Research on Furnace Temperature Curve Control Based on Genetic Algorithm

Yingchao Hai
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Abstract

: Electronics are widely used in everyday life, and in the production of electronic products various electronic components need to be soldered to printed circuit boards. With the miniaturization of electronic components, traditional soldering methods cannot be completed. Reflow soldering technology can be used to complete the printing of tiny electronic components, and in this process, it is critical to the quality of the product to maintain the proper process temperature for each part of the reflow soldering. In this paper, how to achieve temperature control in this process is studied and solved by establishing a mathematical model about differential equations. First, by analyzing the heat transfer of air in the reflow oven, it is found that the air in the oven satisfies the heat transfer equation. Secondly, the temperature of the small temperature zone in the base data is used to obtain the temperature distribution in the furnace at steady state. Again, the temperature of the temperature zone and the speed of the conveyor belt are determined so as to achieve the minimum target area. By constructing the model of genetic algorithm, the area minimization is used as the fitness function. Finally, in this paper, we make the images on both sides from 217°C to the peak temperature as symmetrical as possible. For this problem, we can still build the fitness function by genetic algorithm to solve it.
基于遗传算法的炉温曲线控制研究
电子产品广泛应用于日常生活中,在电子产品的生产中,各种电子元件需要焊接到印刷电路板上。随着电子元件的小型化,传统的焊接方法已无法完成。回流焊技术可以用来完成微小电子元件的印刷,而在这个过程中,回流焊各部分保持合适的工艺温度对产品的质量至关重要。本文通过建立微分方程的数学模型,研究了在此过程中如何实现温度控制。首先,通过对回流烘箱内空气传热的分析,发现烘箱内的空气满足传热方程。其次,利用基础数据中的小温区温度,得到稳态下炉内温度分布;再次,确定温度区的温度和输送带的速度,以达到最小的目标面积。通过构建遗传算法模型,将面积最小化作为适应度函数。最后,在本文中,我们使从217°C到峰值温度的两侧图像尽可能对称。对于这个问题,我们仍然可以通过遗传算法构建适应度函数来求解。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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