notes<br />
Travel range)* unlimited unlimited mm<br />
Min. incremental motion)** 0.1 0.1 µm<br />
Max. velocity 800 300 mm/sec<br />
Max. push/pull force 3 5 N B2<br />
Max. holding force 5 8 N<br />
Weight 10 20 g<br />
Operating Voltage 12 12 V<br />
Operating Current 200 200 mA<br />
* The travel range of piezo linear motors is virtually unlimited and depends on <strong>the</strong><br />
length of <strong>the</strong> friction bar. <strong>PI</strong> currently offers <strong>the</strong> following standard packages:<br />
P-661.2P0: 10 mm; P-661.4P0: 20 mm; P-661.6P0: 50 mm. The same ranges are<br />
offered for <strong>the</strong> P-665.<br />
** The minimum incremental motion is a typical value that can achieved in <strong>the</strong> openloop<br />
mode of a piezomotor stage. To reach <strong>the</strong> specs it is important to follow <strong>the</strong><br />
mounting guidelines of <strong>the</strong> OEM-motors.<br />
Translation Stages?<br />
Should you be interested in a<br />
complete translation stage,<br />
talk to our engineers! We offer<br />
a line of standard open and<br />
closed loop piezo motor driven<br />
translation stages and actuators<br />
and also provide custom<br />
solutions tailored to our customer’s<br />
requirements.<br />
Piezo driver block diagram<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
P-661.xP0 dimensions (in mm)<br />
http://www.pi.ws<br />
info@pi.ws<br />
7-105
Application<br />
Examples<br />
� Micromachining<br />
� Micromanipulation<br />
� Life Sciences<br />
� X-ray Diffraction Measurements<br />
� Semiconductor Handling Systems<br />
� Tool Control for<br />
Precision Machining &<br />
Manufacturing<br />
Ordering<br />
Information<br />
M-840.5PD<br />
Hexapod 6-Axis MicroMotion Robot<br />
with Motion Controller, Direct Drive<br />
M-840.5DG<br />
Hexapod 6-Axis MicroMotion Robot<br />
with Motion Controller,<br />
Gearhead Version<br />
Optional Optical Power Meters<br />
F-206.00U<br />
Optical Board (vis. range)<br />
F-206.iRU<br />
Optical Board (IR range)<br />
F-361.10<br />
Optical Power Meter, NIST Traceable,<br />
1000 to 1600 nm Wavelength<br />
Custom Designs<br />
for Volume Buyers<br />
Optical device scan with M-840.5PD and<br />
F-206.IRU optical power meter.<br />
7-106<br />
M-840<br />
HEXALIGHT Fast Six-Axis<br />
Parallel Kinematics Robot (Hexapod)<br />
M-840 HEXALIGHT 6D micropositioner<br />
� Six Degrees of Freedom<br />
� Fast Step-and-Settle<br />
� No Moving Cables for<br />
Improved Reliability,<br />
Ease of Setup and<br />
Reduced Friction<br />
� Load Capacity 10 kg<br />
� Repeatability to 2 µm<br />
(Six-Axis Moves)<br />
� Significantly Smaller and<br />
Stiffer Package than<br />
Conventional Multi-Axis<br />
Positioners<br />
� Better Dynamics &<br />
Throughput<br />
� True Path Control<br />
� PivotAnywhere<br />
Virtualized Center of<br />
Rotation Set by Software<br />
� User-Friendly Software<br />
and Control Electronics<br />
The M-840 HEXALIGHT robot<br />
is based on <strong>PI</strong>’s experience in<br />
high-resolution parallel kinematic<br />
machines (PKM) over<br />
more than a decade. <strong>PI</strong> Hexapods<br />
were originally used in<br />
astronomical telescopes for<br />
mirror and antenna adjustments<br />
over wide ranges in<br />
http://www.pi.ws<br />
info@pi.ws<br />
small step sizes. The M-840<br />
provides six degrees of freedom<br />
with 3 µm minimum incremental<br />
motion (combined<br />
6-axis move, design-resolution<br />
of individual struts is 0.016 µm<br />
for <strong>the</strong> M-850.5DG) and allows<br />
<strong>the</strong> user to define <strong>the</strong> center of<br />
rotation (pivot point) anywhere<br />
inside or outside <strong>the</strong> system.<br />
The M-840 Hexapod is of great<br />
value for any complex, highaccuracy<br />
positioning and alignment<br />
task where independent<br />
motion in six degrees of freedom<br />
is required.<br />
Fast Positioning in Space<br />
Compared to <strong>the</strong> M-850 Hexapods<br />
(see page 7-108) <strong>the</strong><br />
M-840 is built for higher speeds<br />
with lower loads. Up to 10 kg in<br />
any orientation can be moved<br />
at with up to 50 mm/sec<br />
(600 mrad/sec) true path control.<br />
The control system automatically<br />
manages its path planning<br />
and <strong>the</strong> coordination of <strong>the</strong><br />
six motors and minimizes runout<br />
and unwanted motion.<br />
6-DOF Parallel Machines<br />
The M-840 Hexapod consists<br />
of six struts which expand and<br />
contract between a bottom<br />
and a top platform. All motion<br />
in space of <strong>the</strong> top platform is<br />
achieved by changing <strong>the</strong><br />
length of <strong>the</strong> individual struts<br />
with sub-micron resolution.<br />
In contrast to conventional<br />
multi-axis positioning systems,<br />
where single-axis positioners<br />
are stacked upon each o<strong>the</strong>r,<br />
parallel kinematics systems<br />
such as <strong>the</strong> Hexapod do not<br />
exhibit error-summation. Single<br />
stage inaccuracies, moving<br />
cables of <strong>the</strong> upper stages,<br />
cosine errors due to stack<br />
height of <strong>the</strong> single positioners<br />
are all eliminated, and a repeatability<br />
in space of a few microns<br />
can be achieved. Ano<strong>the</strong>r big<br />
advantage is that with <strong>PI</strong> Hexapods<br />
<strong>the</strong> center of rotation<br />
(pivot point) stays where programmed<br />
during all motion.<br />
PivotAnywhere<br />
Virtualized Rotation<br />
Capability<br />
Hexapod motion is not determined<br />
by fixed bearings, but<br />
ra<strong>the</strong>r by sophisticated realtime<br />
6-space control algorithms.<br />
For positioning tasks<br />
such as alignments, it is important<br />
to define a certain point in<br />
space as <strong>the</strong> center of rotation.<br />
This point can be chosen freely<br />
with a single software command.<br />
Easy Programming Logical<br />
Axes and Open Interface<br />
Control of <strong>the</strong> M-840 is facilitated<br />
by <strong>the</strong> controller’s open<br />
interface architecture which<br />
provides a variety of high-level<br />
commands for minimized
Hexapod digital motion controller. Display and keyboard are optional.<br />
F-361 high-speed optical power meter<br />
The travel ranges of <strong>the</strong> individual coordinates<br />
(X, Y, Z, � X , � Y , � Z ) are interdependent.<br />
Resulting working space of <strong>the</strong><br />
M-840 in X, Y, Z for � X = � Y = � Z = 5°.<br />
communication. The userfriendly<br />
software and command<br />
structure allows direct<br />
six-axis positioning by entering<br />
Cartesian coordinates X, Y,<br />
Z and � X , � Y , � Z .<br />
Automated Optical<br />
Alignment<br />
The M-840 can be upgraded<br />
with an integrated photometer<br />
card (infrared or visible light)<br />
for optical alignment and builtin<br />
automatic alignment procedures,<br />
similar to <strong>the</strong> compact<br />
F-206 HexAlign photonics<br />
alignment robot (option<br />
F-206.IRU or F-206.00U, see<br />
p. 8-13). The F-361 highspeed,<br />
absolute measuring<br />
photometer (see p. 8-32) can<br />
also be used with <strong>the</strong> M-840.<br />
M-840<br />
dimensions<br />
in mm.<br />
Technical Data<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
Models M-840.5PD M-840.5DG Units<br />
Travel X,Y** ±50 ±50 mm<br />
Travel Z** ±25 ±25 mm<br />
Travel � X , � Y ** ±15 ±15 deg<br />
Travel � Z ** ±30 ±30 deg<br />
Actuator stroke ±25 ±25 mm<br />
Actuator design resolution 0.5 0.016 µm<br />
Min. incremental motion X, Y 3 1 µm*<br />
Min. incremental motion Z 1 0.5 µm*<br />
info@pi.ws<br />
Min. incremental motion � X , � Y , � Z 5 5 µrad*<br />
Repeatability X, Y ±2 ±2 µm<br />
Repeatability Z ±1 ±1 µm<br />
Repeatability � X , � Y , � Z ±20 ±20 µrad<br />
Typ. velocity X, Y, Z 30 2 mm/sec<br />
Max. velocity X, Y, Z 50 2.5 mm/sec<br />
Typ. velocity � X , � Y , � Z 300 20 mrad/s<br />
Max. velocity � X , � Y , � Z 600 30 mrad/s<br />
Load capacity 10 10 kg<br />
Weight 12 12 kg<br />
* simultaneaous motion of all 6 actuators. No moving cables. No friction, bending or<br />
twisting forces induced by moving cables as with stacked units.<br />
** The travel ranges of <strong>the</strong> individual cordinates (X, Y, Z, � X , � Y , � Z ) are interdependent.<br />
The data in this table show maximum travel (where at least one actuator is totally<br />
extended). If motion from a particular point or in more than one axis is desired, <strong>the</strong><br />
available travel may be less.<br />
7-107
M-850 Hexapod 6D MicroMotion Robot<br />
Application<br />
Examples<br />
� Alignment of Optics, Electron Guns,<br />
Lasers, or O<strong>the</strong>r Directed-Energy<br />
Sources<br />
� Microwave Antenna Test Beds<br />
� Surgical Robots<br />
� Micromachining<br />
� Micromanipulation (Life Sciences)<br />
� X-ray Diffraction Measurements<br />
� Semiconductor Handling Systems<br />
� Tool Control for Precision<br />
Machining & Manufacturing<br />
� Fine Positioning of Active<br />
Secondary Mirror Platforms in<br />
High-Resolution Telescopes<br />
Ordering<br />
Information<br />
M-850.11<br />
Hexapod 6-Axis MicroMotion Robot<br />
with Motion Controller, 0.5 mm/sec<br />
M-850.50<br />
Hexapod 6-Axis MicroMotion Robot<br />
with Motion Controller, 8 mm/sec<br />
Optional Optical Power Meters<br />
F-206.00U<br />
Optical Board (vis. range)<br />
F-206.iRU<br />
Optical Board (IR range)<br />
F-361.10<br />
Optical Power Meter, NIST Traceable,<br />
1000 to 1600 nm wavelength<br />
Custom Designs for Volume<br />
Buyers<br />
7-108<br />
M-850<br />
HEXAPOD Six-Axis<br />
Parallel-Kinematics MicroMotion Robot<br />
� Six Degrees of Freedom<br />
� Works in any Orientation<br />
� No Moving Cables, for<br />
Improved Reliability,<br />
Ease of Setup and<br />
Reduced Friction<br />
� Load Capacity 200 kg<br />
Vertically, 50 kg Random<br />
Orientation<br />
� Heavy-Duty, Ultra-High-<br />
Resolution Bearings for<br />
24/7 Applications<br />
� Repeatability ±1 µm (Z)<br />
±2 µm (Six-Axis Moves)<br />
� To 0.005 µm<br />
Design Resolution<br />
� Significantly Smaller and<br />
Stiffer Package than<br />
Conventional Multi-Axis<br />
Positioners Provides<br />
Better Dynamics &<br />
Throughput<br />
� True Path Control<br />
� Linear and Rotary<br />
Multi-Axis Scans<br />
� PivotAnywhere<br />
Virtualized Center of<br />
Rotation (Pivot Point)<br />
Set by Software<br />
� Sophisticated, User-<br />
Friendly Software and<br />
Control Electronics<br />
The M-850 MicroMotion robot<br />
is based on <strong>PI</strong>’s ultra-high-resolution<br />
hexapod technology<br />
developed for aligning optics in<br />
astronomical telescopes a<br />
decade ago. It provides six<br />
degrees of freedom with 1 µm<br />
minimum incremental motion<br />
(design resolution of individual<br />
struts is 0.005 µm for <strong>the</strong><br />
M-850.11) and allows <strong>the</strong> user<br />
to define <strong>the</strong> center of rotation<br />
(pivot point) anywhere inside<br />
or outside <strong>the</strong> system envelope<br />
by one simple software<br />
command. Rotation about that<br />
pivot point can be specified<br />
http://www.pi.ws<br />
info@pi.ws<br />
(with microradian resolution)<br />
for any axis of rotation.<br />
The M-850 Hexapod is of great<br />
value for any complex, highaccuracy<br />
positioning and alignment<br />
task where independent<br />
motion in six degrees of freedom<br />
is required.<br />
Working Principle<br />
The M-850 Hexapod consists<br />
of six struts which expand and<br />
contract between a bottom<br />
and a top platform. Similar in<br />
geometry to positioning systems<br />
used in flight simulators,<br />
it is <strong>the</strong> first commercially available<br />
system to introduce this<br />
design to sub-micron-resolution<br />
positioning.<br />
The use of extremely stiff and<br />
accurate components for all<br />
moving parts, such as joints,<br />
bearings and drive screws,<br />
results in an unusually high natural<br />
frequency (500 Hz @ 10 kg<br />
load). Because <strong>the</strong> six<br />
Hexapod struts and <strong>the</strong> six<br />
orthogonal coordinates (X, Y, Z,<br />
� ,� ,� ) are all interrelated, <strong>the</strong><br />
X Y Z<br />
twelve strut-end universal<br />
joints must guarantee zero<br />
backlash and zero runout. To<br />
meet this challenge in Hexapod<br />
construction, CAD, FEA (finite<br />
element analysis) and laser<br />
vibrometry were employed for<br />
system optimization.<br />
Optical device scan with M-850.50 and<br />
F-206.IRU optical power meter<br />
In contrast to conventional<br />
multi-axis positioning systems,<br />
where a change in one coordinate<br />
also affects <strong>the</strong> pivot<br />
point and <strong>the</strong> o<strong>the</strong>r coordinates,<br />
<strong>the</strong> M-850 system<br />
automatically manages its<br />
path planning and <strong>the</strong> coordination<br />
of its six motors and<br />
minimizes runout and unwanted<br />
motion.<br />
PivotAnywhere<br />
Virtualized Rotation Capability<br />
A highly useful feature is <strong>the</strong><br />
M-850’s PivotAnywhere fully<br />
virtualized rotation capability.<br />
Hexapod motion is not defined<br />
by fixed bearings, but ra<strong>the</strong>r by<br />
sophisticated real-time 6-space<br />
control algorithms. You can<br />
define any point in space to be<br />
<strong>the</strong> center of rotation with a<br />
single software command.<br />
This is ideal for any kind of for<br />
angular alignment. All commands<br />
and operations are<br />
high-level, using human-readable<br />
units (mm, degrees) and<br />
coordinates (X, Y Z, � X , � Y , � Z ).<br />
Open Interface<br />
Control of <strong>the</strong> M-850 is facilitated<br />
by <strong>the</strong> controller’s open<br />
interface architecture which<br />
provides a variety of high-level<br />
commands for minimized com-<br />
Custom Hexapod for brain surgery.<br />
Photo courtesy of IPA
M-850<br />
Hexapod,<br />
dimensions<br />
(in mm)<br />
Custom “6+3” Hexapod with additional<br />
struts providing independant<br />
position feedback and M-531 translation<br />
stage for extended Z-travel.<br />
Custom water-resistant Hexapod<br />
munication overhead & bandwidth.<br />
The user-friendly software<br />
allows direct six-axis<br />
positioning by entering <strong>the</strong><br />
X,Y,Z and � X ,� Y ,� Z coordinates<br />
and <strong>the</strong> position of <strong>the</strong> pivotpoint<br />
using human-readable<br />
units (mm, degrees). The software<br />
also allows easy programming<br />
of motion sequences.<br />
A smaller Hexapod with<br />
higher resolution is available<br />
as product number F-206<br />
(see p. 8-8 in <strong>the</strong> “Photonics”<br />
section).<br />
Automated Optical<br />
Alignment<br />
The M-850 can be upgraded<br />
with an integrated photometer<br />
card (infrared or visible light)<br />
for optical alignment and builtin<br />
automatic alignment procedures,<br />
similar to <strong>the</strong> compact<br />
F-206 HexAlign photonics<br />
alignment robot (option<br />
F-206.IRU or F-206.00U, see<br />
page 8-13). The F-361 highspeed,<br />
absolute measuring photometer<br />
(see page 8-32) can<br />
also be used with <strong>the</strong> M-850.<br />
Technical Data<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
F-206 “Micro-Hexapod” (see p. 8-8 in<br />
<strong>the</strong> “Photonics” section for details)<br />
Models M-850.11 M-850.50 Units<br />
Travel X, Y ** ±50 ±50 mm<br />
Travel Z ** ±25 ±25 mm<br />
Travel � X , � Y ** ±15 ±15 deg<br />
Travel � Z ** ±30 ±30 deg<br />
Actuator stroke (L S ) ±25 ±25 mm<br />
Actuator design resolution 0.005 0.049 µm<br />
Min. Incremental Motion X, Y, Z 1 (XY), 1 (XY), µm (6-axis<br />
0.5 (Z) 0.5 (Z) move!) *<br />
Min. Incremental Motion � X , � Y , � Z 5 5 µrad (6-axis<br />
move!)<br />
Repeatability X, Y ±2 ±2 µm<br />
Repeatability Z ±1 ±1 µm<br />
Repeatability � X , � Y , � Z ±10 ±10 µrad<br />
Velocity X, Y, Z (typ.) 0.3 5 mm/sec<br />
Velocity X, Y, Z (max.) 0.5 8 mm/sec<br />
Velocity � X , � Y , � Z (typ.) 3 50 mrad/sec<br />
Velocity � X , � Y , � Z (max.) 6 100 mrad/sec<br />
Stiffness(k X ), (k Y ) 3 3 N /µm<br />
Stiffness(k Z ) 100 100 N /µm<br />
Weight 17 17 kg<br />
Load capacity (vertically/random) 200/50 200/50 kg<br />
Resonant frequency F X ,F Y *** 90 90 Hz<br />
Resonant frequency F Z *** 500 500 Hz<br />
* No moving cables! No friction, bending or twisting forces induced by moving cables as<br />
with stacked units.<br />
** The travel ranges of <strong>the</strong> individual coordinates (X, Y, Z, � , � , � ) are interdependent.<br />
X Y Z<br />
The data in this table show maximum travel (where at least one strut is totally<br />
extended). If motion from a particular starting point or in more than one axis is<br />
desired, <strong>the</strong> available travel may be less.<br />
Example: The following combination of travel is possible:<br />
X : + 20 mm � : +10°<br />
X<br />
Y : + 20 mm � : +10°<br />
Y<br />
Z : + 5 mm � : -2° Z<br />
*** Vertical orientation and 10 kg load<br />
7-109
Application<br />
Examples<br />
� Quality control<br />
� Test equipment<br />
� Flexible automation<br />
� Metrology<br />
� Photonics packaging<br />
� Fiber alignment<br />
Ordering<br />
Information<br />
M-235.2DG<br />
Heavy-Duty, High-Resolution<br />
DC-Mike Actuator, 20 mm,<br />
Ballscrew, Limit Switches<br />
M-235.2DD<br />
Heavy-Duty, High-Resolution<br />
DC-Mike Actuator, Direct Drive,<br />
20 mm, Ballscrew, Limit Switches<br />
M-235.22S<br />
Heavy-Duty, High-Resolution<br />
Stepper-Mike Actuator, 20 mm,<br />
Ballscrew, Limit Switches<br />
M-235.5DG<br />
Heavy-Duty, High-Resolution<br />
DC-Mike Actuator, 50 mm,<br />
Ballscrew, Limit Switches<br />
M-235.5DD<br />
Heavy-Duty, High-Resolution<br />
DC-Mike Actuator, Direct Drive,<br />
50 mm, Ballscrew, Limit Switches<br />
M-235.52S<br />
Heavy-Duty, High-Resolution Stepper-<br />
Mike Actuator, 50 mm, Ballscrew,<br />
Limit Switches<br />
Higher Speed M-235<br />
versions on request<br />
Custom Designs<br />
for Volume Buyers<br />
7-110<br />
M-235<br />
Heavy-Duty High-Resolution Closed-<br />
Loop DC-Mike & Stepper Actuators<br />
M-235.2DG (top) and M-235.5DG (bottom)<br />
high-resolution DC-Mike, ballscrew.<br />
� 20 mm or 50 mm<br />
Travel Range<br />
� 0.1 µm Minimum<br />
Incremental Motion<br />
� High-Speed Direct Drive<br />
Option<br />
� 120 N Push/Pull Load<br />
� 100 N Lateral Load Limit<br />
� Preloaded Ultra-Low-<br />
Friction Ball Screw with<br />
Non-Rotating Tip<br />
� Closed-Loop DC Motors<br />
and Stepper Motors<br />
� Compatible with<br />
Leading Industrial<br />
Motion Controllers<br />
� Integrated Hall-Effect<br />
Limit & Origin Switches<br />
� >20,000 Hours MTBF<br />
The M-235 is an ultra-high-resolution<br />
linear actuator providing<br />
linear motion of up to<br />
50 mm with sub-micron resolution<br />
in a compact package. It<br />
consists of a preloaded ultralow-friction,<br />
heavy-duty<br />
ballscrew which is driven by a<br />
2-phase stepper motor or a<br />
closed-loop DC motor with<br />
motor-shaft-mounted, highresolution<br />
encoder (2048 counts/<br />
rev.).<br />
http://www.pi.ws<br />
info@pi.ws<br />
Non-Rotating Tip<br />
Compared to conventional rotating-tip<br />
micrometer drives,<br />
<strong>the</strong> non-rotating-tip design<br />
offers several advantages:<br />
� Elimination of torqueinduced<br />
positioning errors<br />
� Elimination of sinusoidal<br />
motion errors<br />
� Elimination of wear at <strong>the</strong><br />
contact point<br />
� Elimination of tip-angledependent<br />
wobble<br />
M-235 actuators provide a<br />
cost-effective solution for<br />
heavy-duty industrial and OEM<br />
environments. They feature an<br />
extremely low stiction, lowfriction<br />
construction, allowing<br />
for minimum incremental<br />
motion as low as 100 nanometers.<br />
The M-235.5DD version<br />
is equipped with a direct drive<br />
motor for high-speed positioning<br />
applications.<br />
Non-Contact Limit and<br />
Origin Switches<br />
Integrated, non-contact, highprecision<br />
Hall-effect origin and<br />
limit switches, protect your<br />
equipment and increase versatility<br />
in automation applications.<br />
M-235.52S high-resolution Stepper-Mike,<br />
50 mm travel range, ballscrew.<br />
Integrated Line Drivers<br />
M-235 actuators with DC motors<br />
include an integral 0.5 m<br />
cable with 15-pin sub-D connector<br />
and a 3 m extension<br />
cable. The connector features<br />
integrated line drivers for cable<br />
lengths up to 10 meters between<br />
actuator and controller.<br />
A screw-on ball tip and a flat tip<br />
are included.<br />
For smaller sizes and lowerduty<br />
applications, refer to <strong>the</strong><br />
M-230, M-231, M-232 and<br />
M-227 and M-168 on pages<br />
7-68, 7-70 and 7-74.
Ball tip (included)<br />
Technical Data<br />
M-235.22S and M-235.52S dimensions (in mm).<br />
Technical Data Models M-235.2DG M-235.2DD M-235.22S M-235.5DG M-235.5DD M-235.52S Units Notes<br />
see p. 7-96<br />
Travel range 20 20 20 50 50 50 mm<br />
Design resolution 0.016 0.5 0.05 0.016 0.5 0.05 µm A3<br />
Min. incremental motion 0.1 0.5 0.1 0.1 0.5 0.1 µm A4<br />
Unidirectional repeatability 0.1 0.5 0.2 0.1 0.5 0.2 µm<br />
Bidirectional repeatability 1 1 1 1 1 1 µm<br />
Max. velocity 3 >30 20 3 >30 20 mm/sec<br />
Max. push/pull force 120 >50 100** 120 >50 100** N<br />
Max. lateral force 100 100 100 100 100 100 N (at tip)<br />
Encoder resolution 2048 2048 - 2048 2048 - counts/rev.<br />
Motor resolution - - 20000* - - 20000* steps/rev.<br />
Ballscrew pitch 1 1 1 1 1 1 mm/rev.<br />
Gear ratio 29.6 : 1 - - 29.6:1 - -<br />
Nominal motor power 4 17 - * 4 17 -* W<br />
Motor voltage range 0 to ±12 0 to ±12 24 * 0 to ±12 0 to ±12 24 * V<br />
Origin and limit switches Hall-Effect Hall-Effect Hall-Effect Hall-Effect Hall-Effect Hall-Effect<br />
Mass 0.55 0.50 0.65 0.7 0.65 0.8 kg<br />
Recommended motor C-843, C-862 C-600, C-843, C-862 C-600, D2<br />
controllers C-848, C-630 C-848, C-630<br />
C-862 C-862<br />
* 2-phase stepper, 24 V chopper voltage, max. 1.5 A / phase, 20,000 microsteps with C-600, C-630 controllers<br />
** at up to 10 mm/sec<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
M-235.2DD, .2DG and M-235.5DD, .5DG.<br />
Cable length: 500 mm, 15-pin sub-D<br />
connector with integrated line drivers.<br />
Dimensions in mm.<br />
info@pi.ws<br />
7-111
M-451.1PD elevation stage<br />
Application<br />
Examples<br />
� Wafer alignment (with<br />
NanoPositioning systems)<br />
� Semiconductor adjustment<br />
� Metrology<br />
� Disk drive test assemblies<br />
� R&D<br />
Ordering<br />
Information<br />
M-451.1PD<br />
Vertical Stage, 12.5 mm, ActiveDrive<br />
DC Motor (Includes Power Supply for<br />
Servo Amplifier)<br />
M-451.1DG<br />
Vertical Stage, 12.5 mm, DC<br />
Motor/Gearhead<br />
M-451.12S<br />
Vertical Stage, 12.5 mm, 2-phase<br />
Stepper Motor<br />
7-112<br />
M-451<br />
P-562.3CD <strong>PI</strong>Mars XYZ Piezo NanoPositioning<br />
& Scanning system (200 µm x 200 µm x 200 µm)<br />
mounted on an M-451.1PD elevation stage.<br />
Vertical MicroPositioning Stage<br />
� 3 Nanometer Design<br />
Resolution<br />
�
Technical Data<br />
Models M-451.1PD M-451.1DG M-451.12S Units<br />
Travel range 12.5 mm 12.5 mm 12.5 mm mm<br />
Design resolution 0.042 0.0028 0.0084 µm<br />
Min incremental motion 0.2 0.1 0.2 µm<br />
Unidirectional repeatability 0.3 0.3 0.3 µm<br />
Backlash 1 1 1 µm<br />
Max. velocity 3 0.5 0.8 mm/s<br />
Max. normal load 120 120 120 N<br />
Encoder resolution 4000 2000 - counts/rev.<br />
Motor Resolution* - - 20000 steps/rev.<br />
Leadscrew pitch 0.5 0.5 0.5 mm/rev.<br />
Gear ratio - 29.6:1 -<br />
Wedge ratio 3:1 3:1 3:1<br />
Nominal motor power 30 3 -* W<br />
Motor voltage range 0 to ±24 0 to ±12 24* V<br />
Body material Al Al Al<br />
Recommended controller C-843, C-848, C-862 C-843, C-848, C-862 C-600, C-630<br />
** 2-phase stepper, 24 V chopper voltage, max. 1.5 A / phase, 20,000 microsteps with C-600, C-630 controllers.<br />
Dimensions of <strong>the</strong> M-451.1DG elevation stage, in mm.<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
Dimensions of <strong>the</strong> M-451.1PD elevation stage, in mm<br />
http://www.pi.ws<br />
info@pi.ws<br />
7-113
Application<br />
Examples<br />
� Photonics packaging automation<br />
� Fiber optic instrumentation<br />
� Fiber alignment<br />
� Metrology<br />
� Quality control<br />
� Test equipment<br />
� Micromachining<br />
Ordering<br />
Information<br />
M-110.1DG<br />
Micro-Translation Stage, 5 mm,<br />
Closed-Loop DC Motor<br />
M-111.1DG<br />
Micro-Translation Stage, 15 mm,<br />
Closed-Loop DC Motor<br />
M-112.1DG<br />
Micro-Translation Stage, 25 mm,<br />
Closed-Loop DC Motor<br />
M-110.12S<br />
Micro-Translation Stage, 5 mm,<br />
2-Phase Stepper Motor<br />
M-111.12S<br />
Micro-Translation Stage, 15 mm,<br />
2-Phase Stepper Motor<br />
M-112.12S<br />
Micro-Translation Stage, 25 mm,<br />
2-Phase Stepper Motor<br />
Custom Designs<br />
for Volume Buyers<br />
7-114<br />
M-110.1<br />
M-111.1<br />
M-112.1<br />
High-Resolution<br />
Micro-Translation Stages<br />
M-110.1DG micro-translation stage<br />
(battery for size comparison).<br />
� 0.05 µm Minimum<br />
Incremental Motion<br />
� 5, 15 and 25 mm Travel<br />
Ranges<br />
� Velocity to 1.5 mm/sec.<br />
� Closed-Loop DC Motors<br />
and Stepper Motors<br />
� Integrated Hall-Effect<br />
Limit and Reference<br />
Switches<br />
Technical Data<br />
http://www.pi.ws<br />
info@pi.ws<br />
M-110, M-111 and M-112 are<br />
ultra-high resolution motorized<br />
translation stages providing<br />
linear motion of 5 to 25 mm in<br />
an extremely compact package.<br />
They feature a precision<br />
leadscrew with sub-micron<br />
resolution and precision linear<br />
ball bearings guaranteeing<br />
< 0.5 µm straightness of travel.<br />
Stepper and Servo Motors<br />
Both drive options provide a<br />
cost effective solution for industrial<br />
and OEM environments. A<br />
miniature DC or stepper motor<br />
actuates motion via a backlashcompensated<br />
leadscrew / nut<br />
system and gearhead. To meet<br />
<strong>the</strong> most critical positioning<br />
demands, <strong>the</strong> DC motor is<br />
equipped with a high resolution<br />
encoder featuring resolution of<br />
0.007 µm per count. The combination<br />
of <strong>the</strong> extremely low<br />
stiction / friction construction<br />
and high-resolution encoder<br />
allows for minimum incremental<br />
motion of 50 nanometers at<br />
speeds up to 1.5 mm/sec.<br />
Non-Contact Limit and<br />
Reference Switches<br />
To protect your investment,<br />
non-contacting Hall-effect limit<br />
and reference switches are<br />
installed. Each stage includes a<br />
0.5 m cable with 15-pin sub-D<br />
connector and a 3 m extension<br />
cable. The connector on <strong>the</strong><br />
DC-servo versions features<br />
integrated line drivers for<br />
cable lengths up to 10 meters<br />
between actuator and controller.<br />
M-110, M-111 and M-112 can<br />
be combined to XY and XYZ<br />
systems for multiaxis alignment<br />
applications. A variety of<br />
add-on PiezoNanoAlignment<br />
units are also available see <strong>the</strong><br />
„Photonics“ section.<br />
Models M-110.1DG M-111.1DG M-112.1DG M-110.12S M-111. 12S M-112.12S Units<br />
Travel range 5 15 25 5 15 25 mm<br />
Design resolution 0.007 0.007 0.007 0.006 0.006 0.006 µm<br />
Min. incremental motion 0.05 0.05 0.05 0.05 0.05 0.05 µm<br />
Unidirectional repeatability 0.1 0.1 0.1 0.1 0.1 0.1 µm<br />
Backlash 2 2 2 2 2 2 µm<br />
Max. velocity 1 1.5 1.5 1 1 1 mm/sec<br />
Max. normal load capacity 3 3 2 3 3 2 kg<br />
Max. push/pull force 10 10 10 10 10 10 N<br />
Max. lateral force 10 10 10 10 10 10 N<br />
Encoder resolution 2048 2048 2048 - - - counts/rev.<br />
Motor resolution - - - 2400* 2400* 2400* steps/rev.<br />
Drive screw pitch 0.4 0.4 0.4 0.4 0.4 0.4 mm/rev.<br />
Gear ratio 28.44444:1 28.44444:1 28.44444:1 28.44444:1 28.44444:1 28.44444:1<br />
Nominal motor power 0.6 2 2 * * * W<br />
Motor voltage range 0 to ±12 0 to ±12 0 to ±12 24* 24* 24* V<br />
Weight 0.3 0.4 0.5 0.3 0.4 0.5 kg<br />
Recommended C-843, C-848, C-843, C-848, C-843, C-848, C-600, C-630 C-600, C-630 C-600, C-630<br />
motor controllers C-862 C-862 C-862<br />
* 2-phase stepper, 24 V chopper voltage, 2,400 microsteps with C-600, C-630 controllers
M-110, M-111 and M-112. Cable length: 500 mm, 15-pin sub-D connector with integrated encoder line drivers.<br />
M-110, M-111, M-112 Z-mounting bracket,<br />
dimensions (in mm).<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
F-130 fiber alignment system consisting of an M-110 XYZ positioning system and a P-611 XYZ Piezo-<br />
NanoPositioning system. This combination can be operated by <strong>the</strong> C-880 controller or NI controllers<br />
(request our technote!)<br />
7-115
Application<br />
Examples<br />
� Micromachining<br />
� Photonics packaging automation<br />
� Fiber optic instrumentation<br />
� Fiber alignment<br />
� Quality control<br />
� Test equipment<br />
Ordering<br />
Information<br />
M-110.2DG<br />
Micro-Translation Stage, 5 mm,<br />
Closed-Loop DC Motor, Ballscrew<br />
M-111.2DG<br />
Micro-Translation Stage, 15 mm,<br />
Closed-Loop DC Motor, Ballscrew<br />
M-112.2DG<br />
Micro-Translation Stage, 25 mm,<br />
Closed-Loop DC Motor, Ballscrew<br />
M-110.22S<br />
Micro-Translation Stage, 5 mm,<br />
Stepper Motor, Ballscrew<br />
M-111.22S<br />
Micro-Translation Stage, 15 mm,<br />
Stepper Motor, Ballscrew<br />
M-112.22S<br />
Micro-Translation Stage, 25 mm,<br />
Stepper Motor, Ballscrew<br />
Adaptors and Angle Brackets<br />
Same as for Leadscrew Versions<br />
M-110.1/M-111.1/M-112.1.<br />
Custom Designs for Volume Buyers<br />
7-116<br />
M-110.2<br />
M-111.2<br />
M-112.2<br />
High-Resolution Micro-Translation<br />
Stages with Ballscrew Drive<br />
M-112.2DG, M-111.2DG, M-110.2DG<br />
(from front to back) providing 25 mm,<br />
15 mm and 5 mm travel range<br />
� 5 to 25 mm Travel Ranges<br />
� 5000 h MTBF<br />
� Very Cost Effective<br />
� 200 nm Minimum Inc.<br />
Motion<br />
� Hall-Effect Limit &<br />
Reference Switches<br />
� Recirculating Ballscrew<br />
Technical Data<br />
Models M-110.2DG M-111.2DG M-112.2DG M-110.22S M-111.22S M-112.22S Units<br />
Travel range 5 15 25 5 15 25 mm<br />
Design resolution 0.0085 0.0085 0.0085 0.0073 0.0073 0.0073 µm<br />
Min. incremental motion 0.2 0.2 0.2 0.2 0.2 0.2 µm<br />
Unidirectional repeatability 0.5 0.5 0.5 0.5 0.5 0.5 µm<br />
Backlash
M-110, M-111, M-112 dimensions in mm<br />
Low Cost of Ownership<br />
As mentioned before, <strong>the</strong>se<br />
compact <strong>PI</strong> stages are extremely<br />
cost effective in industrial<br />
applications. The combination<br />
of <strong>the</strong> M-11x.2DG and <strong>the</strong><br />
networkable C-862 Mercury<br />
single channel servo controller/<br />
driver offers high performance<br />
for a very competitive price in<br />
both single and multi-axis configurations.<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
7-117
M-116.DG micro rotary stage<br />
Application<br />
Examples<br />
� Beam lines<br />
� Adjustment of optics<br />
� Metrology<br />
� Quality control<br />
� Photonics packaging<br />
� R&D<br />
Ordering<br />
Information<br />
M-116.DG<br />
Micro Rotation Stage, 360°, Closed-<br />
Loop DC-Motor / Gearhead Drive<br />
M-116.DGH<br />
Micro Rotation Stage, 360°, Closed-<br />
Loop DC-Motor / Zero-Backlash<br />
Gearhead Drive<br />
M-116.2S<br />
Micro Rotation Stage, 360°, 2-Phase<br />
Stepper-Motor / Gearhead Drive<br />
M-116.2SH<br />
Micro Rotation Stage, 360°, 2-Phase<br />
Stepper-Motor / Zero-Backlash<br />
Gearhead Drive<br />
M-116.AL1<br />
Lens Adapter for 0.5” Optics<br />
Custom Designs for<br />
Volume Buyers<br />
7-118<br />
M-116<br />
Micro Rotation Stages with<br />
Worm Gear Drive<br />
� Ultra-Compact Design<br />
� Continuous Rotation<br />
� 2.1 µrad Design<br />
Resolution<br />
� Clear Aperture<br />
� Velocity up to<br />
20 degrees/second<br />
� Preloaded Anti-Backlash<br />
Worm Drive<br />
� Fits Directly on M-110<br />
Micro Translation Stages<br />
� Compatible with<br />
Leading Industrial Motion<br />
Controllers<br />
� Non-Contact Reference<br />
Switch<br />
� To 10 µrad Repeatability<br />
M-116 rotation stages are<br />
equipped with low-friction,<br />
spring-preloaded worm gear<br />
drives allowing unlimited rotation<br />
in ei<strong>the</strong>r direction in an<br />
extremely compact package.<br />
Stepper and Servo Motors<br />
Both drive options provide a<br />
cost-effective solution for<br />
industrial and OEM environments.<br />
A miniature DC or stepper<br />
motor actuates motion via<br />
http://www.pi.ws<br />
info@pi.ws<br />
a spring-preloaded worm gear<br />
drive and zero-backlash (with<br />
M-116.xxH versions) gearhead.<br />
To meet <strong>the</strong> most critical<br />
positioning demands, <strong>the</strong> DC<br />
motor is equipped with a highresolution<br />
encoder featuring<br />
resolution of 2.048 counts per<br />
revolution The combination of<br />
<strong>the</strong> extremely low-stiction /<br />
low-friction construction and<br />
high-resolution encoder allows<br />
for minimum incremental<br />
motion of 25 µrad at speeds up<br />
to 20 degrees/ second.<br />
Multi-Axis Combinations<br />
M-116 rotary stages can be<br />
combined with <strong>the</strong> M-110,<br />
M-111 and M-112 micro linear<br />
stages without an additional<br />
adapter plate to keep <strong>the</strong> total<br />
height at a minimum. A variety<br />
of addon Piezo-NanoAlignment<br />
units are also available, see <strong>the</strong><br />
“Photonics” section.<br />
M-116 dimensions, in mm.<br />
XY� Z micropositioning combination<br />
consisting of (from top to bottom)<br />
M-116 micro rotary stage and two<br />
M-111 translation stages (M-110.01<br />
adapter for mounting <strong>the</strong> M-111 on a<br />
honeycomb breadboard with M6 on<br />
25 mm centers).
Clear Aperture, Lens<br />
Adapter<br />
The M-116 is designed with a<br />
clear aperture for extended<br />
versatility in optics applications.<br />
The M-116.AL1 lens adapter<br />
is available to accommodate<br />
0.5” optics such as polarizers.<br />
Non-Contact Reference<br />
Switch<br />
M-116 micro rotary stages are<br />
equipped with an integrated<br />
optical reference switch. For<br />
ease of operation and setup, all<br />
models come with a scale ring<br />
on <strong>the</strong> outer edge of <strong>the</strong><br />
turntable.<br />
Optional Limit Switches<br />
To protect your equipment and<br />
increase versatility in automation<br />
applications, <strong>the</strong> rotary stage<br />
can optionally be equipped<br />
with optical limit switches. The<br />
travel can be limited to a range<br />
between 0° and 330° ± 2° (reference<br />
switch between 30°<br />
and 330°).<br />
Technical Data<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
Models M-116.DG M-116.DGH M-116.2S M-116.2SH Units Notes<br />
Rotation range continuous continuous continuous continuous degrees<br />
Design resolution 2.45, 3.16, 2.09, 2.70, µrad, A3<br />
(0.00014) (0.00018) (0.00012) (0.00015) (deg)<br />
Min. incremental motion 50 25 50 25 µrad A4<br />
Unidirectional repeatability 12 10 12 10 µrad<br />
Backlash 800
M-060<br />
M-061<br />
M-062<br />
M-062.PD, M-061.PD and M-060.PD from front to rear<br />
� Continuous Rotation<br />
� Ultra-High Resolution<br />
� Velocity up to 90 deg/sec.<br />
� Preloaded Worm Drive<br />
for Zero Backlash<br />
� ActiveDrive DC-Motor,<br />
Stepper-Motor and Manual<br />
Versions<br />
� Compatible with Leading<br />
Industrial Motion Controllers<br />
� Direction-Sensing Origin<br />
Switch<br />
Application<br />
Examples<br />
� Metrology<br />
� Quality control<br />
� Photonics packaging<br />
� Semiconductor test equipment<br />
� Disk drive test assemblies<br />
� R&D<br />
7-120<br />
Series Rotation Stages with<br />
Worm Gear Drive<br />
M-06x series rotation stages<br />
are equipped with ultra-precise,<br />
ultra-low-friction, spring-preloaded<br />
worm gear drives allowing<br />
unlimited rotation in ei<strong>the</strong>r<br />
direction. Models M-060 feature<br />
a 60 mm diameter turntable,<br />
models M-061, a 100 mm table<br />
and models M-062, a 120 mm<br />
table. One manual drive and<br />
three motor drives (four with<br />
M-062 models) are available:<br />
M-06x.PD ActiveDrive<br />
This version features a directcoupled<br />
motor/encoder. For<br />
superior dynamic performance,<br />
we integrated our unsurpassed<br />
ActiveDrive system. This<br />
unique design features a highefficiency,<br />
PWM servo-amplifier<br />
mounted side-by-side with<br />
<strong>the</strong> motor. It provides several<br />
decisive advantages:<br />
� Increased efficiency, by eliminating<br />
power losses between<br />
<strong>the</strong> amplifier and motor<br />
http://www.pi.ws<br />
info@pi.ws<br />
� Reduced cost of ownership<br />
and improved reliability, because<br />
no external driver is<br />
required<br />
� Elimination of PWM amplifier<br />
noise radiation, because<br />
<strong>the</strong> amplifier and motor are<br />
mounted toge<strong>the</strong>r in <strong>the</strong><br />
same electrically shielded<br />
case<br />
M-06x.DG<br />
DC Motor/Gearhead Drive<br />
The M-06x.DG are equipped<br />
with 3-watt DC motors with<br />
zero-backlash gearhead and<br />
shaft-mounted encoders (2048<br />
counts/rev.). The gear ratio of<br />
29.6 : 1, provides higher resolution<br />
than <strong>the</strong> direct drive<br />
motors.<br />
M-60x.2S<br />
Stepper Motor Drive<br />
The M-060x.2S are equipped<br />
with direct-drive, microstepped,<br />
2-phase, stepper<br />
motors (20,000 counts/rev.<br />
with C-600 controller), providing<br />
ultra-smooth, vibration-free<br />
positioning.<br />
Non-Contact Origin Switch<br />
Motorized models are equipped<br />
with an integrated Halleffect<br />
origin switch. For ease<br />
of operation and setup, all<br />
models come with a scale ring<br />
on <strong>the</strong> outer edge of <strong>the</strong> turntable,<br />
graduated in 2-degree<br />
increments. The manual versions<br />
also feature a driveshaft-mounted<br />
indicator with<br />
0.1-degree graduations.<br />
Optional Limit Switches<br />
To protect your equipment and<br />
increase versatility in automation<br />
applications, <strong>the</strong> rotary<br />
stage can optionally be equipped<br />
with Hall-effect limit<br />
switches. Travel can be limited<br />
to a range between 0° and<br />
268° (± 2°).<br />
Ordering<br />
Information<br />
M-060.PD<br />
Rotation Stage, ø 60 mm, 360° +,<br />
ActiveDrive DC-Motor<br />
(Includes Power Supply)<br />
M-060.DG<br />
Rotation Stage, ø 60 mm, 360° +,<br />
Closed-Loop DC-Motor /<br />
Gearhead Drive<br />
M-060.2S<br />
Rotation Stage, ø 60 mm, 360° +,<br />
2-Phase Stepper-Motor Drive<br />
M-060.M0<br />
Rotation Stage, ø 60 mm, 360° +,<br />
Manual Drive<br />
M-061.PD<br />
Rotation Stage, ø 100 mm, 360° +,<br />
ActiveDrive DC-Motor<br />
(Includes Power Supply)<br />
M-061.DG<br />
Rotation Stage, ø 100 mm, 360° +,<br />
Closed-Loop DC-Motor /<br />
Gearhead Drive<br />
M-061.2S<br />
Rotation Stage, ø 100 mm, 360° +,<br />
2-Phase Stepper-Motor Drive<br />
M-061.M0<br />
Rotation Stage, ø 100 mm, 360° +,<br />
Manual Drive<br />
M-062.PD<br />
Rotation Stage, ø 120 mm, 360° +,<br />
ActiveDrive DC-Motor<br />
(Includes Power Supply)<br />
M-062.DG<br />
Rotation Stage, ø 120 mm, 360° +,<br />
Closed-Loop DC-Motor /<br />
Gearhead Drive<br />
M-062.2S<br />
Rotation Stage, ø 120 mm, 360° +,<br />
2-Phase Stepper-Motor Drive<br />
M-062.M0<br />
Rotation Stage, ø 120 mm, 360° +,<br />
Manual Drive<br />
Custom Designs<br />
for Volume Buyers
C-161.2i <strong>PI</strong>IntelliStep motor with integrated controller, attached to <strong>the</strong> <strong>PI</strong> M-062.M0<br />
rotary stage.<br />
Technical Data<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Models M-060.M0 M-060.PD M-060.DG M-060.2S M-061.M0 M-061.PD M-061.DG M-061.2S M-062.M0 M-062.PD M-062.DG M-062.2S Units<br />
Index<br />
http://www.pi.ws<br />
Rotation range continuous continuous continuous continuous continuous continuous continuous continuous continuous continuous continuous continuous degrees<br />
Design resolution 32 2.1 6.3 – 17.5 1.2 3.5 – 15 0.96 2.9 µrad<br />
(0.0018) (0.00012) (0.00036) (0.001) (6.9 x 10 -5 ) (0.0002) (0.0008) (5.5x10 -5 ) (0.00016) (deg)<br />
Min. incremental motion – 32 6.3 19 – 17.5 6 10.5 – 15 5 9 µrad<br />
Unidirectional repeatability – 50 50 50 – 50 50 50 – 60 60 60 µrad<br />
Backlash – 200 200 200 – 200 200 200 – 240 240 240 µrad<br />
Max. velocity – 90 16 36 – 90 9 20 – 90 7.3 16 deg/ sec.<br />
Maximum axial force<br />
Maximum torque<br />
±500 ±500 ±500 ±500 ±550 ±550 ±550 ±550 ±650 ±650 ±650 ±650 N<br />
(� , � ) X Y ±6 ±6 ±6 ±6 ±6 ±6 ±6 ±6 ±7 ±7 ±7 ±7 Nm<br />
Encoder resolution – 4000 2000 – – 4000 2000 – – 4000 2000 – counts / rev.<br />
Motor resolution – – – 20000 * – – – 20000 * – – – 20000 *<br />
Gear ratio – – (28/12) 4 :1 – – – (28/12) 4 :1 – – – (28/12) 4 :1 –<br />
�29.6:1 �29.6:1 �29.6:1<br />
Worm gear ratio 50:1 50:1 50:1 50:1 90:1 90:1 90:1 90:1 110:1 110:1 110:1 110:1<br />
Nominal motor power – 30 3 – 30 3 – 30 3 W<br />
Motor voltage range – 0 to ± 24 0 to ±12 24* – 0 to ± 24 0 to ±12 24* – 0 to ± 24 0 to ±12 24* V<br />
Weight 0.42 0.94 0.94 0.96 1.36 1.88 1.88 1.90 2.24 2.76 2.76 2.78 kg<br />
Body material Al Al Al Al Al Al Al Al Al Al Al Al<br />
Recommended C-842, C-842, C-600, C-842, C-842, C-600, C-842, C-842, C-600,<br />
motor controller C-843, C-843, C-630 C-843, C-843, C-630 C-843, C-843, C-630<br />
C-862 C-862 C-862 C-862 C-862 C-862<br />
* 2-phase stepper, 24 V chopper voltage, max. 1.5 A / phase, 20,000 microsteps with C-600 or C-630 controller<br />
** ActiveDrive (integrated PWM servo-amplifier)<br />
info@pi.ws<br />
7-121
7-122<br />
M-060.2S, M-061.2S,<br />
M-062.2S rotation stages,<br />
dimensions (in mm)<br />
M-060.DG, M-061.DG,<br />
M-062.DG rotation stages,<br />
dimensions (in mm)<br />
http://www.pi.ws<br />
info@pi.ws<br />
M-060.PD, M-061.PD,<br />
M-062.PD rotation stages,<br />
dimensions (in mm)<br />
M-060.M0, M-061.M0,<br />
M-062.M0 rotation stages,<br />
dimensions (in mm)
C-161.2i<br />
Application<br />
Examples<br />
� Flexible Automation<br />
� Quality Control<br />
� Test Equipment<br />
� Micropositioning<br />
Ordering<br />
Information<br />
C-161.2i<br />
<strong>PI</strong>IntelliStep Motor, RS-232 Interface<br />
C-161.2i attached to <strong>the</strong> <strong>PI</strong> M-062.M0<br />
rotary stage.<br />
C-161.2i<br />
<strong>PI</strong>IntelliStep Stepper Motor with<br />
Integrated Controller/Driver<br />
� Stepper Motor &<br />
Controller in One Package<br />
� Compact Size, Ideal for<br />
OEM Applications<br />
� 20,000 Steps/Rev. for<br />
Smooth Positioning<br />
� Daisy-Chain Network<br />
Feature for up to<br />
9 Devices<br />
� Configurable TTL-Level<br />
Limit Switch Inputs<br />
� Compatible with Apollo<br />
and <strong>PI</strong>IntelliStage<br />
� Mechanically Compatible<br />
with <strong>PI</strong> Micropositioners<br />
The C-161.2i <strong>PI</strong>IntelliStep<br />
unit is a very cost-effective<br />
solution for flexible automation<br />
and positioning tasks in reseach<br />
and industry. The <strong>PI</strong>-<br />
IntelliStep combines a highresolution<br />
stepper motor and a<br />
motion controller/driver in an<br />
extremely compact package.<br />
High Reliability<br />
Because of <strong>the</strong> high level of integration,<br />
<strong>PI</strong>IntelliStep motors<br />
contain less than 50% of<br />
<strong>the</strong> components of a classical<br />
controller/motor setup (electronics,<br />
mechanics and cables).<br />
The motor itself is a 2-phase<br />
stepper motor providing more<br />
than 20,000 hours MTBF.<br />
Finally, limit and origin sensor<br />
inputs help to protect your positioning<br />
equipment and offer <strong>the</strong><br />
highest level of compatibility.<br />
Network Capability<br />
Up to 9 units can be daisychained<br />
and controlled from a<br />
single RS-232 interface. This is<br />
a tremendous advantage in<br />
multi-axis setups for automation<br />
tasks.<br />
<strong>PI</strong>IntelliStep –<br />
<strong>PI</strong>IntelliStage<br />
Mechanically attached to a<br />
micropositining stage, <strong>the</strong><br />
<strong>PI</strong>IntelliStep motor results<br />
in a complete high resolution<br />
micropositioning system. It is<br />
software compatible with <strong>the</strong><br />
<strong>PI</strong> <strong>PI</strong>IntelliStage M-5x1.5i<br />
series and <strong>the</strong> C-630.32<br />
Apollo stepper motor controllers.<br />
Apollo Controller,<br />
<strong>PI</strong>IntelliStage and <strong>PI</strong>Intelli-<br />
Step motor can be mixed in<br />
<strong>the</strong> same network of up to 9<br />
axes.<br />
Technical Data<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
C-161.2i seamlessly fits all <strong>PI</strong><br />
flanged motor stages, such as<br />
<strong>the</strong> M-126 or M-400 translation<br />
stage series or M-037,<br />
M-038 and M-060 rotary stage<br />
series.<br />
Model C-161.2i<br />
Function Stepper motor with integrated controller and driver<br />
Motor 2-phase stepper motor, 24 V chopper voltage<br />
Resolution 20,000 microsteps/rev.<br />
Step-size 314 µrad/microstep (0.018°/microstep)<br />
Velocity to 100,000 microsteps/sec<br />
Acceleration to 2,500,000 microsteps/sec2 Torque 0.31 Nm<br />
Supply power 18-27 V DC, max. 0.7 A<br />
Controller Integrated into motor housing<br />
Command set, programming ASCII command set,<br />
Windows operating software,<br />
DLL and LabVIEW drivers<br />
RS-232 Interface 9.6 or 57.6 kbaud (default 9.6 kbaud),<br />
ring-bus topology support<br />
Connectors 2 x 9-pin (m/f) sub-D, 3-pin power<br />
Daisy-chain networking up to 9 devices<br />
Limit switche inputs 4 TTL, programmable, 200 mm cable<br />
Dimensions 80.9 x 63.5 x 39.0 mm3 C-161.2i dimensions in mm, decimal places separated by comma.<br />
7-123
Ordering<br />
Information<br />
8-30<br />
F-311<br />
F-311 <strong>PI</strong>Motion&Vision software integrates<br />
vision systems with <strong>PI</strong> Micro- and Nanopositioners.<br />
F-311.V01<br />
<strong>PI</strong>Motion&Vision Basic Module, 1CH<br />
F-311.V04<br />
<strong>PI</strong>Motion&Vision Basic Module, 4CH<br />
F-311.V11<br />
<strong>PI</strong>Motion&Vision Pro Module, 1CH<br />
F-311.V14<br />
<strong>PI</strong>Motion&Vision Pro Module, 4CH<br />
F-311.V1U<br />
<strong>PI</strong>Motion&Vision Upgrade to<br />
Pro Module<br />
F-311.L10<br />
<strong>PI</strong>Motion&Vision Illumination System<br />
8-1 to 8-28 see <strong>the</strong><br />
hardbound <strong>PI</strong> catalog<br />
<strong>PI</strong>Motion&Vision—Integration of Vision<br />
System and Micro-/Nanopositioning<br />
� Vision System for Integration<br />
with <strong>PI</strong> Micro- and<br />
Nanopositioning Systems<br />
� Controls up to Six DOF<br />
Motion with Sub-µm or<br />
Sub-nm (Sub-µrad)<br />
Resolution<br />
� National Instruments<br />
Compatible Vision<br />
System<br />
� Multi-Channel Vision for<br />
a Mix of Resolutions<br />
and/or 3D Observation<br />
� Powerful LabView VIs<br />
for <strong>PI</strong>Motion&Vision<br />
<strong>PI</strong>Motion&Vision offers an<br />
integrated solution for difficult<br />
tasks such as automated positioning<br />
of optics, semi-conductor<br />
wafers, microsystems<br />
technology MEMS fabrication<br />
http://www.pi.ws<br />
info@pi.ws<br />
or alignment and scanning of<br />
samples under a microscope.<br />
� Basic functions such as<br />
autofocus, edge and pattern<br />
recognition, and gap measurement.<br />
� Intelligent automated procedures.<br />
� Motion systems capable<br />
of carrying out <strong>the</strong> positioning<br />
or scanning required.<br />
NI Framegrabber<br />
The hardware for <strong>the</strong> F-311<br />
<strong>PI</strong>Motion&Vision system consists<br />
of a National Instruments<br />
PCI bus framegrabber card.<br />
This fact guarantees a high<br />
degree of compatibility for fur<strong>the</strong>r<br />
system integration. The<br />
framegrabber card supports a<br />
number of camera systems<br />
and is available with one or<br />
four channels.<br />
Software Interface to Microand<br />
Nanopositioners<br />
<strong>PI</strong>Motion&Vision offers a large<br />
number of LabView drivers<br />
for continuous monitoring and<br />
processing of <strong>the</strong> image information,<br />
including standard procedures<br />
for gap measurement,<br />
autofocus, aligning edges all<br />
<strong>the</strong> way to complex alignment<br />
routines in six degrees of freedom<br />
with up to 80 axes of<br />
motion, switching functions<br />
and read-in of analog signals<br />
(e. g. photometer signals for<br />
optical fiber alignment).<br />
Motion is commanded using<br />
<strong>the</strong> <strong>PI</strong> General Command Set,<br />
which is supported by all <strong>PI</strong><br />
multi-axis micropositioning and<br />
nanopositioning controllers.<br />
The basic version contains all<br />
<strong>the</strong> drivers provided by <strong>PI</strong>; <strong>the</strong><br />
Pro Version includes <strong>the</strong> full<br />
IMAQ development environ-<br />
ment from National Instruments,<br />
making possible an<br />
even wider range of system<br />
integration and function development.<br />
Simple setup with a single camera, two<br />
M-111 stages in an XY configuration<br />
and an M-116 rotatary platform (all<br />
controlled from a C-843 PCI card). This<br />
sample setup can be used for pattern<br />
recognition, as can be seen in <strong>the</strong> next<br />
graphics.<br />
Application<br />
Examples<br />
� Optical 6D Alignments<br />
� Autofocussing<br />
� Gap Measurements<br />
� Pattern Matching<br />
in<br />
� Semiconductor Industry<br />
� Biotechnology<br />
� Life Science<br />
� MEMS Manufacturing/MST<br />
� Photonics
<strong>PI</strong>Motion&Vision sample pattern recognition task. The sample program searches for<br />
<strong>PI</strong> logos, counts and aligns <strong>the</strong>m. The logos are 1 x 0.5 mm in size.<br />
Gap measurement with <strong>PI</strong>Motion&Vision is linear down to 5 µm, and at separations down<br />
to 1 µm <strong>the</strong> values provided can be used with correction. Optical gap measurement <strong>the</strong>n<br />
begins to be limited by refraction and optical imperfections. The reference measurements<br />
were made with a P-611 NanoCube piezo NanoPositioning system.<br />
Optical fiber-alignment with F-206<br />
6-axis-alignment system and P-611<br />
Nanocube 3D piezo nanopositioning /<br />
scanning system. Two cameras allow<br />
a 3-dimensional visual automated<br />
coarse alignment.<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
Notes<br />
http://www.pi.ws<br />
info@pi.ws<br />
Optimal performance in transmittedlight<br />
applications can be obtained with<br />
<strong>the</strong> F-311.L10 illumination system,<br />
developed by <strong>PI</strong>. The light intensity is<br />
adjustable and <strong>the</strong> use of LEDs assure<br />
long lifetime. The unit can be powered<br />
directly from <strong>the</strong> <strong>PI</strong> controller,<br />
a feature which helps reduce <strong>the</strong><br />
number of components.<br />
8-31
Application<br />
Examples<br />
� Fiber Alignment<br />
� Optical Measurement<br />
� Characterisation of optical parts or<br />
MEMS<br />
� Quality assurance of optical parts<br />
or MEMS<br />
Ordering<br />
Information<br />
F-361.10<br />
High-Speed Optical Power Meter, NIST<br />
Tracable, 1000-1600 nm wavelength<br />
8-32<br />
F-361<br />
F-361 integrating sphere and optical power meter.<br />
High-Speed Integrating Sphere<br />
Optical Power Meter<br />
� Ultra Fast: 5 ksamples/s<br />
� Power Range 1 nW<br />
to 10 mW<br />
� Absolute Power<br />
Measurement, NIST<br />
Traceable<br />
� Display for Instantaneous<br />
and Test Measurements<br />
� Spectral Range 1000 nm<br />
to 1600 nm<br />
Technical Data<br />
http://www.pi.ws<br />
info@pi.ws<br />
� Compatible to <strong>PI</strong><br />
F-206, M-840 & M-850<br />
Hexapod Systems<br />
� Compatible to <strong>PI</strong> C-880<br />
Multiaxis Alignment<br />
Absolute Power<br />
Measurement, NIST<br />
Traceable<br />
F-361 is a very sensitive,<br />
absolute measuring power<br />
meter. All incoming light is<br />
detected by three InGaAs<br />
detectors in its integrating<br />
sphere. All F-361 are calibrated<br />
and NIST traceable.<br />
107 Power Range<br />
The F-361 is extremely sensitive,<br />
<strong>the</strong> minimum signal resolution<br />
already starts at 1 nW. It<br />
covers a range of 7 orders of<br />
magnitude to 10 mW. For<br />
higher optical power, an attenuator<br />
can be used.<br />
High Speed<br />
The F-361 provides a high bandwith<br />
of 5 kHz, a prerequisite<br />
for automatic alignment. Its<br />
high-throughput RS-232 interface<br />
provides up to 5,000 samples/s<br />
an extraordinary value.<br />
Compatibility to <strong>PI</strong><br />
Alignment Systems<br />
<strong>PI</strong> offers various photonics<br />
alignment systems consisting<br />
Model F-361.10<br />
Function High-speed optical power meter for absolute power measurement<br />
Channels 1<br />
Spectral Range 1000 nm to 1600 nm<br />
Calibration NIST traceable<br />
Power Range 1 nW to 10 mW<br />
Absolute accuracy 8.5%<br />
Autoranging time 140 µs<br />
Interface USB, RS-232<br />
RS-232 throughput 5 ksamples/s, max 7 ksamples/s<br />
Fiber Connector FC<br />
Detector 3 x InGaAs<br />
Dimensions 99.5 x 88 x 78<br />
Weight 865 g<br />
Compatible to<br />
� M-840 Fast Six-Axis Parallel<br />
Kinematics Hexapod<br />
� M-850 Hexapod Parallel<br />
Kinematics MicroMotion<br />
Robot<br />
� F-206 HexAlign Six-Axis<br />
MicroMotion Robot and<br />
Alignment System<br />
� C-880 Multi-Axis Automation<br />
Platform<br />
of precision mechanics up<br />
to 1nm resolution, advanced<br />
motion controllers, high level<br />
software and open-source<br />
alignment routines.<br />
The F-361 is compatible to all<br />
<strong>PI</strong> alignment systems such<br />
as M-840/M-850, F-206 and<br />
C-880 and existing systems<br />
with relative power meters<br />
can be upgraded (firmware<br />
update required). Up to two<br />
F-361 can be used with <strong>the</strong><br />
above alignment systems.<br />
F-361 comes with an RS-232<br />
interface board for <strong>the</strong> <strong>PI</strong><br />
motion controllers, interface<br />
cables, power supply, installation<br />
and operation manual and<br />
software.
F-361 power meter with F-206 HexAlign robot.<br />
Dimensions of <strong>the</strong> F-361<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
Spectral sensitivity of <strong>the</strong> InGaAs sensor. The measured optical power is standardized.<br />
http://www.pi.ws<br />
info@pi.ws<br />
8-33
Mercury II Palm-Top Controller<br />
front and back view. Euro and dollar<br />
coins for size comparison.<br />
Application<br />
Examples<br />
� Flexible automation<br />
� Quality control<br />
� Test equipment<br />
� Photonics packaging<br />
� Fiber alignment<br />
Ordering<br />
Information<br />
C-862.00<br />
Mercury II Palm-Top DC-Motor<br />
Controller Set, Including Power Supply<br />
C-890.PS<br />
Wide-Range Power Supply for Mercury<br />
Controller<br />
C-862.CN<br />
Additional Network Connecting Cable<br />
C-860.CN<br />
Network Connecting Cable with C-860<br />
Mercury Controller<br />
C-862.IO<br />
I/O Connecting Cable with Open End<br />
for C-862 Mercury Controller<br />
9-20<br />
9-1 to 9-18 see <strong>the</strong><br />
hardbound <strong>PI</strong> catalog<br />
C-862<br />
Mercury II DC-Motor<br />
Controller/Driver<br />
� High Performance<br />
at Low Cost<br />
� Integrated Driver,<br />
no External Amplifier<br />
Required<br />
� Stand-Alone Functionality<br />
� Daisy-Chain Network for<br />
Multi-Axis Applications<br />
� Easy Address Setting<br />
� Macro Command<br />
Language<br />
� Non-Volatile EEPROM for<br />
Macros and Parameters<br />
� Parameters can Be<br />
Changed On-<strong>the</strong>-Fly<br />
� TTL Inputs for Limit &<br />
Origin Switches<br />
� Motor-Brake Control<br />
� Additional TTL I/O Lines<br />
The Mercury Palm-Top DC-<br />
Motor Controller is <strong>the</strong> optimal<br />
solution for motion control<br />
applications where a precision<br />
positioner is to be controlled<br />
by a PC or PLC (programmable<br />
logic controller).<br />
http://www.pi.ws<br />
info@pi.ws<br />
Integrated Amplifier and<br />
PWM Outputs<br />
The unique Mercury concept<br />
combines a high-performance<br />
motion controller and an integrated<br />
power amplifier in an<br />
extremely small package. Additional<br />
PWM control outputs<br />
allow <strong>the</strong> direct operation of<br />
any DC-motor-driven <strong>PI</strong> micropositioning<br />
system–even highspeed<br />
stages such as <strong>the</strong><br />
M-500 ActiveDrive Translation<br />
Stages–reducing costs,<br />
increasing reliability and simplifying<br />
<strong>the</strong> setup.<br />
Dual Processor Architecture<br />
The Mercury II controller<br />
employs a highly specialized<br />
processor providing high-performance<br />
<strong>PI</strong>D motion control<br />
with many options for trajectory<br />
generation and filter settings.<br />
Position, velocity and o<strong>the</strong>r<br />
motion parameters can be<br />
changed on-<strong>the</strong>-fly. For heightened<br />
system safety and performance,<br />
all communication<br />
and command parsing activity<br />
is handled by a second, independent<br />
processor. Any quadrature<br />
TTL incremental encoder<br />
can be used for position feed-<br />
back (linear scales, rotary<br />
encoders, interferometers).<br />
Limit and origin switch inputs<br />
and a motor-brake output are<br />
also standard.<br />
Macro Command Language<br />
The Mercury II controller<br />
offers a high-level mnemonic<br />
command language with<br />
macro and compound command<br />
functionality. Macros<br />
can be stored in <strong>the</strong> nonvolatile<br />
EEPROM for later<br />
recall. An autostart macro is<br />
available to run automation<br />
tasks at power up (no run-time<br />
computer communication required!).<br />
Network Capability<br />
Up to 16 Mercury II controllers<br />
can be daisy-chained<br />
for multi-axis motion control<br />
applications. Each controller<br />
includes software, an RS-232<br />
communications cable and a<br />
network cable. The C-862.00<br />
set also includes <strong>the</strong> C-890.PS<br />
wide-range power supply, networkcable<br />
and a null modem<br />
cable for PC connection.
Mercury software, showing <strong>the</strong> terminal window and selection of controllers 1 through 4.<br />
Technical Data<br />
Model C-862<br />
Function Stand-alone DC-servo-motor controller<br />
Servo characteristics 31-bit velocity, acceleration & position registers, 16-bit programmable<br />
<strong>PI</strong>D, 256 µs, parameter changes on-<strong>the</strong>-fly<br />
Output power 15-watt PWM on-board, additional output for PWM drivers<br />
Encoder input A/B (quadrature) TTL signals (single-ended or RS-422 differential<br />
mode), max. 10 6 counts / sec<br />
Stall detection Motor stop, servo off, triggered by programmable position error<br />
Limit switches 2 TTL (pull-up/pull-down, programmable)<br />
Origin switches 1 TTL (pull-up/pull-down, programmable), real-time position capture<br />
Motor brake output 5 V TTL , software controllable<br />
Additional I/O Lines 5 V TTL<br />
Interface / Communication RS-232, 9-pin (m) sub-D (cable included)<br />
Command Set: 40 high-level mnemonic commands, ASCII format, compound &<br />
macro command capability (non-volatile EEPROM)<br />
Motor connector 15-pin (f) sub-D<br />
Internal safety features Watchdog timer<br />
Operating voltage 12 - 15 V, 1 - 2 A<br />
Weight 0.3 kg<br />
Mercury software, start screen<br />
C-862 dimensions in mm<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
9-21
Application<br />
Examples<br />
� Flexible automation<br />
� Quality control<br />
� Test equipment<br />
� Photonics packaging<br />
� Fiber alignment<br />
Ordering<br />
Information<br />
C-630.32<br />
Apollo Controller for 2-Phase<br />
Stepper Motors, 3 Axes,<br />
RS-232 Interface<br />
M-500.PS<br />
Power Supply for Apollo Controller<br />
(Included in C-630.32)<br />
C-863.633<br />
Interface Cable for Operation with<br />
<strong>PI</strong>IntelliStage Translation Stages<br />
(3 m)<br />
Apollo Controller front and back view.<br />
9-22<br />
C-630<br />
Apollo Motion Controller/Driver<br />
for Stepper Motors<br />
� 3-Axis, Compact Stepper-<br />
Motor Controller/Driver<br />
for 2-Phase Motors<br />
� Up to 50 x Microstep<br />
Resolution for Smooth,<br />
High-Resolution<br />
Positioning<br />
� Network Feature for<br />
Multi-Channel Applications<br />
� <strong>PI</strong>IntelliStage &<br />
<strong>PI</strong>IntelliStep compatible<br />
The new C-630 Apollo controller<br />
combines a high-resolution<br />
motion controller and<br />
driver in an extremely small<br />
package. The Apollo is a very<br />
cost-effective solution for automation,<br />
precision measurements<br />
or general positioning<br />
tasks in research and industry.<br />
Integrated Drives for<br />
High-Resolution Motion<br />
Apollos can drive up to three<br />
2-phase stepper motors simultaneously,<br />
and feature microstep<br />
technology with up to<br />
20,000 steps/rev. for ultrasmooth,<br />
high-resolution motion.<br />
Limit switch and reference<br />
switch inputs for each<br />
axis are provided to protect <strong>the</strong><br />
mechanics and for easy operation.<br />
Technical Data<br />
Model C-630.32<br />
Function Stepper-motor controller and driver for 2-phase motors<br />
Axes 3<br />
Trajectories Point-to-point, 3D linear interpolation<br />
Motor resolution Up to 50 x microstep resolution (up to 20,000 steps/rev) with <strong>PI</strong> stepper motors)<br />
Motor current Up to 800 mA, 24 V, chopped<br />
Limit switches / reference switches / I/O ports (per axis) 4 TTL, programmable<br />
Interface / communication RS-232 (cable included), 9.6 to 57 kbit/sec.<br />
Daisy-chain function Up to 3 units<br />
Command set, programming ASCII command set<br />
Host Software Windows operating software and DLLs, LabView Drivers<br />
Motor connectors (per axis) 15-pin (f) sub-D<br />
Operating voltage 24 V DC, provided by external wide-range P/S 85 to 240 VAC, 50 to 60 Hz<br />
Dimensions 260 mm x 145 mm x 45 mm<br />
Weight 1 kg<br />
http://www.pi.ws<br />
info@pi.ws<br />
Network Capability<br />
for Flexible Automation<br />
For control of more than three<br />
axes, <strong>the</strong> Appollo’s network<br />
functionality comes in handy.<br />
Up to three controllers can be<br />
linked and controlled over a<br />
single interface.<br />
The network may include up to<br />
three Apollo controllers or a<br />
combination of up to three <strong>PI</strong>-<br />
IntelliStagesTM and two Apollos.<br />
Each Apollo controller includes<br />
software, an RS-232 communications<br />
cable and a wide-range<br />
power supply for universal<br />
operation.<br />
C-630 Apollo Controller with M-112.22S<br />
linear translation stage.<br />
Easy-To-Use Software<br />
and Drivers<br />
WindowsTM software is provided<br />
with Apollo controllers<br />
for easy installation and operation.<br />
It is derived from <strong>the</strong><br />
<strong>PI</strong>IntelliStageTM Lance Software,<br />
and is able to run both<br />
Apollos and <strong>PI</strong>IntelliStagesTM in<br />
<strong>the</strong> same window.<br />
Window DLLs and LabViewTM Drivers are also provided for<br />
advanced programming and<br />
integration into existing user<br />
program environments.
C-630<br />
<strong>PI</strong>IntelliStage means high-precision<br />
translators with 0.2 micron repeatability and<br />
motor controller in a single package.<br />
M-511.5iM <strong>PI</strong>IntelliStage with integrated<br />
motion controller. <strong>PI</strong>IntelliStages are<br />
available with travel ranges up to 300 mm<br />
The LANCE software command editor for<br />
controlling multiple stage in one network<br />
from one computer<br />
Network Capability<br />
Configuration example of a combined <strong>PI</strong>IntelliStage Apollo network: 4-Axis of<br />
motion consisting of 2 <strong>PI</strong>IntelliStages for X and Y motion with an M-062.2S rotary<br />
stage for rotation around <strong>the</strong> vertical (Z) axis and a second smaller M-060.2S for rotation<br />
around X or Y. For setup and wiring see block diagram below on <strong>the</strong> next picture.<br />
<strong>PI</strong>IntelliStage, master cable, 3m<br />
(C-816.5M comes with master stage)<br />
<strong>PI</strong>IntelliStage, slave cable, 3m<br />
(C-816.5S comes with slave stage)<br />
<strong>PI</strong>IntelliStage/Apollo interface cable<br />
3m, C-663.633, optional<br />
RS-232<br />
P/S, 24 V DC (M-500.PS comes with <strong>PI</strong>IntelliStage master Set)<br />
<strong>PI</strong>IntelliStage, master, e. g. M-511.5iM<br />
<strong>PI</strong>IntelliStage, slave, e. g. M-511.5iS<br />
<strong>PI</strong> standard motor cable<br />
(C-815.34 comes with every stage)<br />
Apollo controller<br />
C-630.32<br />
P/S, 24V DC (M-500.PS comes with Apollo controller)<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
The same configuration example<br />
as block diagram.<br />
All stages can be controlled from<br />
a single RS-232 Interface.<br />
<strong>PI</strong> stage with stepper motor<br />
e. g. M-062.2S<br />
<strong>PI</strong> stage with stepper motor<br />
e. g. M-060.2S<br />
http://www.pi.ws<br />
info@pi.ws<br />
9-23
Ordering<br />
Information<br />
C-843.20<br />
DC-Motor Controller PCI PC Board,<br />
2-Axis<br />
C-843.40<br />
DC-Motor Controller PCI PC Board,<br />
4-Axis<br />
C-843.JS<br />
Joystick and PCI Interface Board<br />
for C-843 Motor Controller<br />
9-24<br />
C-843.20<br />
C-843.40<br />
C-843.40 DC-motor controller board with<br />
M-110.DG linear stage, M-235.5DG heavy<br />
duty linear actuator, M-511.DD direct drive<br />
translation stage and M-501.1DG vertical<br />
stage. No external amplifier is required<br />
to drive any of <strong>the</strong>se or o<strong>the</strong>r <strong>PI</strong> stages.<br />
Small motors are driven through <strong>the</strong> C-843’s<br />
onboard linear amplifiers, direct-drive <strong>PI</strong><br />
stages (e.g. M-511.DD) employ ActiveDrive TM<br />
controlled off <strong>the</strong> C-843’s PWM outputs.<br />
9050} {art<br />
Servo Motion Controller/<br />
Driver PCI Board<br />
� Very Cost-Effective: Servo<br />
Amplifiers On-Board<br />
� Additional PWM Outputs<br />
for High-Power Motors<br />
� Trapezoidal Curve,<br />
S-Curve and Velocity<br />
Contouring<br />
� 64 kWord RAM for High-<br />
Speed Trace Operations<br />
� Hardware Interrupts for<br />
Process Control<br />
� 16 I/O Lines for Flexible<br />
Automation<br />
� Electronic Gearing<br />
� Motor-Brake Control<br />
Output<br />
� Extensive Software<br />
Support<br />
The new C-843 PCI motion<br />
controller card drives up to 4<br />
axes of micropositioning<br />
equipment. Because <strong>the</strong>re is<br />
no need for external servoamplifiers,<br />
this new card is a<br />
very cost-effective, easy-toset-up<br />
solution.<br />
On-Board Servo Amplifiers<br />
Unlike o<strong>the</strong>r PCI controller<br />
cards, <strong>the</strong> new C-843 comes<br />
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with on-board, low-noise linear<br />
amplifiers for <strong>the</strong> small DC<br />
motors used in most compact<br />
micropositioning stages and<br />
actuators.<br />
In addition, PWM outputs are<br />
available to drive more powerful<br />
equipment (all direct-drive<br />
translation and rotation stages<br />
from <strong>PI</strong> feature <strong>the</strong> integrated<br />
ActiveDriveTM PWM amplifiers,<br />
and also connect to <strong>the</strong> C-843<br />
with no external power amplifiers).<br />
The PWM mode and linear<br />
amplifier mode can be programmed<br />
individually for each<br />
of <strong>the</strong> 4 (or 2) channels.<br />
High-Performance<br />
<strong>PI</strong>D Control<br />
The C-843 employs a fast DSP<br />
(digital signal processor) providing<br />
high-performance <strong>PI</strong>D<br />
motion control with many<br />
options for trajectory generation<br />
and filter settings for superior<br />
positioning and tracking accuracy.<br />
Position, velocity, acceleration<br />
and several o<strong>the</strong>r motion<br />
parameters can be program-<br />
med individually for each axis<br />
on-<strong>the</strong>-fly. High-bandwidth<br />
counters (5 MHz) support differential<br />
encoder feedback (incremental<br />
rotary encoders or linear<br />
scales) for fast and accurate<br />
positioning.<br />
I/O for Flexible Automation<br />
In addition to 3 TTL inputs per<br />
channel for limit and reference<br />
signals, 16 more I/O lines are<br />
available for flexible automation<br />
tasks (trigger functions,<br />
etc.). The C-843 also features<br />
motor-brake output lines (e. g.<br />
for M-531.DDB stages).<br />
High-Speed Tracing<br />
The integrated 64 kiloword<br />
trace memory allows online<br />
tracing of up to four independent<br />
system variables (positions,<br />
velocities, internal register<br />
contents, etc.) at integer<br />
multiples of <strong>the</strong> servo-loop<br />
time.<br />
Easy-to-Use Software /<br />
Programming<br />
For ease of operation, <strong>the</strong><br />
C-843 is compatible with <strong>the</strong> <strong>PI</strong><br />
General Command Set,<br />
designed to allow flexible combinations<br />
with o<strong>the</strong>r <strong>PI</strong> motion<br />
controllers (fiber aligners, stepper-motor<br />
controllers and piezo<br />
controllers for ultra-fast, subnanometer<br />
motion control).<br />
Communications to/from <strong>the</strong><br />
board consist of packet-based<br />
messages passed via memory<br />
access. An interrupt line is provided<br />
so that <strong>the</strong> chipset can<br />
signal <strong>the</strong> PC when special<br />
conditions arise, such as<br />
reception of an encoder index<br />
pulse.<br />
In addition to an ample array of<br />
software tools, such as Lab-<br />
VIEW drivers and DLL libra-
ies, <strong>the</strong> C-843 comes with <strong>the</strong><br />
<strong>PI</strong>SmartMove operating software<br />
providing all functions for<br />
single command execution as<br />
well as macro command facilities.<br />
To facilitate setup, any supported<br />
<strong>PI</strong> MicroPositioning system<br />
just needs to be selected from<br />
a <strong>PI</strong>SmartMove menu and all<br />
default control parameters will<br />
be set.<br />
For system integration, <strong>the</strong><br />
C-843 offers full access to <strong>the</strong><br />
motion DSP via a PCI bridge.<br />
Technical Data<br />
To facilitate setup, any supported <strong>PI</strong> MicroPositioning stage just needs to be selected from<br />
a <strong>PI</strong>SmartMove menu and all default control parameters will be set.<br />
Model C-843<br />
Function PC plug-in DC-Servo-Motor Controller Board, 32-bit plug-and-play<br />
PCI-bus, supported by main boards with 3.3 V and 5 V PCI bus connectors<br />
(universal card)<br />
Axes 2 / 4<br />
Servo characteristics Programmable <strong>PI</strong>D V-ff filter, parameter changes on-<strong>the</strong>-fly<br />
Profile modes Trapezoidal, S-curve, velocity profile; electronic gearing<br />
Output power / Analog 3 watts/channel, 12-bit D/A converters, PWM 10-bit,<br />
resolution 24.5 kHz<br />
Current limitation 250 mA per channel (short-circuit-proof)<br />
Encoder input AB (quadrature) differential TTL signals, 5 x 106 counts/s<br />
Stall detection Servo off, triggered by programmable position error<br />
Limit switches 8 TTL (active high/low, programmable)<br />
Origin switches 4 TTL (active high/low, programmable)<br />
I/O ports 8 TTL inputs, 8 TTL outputs<br />
Motor connectors 15-pin (f) sub-D per channel (2 on board, 2 on bracket)<br />
Interface/communication PC PCI bus<br />
Command set Choice of <strong>PI</strong> General Command Set or C-842 compatible (QFL) commands<br />
<strong>PI</strong>SmartMove software is easy to use.<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Index<br />
http://www.pi.ws<br />
info@pi.ws<br />
<strong>PI</strong> General Command<br />
Set permits<br />
consistent<br />
programming<br />
of a wide variety<br />
of <strong>PI</strong> motion systems.<br />
9-25
Ordering<br />
Information<br />
C-848.40<br />
DC-Motor Controller, 4 Axes,<br />
19” Rack Mount, RS-232<br />
C-848.40i<br />
DC-Motor Controller, 4 Axes,<br />
19” Rack Mount, RS-232 and IEEE488<br />
C-848.20<br />
DC-Motor Controller, 2 Axes,<br />
19” Rack Mount, RS-232<br />
C-848.20i<br />
DC-Motor Controller, 2 Axes,<br />
19” Rack Mount, RS-232 and IEEE488<br />
Accessories<br />
C-819.10<br />
Analog Joystick<br />
9-26<br />
C-848<br />
C-848.40 DC-Motor Controller with various<br />
<strong>PI</strong>-stages: M-112.2DG micro-translation stage;<br />
M-232.17 DC-Mike, M-062.DG rotary stage<br />
and M-235.5DG heavy duty DC-Mike.<br />
Multi-Axis DC-Motor Controller<br />
� Integrated Linear Power<br />
Amplifiers and PWM<br />
Outputs<br />
� Simultaneous Control of<br />
up to 4 DC Servo-Motors<br />
� Powerful Macro<br />
Command Language<br />
� Programmable Torque<br />
Limit<br />
� Fast 32-bit Digital <strong>PI</strong>D V-ff<br />
Servo Loop<br />
� 16 I/O Lines for Flexible<br />
Automation<br />
� Electronic Gearing<br />
� Motor-Brake Control<br />
Output<br />
� Extensive Software<br />
Support<br />
� RS-232 and Optional<br />
IEEE-488.2 Interfaces<br />
The C-848 is a flexible, multipurpose,<br />
rackmount positioning<br />
and motion controller for<br />
DC servo-motors. It is designed<br />
for general positioning and<br />
automation tasks in research<br />
and industry.<br />
Flexibility, Multi-Processor<br />
Architecture<br />
Based on a rugged, high-performance<br />
industrial PC, <strong>the</strong><br />
C-848 offers <strong>the</strong> flexibility<br />
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required in today’s demanding<br />
and rapidly changing automation,<br />
prototyping and production<br />
processes. In addition to<br />
<strong>the</strong> general processor handling<br />
communication and macro<br />
command execution, a fast<br />
DSP motion-control chip set is<br />
dedicated to trajectory generation<br />
and servo-control based<br />
on position information supplied<br />
by incremental encoders<br />
(linear scales, rotary encoders).<br />
In addition to 3 inputs per<br />
channel for limit switches and<br />
home position, eight TTL<br />
inputs and eight TTL outputs<br />
are available for flexible<br />
automation.<br />
The C-848 provides flexible<br />
and fast high-level-command<br />
handling and has advanced<br />
features such as stackable<br />
macros. The command language<br />
complies with <strong>the</strong> <strong>PI</strong><br />
General Command Set, which<br />
is a user-friendly, well structured<br />
language reflecting<br />
<strong>the</strong> device’s functionality. The<br />
C-848 also offers advanced<br />
features such as linear interpolation,<br />
electronic gearing, realtime<br />
origin position capture<br />
and fast 32-bit <strong>PI</strong>D +V-ff servocontrol<br />
parameters (can be<br />
changed on-<strong>the</strong>-fly).<br />
Integrated Servo Amplifiers /<br />
PWM Output<br />
Integrated, low-noise, 5-watt<br />
linear power amplifiers allow<br />
operation of any <strong>PI</strong> micropositioning<br />
system without additional<br />
external amplifiers,<br />
reducing costs and simplifying<br />
<strong>the</strong> setup. In addition to <strong>the</strong> linear<br />
motor drivers, PWM (pulse<br />
width modulation) output signals<br />
are available to drive <strong>PI</strong><br />
micropositioning stages equipped<br />
with ActiveDrive motors<br />
(e.g. M-511.DD, M-126.PD) or<br />
external PWM power amplifiers<br />
from o<strong>the</strong>r manufacturers.<br />
Easy-to-Use Software /<br />
Programming<br />
For ease of operation, <strong>the</strong><br />
C-848 is compatible with <strong>the</strong> <strong>PI</strong><br />
General Command Set, designed<br />
to allow flexible combinations<br />
with o<strong>the</strong>r <strong>PI</strong> motion<br />
controllers (fiber aligners, stepper-motor<br />
controllers and piezo<br />
controllers for ultra-fast, subnanometer<br />
motion control).<br />
This intuitive command set<br />
saves valuable programming<br />
time by its convenient and<br />
easy-to-remember structure.<br />
Control of <strong>the</strong> C-848 is provided<br />
through <strong>the</strong> RS-232 or an<br />
optional IEEE-488 interface.<br />
For manual control, <strong>the</strong> unit can<br />
be operated with a C-819.10<br />
joystick.<br />
In addition to an ample array<br />
of software tools such as<br />
LabVIEW drivers and DLL<br />
libraries, <strong>the</strong> C-848 comes with<br />
<strong>the</strong> operating software C-848<br />
Control providing all functions<br />
for single command execution<br />
as well as macro command<br />
facilities.<br />
To facilitate setup, any supported<br />
<strong>PI</strong> MicroPositioning<br />
stage just needs to be<br />
selected from a menu and all<br />
default control parameters will<br />
be set. The C-848 can also run<br />
in stand-alone mode, and a<br />
standard computer keyboard<br />
and monitor can be plugged for<br />
direct programming.<br />
<strong>PI</strong> General Command Set<br />
The C-848 is to a large extent<br />
freely programmable and its<br />
command structure conforms<br />
to <strong>the</strong> <strong>PI</strong> General Command<br />
Set. This command set is common<br />
to most <strong>PI</strong> piezo and<br />
motor controllers, and is de-
Easy configuration of <strong>the</strong> C-848 motion controller.<br />
C-848 Control<br />
signed for multi-axis operation.<br />
This greatly reduces <strong>the</strong> effort<br />
required to produce custom<br />
programs, especially in environments<br />
which include a<br />
number of different controllers.<br />
Included with <strong>the</strong> C-848 is<br />
user-interface software as well<br />
LabView and o<strong>the</strong>r driver<br />
sets.<br />
Technical Data<br />
PZT Actuators<br />
PZT Flexure NanoPositioners<br />
PZT Active Optics / Steering Mirrors<br />
Tutorial: Piezoelectrics...<br />
Capacitive Position Sensors<br />
PZT Control Electronics<br />
MicroPositioners / Hexapod Systems<br />
Photonics Alignment & Packaging Systems<br />
Motor Controllers<br />
Model C-848<br />
Function Rack-mountable DC-servo-motor controller<br />
Channels 4 (C-848.40), 2 (C-848.20)<br />
Servo characteristics 32-bit programmable <strong>PI</strong>D V-ff filter, 100 µs/ enabled axis;<br />
parameter changes on-<strong>the</strong>-fly<br />
Profile modes Trapezoidal, electronic gearing<br />
Output power / resolution Analog H-bridge ± 12 V, 5 watts/channel, 12-bit D/A converters, optional<br />
output for PWM drivers (10 bit, 24 kHz)<br />
Current limitation 1 A peak (short-circuit proof)<br />
Encoder input AB (quadrature) TTL signals (single-ended or RS-422 differential mode),<br />
max. 10 6 counts/sec<br />
Stall detection Motor stop, triggered by programmable position error<br />
Limit switches (per axis) 2 TTL<br />
programmable soft limits<br />
Origin switches (per axis) 1 TTL<br />
real-time position capture<br />
I/O ports 8 TTL inputs, 8 TTL outputs (pull-up)<br />
Motor brake output 12 V, software controllable<br />
Interface / Communication RS-232 (cable included), (IEEE 488.2 optional)<br />
Command Set > 100 high-level commands, <strong>PI</strong> General Command Set compatible<br />
Host software & programming Tools C-848 Control statt operating program, LabView drivers, libraries for C,<br />
Pascal, BASIC for Windows Firmware updates By floppy disk drive<br />
Motor connectors (per axis) 15-pin (f) sub-D<br />
Operating voltage 90 to 264 VAC, 50 to 60 Hz, wide range P/S<br />
Dimensions 447 x 450 x 90 mm (19” rack mountable)<br />
Weight 8.4 kg<br />
Index<br />
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9-27
C-809.40 Amplifier/Interface shown with NI PCI 7344 Card and two <strong>PI</strong> micropositioning<br />
stages.<br />
Application<br />
Examples<br />
� Quality control<br />
� Test equipment<br />
� Micromachining<br />
� Biotechnology<br />
� Micromanipulation<br />
� Scanning microscopy<br />
� Photonics packaging automation<br />
� Fiber optic instrumentation<br />
� Fiber alignment<br />
� Metrology<br />
Ordering<br />
Information<br />
C-809.40<br />
4 Channel Servo Amplifier<br />
Motion I/O Interface for NI<br />
Motion Controllers.<br />
9-28<br />
C-809.40<br />
4-Channel Servo-Amplifier Motion I/O<br />
Interface for NI Motion Controllers<br />
� Compatible with NI<br />
Motion Controllers<br />
� Integrated 4 Channel<br />
Analog & PWM Amplifier<br />
� Plug & Play Operation<br />
� Uses Standard 68 Pin NI<br />
Connection Cable<br />
� 37 Pin I/O Interface for<br />
User-Specific Purposes<br />
(Triggering, etc.)<br />
Many customers wish to use<br />
<strong>PI</strong>’s unique DC servomotor and<br />
piezomotor motion devices<br />
with third-party controls such<br />
as <strong>the</strong> 4-axis 7344 from<br />
National Instruments. To support<br />
<strong>the</strong>se customers and<br />
ease <strong>the</strong> job of cabling and provisioning,<br />
<strong>the</strong> C-809.40 provides<br />
four axes of amplification,<br />
conditioning and analog/PWM<br />
conversion to drive<br />
open- and closed-loop DC servomotor<br />
stages* of up to 6W.<br />
The C-809 also converts differential<br />
encoder signals into <strong>the</strong><br />
single-ended signals required<br />
by NI controllers.<br />
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Its automatic analog / PWM<br />
conversion supports linear and<br />
rotary stages and actuators<br />
using ei<strong>the</strong>r type of drive**. To<br />
facilitate neat and professional<br />
installations, all motor power,<br />
encoder signals and limit/reference<br />
switch information is provided<br />
via front-panel connectors***.<br />
Convenient fan-out of<br />
auxiliary and I/O lines from <strong>the</strong><br />
NI 7344 is also provided via a<br />
front-panel sub-D connector.<br />
24 VDC power outputs are<br />
also provided to support<br />
stages with internal PWM<br />
amplifiers. The C-809.40 is a<br />
particularly neat and tidy solution<br />
to using <strong>PI</strong> high-performance<br />
motorized and piezomotor<br />
servo stages with NI’s<br />
popular controllers.<br />
The C-809.40 is also compatible<br />
with many third-party<br />
mechanisms - consult with<br />
your local <strong>PI</strong> applications engineer<br />
for more information.<br />
Tecnical Data<br />
Model C-809.40<br />
Function Amplifier/Interface for National Instruments motion controllers<br />
Channels 4<br />
Output power Analog: 6 watts/channel, PWM: power for ActiveDrive<br />
stages supplied by separate power-supply 24V/channel<br />
Max. power 110-120 W / 24 V (for PWM stages)<br />
Current limitation 1 A per channel for analog DC motors (short-circuit proof)<br />
Motor connectors 15-pin (f) sub-D per channel<br />
I/O Connector 37-pin sub-D f connector<br />
Motion I/O Connector 68-pin VHDCI motion I/O connector (SCSI 4 type),<br />
works with NI cable SHC68-C68-S<br />
Dimensions 450 x 105 x 390 mm<br />
Power supply Wide-range, 90 to 240 V AC at 50 to 60 Hz<br />
* Standard linear and rotary stages with DB 15 connector and DC motor. For compatibility<br />
with <strong>PI</strong>Line piezomotor stages, please ask individually. Motor brake functionality is<br />
not supported.<br />
** Call <strong>PI</strong> for <strong>the</strong> configuration changes required if you want <strong>the</strong> C-809 to receive and route<br />
PWM signals generated by <strong>the</strong> NI card.<br />
*** The appropriate cable SHC68-C68-S is available from National Instruments, order<br />
number 186380-02 (2 m length) or 186380-0R5 (0.5 m length).
GERMANY<br />
Physik Instrumente (<strong>PI</strong>)<br />
GmbH & Co. KG<br />
Auf der Roemerstrasse<br />
76228 Karlsruhe<br />
Tel: +49 (721) 4846-0<br />
Fax: +49 (721) 4846-100<br />
www.pi.ws<br />
info@pi.ws<br />
GERMANY<br />
<strong>PI</strong> Ceramic GmbH<br />
Lindenstrasse<br />
07589 Lederhose<br />
Tel: +49 (36604) 882-0<br />
Fax: +49 (36604) 882-25<br />
www.piceramic.com<br />
info@piceramic.com<br />
USA<br />
<strong>PI</strong> (Physik Instrumente) USA West<br />
1342 Bell Avenue, Suite 3A<br />
Tustin, CA 92780<br />
Tel: +1 (714) 850 1835<br />
Fax: +1 (714) 850 1831<br />
Email: info@pi-usa.us<br />
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<strong>PI</strong> (Physik Instrumente) USA East<br />
16 Albert Str.<br />
Auburn, MA 01501<br />
Tel: +1 (508) 832 3456<br />
Fax: +1 (508) 832 0506<br />
Email: info@pi-usa.us<br />
http://www.pi-usa.us<br />
JAPAN<br />
<strong>PI</strong>-Polytec Co., Ltd.<br />
2-38-5 Akebono-cho<br />
Tachikawa-shi<br />
Tokyo 190-0012<br />
Tel: +81 (42) 526 7300<br />
Fax: +81 (42) 526 7301<br />
Email: info@pi-polytec.co.jp<br />
JAPAN<br />
<strong>PI</strong>-Polytec Co. Ltd.<br />
Hanahara Dai-ni Building, #703<br />
4-11-27 Nishinakajima,<br />
Yodogawa-ku, Osaka-shi<br />
Osaka 532-0011<br />
Tel: +81 (6) 6304 5605<br />
Fax: +81 (6) 6304 5606<br />
Email: info@pi-polytec.co.jp<br />
GREAT BRITAIN<br />
Lambda Photometrics Ltd.<br />
Lambda House<br />
Batford Mill<br />
Harpenden, Hertfordshire<br />
AL5 5BZ<br />
Tel: +44 (1582) 76 43 34<br />
Fax: +44 (1582) 71 20 84<br />
Email: info@lambdaphoto.co.uk<br />
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FRANCE<br />
Polytec <strong>PI</strong> S.A.<br />
32 rue Delizy<br />
F-93694 Pantin Cedex<br />
Tel: +33 (1) 48 10 39 30<br />
Fax: +33 (1) 48 10 08 03<br />
Email: pi.phot@polytec-pi.fr<br />
http://www.polytec-pi.fr<br />
ITALY<br />
Physik Instrumente (<strong>PI</strong>) S. r. l.<br />
Via E. De Amicis, 2<br />
I-20091 Bresso (MI)<br />
Tel: +39 (02) 665 011 01<br />
Fax: +39 (02) 665 014 56<br />
Email: info@pionline.it<br />
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