Automatic leaf color level determination for need based fertilizer using fuzzy logic on mobile application: A model for soybean leaves

K. Prilianti, Samuel P. Yuwono, M. A. Adhiwibawa, M. N. U. Prihastyanti, L. Limantara, T. H. Brotosudarmo
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引用次数: 10

Abstract

Detecting plant nutrient deficiencies and evaluating fertilizer program are done by leaf tissue analysis. Unfortunately, this quantitative method is quite expensive and time consuming for traditional farmers due to its laboratory procedure. In this research, an automatic and non-destructive method based on digital image for soybean leaf color level determination was developed. Color level status is used to determine the fertilizer dose based on crops current need. The color level was adopted from 4-panel Leaf Color Chart (LCC) and a fuzzy logic model was applied to capture the leaf color gradation. Therefore, the leaf color status is not restricted only in 4 categories, but gradually change from light yellow up to dark green. Using this mechanism the N fertilizer dose will also gradually adjust. Hence, the N fertilizer could be used efficiently and in the same time prevent the environment from negative effects of fertilizer overuse. The method was embedded in a mobile application to facilitate real time field application. Hence, detection of soybean nutrient deficiencies and fertilizer program evaluation will need less time and low cost. From the field test, it was known that the mobile application could determine the soybean color level correctly.
基于模糊逻辑的基于需求的化肥叶片色级自动确定:大豆叶片模型
通过对叶片组织的分析,可以发现植物的营养缺陷,并对施肥方案进行评估。不幸的是,由于其实验室程序,这种定量方法对传统农民来说非常昂贵和耗时。本文研究了一种基于数字图像的大豆叶片颜色水平自动无损检测方法。颜色等级状态用于根据作物当前需求确定肥料剂量。颜色层次采用4-panel Leaf color Chart (LCC),并采用模糊逻辑模型捕捉叶片颜色层次。因此,叶色状态不再局限于4类,而是逐渐由浅黄色变为深绿色。利用这一机制,氮肥用量也会逐渐调整。在有效利用氮肥的同时,防止氮肥过度施用对环境的负面影响。该方法被嵌入到一个移动应用程序中,以方便现场实时应用。因此,大豆营养缺乏症的检测和施肥方案评价将需要更少的时间和更低的成本。现场测试表明,该移动应用程序可以正确判断大豆的颜色等级。
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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