Background of the Study
Energy management is a critical concern for university campuses, where inefficient energy use not only increases operational costs but also impacts environmental sustainability. At Federal University, Dutsin‑Ma, Dutsin‑Ma LGA, a smart energy management system is proposed to optimize energy consumption across campus facilities. The system leverages IoT sensors, real‑time data analytics, and automated control mechanisms to monitor and manage energy usage effectively. By collecting data on electricity consumption, temperature, and occupancy, the system can adjust lighting, heating, and cooling systems dynamically to match demand (Adeyemi, 2023; Okafor, 2024). This approach not only reduces energy waste but also enhances user comfort and contributes to a greener campus environment. The system is designed to integrate with existing building management systems and provide actionable insights through dashboards and reporting tools. Furthermore, the system supports predictive analytics to forecast energy demand and identify potential savings, enabling proactive maintenance and resource allocation. Despite its potential, challenges such as high initial installation costs, integration with legacy systems, and ensuring data security and privacy must be addressed. Pilot projects in similar institutions have demonstrated that smart energy management systems can significantly reduce energy costs and environmental impact. This study aims to evaluate the design, implementation, and performance of the smart energy management system at Federal University, Dutsin‑Ma, providing a scalable framework for digital energy optimization in academic settings (Chinwe, 2024).
Statement of the Problem
Federal University, Dutsin‑Ma currently relies on traditional energy management practices that are inefficient, leading to excessive energy consumption and high operational costs. Manual monitoring and static control systems do not respond dynamically to fluctuating energy demands, resulting in energy waste and environmental degradation. Although a smart energy management system offers the promise of real‑time monitoring, automated control, and predictive analytics, its implementation is challenged by technical and operational barriers. Key issues include integrating the new system with existing infrastructure, ensuring reliable network connectivity for real‑time data collection, and addressing concerns over data security and privacy. Moreover, the high initial investment in IoT sensors and control hardware, combined with potential resistance from facility management staff, further impedes adoption. This study seeks to evaluate the feasibility and effectiveness of a smart energy management system by comparing its performance with traditional methods and identifying critical challenges that affect its implementation. The research will analyze energy consumption data, system reliability, and user satisfaction, ultimately proposing strategies to optimize energy usage, reduce costs, and support sustainable campus operations (Okafor, 2024).
Objectives of the Study
To design and implement a smart energy management system that automates energy usage across campus facilities.
To evaluate the system’s effectiveness in reducing energy consumption and operational costs.
To propose strategies for improving system integration and data security.
Research Questions
How does the smart energy management system reduce energy waste compared to traditional methods?
What technical challenges affect system integration and real‑time data collection?
Which measures can enhance system reliability and data privacy?
Significance of the Study
This study is significant as it introduces a smart energy management system to optimize energy use at Federal University, Dutsin‑Ma. By reducing operational costs and promoting environmental sustainability, the system supports the university’s commitment to green practices. The findings will provide essential insights for administrators and IT professionals seeking to implement advanced energy solutions in academic settings (Adeyemi, 2023).
Scope and Limitations of the Study
This study is limited to the design and implementation of a smart energy management system at Federal University, Dutsin‑Ma, Dutsin‑Ma LGA.
Definitions of Terms
Energy Management System: A digital platform for monitoring and controlling energy consumption.
IoT Sensors: Devices that collect and transmit data on environmental conditions.
Predictive Analytics: Techniques for forecasting future energy demand based on historical data.
Chapter One: Introduction
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