Manage Cookie SettingsIn order to ensure an optimum website experience, this website uses cookies to store data and is so able to deliver content or advertisements to you and can then measure the delivery of such content or advertisements. Different types of cookies are used: Strictly necessary cookies which are necessary for the website to function, analytical cookies which are used for anonymous data storage for analysis, and marketing cookies which are used to display personalized content. You can exercise your right to consent or object to a cookie category. Please be aware that depending on the choices of cookies that you make, the website may not function properly. For further information, see our Privacy Policy.
These cookies are necessary for displaying the website and for certain functions, for example, for the navigation, for request and download lists, or for the Product Finder.
Analytical cookies
These cookies help us in monitoring your usage of the website. Analytical cookies allow the collection of usage data by first-party or third-party providers in pseudonymous usage profiles. For example, we use analytical cookies in order to count the number of visitors to the website or of a service and to analyze the usage of these based on anonymous information, e.g. how users interact with the website. A direct identification of a real person is not possible.
Marketing cookies
These cookies and similar technologies are used to show you personalized advertisements that are relevant to you.
Precise Sample Positioning is Crucial for Conclusive Images
· Markus Wiederspahn· Dr. Thomas Bocher
Lightsheet microscopy (LSFM) is a powerful platform for in vivo imaging offering low phototoxicity and fast image acquisition. The Flamingo project from Professor Dr. Jan Huisken, Research Group Leader and Director of the Medical Engineering Department at Morgridge Institute for Research in Madison, WI, aims to make this technology easily available to researchers.
Whether classical stereo microscopy, fluorescent, widefield or laser scanning microscopy, whether SEM, FIB-SEM, TEM, AFM or correlative microscopy - positioning samples and objectives with subnanometer precision is decisive for the quality of your results with all of these techniques. This fully clickable, new “Nanopositioning for Microscopy” brochure provides a comprehensive overview of objective scanners and sample stages with up to six degrees of motion freedom – illustrated by a variety of today’s microscopy techniques.
The GATTAscope uses the TIRFM process to capture meaningful images thanks to high-precision positioning of the sample with stages and controllers from PI - find out how in this article.
