Visualization by transmission electron microscopy revealed normal capsid morphology among all L2 mutant virions (Fig. 2A) and dot blot analysis showed no decrease in genome encapsidation for any of the mutants (data not shown).
Quantitative light transmission visualization was used to assess gas production and transport mechanisms.
Five locally-calibrated light transmission visualization (LTV) methods were tested to quantify nonaqueous phase liquid (NAPL) mass and mass reduction in porous media.
Light transmission visualization (LTV) has shown its accuracy and efficiency for measuring DNAPLs saturation and water content in the laboratory, but it cannot be implemented in three dimensional sandbox or field-scale sites.
In this research, a light transmission visualization (LTV) method was used to quantify dense non-aqueous phase liquids (DNAPL) saturation in two-dimensional (2-D), two fluid phase systems.
A pressure of 100 cm H2O was determined (from visualization of dye transmission) to seal the cuff so that no leakage occurred for 144 hours (no dye was present in the lower compartment).
But the concentrations used to ensure such visualization blocked neuromuscular transmission, and the affinity of α-BTX for its receptor, were such that dissociation would take several days after its administration in vivo 60– 62 and meanwhile, such binding may also destabilize AChR and provoke internalization of the BTX-bound complexes.
Transmission and visualization of large geographical maps have become a challenging research issue in GIS applications.
Visualization of gels by transmission electron microscopy and light microscopy revealed networks of long collagen fibers at lower concentrations along with shorter fibers at high concentrations.
Using visualization by a light transmission technique, we observe that the solute behaviour is much smoother and more regular after the fractures are filled with glass powder, which plays the role of a homogeneous fault gouge material.
