摘要
基于CFD数值模拟软件Solidworks Flow Simulation,采用流固耦合传热分析方法对吹塑浮子模具冷却水路进行数值模拟,解决了模具冷却系统结构设计问题。结合响应面优化方法,分析了冷却水入口温度、冷却水入口速度、水路直径3个参数对浮子温度的影响规律,以浮子脱模时的温度最小为目标,得到了最佳的冷却系统参数组合。结果表明:当冷却水入口温度为13℃,冷却水入口速度为2m/s,水路直径为0.012m时,浮子脱模时的最大温度为41.19℃,与原始方案相比,温度降低了30.6%,内表面最大温度为37.12℃,比原始方案降低了28.9%。经生产验证,使用该冷却系统参数可以提高生产效率,缩短了产品成型周期与模具开发周期.
The design problem with the cooling system of the extrusion blow molding float mould was solved by using the fluid-solid coupled heat transfer analysis method based on CFD software - Solidworks Flow Simulation. The relationships between three parameters including inlet temperature, inlet speed of cooling water, diameter of waterway and float outtemperature were simulated. Combined with response surface analysis method , target with minimum float out-temperature, the best combination of cooling system parameters was achieved. The result showed that when the inlet temperature was 13 %, the inlet velocity was 2 m/s and the diameter of the waterway was 0. 012 m , the out-temperature of the float was 41.19 t , which was 30. 6% lower than the original temperature, and the maximum internal surface temperature was 37. 12 ℃, which was 28. 9% lower than the original temperature. The actual production showed that the combination of parameter could increase the production efficiency and shorten the molding cycle.
作者
高冲
刘淑梅
谢硕
廖秋慧
陈杰
GAO Chong;LIU Shumei;XIE Shuo;LIAO Qiuhui;CHEN jie(School of Material Engineering, Shanghai University of Engineering Science, Shanghai 201620,China;Shang Hai Longda Plastic Technology INC.,Shanghai 201605,China)
出处
《塑料》
CAS
CSCD
北大核心
2019年第2期94-97,共4页
Plastics
基金
上海工程技术大学研究生科研创新项目(17KY0505)
产学研合作项目((17)CL-007)
