Comprehensive improvement of strip shape and surface quality could also be realized by optimizing the rolling force, strip elongation rate, and tension [66].
In addition, the surface cleanliness and shape of the strip were improved by optimizing the flux, concentration, and temperature of the emulsion [67].
The steel-sticking phenomenon caused by the bad shape of the strip head was avoided by optimizing the roll-bending force [63].
18 The improved sensitivity and reproducibility of the second-generation assay was enabled by lyophilization and stabilization of the well-characterized JC virus like particle (VLP) to microwell strips and by optimizing the coating concentration, surface chemistry, and conjugate dilution.
Yang, et al. [57, 58], achieved comprehensive control of strip shape, crown, and edge drop by optimizing the configuration of the work and back-up roll profiles.
The shape quality, mechanical properties, and surface roughness of a strip rolled by a cold rolling mill were guaranteed by optimizing the rolling force and tension [65].
This problem was solved by optimizing the synthesis of ZnO.
These parameters have been estimated by optimizing the prediction process.
Kraemer and Bagley [ 20] published details of a study in which they optimized the stripping rate with respect to H2 yield and productivity.
Improving strip shape through optimizing the rolling process is a traditional technical method.
