Efficiency Research of Conformal Channel Geometries Produced by Additive Manufacturing in Plastic Injection Mold Cores (Inserts) Used in Automotive Industry.
Cemal İrfan Çalışkan, Gökhan Özer, Ebubekir Koç, Umur Sezer Sarıtaş, Coşkun Fırat Yıldız, Övgü Yağız Çiçek
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引用次数: 0
Abstract
In the production of geometries that traditional methods cannot produce, it is seen that additive manufacturing (AM) technology, which has come to the fore, has been used extensively in conformal cooling channel (CCC) applications in recent years. This study, conducted within the scope of CCC's use of applied mold cores in automotive industry plastic part production, aimed to reduce the cycle time in the injection printing process. The v1 geometry, which gives the analysis results for ideal printing quality from the channel geometries developed with three different design approaches, is produced with direct metal laser sintering, which is an AM laser sintering technology, and the injection printing cycle time has been reduced by 38%. CCC applied the study's primary motivation to develop duct geometry to provide balanced cooling in the automotive industry's mold cores produced with AM. It is known that the Computer Numerical Control machining process in traditional mold methods does not allow the processing of the channels in the internal geometries, and the deep areas where the heat is concentrated cannot be cooled sufficiently. In the study, CCC geometries where AM design parameters are used effectively and the balanced cooling performance expected from the die core can be achieved. The effects of different geometries on production are discussed.
在生产传统方法无法生产的几何形状时,我们可以看到,近年来脱颖而出的增材制造(AM)技术在保形冷却通道(CCC)应用中得到了广泛应用。本研究是在汽车行业塑料零件生产中使用 CCC 应用模芯的范围内进行的,旨在缩短注塑打印过程的周期时间。采用直接金属激光烧结技术(一种 AM 激光烧结技术)生产的 v1 几何图形给出了通过三种不同设计方法开发的通道几何图形的理想印刷质量分析结果,并将注塑印刷周期时间缩短了 38%。CCC 将这项研究的主要动机应用于开发管道几何形状,为汽车行业采用 AM 技术生产的模芯提供平衡冷却。众所周知,传统模具方法中的计算机数控加工工艺无法加工内部几何形状中的通道,热量集中的深层区域无法得到充分冷却。在这项研究中,有效利用 AM 设计参数的 CCC 几何形状可以达到模芯预期的平衡冷却性能。讨论了不同几何形状对生产的影响。
期刊介绍:
3D Printing and Additive Manufacturing is a peer-reviewed journal that provides a forum for world-class research in additive manufacturing and related technologies. The Journal explores emerging challenges and opportunities ranging from new developments of processes and materials, to new simulation and design tools, and informative applications and case studies. Novel applications in new areas, such as medicine, education, bio-printing, food printing, art and architecture, are also encouraged.
The Journal addresses the important questions surrounding this powerful and growing field, including issues in policy and law, intellectual property, data standards, safety and liability, environmental impact, social, economic, and humanitarian implications, and emerging business models at the industrial and consumer scales.