Electron microscopy has emerged as the leading method for the in vivo study of biological
structures such as cells, organelles, protein molecules and virus like particles. By providing …

Electron tomography (ET) of biological samples is used to study the organization and the
structure of the whole cell and subcellular complexes in great detail. However, projections …

Electron tomography (ET) of biological samples is used to study the organization and the
structure of the whole cell and subcellular complexes in great detail. However, projections …

Traditionally, in computed tomography practiced in radiology, the resolution of the
reconstruction is expressed in terms of the number of evenly spaced projections required for …

Abstract 3D image reconstruction with electron tomography holds problems due to the
severely limited range of projection angles and low signal to noise ratio of the acquired …

Imaging technologies have played a pivotal role in advancing biological research by
enabling visualization of biological structures and processes. While traditional electron …

In studies of nanoscale materials, electron tomography (ET) can be used to obtain three
dimensional information on the morphology and spatial distribution of nanoparticles …

We propose a method of correction for distance-dependent blurring, which is one of the
limiting factors to achieving higher resolution in 3D reconstructions of biological specimens …

3D electron microscopy aims at the reconstruction of density volumes corresponding to the
electrostatic potential distribution of macromolecules. There are many factors limiting the …

Three-dimensional (3D) characterization of materials at the nano-and meso-scale has
become possible with electron tomography (ET)[1-2]. The typical workflow consists of raw …