Study, analysis, and characterization of ultra-precision diamond tools for single-point diamond turning

RamaGopal V. Sarepaka, Sivasakthi Balan, Somaiah Doodala, R. Panwar, D. R. Kotaria
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引用次数: 1

Abstract

In multiple applications of advanced instrumentation, single-point diamond turning (SPDT) is a popular and effective process to generate novel surfaces with nanometric surface roughness and sub-micron surface irregularities, albeit at a high cost. In SPDT, precision diamond tooling contributes significantly to the process cost escalation. Hence, for SPDT, it is vital to have an optimal precision diamond tool deployment. In this article, details of comprehensive precision diamond tool selection and tool characterization are discussed. Three makes of selected ultra-precision diamond (UPD) tools and standard diamond tools (of a global make), designated as CFT, are considered for this study. In this tool bench-marking exercise, the fabrication of Cu–Be alloy predesigned precision components (PDPCs) of a critical geometry is selected. UPD and CFT tools are deployed to fabricate (under similar machining-metrology conditions) the PDPCs. These diamond tools are evaluated in terms of the quality parameters (variation in radius of curvature, form error, and surface roughness) of the workpieces. Further, to explore the progressive wear of these tools, multiple machining cycles are conducted on these workpieces, and their quality parameters are analyzed. Thus, the precision diamond tools of three makes are benchmarked against the CFT tool. Based on the final outcome of this analysis, suitable recommendations are provided to precision diamond tool manufacturers to improve their product in terms of performance and optimized costs to meet the ever-growing tooling demands of the SPDT community.
单点金刚石车削超精密金刚石刀具的研究、分析与表征
在先进仪器的多种应用中,单点金刚石车削(SPDT)是一种流行且有效的工艺,可以产生具有纳米级表面粗糙度和亚微米级表面不规则性的新表面,尽管成本很高。在SPDT中,精密金刚石工具对工艺成本的上升有很大的贡献。因此,对于SPDT来说,拥有最佳精度的金刚石工具部署至关重要。本文详细讨论了综合精密金刚石刀具的选择和刀具特性。本研究考虑了三种选定的超精密金刚石(UPD)工具和标准金刚石工具(全球制造),称为CFT。在这个工具基准测试练习中,选择了临界几何形状的Cu-Be合金预先设计的精密部件(pdpc)的制造。UPD和CFT工具被用于制造pdpc(在类似的加工计量条件下)。这些金刚石工具是根据工件的质量参数(曲率半径的变化、形状误差和表面粗糙度)来评估的。进一步,为了探究这些刀具的渐进磨损,对这些工件进行了多次加工循环,并对其质量参数进行了分析。因此,三个品牌的精密金刚石工具以CFT工具为基准。根据分析的最终结果,为精密金刚石工具制造商提供了合适的建议,以提高其产品的性能和优化成本,以满足SPDT社区不断增长的工具需求。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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