家电科技 ›› 2026, Vol. 0 ›› Issue (5): 104-109.doi: 10.19784/j.cnki.issn1672-0172.2025.05.018

• 论文 • 上一篇    下一篇

基于空调外机小型化电控温升影响因素的优化设计

汪楠1,2   

  1. 1.青岛海尔空调器有限总公司 山东青岛 266101;
    2.数字家庭网络国家工程研究中心 山东青岛 266101
  • 出版日期:2025-10-01 发布日期:2026-02-10
  • 作者简介:汪楠,本科学历。研究方向:结构创新。联系地址:中山市三乡中山海尔暖通设备有限公司。E-mail:wspn123@126.com。

Optimization design based on influencing factors of temperature rise in miniaturized electric control systems of air conditioner outdoor units

WANG Nan1,2   

  1. 1.Qingdao Haier Air Conditioner Gen. Co., Ltd. Qingdao 266101;
    2.National Engineering Research Center of Digital Home Networking Qingdao 266101
  • Online:2025-10-01 Published:2026-02-10

摘要: 空调产品致力于实现外机小型化时,电控系统的安装布局空间大幅缩减,内部电子元件的分布密度显著增大。这种空间上的约束,导致热量大量积聚,散热难度呈指数级上升,从而引发了电控系统的温升问题。为有效解决这一难题,围绕散热零部件展开研究,运用伯努利原理,对风道直径、流速等参数进行精细化设计,实现对流体压力和流量的精准调控。通过CFD仿真建立包含120万个网格的三维模型,结合搭建的恒温环境测试系统,对新型双风道散热结构进行多维度验证。实验数据表明,优化方案使IPM模块温升降低5.1%,散热效率提升18.6%,较传统方案及文献报道的同类技术均呈现显著优势。研究成果为空调外机小型化设计提供了可量化的技术参考。

关键词: 空调, 散热, 温升

Abstract: When air conditioning products are committed to achieving miniaturization of outdoor units, the installation and layout space of the electronic control system is drastically reduced, and the distribution density of internal electronic components significantly increases. Such spatial constraints lead to massive heat accumulation, causing the difficulty of heat dissipation to rise exponentially, which in turn triggers the temperature rise problem of the electronic control system.To effectively address this challenge, research was conducted focusing on heat dissipation components. By applying Bernoulli's principle, parameters such as air duct diameter and flow velocity were meticulously designed to achieve precise regulation of fluid pressure and flow rate. establishing a three-dimensional model with 120,000 grids through CFD simulation, combined with a built constant temperature environment testing system, to conduct multi-dimensional verification of the new dual-duct heat dissipation structure. Experimental data show that the optimized scheme reduces the temperature rise of the IPM module by 5.1% and improves the heat dissipation efficiency by 18.6%, showing significant advantages compared with traditional schemes and similar technologies reported in the literature. The research results provide quantifiable technical references for the miniaturization design of air conditioner outdoor units.

Key words: Air conditioner, Heat dissipation, Temperature rise

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