Smart Micro Farm: Sustainable Algae Spirulina Growth Monitoring System

Eko Ariawan, A. Stanley Makalew
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引用次数: 6

Abstract

The applications of Internet of Things (IoT) have been growing rapidly, in recent years, within numerous fields of study. One such field is the study of Spirulina Algae, which has been an interest to many food technology researchers for many decades. Spirulina Algae is known as one of the best sources of protein, antioxidants, vitamins, and other nutrients. It is often used as the main ingredient in dietary supplements. To produce the best Spirulina Algae, it has to be grown in an alkaline water media with a stable water temperature of around 86° F, controlled intensity of ultra-violet, regulated water turbidity, as well as maintained supply of Oxygen, Nitrogen, and CO2. IoT has become an inevitable choice of technology application for improving high grade food source, assuring food safety, and standardizing the forms of cultivated Spirulina Algae. It uses a microcontroller, such as Arduino, and sensors to create a real-time monitoring system via the internet to monitor water temperature, ultraviolet intensity, and water turbidity. This paper presents an intelligent IoT System, a smart micro farm IoT system to monitor these data. The data collected can also benefit other researchers who wish to observe the life pattern of Spirulina Algae in the given environment. This paper describes the hardware and software components where the system was deployed.
智能微农场:可持续藻类螺旋藻生长监测系统
近年来,物联网(IoT)的应用在许多研究领域得到了迅速发展。其中一个领域是螺旋藻的研究,几十年来一直是许多食品技术研究人员的兴趣所在。众所周知,螺旋藻是蛋白质、抗氧化剂、维生素和其他营养物质的最佳来源之一。它经常被用作膳食补充剂的主要成分。为了生产出最好的螺旋藻,它必须在碱性水培养基中生长,水温稳定在86°F左右,控制紫外线强度,调节水的浊度,并保持氧气、氮和二氧化碳的供应。物联网已成为提升食品优质来源、保障食品安全、规范螺旋藻养殖形态的必然选择。它使用Arduino等微控制器和传感器,通过互联网创建实时监控系统,监测水温、紫外线强度和水浊度。本文提出了一个智能物联网系统,一个智能微农场物联网系统来监控这些数据。收集的数据也可以使其他希望观察特定环境中螺旋藻生活模式的研究人员受益。本文描述了系统部署的硬件和软件组件。
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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