Comparison between model-simulated output and measurement results of three-dimensional surface roughness of engineering surface show a good match, supporting the validity of the model.
The present paper deals with a new methodology for predicting surface roughness of engineering surfaces.
Surfaces of engineering parts which are produced by different processes are not completely flat and have different non-homogeneities.
We demonstrate the capabilities of the proposed approach for a number of surfaces of engineering relevance.
Micro-dimple arrays on the surfaces of engineering parts play an important role in the behaviour of these parts.
In this contribution, a thermal treatment process is introduced that can induce solid-state precipitation also on the surfaces of engineering alloys, resulting in patterned surfaces.
The synthesis of Fe TiC metal matrix composite during metal deposition with laser and arc welding techniques is of technical and economic interest for hard surfacing of engineering components.
The surface topography of engineering rough surfaces has an enormous influence on contact mechanics of the interface and further the dynamics of the contact system.
One way of improving the surface properties of engineering material is by reducing the grain size at the surface.
