Influence of the Agitation Pipe on the Flow Field of Electroplating Tank in the Electroplated Diamond Wire Saw
At a Glance
Section titled āAt a Glanceā| Metadata | Details |
|---|---|
| Publication Date | 2021-11-01 |
| Journal | Journal of Physics Conference Series |
| Authors | Derong Duan, Peiqi Ge, Zhigang Gong, Fuli Huang, Guangzhou Cao |
| Institutions | University of Jinan, Shandong University |
Abstract
Section titled āAbstractāAbstract In order to solve the problem of diamonds sedimentation in electroplating tank and uneven distribution of diamonds in coatings, the fluid flow in the electroplating tank formed by three structure kinds of agitation pipe was compared and analysed. Results showed that the middle inlet type agitation pipe can significantly improve the fluid uniformity in the electroplating tank, and setting sand blasting ports at both ends of the agitation pipe can avoid the formation of fluid ādead zoneā. Along the direction of the agitation pipe, the middle inlet type agitation pipe improves the overall flow of the fluid. In the position of the wire saw passing through, the difference of the speed in the electroplating tank of the middle inlet type is 47.17% and 15.25%, which is significantly lower than that of the water inlet structure of one end by 134.48%. As a result, it can significantly improve the plating effect of the wire saw.
Tech Support
Section titled āTech SupportāOriginal Source
Section titled āOriginal SourceāReferences
Section titled āReferencesā- 2017 - Effect of the weight of nickel coated on diamond surface on performance of electroplated diamond wire saw
- 2020 - Simulational and experimental studies on flow rates at the blow holes of bath agitation pipe during composite electroplating for manufacturing of diamond wire saws
- 2017 - Research status of preparation and application of electroplated diamond wire saw
- 2019 - Experimental analysis on sawing performance of sand-suspension-electroplated wire saw
- 2016 - Numerical investigation on the heat transfer enhancement mechanism of planar elastic tube bundle by flow-induced vibration