Sentence examples for technological surfaces from inspiring English sources

These yeasts usually predominate in soft drinks factories and are typically found on technological surfaces in places difficult to clean and disinfect [ 75, 85].

L. mesenteroides and W. confusa are able to produce extracellular polymers composed of fructose or glucose, which are responsible for ropiness in drinks or biofilm formation on technological surfaces [ 78, 96, 97].

As the technological surface area of our world expands, now is the time to take a look at the cyber-borders we are already constructing and stress-test them beyond the nation-state for a changing world.

Surprisingly few technological surface improvements have been implemented to address the problem of contaminated surfaces that exist between terminal cleanings [ 22].

Geometrical analogy as well as physical similarity is to be studied to design technological functional surfaces imitating microstructural and biological functional surface morphologies.

A relevant correlation between technological treatment, surface roughness parameters and wetting measurements clearly emerges, suggesting the plasma/thermoforming treatment as a process for enhancing the hydrophilic/hydrophobic behavior of PS surfaces.

The comparison between analytically calculated and experimentally determined fatigue-life values emphasises the significance of technological effects (surface roughness, residual stresses) on fatigue-life estimation and the usefulness of the Short-Crack-Model for fatigue-resistant design of engineering components.

Definition of correlation existing between the parameters describing surface geometrical structure and technological parameters for surface machining is also enabled.

Methodology developed for designing and investigation of the characteristics of technological and exploitation surface layer aiming to provide conditions under which a surface layer with predictable characteristics of mate surfaces will be generated is described in the paper.

Our present observations implied the possibility to further maximize their wear performances by the surface rearrangements of crystalline texture as the outcome of different technological regimes for surface machining and polishing during the production processes.

Determination of surface topography for dental implants is crucial and possible with the advances of novel technological developments in surface measurement.