New nanopositioning stage for micropositioning
The PXY 201 CAP offers a clearance of 30x30mm² and a motion range of up to 250 microns in open loop and up to 200 microns in closed loop. The PXY 201 CAP can be equipped with an integrated high resolution capacitive feedback sensor. Creep and hystersis can be compensated by using the stage in combination with a matching amplifier from piezosystem jena.
Thanks to the FEA-optimized guidance, the system features supreme trajectory accuracy. The stage is very robust against high loads due to the frame design of the guidance.
To minimize overshooting and to shorten settling while scanning, the PXY 201 line is equipped with an internal passive damping system. Also any kind of position noise is reduced.
Vacuum and cryogenic performances are available on request as well as, body material variations of invar, super invar, aluminum or titanium.
With all these characteristics the PXY 201 CAP is an excellent choice for applications such as scanning microscopy, surface analysis, metrology and alignment as well as wide range nanopositioning and micro scanning requirering sub-nm accuracy and free aperture too.
piezosystem jena is a world leading company in the development, design and engineering of piezoelectrical actuator-based positioning systems for micro- and nanopositioning and nano-automation. In addition to the positioning stages the company also offers optical fiber switches as well as the support electronics.
The extensive experience in developing and manufacturing a diverse range of nanopositioning systems enables us to provide special systems and also OEM manufacturing.
The piezo actuators and positioning stages are characterized by a unique precision in the range of nanometer, generate forces of serveral thousand Newton and realize precise positionings in micro seconds.
more information about our products:
07745 Jena, Germany
phone: +49 3641 66880
fax: +49 3641 668866
This release was published on openPR.
Permanent link to this press release:
Please set a link in the press area of your homepage to this press release on openPR. openPR disclaims liability for any content contained in this release.
You can edit or delete your press release New nanopositioning stage for micropositioning here
News-ID: 58856 • Views: 1475
More Releases from piezosystem jena GmbH
Objective Positioners Adapted To Meet Your Needs For Industrial Applications
piezosystem jena has extended the objective positioner series MIPOS with two new industry products. Typically objective positioners are firmly mounted directly onto a microscope. Piezosystem also introduces two new systems, which can be screwed on a machine or rail. MIPOS 140: Most installed lens positioners require an undesired extension to the optical axis. The distance between the lens and the sample is shortened. This can lead to collisions between the optics and the
Incremental Trigger Function
Trigger signals dependent on the position of the stage Digital piezo-controllers from piezosystem jena (d-Drive and d-Drivepro) offer flexible control for customized systems such as cameras, illumination systems, optical shutters or external measuring systems. Now, piezosystem jena can offer a comfortable trigger function. Trigger signals can be generated dependent on the position of the stage: • Rising edge • Falling edge • On both edges in the direction of movement An additional function sends out a trigger
New Product-Catalog from piezosystem jena
Positioning Solutions with Sub-Nanometer-Precision; Movements up to Multiple Centimeters/ Inches piezosystem jena introduces its brand-new catalog! To offer you complete systems for your needs, piezosystem jena has engineered and produced a NEW series of Motion Control Stages and High-Power Piezo-Composite Actuators. The new catalog does not only show our proven, ultra-precise nanopositioning piezo stages for positioning with sub-nanometer accuracy and their appropriate controllers; it also incorporates our powerful Piezo-Composite Actuators and their
Beam Tracking with Mirror Tip- and Tilting Piezostage PKS1
In biology applications a laser beam is used for cell stimulation. First the laser beam is redirected onto 2 mirrors then directed to the cells. An important requirement, to hold the laser beam onto the cell is very difficult to achieve due to thermal effects or external vibration. The position of the laser beam needs to be controlled in real-time to track the motion of the cell. For this task a