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Energy Efficiency Analysis of Vapor Phase Soldering Technology through Exergy-based Metric

机译:基于Adergy的公制汽相焊接技术能效分析

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In electronics production, the condensation based soldering technologies are known for reproducible solder profiles and efficient heat transfer methodology. The recent advancements in lead-free soldering and requirements for absolute void-free interconnections to increase the reliability and lifetime of the product needs optimization of the soldering process. The vacuum assisted vapor phase soldering process addresses the requirements with respect to mass production and parallelly resource efficient production which is also the motivation for the present work. This study is devoted to quantify the resource consumption and qualify this consumption through exergy flows in a vacuum vapor phase reflow soldering technology in electronics manufacturing. The analysis implies on the saving potential for energy consumption specifically during the vacuum process which also defines the void reduction quality of solder joints. Exergy efficiency analysis of a temperature profile depicts the influence of the materials used in the demonstrator. Shortening the production lead-time, and increasing the production rate increase the efficiency of exergy and prevents wastage of usable energy. Furthermore, the set-up improvements for the temperature profiles processes are necessary, and the changes toward developing new, transformational technologies in pre-heating and vacuum zones are mandatory if a high efficiency of resources used is aimed.
机译:在电子生产中,已知基于冷凝的焊接技术用于可再现的焊料曲线和有效的传热方法。最近的无铅焊接和无禁用互连要求的进步,以提高产品的可靠性和寿命需要优化焊接过程。真空辅助气相焊接工艺解决了批量生产和平行资源高效生产的要求,这也是目前工作的动机。本研究致力于量化资源消耗,并通过电子制造中的真空气相回流焊接技术中的电流流动限定这种消耗。分析暗示在真空过程中专门的能量消耗的节省潜力,该方法还限定了焊点的空隙降低质量。温度曲线的高度效率分析描述了演示器中使用的材料的影响。缩短生产汇流时间,增加生产率提高了漏洞的效率,防止了可用能量的浪费。此外,如果使用的高效率是针对的,需要对预热和真空区域进行预热和真空区中开发新的变革技术的改变,并且如果使用的高效率是针对的。

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