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Development of a Grinding Fluid Delivery Technique and Its Performance Evaluation

机译:磨削液输送技术的发展及其性能评估

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In grinding process, a stiff air layer is generated around the wheel due to rotation of porous grinding wheel at high speed. This stiff air layer restricts fluid to reach deep inside the grinding zone. Conventional method of fluid delivery system is not capable of penetrating this stiff air layer, and thus cannot control grinding temperature and thermal defects effectively. In this work, formation of stiff air layer has been studied experimentally by measuring the variation of air pressure around grinding wheel periphery at different conditions. A pneumatic barrier setup has been developed first time for restricting the stiff air layer around grinding wheel. It is found from analysis of variance (ANOVA) that both pneumatic barrier position and orientation have significant effects on suppressing air layer pressure around the grinding wheel. Using the pneumatic barrier, reduction of air pressure up to 53% has been observed experimentally. Hence, it reduces wastage of grinding fluid, leading to less environmental problem. Surface grinding experiments using the pneumatic barrier setup shows remarkable reduction in forces and surface roughness over flood cooling conditions expectedly due to better penetration of fluid in the grinding zone, showing its applicability.View full textDownload full textKeywordsANOVA, Grinding fluid, Grinding force, Pneumatic barrier, Surface grinding, Surface roughnessRelated var addthis_config = { ui_cobrand: "Taylor & Francis Online", services_compact: "citeulike,netvibes,twitter,technorati,delicious,linkedin,facebook,stumbleupon,digg,google,more", pubid: "ra-4dff56cd6bb1830b" }; Add to shortlist Link Permalink http://dx.doi.org/10.1080/10426914.2011.585487
机译:在研磨过程中,由于多孔砂轮的高速旋转,在砂轮周围产生了坚硬的空气层。这种坚硬的空气层限制了流体深入研磨区域内部。流体输送系统的常规方法不能穿透该坚硬的空气层,因此不能有效地控制研磨温度和热缺陷。在这项工作中,通过测量不同条件下砂轮周围的气压变化,对硬质空气层的形成进行了实验研究。首次开发了一种气动屏障装置,用于限制砂轮周围的坚硬空气层。从方差分析(ANOVA)中可以发现,气动挡板的位置和方向都对抑制砂轮周围的空气层压力有重要影响。使用气动屏障,实验观察到空气压力降低了53%。因此,它减少了研磨液的浪费,从而减少了环境问题。使用气动屏障装置进行的表面研磨实验表明,由于流体在研磨区中的更好渗透,预期在洪水冷却条件下力和表面粗糙度会显着降低,这表明了其适用性。查看全文下载全文关键词ANOVA,研磨液,研磨力,气动屏障,表面研磨,表面粗糙度相关变量var addthis_config = {ui_cobrand:“泰勒和弗朗西斯在线”,servicescompact:“ citeulike,netvibes,twitter,technorati,delicious,linkedin,facebook,stumbleupon,digg,google,更多”,发布:“ ra 4dff56cd6bb1830b“};添加到候选列表链接永久链接http://dx.doi.org/10.1080/10426914.2011.585487

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