Daytime Solar Greenhouse Plant Light Spectum Control System

J. Parnklang, Thitirat Kasomkul, Chutikarn Wiangwong, Natcha Pibanpaknitee
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Abstract

The design and model of greenhouse daytime constant light source spectrum from sunlight and RGB LED controlled is present in this title. According to the light color requirement that the special plant need to grow are different in each type of plant. When the requirement of plant are known, we have designed constant frequency spectrum of light in the greenhouse throughout the daytime. The design system is based on solar light which is difference in the color and intensity of light on the daytime. Light frequency adjustment system interferes with the solar spectrum in the greenhouse. The system stops interfering when the optical spectrum is the programed designed wavelength of light. The light spectrum of each color (red, blue and green) measured is normalized to realize the proportion of each color that need to intervene. The example of a plant used in a system test is a cannabis an economic crop in which each pre-harvest period requires a different spectrum ratio color of light. Other variables of plant growth be controlled as well. The sunlight that can pass through the outdoor greenhouse has already been filtered from UV and IR rays. The experimental results show the higher grow rate of the marijuana that plant in the adjust spectrum greenhouse is 12%. We also found that light spectral-optimized cannabis get a number leaf density greater than 30% compare to being grown in an uncontrolled nearby outdoor greenhouse.
日光温室植物日间光谱控制系统
本文介绍了日光和RGB LED控制的温室日间恒定光源光谱的设计和模型。根据特殊植物需要生长的光色要求,每种植物的光色都是不同的。在了解植物需求的情况下,我们在温室内设计了全天恒定频谱的光。设计系统是基于太阳光线,这是不同的颜色和强度的光在白天。光频调节系统干扰温室内的太阳光谱。当光谱达到程序设计的光波长时,系统停止干扰。将测量到的每种颜色(红、蓝、绿)的光谱归一化,实现每种颜色需要干预的比例。在系统测试中使用的植物的例子是大麻,一种经济作物,在每个收获前阶段需要不同的光谱比颜色的光。植物生长的其他变量也得到控制。可以通过室外温室的阳光已经被紫外线和红外线过滤掉了。实验结果表明,在调节光谱温室中种植的大麻长势可达12%以上。我们还发现,与在附近不受控制的室外温室中种植的大麻相比,光谱优化的大麻的叶子密度大于30%。
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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