A clear correlation between burr height, critical depth of cut and crystallographic orientation was found on single crystal materials (copper and magnesium fluoride), giving insight into optimal orientations and process parameters for acceptable micromachining process outcome.
Although the 2D CT method for tunnel enlargement evaluation is commonly used, its limitations regarding alignment between CT plane cuts and limb/tunnel orientation have been previously described [[17]].
The works reveal the effects of various parameters, such as cutting speed, depth of cut, width of cut, crystal orientation, and rake angle, on chip formation and cutting force development.
Semi-thin sections (0.5 µm) were cut to evaluate quality and orientation.
In the present work, a mathematical model has been developed to predict the tool wear on the machining of GFRP composites using regression analysis and analysis of variance (ANOVA) in order to study the main and interaction effects of machining parameters, viz., cutting speed, feed rate, depth of cut and work piece fibre orientation angle.
The brains of animals from cohorts 1 and 2 were embedded, cut and analysed in sagittal orientation, whereas those from cohort 3 were embedded, cut and analysed in the coronal orientation.
The upshot of present work shows a substantial impact of fiber volume fraction, fiber arrangement and, corner radius and orientation of cut-out, on values of stress concentration factor for various in-plane loading conditions.
This study concentrated on the investigation of two effects, surface finish and orientation of the cuts.
Serial sections were cut and mounted in a similar orientation on serial Frosted Plus slides to enable identification of inclusion-containing cells and to visualize immunohistochemical results.
The factors considered are cutting speed, fibre orientation angle, depth of cut and feed rate.
