Luscus can visualise structures and chemical properties, which include more than one set of Cartesian coordinates, such as trajectories, reaction coordinates and other dynamical properties.
Analytical tools, such as atomic force microscopy (AFM), scanning tunneling microscopy (STM) and near-field scanning optical microscopy, have provided revolutionary improvements in our ability to visualise structures and events all the way down to the molecular and atomic scale.
A method of visualising the structure of the steel pipe with finite element software (COMSOL Multiphysics 4.2) is also presented in this paper.
This method is capable of visualising different structures within a complex data set.
Secondly, it is necessary to visualise the structure using software that may not be intuitive to a non structural-biologist. Thirdly, the interpretation of the structure is dependent not only on an understanding of the biology and function of the protein, but also the structure itself.
With ongoing developments in micro-CT and MRI preclinical scanners, imaging of bone and cartilage structures can be achieved down to the micro-structural level, effectively visualising trabecular bone structure and cartilage composition.
Population pyramids are a useful way to visualise the structure of a country by comparing relative numbers of people in different age groups.
Conventional techniques to visualise microvascular structure often involve fixed tissue slices that provide two-dimensional images.
fMRI can visualise the structure, function and metabolism of the intact and living brain, although it does not have direct access to the inside of the skull.
Hence, we established a streamlined confocal microscopy-based methodology for CHO production cells investigating the distribution of the recombinant protein within the respective organelles of the secretory pathway and visualised the structure of the endoplasmic reticulum (ER) to be affected pinpointing towards an intra-ER bottleneck putatively hampering or limiting efficient secretion.
