Used SVS MSX-1000 #293640832 for sale

SVS MSX-1000 is a photoresist equipment designed for advanced scanning electron microscopy imaging applications. The system utilizes a direct photoresist coating process, providing users with the flexibility to image samples with either organic or inorganic resist layers. The unit features an electron beam energy range of 1 to 30 keV and a maximum resolution of 10 nm, making it well-suited for a variety of imaging tasks. SVS MSX 1000 has a large field of view of 55 mm, allowing for detailed imaging of large samples. The machine is further equipped with advanced sample scanning capabilities such as tilted and warped images, as well as pattern recognition, making it easy to detect subtle morphological details in samples. MSX-1000 features a highly sensitive secondary electron detector that is capable of detecting signals even at low power electron levels, allowing it to achieve a high signal to noise ratio in its imaging results. The photoresist tool also features a high-precision, low-noise xyz stage that is capable of precisely controlling the sample scan parameters, ranging from the field of view size to the dwell time and beam current. This allows users to easily adjust the control parameters to better optimize their imaging results. Moreover, the stage is also equipped with a dynamic focusing asset, allowing users to maintain an excellent image resolution and contrast even at low magnification levels. Furthermore, MSX 1000 has a sophisticated user interface that makes the model easy to operate. The machine's control equipment is designed to provide users with an intuitive interface, along with a range of preset parameters to simplify the process of setting up imaging and photoresist procedures. What's more, the system features a host of data analysis and image processing tools, such as 3D reconstruction, making it easier to interpret the results of imaging processes. All of these features make SVS MSX-1000 a reliable and efficient solution for advanced electron microscopy imaging tasks.