Moomin Ahmed Shabbir, Yousif Muhammad, Khalid Hassan Abdullah, Abbas Kazmi Syed Ali, Alghamdi Thamer A H
Department of Electrical Power Engineering, U.S.-Pakistan Center for Advanced Studies in Energy (USPCAS-E), National University of Sciences and Technology (NUST), Islamabad, Pakistan.
Electrical Engineering Department, Faculty of Engineering, Al-Baha University, Al-Baha 65779, Saudi Arabia.
Heliyon. 2024 Aug 22;10(17):e35985. doi: 10.1016/j.heliyon.2024.e35985. eCollection 2024 Sep 15.
Pakistan is faces significant challenges in meeting its energy demand and consumption needs for consumers. This country's energy production from primary sources such as petroleum and natural gasses is incompetent in fuel-use and hence unable to meet feasibility cost. With an increasing population, Pakistan's energy consumption per capita has been steadily rising. This behaviour is leading to critical energy issues, especially in remote rural areas. This trend in rising energy costs and demand factors are similar to those in the energy markets in the South and South-East Asia. The primary energy sources in Asia continent, including fossil fuels, are insufficient supply to meet this growing demand in production and thus resulting in frequent electricity blackouts. Consequently, renewable energy sources such as solar photovoltaic (PV) and wind power have substantially started to produce energy and to provide a huge portion of Pakistan's daily energy needs apart in conventional energy currently. However, these sources are not yet as reliable, conventional energy bases have a challenge for sustainable energy production. As a result, renewable energy factors nonetheless initial started have effectively stabilized energy consumption, particularly for green electricity with net-zero carbon emissions. The aim of this study is to evaluate the feasibility and cost-effectiveness of integrating a microgrid hybrid system with combined (solar PV/wind power) renewable energy as well as conventional fossil fuel generators. This evaluation focuses on predicting energy production and its costs using Hybrid Optimization of Multiple Energy Resources (HOMER) software, and to enhance the electricity standards at NUST (National University for Sciences and Technology), Pakistan. The proposed methodology of microgrid hybrid system, when evaluated using HOMER software, shows a significant improvement in energy stability and cost efficiency. Moreover, this proposed system can reduce reliance on fossil fuels by a substantial percentage, enhances the predictability of energy production, and optimizes its energy consumption. These can achieve better performance metrics in terms of reliability, cost, and environmental impact; feasible solution for Pakistan and the developing countries. This proposed methodology offers a novel approach by integrating renewable energy sources with conventional generators to create a balanced and efficiency factor by microgrid system. This hybrid system goals as an investigation is to optimize this energy production, reduce carbon emissions, and provide a more stable and cost-effective energy supply.
巴基斯坦在满足其能源需求以及消费者的消费需求方面面临重大挑战。该国从石油和天然气等主要能源来源进行的能源生产在燃料使用方面效率低下,因此无法达到可行成本。随着人口增长,巴基斯坦的人均能源消费量一直在稳步上升。这种情况正导致严重的能源问题,尤其是在偏远农村地区。能源成本上升以及需求因素的这种趋势与南亚和东南亚能源市场的情况类似。亚洲大陆的主要能源,包括化石燃料,供应不足,无法满足生产中不断增长的需求,从而导致频繁停电。因此,太阳能光伏(PV)和风能等可再生能源已大量开始生产能源,并在目前除传统能源之外满足了巴基斯坦很大一部分日常能源需求。然而,这些能源来源尚不具备传统能源基地那样可靠,在可持续能源生产方面面临挑战。尽管如此,可再生能源因素最初已有效稳定了能源消费,特别是对于净零碳排放的绿色电力。本研究的目的是评估将微电网混合系统与(太阳能光伏/风能)组合可再生能源以及传统化石燃料发电机相结合的可行性和成本效益。该评估侧重于使用多能源资源混合优化(HOMER)软件预测能源生产及其成本,并提高巴基斯坦国立科技大学(NUST)的电力标准。当使用HOMER软件对微电网混合系统的拟议方法进行评估时,显示出能源稳定性和成本效率有显著提高。此外,该拟议系统可大幅降低对化石燃料的依赖,提高能源生产的可预测性,并优化其能源消耗。这些在可靠性、成本和环境影响方面可实现更好的性能指标;对巴基斯坦和发展中国家来说是可行的解决方案。该拟议方法通过将可再生能源与传统发电机相结合,为微电网系统创造平衡和效率因素,提供了一种新颖的方法。作为一项研究,这种混合系统的目标是优化这种能源生产,减少碳排放,并提供更稳定且成本效益更高的能源供应。