Hard turning performance assessment of AISI D2 steel under dual nozzle MQL assisted ZrO2 and GO nano-cutting fluids: A sustainability approach

Saswat Khatai, Ashok Kumar Sahoo, Ramanuj Kumar, Amlana Panda
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Abstract

“Green manufacturing” is often referred as a sustainable manufacturing process where ecofriendly cutting fluids are used to achieve social, economic, and environmental goals, which mitigates the soil, air, and water contamination and enhances operator’s health and safety. In this current study, mineral oil based ZrO2 and GO nano-cutting fluids are utilized for the cooling and lubrication purpose during the machining of hardened AISI D2 steel (55 ± 1 HRC). Machinability characteristics such as tool wear, surface roughness, cutting temperature, power consumption, and the span of the tool has been investigated in this study along with the sustainability aspects such as machining cost, carbon, and noise emissions during the machining process. Machining under GO nano-cutting fluid coupled with dual nozzle assisted MQL outperformed other environments such as ZrO2 NFMQL, pure mineral oil MQL and dry conditions in all aspects. The maximum tool life was achieved under GO NFMQL condition as 136.16 min followed by 94.41, 65.52, 20.58 min under ZrO2 NFMQL, pure oil MQL, and dry conditions. A substantial impact has been noticed on the cost savings under GO-NFMQL condition and cost saving have been reduced by 2.07%, 5.19%, and 5.48%, compared to ZrO2-NFMQL, MQL and dry environments respectively. Further, GO NFMQL environment performed better in both machinability and sustainability aspects than other environments as it gets the highest score of 11 in Pugh matrix sustainability assessment approach.
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双喷嘴 MQL 辅助 ZrO2 和 GO 纳米切削液下 AISI D2 钢的硬车削性能评估:可持续性方法
"绿色制造 "通常是指一种可持续的制造工艺,即使用生态友好型切削液来实现社会、经济和环境目标,从而减轻土壤、空气和水污染,提高操作人员的健康和安全。在本研究中,以矿物油为基础的 ZrO2 和 GO 纳米切削液被用于 AISI D2 钢(硬度为 55 ± 1 HRC)加工过程中的冷却和润滑。本研究调查了刀具磨损、表面粗糙度、切削温度、功耗和刀具寿命等加工性能特征,以及加工过程中的加工成本、碳排放和噪音排放等可持续发展方面的问题。在使用 GO 纳米切削液和双喷嘴辅助 MQL 的情况下进行的加工在各方面都优于 ZrO2 NFMQL、纯矿物油 MQL 和干燥条件等其他环境。在 GO NFMQL 条件下,刀具寿命最长达 136.16 分钟,其次是 ZrO2 NFMQL、纯矿物油 MQL 和干燥条件下的 94.41、65.52 和 20.58 分钟。与 ZrO2-NFMQL、MQL 和干燥环境相比,GO-NFMQL 条件下的成本节约效果显著,分别降低了 2.07%、5.19% 和 5.48%。此外,与其他环境相比,GO NFMQL 环境在可加工性和可持续性方面都表现得更好,因为它在 Pugh 矩阵可持续性评估方法中获得了最高的 11 分。
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来源期刊
CiteScore
3.80
自引率
10.00%
发文量
625
审稿时长
4.3 months
期刊介绍: The Journal of Mechanical Engineering Science advances the understanding of both the fundamentals of engineering science and its application to the solution of challenges and problems in engineering.
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