Abstract

The Kingdom of Saudi Arabia is known for its extreme climate where temperatures can exceed 50 °C, especially in summer. Improving agricultural production can only be achieved using innovative environmentally suitable solutions and modern agricultural technologies. Using Internet of Things (IoT) technologies in greenhouse farming allows reduction of the immediate impact of external climatic conditions. In this paper, a highly scalable intelligent system controlling, and monitoring greenhouse temperature using IoT technologies is introduced. The first objective of this system is to monitor the greenhouse environment and control the internal temperature to reduce consumed energy while maintaining good conditions that improve productivity. A Petri Nets (PN) model is used to achieve both monitoring of the greenhouse environment and generating the suitable reference temperature which is sent later to a temperature regulation block. The second objective is to provide an Energy-Efficient (EE) scalable system design that handles massive amounts of IoT big data captured from sensors using a dynamic graph data model to be used for future analysis and prediction of production, crop growth rate, energy consumption and other related issues. The design tries to organize various possible unstructured formats of raw data, collected from different kinds of IoT devices, unified and technology-independent fashion using the benefit of model transformations and model-driven architecture to transform data in structured form.

Highlights

  • Agriculture in the Kingdom of Saudi Arabia (KSA) faces several constraints, including extreme temperatures, water scarcity, sea water desalination costs, and non-fertile soil

  • The reference temperature is equal to 27◦C from 11:00 to 17:00

  • Apart from energy consumption rush hour, from 8:00 am to 11:00 am and 17:00 pm to 22:00 pm, a reference temperature equal to 24◦C is sent to the regulation block

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Summary

Introduction

Agriculture in the Kingdom of Saudi Arabia (KSA) faces several constraints, including extreme temperatures, water scarcity, sea water desalination costs, and non-fertile soil. The innovation of the control part of the presented work is to have associated different processes; monitoring and supervising the greenhouse through PN, reference temperature generation, and temperature regulation using the PID controller for obtaining an intelligent system that reduces energy consumption while maintaining an adequate temperature to grow the plants in good conditions.

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