Results show that the surface shape of a slider can be designed to meet the load demands under different specified operation conditions accurately by using the present optimization method.
This study discusses the effect on kinetic friction of the number of surface grooves present on the contact surface of a rubber slider.
In order to achieve a friction force which exhibits a rather large, 2-fold, anisotropy, the table is covered with a sheet of corrugated cardboard (wavelength 3.5 mm, amplitude 1 mm) whereas the lower surface of the slider is covered with a disk of lightweight felt (thickness about 1 mm).
To do so, both the lower surface of the slider and the top surface of the table are covered with a Bristol board.
At one end, in order to ensure that it does not exert any significant torque, the thread makes a loose loop around a lug located at the center M of the top surface of the slider.
These results indicate that a compact coating of FAS can be formed, even on the slider surface of a carbon film with few hydroxyl groups, by treating the surface with FAS solution or FASI solution.
It has been shown that certain patterns of surface waviness on a counter surface, in conjunction with speed and stiffness of a slider can create vibrations that reduce slider wear.
On the surface of the slider we added slight reliefs (like the one on the yellow fret button) to the middle slider fret and the top and bottom slider frets.
Effects of texture, in the form of dimples covering the whole surface of pivoted sliders, are compared with those generated by macro-modification of the bearing width.
In this study, thin amorphous carbon film applied onto a head slider surface of hard disk drive (HDD) carried out high speed sliding contact with a single asperity defect and a bulk surface of a rotating magnetic disk.
