注射成型冷却通道翅片树的优化配置

Nadhrah Mohd Jamaludin, A. Rani
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引用次数: 1

摘要

注射成型过程中的工艺周期时间在很大程度上取决于塑件的冷却时间,注塑模具中的冷却通道为冷却提供了便利。模具内有效的冷却通道设计是重要的,因为它不仅影响循环时间,而且影响零件质量。传统的冷却通道通常是由模具上的直孔制成的,这在几何复杂性和冷却流体在注射模具内的流动性方面都有限制。多年来,保形冷却技术作为传统冷却的有效替代方案被引入。快速成型(RT)的许多过程已被证明有助于设计保形冷却通道,以缩短注塑过程的冷却时间。然而,利用三维打印机(3DP)的增材制造技术,将注塑模具扩展到注塑过程冷却通道中翅片树的最佳配置的研究尚未发表。在某一点上,翅片树的冷却效率将接近一个渐近极限。进一步改进的尝试不会带来与所需努力相称的好处。通过实验和数值方法的结合,确定这一最优解是所选研究问题的最终目标。利用商用计算机辅助设计软件Solid Work进行模具设计,利用ANSYS热分析软件对模具内共形冷却通道进行零件冷却时间优化。
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Optimum configuration of fin trees in cooling channels of injection moulding process
The process cycle time in injection moulding process depends significantly on the cooling time of the plastic part, which is facilitated by the cooling channels in the injection mould. Effective cooling channel design in the mould is important because it not only affects cycle time but also the part quality. Conventional cooling channels are normally made of straight drilled holes in the mould, which have limitations in geometric complexity as well as cooling fluid mobility within the injection n mould. Over the years, conformal cooling techniques are being introduced as effective alternative to conventional cooling. Many process of Rapid Tooling (RT) have been proven useful for designing the conformal cooling channels to enhance the cooling time for injection moulding process. Nevertheless, no studies had been published where the additive fabrication technique of three-dimensional printer (3DP), has been used to make an injection molding tools extended to the optimum configuration of fin trees in cooling channels of injection molding process. At one point, the cooling effectiveness of the fin tree would approach an asymptotic limit. Further attempts at improvement would not give benefits commensurate with the required effort. To identify this optimum solution is the ultimate objective of the chosen research problem by combining both experimental and numerical approaches. Design of mould was carried out using commercial computer aided design software Solid Work while the part cooling time is optimized by conformal cooling channels in the mould using the ANSYS thermal analysis software.
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