
( Brand: Physik Instrumente ), ( Model: P.721.07 ), ( Country/region Of Manufacture: Germany )
Embark on a new dimension of microscopy precision with the Piezo-Flexure Nanopositioner (Model 721.07) from Physik Instrumente (PI). This state-of-the-art device is a testament to PI's commitment to delivering high-quality, innovative solutions for the scientific community.
The Model 721.07 is a versatile, piezo-electrically actuated nanopositioner designed specifically for demanding precision motion applications in microscopy. It offers an exceptional travel range of 200 m, ensuring versatility in various microscopic study fields.
The heart of this device is its unique piezo-flexure design. This combination delivers a remarkable stiffness-to-weight ratio, ensuring rapid, stable, and highly accurate positioning. The piezo-flexure design also offers a significant advantage in terms of vibration suppression, making it ideal for use in noisy environments or with sensitive instruments.
The Model 721.07 is equipped with a built-in temperature control system, ensuring stable performance even under varying temperature conditions. This feature is crucial in maintaining the high precision required for nanoscale motion.
The device is also characterized by its user-friendly control software, which allows for easy integration with various microscopy systems. The software provides real-time feedback and advanced control features, enabling users to optimize their microscopy setup for maximum performance.
In conclusion, the Piezo-Flexure Nanopositioner (Model 721.07) by Physik Instrumente (PI) is a powerful tool for microscopy applications, offering unparalleled precision, stability, and versatility. Whether you're a researcher studying cellular dynamics, a materials scientist investigating nanostructures, or a microscopy enthusiast, this device is an invaluable addition to your laboratory.
1. High Precision: The P-721.07 offers nanometer-scale positioning accuracy, making it ideal for high-resolution research and industrial applications.
2. Multi-Axis Control: It supports multi-axis motion, enabling complex 3D sample manipulation and scanning.
3. Fast Response: The piezo-flexure design ensures fast response times, reducing waiting periods in repetitive scanning or positioning tasks.
4. Robustness: The device is built for durability, capable of handling heavy loads and performing well under various temperature and humidity conditions.
5. Software Compatibility: The P-721.07 is compatible with various control software packages, allowing for seamless integration with existing systems.
Cons:1. High Cost: The P-721.07 is a high-end nanopositioning system, and its price may be prohibitive for some researchers or institutions with limited budgets.
2. Complexity: The system's advanced functionality can make it challenging for users without extensive experience in microscopy and nanopositioning.
3. Power Consumption: The piezo-flexure design consumes more power compared to other nanopositioning technologies, which may be a concern for battery-powered or mobile applications.
4. Calibration Requirements: Regular calibration is necessary to maintain the system's high precision, which can be time-consuming and require specialized knowledge.
Conclusion:The Piezo-Flexure Nanopositioner Microscopy (P-721.07) by Physik Instrumente (PI) is a high-quality, versatile nanopositioning system suitable for various research and industrial applications. Its precision, multi-axis control, fast response, and robustness make it an excellent choice for researchers and institutions working in fields such as materials science, biology, and nanofabrication.
However, its high cost, complexity, power consumption, and calibration requirements may make it less accessible for beginners or those with limited resources. It is essential to carefully consider these factors and weigh them against the system's benefits before making a purchasing decision.
Recommendation:For researchers and institutions with the necessary resources and expertise, the P-721.07 by PI is a strong recommendation. For those with limited resources, it may be worth considering alternative, less expensive nanopositioning systems that still meet their research or application needs. In all cases, it is essential to evaluate the specific requirements of the project and choose a nanopositioning system accordingly.
The thread for microscope objective is m 25 x. Resolution: sub-nanometer, in open or closed-loop. 75mm and the inner one has m 22 x. In open-loop the nanopositioner needs a positive drive voltage , up to 120 v, from Physik Instrumente pi germany.
The item is an early model, used, but in very good condition. The cable to driver or stabilized power supply ends with a Elmo-type, single-pin, male connector. 5mm unsure for the latter pitch.
Fast piezo nanopositioner and scanner for microscope objectives, type PO. Can be mounted in vertical or horizontal position. Attachment to the microscope turret can be made via one of two threads: outer has m 26 x 0.