Monitoring Environmental Performance of Agricultural Supply Chains Using Internet of Things

Monitoring Environmental Performance of Agricultural Supply Chains Using Internet of Things

Copyright: © 2023 |Pages: 20
DOI: 10.4018/979-8-3693-0225-5.ch014
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Abstract

The agriculture industry is facing mounting enforcement to produce more food to nourish a growing population while simultaneously mitigating its environmental footprint. In response, the use of internet of things (IoT) technologies in agriculture has emerged as a promising approach to monitoring and improving the supply chain's environmental performance. This chapter provides a comprehensive overview of the use of IoT technologies in the context of environmental monitoring in agricultural supply chains. It begins by introducing the concept of environmental performance in agriculture, its importance, and its challenges. The chapter then explains the basics of IoT technology and how it can be used to monitor and track the environmental performance in agricultural supply chains. The chapter also discusses the benefits and challenges of IoT technologies implementation. Overall, by leveraging the power of IoT, it is possible to enhance sustainability and efficiency in food production, while also reducing environmental impact.
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Introduction

Agribusiness holds a vital position in the global economy, furnishing sustenance and essential materials to the growing population (FAO, 2018). As a result, the agri-food sector remains pivotal on a global scale (Tripathi et al., 2019). Nevertheless, establishing sustainable and ecologically conscientious practices within agricultural supply chains presents notable hurdles.

Production, processing, distribution, and consumption are all parts of the agricultural supply chain. The ecosystem and human welfare are greatly impacted by environmental elements throughout this intricate network, including water use, energy use, waste creation, and chemical inputs (FAO, 2018). Despite its importance, most cultivation tactics continue to be based only on outdated practices, which frequently lack suitable tools for monitoring and measuring these variables, causing inefficiency and environmental damage.

The global population is anticipated to reach 9.6 billion by 2050. To decrease waste and boost agricultural production output, it is crucial to develop a sustainable strategy (Tripathi et al., 2019). Consumer awareness and concern regarding the ecological footprint of items people consume, especially food, have markedly increased (Rana et al., 2022). This increased awareness has been stoked by easier access to information, more media attention given to environmental issues, and mounting climate change concerns (Fareq & Fareq, 2023). They demand information on the sustainability of agricultural practices, the use of chemicals and pesticides, carbon emissions, water usage, and waste management throughout the supply chain (FAO, 2018).

As a result, this consumer enlightenment and demand for environmentally friendly products and food have prompted businesses to integrate sustainable practices into their supply chains proactively along with the global initiatives driven by governments and international organizations. Hence, international agreements, such as the Paris Agreement, emphasize the significance of reducing greenhouse gas emissions and promoting sustainable development (United Nations, 2021). Acknowledged as the breakthrough of the era, it is worth mentioning that Information and Communication Technology (ICT) empowers farmers by providing essential information and recommendations to enhance their overall productivity (Narwane et al., 2022). This recent development has the potential to promote sustainability through the reduction of greenhouse gas emissions (Farooq et al., 2020) and decreased water consumption (Zhang et al., 2015). Additionally, it can enhance the efficiency of the agricultural system, thereby aiding in meeting the increasing need for food (Narwane et al., 2022).

Evaluating the environmental performance of agricultural supply chains is essential for tackling the associated challenges. The adoption of modern technologies like the Internet of Things for data collection holds the promise of revolutionizing monitoring, and offering real-time, comprehensive data for precise implementation of strategies to reduce environmental impact. However, achieving extensive adoption of these technologies also involves addressing numerous challenges.

The Internet of Things, often abbreviated as IoT, is a revolutionary concept that links everyday objects, devices, and systems through the internet, enabling them to collect and exchange data independently. This technology spans from personal gadgets to industrial machinery and agricultural sensors, enhancing automation and connectivity across various sectors. IoT devices, embedded with sensors and communication tools, empower them to make smart decisions and communicate with other devices. This transformation impacts industries like manufacturing, healthcare, and agriculture, streamlining processes and improving efficiency.

Key Terms in this Chapter

Data Management: Data Management involves a comprehensive set of activities, methodologies, and technology solutions employed to acquire, store, arrange, examine, and guarantee the integrity and usefulness of data throughout its entire lifespan.

Sustainability: Sustainability revolves around the principle of meeting current needs while preserving the capacity for next generations to fulfill their own requirements, with a specific focus on economic, environmental, and social well-being.

Data Security: Data Security encompasses the deployment of safeguards and procedures aimed at safeguarding digital data against unauthorized access, utilization, disclosure, interference, alteration, or destruction, thereby preserving its confidentiality, integrity, and accessibility.

Internet of Things: Internet of Things denotes the network of interconnected physical devices, sensors, and software designed to collect and share data.

Agriculture Industry: The agriculture industry encompasses all activities related to the cultivation, processing, marketing, and distribution of crops, livestock, and other agricultural products, including farming, agribusiness, and agricultural research and development.

Monitoring: Monitoring refers to the continuous observation and measurement of specific parameters, events, or systems to collect data and track changes over time for various purposes, such as quality control, performance evaluation, or early warning.

Agriculture Supply Chains: Agriculture supply chains encompass the entirety of processes, systems, and activities engaged in the production, distribution, and sale of agricultural commodities, spanning from the initial farm stage to the ultimate consumer.

Environmental Analysis: Environmental analysis encompasses the examination and assessment of multiple factors and metrics to gauge the influence of human actions on the environment, including factors such as pollution levels, biodiversity, and depletion of natural resources.

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