Fernandez Malcolm Isaac, Go Yun Ii, Wong Dennis M L, Früh Wolf-Gerrit
School of Engineering & Physical Sciences, Heriot-Watt University, 62200 Putrajaya, Malaysia.
School of Engineering, Newcastle University, Newcastle Upon Tyne NE1 7RU, United Kingdom.
Heliyon. 2024 Nov 26;10(23):e40691. doi: 10.1016/j.heliyon.2024.e40691. eCollection 2024 Dec 15.
Carbon emissions are increasing due to continued urban developments and the growth of the human population, leading to environmental issues such as global warming. Moving towards the future, projected population growth will cause an increase in energy demand. Without the transition to cleaner energy generation, a high dependency on electricity generation by fossil fuels will emit more harmful gases, worsening the impacts of global warming. Therefore, the energy industry is moving towards cleaner alternatives through renewable energy (RE) technologies. However, in the future power grid, more technological development and implementation of cutting-edge research methods will be required to upsurge the percentage of clean electricity generation to attain net zero. Renewables, energy storage systems (ESS), grid technologies, and building energy management systems (BEMS) are key technologies emerging to aid green electrification in the electricity, industry, commercial and transportation sectors. This review discusses the technical challenges and solutions that contribute towards achieving net-zero energy systems. A systematic review was conducted on research methods related to the optimal planning of renewable energy systems, ESS, power system devices, and BEMS which are research areas that are moving towards being optimally integrated in the future energy system. Based on the review, we propose new gaps to be addressed in the development of energy system modelling tools. These tools should seamlessly integrate methods for energy storage related to voltage support, microgrid dispatch strategies, optimal reactive power flow in electrical networks, and energy management in buildings. This integration will enhance the capability of these tools to incorporate detailed analyses into broader energy balance simulations for large geographical regions. This review paper aims to guide researchers in identifying and addressing specific gaps in future research directions within these research areas, thereby advancing the knowledge base and informing subsequent studies.
由于城市的持续发展和人口增长,碳排放正在增加,导致全球变暖等环境问题。展望未来,预计的人口增长将导致能源需求增加。如果不向更清洁能源的生产转型,对化石燃料发电的高度依赖将排放更多有害气体,加剧全球变暖的影响。因此,能源行业正通过可再生能源(RE)技术转向更清洁的替代能源。然而,在未来的电网中,需要更多的技术发展和前沿研究方法的实施,以提高清洁电力生产的比例,实现净零排放。可再生能源、储能系统(ESS)、电网技术和建筑能源管理系统(BEMS)是新兴的关键技术,有助于电力、工业、商业和交通部门的绿色电气化。本综述讨论了有助于实现净零能源系统的技术挑战和解决方案。对与可再生能源系统、ESS、电力系统设备和BEMS的优化规划相关的研究方法进行了系统综述,这些研究领域正朝着在未来能源系统中实现优化整合的方向发展。基于该综述,我们提出了能源系统建模工具开发中需要解决的新差距。这些工具应无缝集成与电压支持相关的储能方法、微电网调度策略、电网中的最优无功潮流以及建筑物中的能源管理。这种整合将增强这些工具将详细分析纳入更大地理区域更广泛的能量平衡模拟的能力。这篇综述文章旨在指导研究人员识别和解决这些研究领域未来研究方向中的特定差距,从而推进知识库并为后续研究提供信息。