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Optimization of photochemical machining process parameters for manufacturing microfluidic channel

机译:微流体通道的光化加工工艺参数优化

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In the present study, the investigation on photochemical machining (PCM) of stainless steel (SS-304) by ferric chloride as etchant is reported. SS-304 is machined by PCM process to obtain accurate dimensions and better geometrical features. Weighted grey relational analysis (WGRA) technique is used in optimization of PCM process parameters. DoE (L-27) orthogonal array is applied to evaluate machining parameters, such as concentration of etchant, etching time, and temperature of etchant. The multiobjective optimization technique is used to optimize material removal rate (MRR), surface roughness (R-a), undercut (U-c) and etch factor (EF). Weighted grey relational grade is calculated to minimize U-c and surface roughness and to maximize MRR and EF. The quality characteristics MRR, EF, U-c, and R-a are reporting the improvement after the confirmatory test. The optimum machining parameters are processed to manufacture the microfluidic channel used in biomedical applications. The microfluidic channels and its assembly with Y-type for mixing of fluid with a size of 100 mu m, 200 mu m, and 300 mu m are developed and investigated.
机译:在本研究中,报道了通过氯化铁作为蚀刻剂的不锈钢(SS-304)的光化学加工(PCM)的研究。 SS-304由PCM过程加工,以获得精确的尺寸和更好的几何特征。加权灰色关系分析(WGRA)技术用于优化PCM工艺参数。应用DOE(L-27)正交阵列来评估加工参数,例如蚀刻剂的浓度,蚀刻时间和蚀刻剂的温度。多目标优化技术用于优化材料去除率(MRR),表面粗糙度(R-A),底切(U-C)和蚀刻因子(EF)。计算加权灰色关系等级以最小化U-C和表面粗糙度,并最大化MRR和EF。质量特征MRR,EF,U-C和R-A正在报告确认测试后的改善。处理最佳加工参数以制造生物医学应用中使用的微流体通道。为y型进行微流体通道及其组件,用于混合尺寸为100μm,200μm和300μm的流体。

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