Biowissenschaften

Biowissenschaften

Biowissenschaften

Hier können Sie Ihr Wissen, Ihre Forschungsfähigkeiten und Ihre praktischen Anwendungen der Mikroskopie in verschiedenen wissenschaftlichen Bereichen erweitern. Erfahren Sie, wie Sie präzise Visualisierung, Bildinterpretation und Forschungsfortschritte erzielen können. Hier finden Sie aufschlussreiche Informationen über fortgeschrittene Mikroskopie, Bildgebungsverfahren, Probenvorbereitung und Bildanalyse. Zu den behandelten Themen gehören Zellbiologie, Neurowissenschaften und Krebsforschung mit Schwerpunkt auf modernsten Anwendungen und Innovationen.

Confocal Imaging of Immune Cells in Tissue Samples

In this webinar, you will discover how to perform 10-color acquisition using a confocal microscope. The challenges of imaged-based approaches to identify skin immune cells. A new pipeline to assess…
Combining spectrally resolved detection and fluorescence lifetime multiplexing

Live-Cell Fluorescence Lifetime Multiplexing Using Organic Fluorophores

On-demand video: Imaging more subcellular targets by using fluorescence lifetime multiplexing combined with spectrally resolved detection.

Insights into Vesicle Trafficking

STELLARIS provides integral access to complementary layers of information for dynamic, structural, and mechanistic insights into vesicle trafficking.
Living HeLa cells stained with WGA-488 (yellow), SPY-Actin (cyan), and SiR-Tubulin (magenta). Instant Computational Clearing (ICC) was applied.

How to Perform Dynamic Multicolor Time-Lapse Imaging

Live-cell imaging sheds light on diverse cellular events. As many of these events have fast dynamics, the microscope imaging system must be fast enough to record every detail. One major advantage of…
Spectral separation of 11 fluorophores coupled to polystyrene beads on a STELLARIS confocal system.

Multiplexing through Spectral Separation of 11 Colors

Fluorescence microscopy is a fundamental tool for life science research that has evolved and matured together with the development of multicolor labeling strategies in cells tissues and model…
Projection of a confocal z-stack. Sum159 cells, human breast cancer cells kindly provided by Ievgeniia Zagoriy, Mahamid Group, EMBL Heidelberg, Germany. Blue–Hoechst - indicates nuclei, Green–MitoTracker mitochondria, and red–Bodipy - lipid droplets

New Imaging Tools for Cryo-Light Microscopy

New cryo-light microscopy techniques like LIGHTNING and TauSense fluorescence lifetime-based tools reveal structures for cryo-electron microscopy.
Transverse histological cut of a rabbit tongue. 50 Mpixels images (2326 µm x 1739 µm) in 14 x 18 tiles. Lifetime gives an additional contrast that allows to differentiate different structures in histological stainings.

Leitfaden zur Fluoreszenzlebensdauer-Imaging-Mikroskopie (FLIM)

Die Fluoreszenzlebensdauer ist ein Maß dafür, wie lange ein Fluorophor im Durchschnitt in seinem angeregten Zustand verbleibt, bevor er durch Aussendung eines Fluoreszenzphotons in den Grundzustand…
Untreated Hela Kyoto cells stained to show the nucleus (Hoechst, blue), the cis-golgi matrix protein GM130 (AF488, green), and the trans-golgi network membrane protein TGN46 (AF647, red).

Golgi Organizational Changes in Response to Cell Stress

In this video on demand, our special guest George Galea from EMBL Heidelberg will look at HeLa Kyoto cells treated with various chemotherapeutic agents to investigate their effect on the Golgi complex…
Image of a single slice taken from a zebrafish heart showing the ventricle with an injury in the lower area. Nuclei of all cells are indicated with blue, nuclei of the cardiomyocyte heart muscle cells with green, and the proliferating cells with red. Courtesy of Laura Peces-Barba Castaño, Max Planck Institute for Heart and Lung Research, Germany.

Imaging of Cardiac Tissue Regeneration in Zebrafish

Learn how to image cardiac tissue regeneration in zebrafish focusing on cell proliferation and response during recovery with Laura Peces-Barba Castaño from the Max Planck Institute.
Scroll to top