Sentence examples for volume electron microscopy from inspiring English sources

The prospects for volume electron microscopy are therefore bright, and the stage is set for a challenging and exciting future.

Volume electron microscopy technique can study cellular ultrastructure in three dimensions (3D), which provides more information compared to the 2D projection or single slice.

These changes are rapidly broadening the scope of biomedical studies to which volume electron microscopy techniques can be applied beyond the brain.

The recent introduction of integrated light and electron microscopy systems will revolutionise correlative light and volume electron microscopy studies, by enabling the sequential collection of data from light and electron imaging modalities without intermediate specimen manipulation.

Groundbreaking advances in volume electron microscopy and specimen preparation are enabling the 3-dimensional visualisation of specimens with unprecedented detail, and driving a gratifying resurgence of interest in the ultrastructural examination of cellular systems.

Specifically, we compare diffusion model predictions of neurite density in rats to optical myelin staining intensity and stereological estimation of neurite volume fraction using electron microscopy.

The method is based on the easiest morphometric determination of relative surface (surface density) and volume (volume density) data by electron microscopy.

The catalysts were characterized by several techniques including X-ray powder diffraction, specific surface area and pore volume measurements, transmission electron microscopy and X-ray photoelectron spectroscopy (XPS).

This paper describes the design and implementation of a Web-based deposition system, EMDep, for macro-molecular volumes determined by electron microscopy and deposited at the European Bioinformatics Institute (EBI) for inclusion in the Electron Microscopy Data Base (EMDB).

It tends to be 2-3 times larger than volumes reported by electron microscopy.

DAS was originally designed to share annotations of genomes (Dowell et al., 2001), but its usefulness has led to extension to other fields such as protein sequences (Jones et al., 2005), protein structures (Prlic et al., 2005) and even 3D volumes obtained from electron microscopy with fitted structures (Macías et al., 2007).