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Organoids enhance drug screening methods by mimicking in vivo organs. In this blog, we will discuss the exciting possibilities of 3D electron microscopy ...

By visualizing membrane ultrastructure directly in the cells, researchers can better understand their diversity, dynamics, and role. In this blog post, we ...

Manual segmentation of organelles hampers the use of volume electron microscopy in biological research. In this blog, we will discuss a novel approach to ...

Using electron microscopy (EM), pathologists can visualize ultrastructural details in biological samples. In this blog, we discuss how recent developments in ...

When choosing the most suitable camera for a cryo-fluorescence system to be applied in cryo-electron tomography (cryo-ET), it is important to consider several ...

Traditionally, scanning electron microscopy (SEM) data management has involved data transfer from a microscope to a hard disc and then loading the data to a ...

Cryogenic fluorescence microscopy (cryo-FLM) combined with scanning electron microscopy (SEM) makes the process of lamella milling in the cryo-electron ...

Sample milling is a crucial step in the Cryo-ET workflow. Unfortunately, this step poses yet another occasion for ice contamination to derail efforts to obtain ...

With more than 90 years of development, electron microscopy is now a mature, well-established technique applied in many life science fields, such as pathology, ...

There are more than 150 known musculoskeletal conditions (1), many of which affect specifically skeletal muscles and can lead to lifelong disabilities or even ...

Cryo-EM research helps us understand how the world works on a microscale. Often these insights have a great impact on our lives, for example, the understanding ...

Sample transfer is definitely not the most spectacular part of the cryo-ET workflow. And yet, it is one of the most problematic steps, disturbing many ...