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Optimizing Natural Light Distribution for Indoor Plant Growth Using PMMA Optical Fiber: Simulation and Empirical Study 利用PMMA光纤优化室内植物生长的自然光分布:模拟与实证研究
Pub Date : 2018-06-03 DOI: 10.1155/2018/9429867
B. Asiabanpour, Alejandra Estrada, Ricardo Ramirez, Marisa S. Downey
Daylighting methods have evolved along with the impetus to reduce the total nonrenewable utility energy consumed by lighting. In general, daylighting systems are an efficient method of delivering light for indoor applications. However, there is little research looking specifically at indoor agriculture applications. Today, optical fibers are commonly used in various applications including imaging, lighting, and sensing. Our study simulated and tested the efficiency of an optical fiber daylighting system in an indoor environment. We tested the illumination performance of optical fibers and specifically looked at light intensity, light uniformity, and the spectrum of 20 mm and 3 mm optical fibers at five distances by offsetting a spectrometer. The scenarios were first modeled and tested using lighting simulation software. Similar settings were then empirically implemented and measured. The results showed that a difference in diameter had an effect on light intensity and light uniformity; the larger the diameter the better the light uniformity and light intensity. Further, the distance at which the spectrometer was placed in reference to the light source showed a relationship between both light intensity and light uniformity; the smaller the distance the more the intensity and the less the uniformity. Additionally, the experiments showed that sunlight intensity was 30 times and 140 times greater than optical fiber output intensity in the absence of any UV filter and presence of UV light, respectively.
随着减少照明消耗的不可再生公用事业总能量的推动,日光照明方法也在不断发展。一般来说,采光系统是用于室内应用的一种有效的光传输方法。然而,很少有专门针对室内农业应用的研究。如今,光纤通常用于各种应用,包括成像、照明和传感。我们的研究模拟并测试了光纤采光系统在室内环境中的效率。我们测试了光纤的照明性能,特别观察了光强度、光均匀性和20 mm和3 毫米光纤,通过偏移光谱仪在五个距离上测量。首先使用照明模拟软件对场景进行建模和测试。然后根据经验实施和测量类似的设置。结果表明,直径的差异对光强和光均匀性有影响;直径越大,光均匀性和光强度越好。此外,光谱仪相对于光源放置的距离显示出光强度和光均匀性之间的关系;距离越小,强度越大,均匀性越差。此外,实验表明,在没有任何紫外线滤光片和有紫外线的情况下,阳光强度分别是光纤输出强度的30倍和140倍。
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引用次数: 12
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Journal of Renewable Energy
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