The method combines the advantages of both observing the dynamic processes of the sample surface and monitoring the frictional properties on the nanometer scale.
These results show that the method can be used not only for the observation of the dynamic processes of the sample surface but also for real-time monitoring differences in frictional properties of the surface with nanometer-scale resolution.
To explore the growth process of the samples, a series of experiments had been done.
It is used to demonstrate the formation process of the samples.
Continuous wave CO2 laser is used in the cutting process of the samples.
Furthermore, the degradation process of the samples was dominated by uniform and stress corrosion.
Damage process of the samples is analyzed from cross-examining load deflection curves and damaged specimens.
The process of the samples reduction leads to the formation of flat Cu0 particles over the surface of zinc oxide.
Low percolation transition was observed due to improved interaction between different carbon fillers as a result of a modified process of the samples manufacture.
The kinetic parameters for the isothermal melt-crystallization process of the samples were determined with the Avrami and Lauritzen Hoffman models.
