科学网—刊•见｜绿色能源优选SCI！International Journal of Green Energy关注能源与燃料-Taylor&Francis学术服务的博文
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2026-9-17 13:16
| 个人分类: 物理化学与力学 | 系统分类: 科研笔记
全球能源结构正加速向低碳、清洁方向转型，绿色能源已成为应对环境挑战、保障能源安全与实现可持续发展的核心抓手。本期【 刊•见】 为诸位介绍能源与燃料领域期刊 International Journal of Green Energy 。除了对关键指标进行详尽解读外，还将向您推荐刊内近三年高被引文章，以及近一年高阅读量文章：
植物微生物燃料电池：对影响因素、创新结构、多样化应用、长期存在的挑战及广阔前景的综合综述
利用海水电解制氢：挑战、创新与未来发展路径
粉色氢气生产的高层次危害分析
Online ISSN: 1543-5083Print ISSN: 1543-5075
International Journal of Green Energy 致力于分享能源研究、能源转换、能源管理及节能领域的跨学科研究成果，尤其关注先进且环保的能源技术。该刊发表的研究重点在于那些对环境、经济和社会影响为零、极小或已显著降低的能源形式及其利用方式。
期刊主要关注主题包括：可持续能源多样性；绿色能源本地化；绿色能源安全；可持续能源发展；可持续能源技术；绿色能源资源；绿色能源消费；能源使用的影响；可持续能源的基础研究与实际应用等。
该期刊已被SCIE、 BIOSIS Previews、CEABA 等核心数据库收录。
影响因子
根据JCR显示， International Journal of Green Energy
在能源与燃料排名 126/191
在绿色与可持续科学技术排名 77/114
在热力学排名 23/78 Scopus
根据Scopus显示， International Journal of Green Energy
2025年CiteScore为 6.2
2026年CiteScore Tracker为 6.4
在能源：可再生能源、可持续发展与环境排名 132/345 作者须知
审稿周期
从提交稿件到获取初审意见，平均需要 9天
稿件一旦接受后，在线出版平均需要 11天
文章出版费（APC）
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编辑团队
International Journal of Green Energy 期刊主编由来自加拿大滑铁卢大学的李献国（Xianguo Li）教授担任，副主编团队由来自中国、美国、丹麦等地的多位领域专家组成，期刊的编辑委员会和青年编委会汇集了来自美国、中国、加拿大等多地的行业翘楚。
主编
李献国
加拿大滑铁卢大学机械与机电工程系的教授。主要研究兴趣集中在热流体科学领域，包括能源系统与储能、各类能量转换装置、推进与发电系统、气溶胶生成及其应用，以及交通运输领域的燃料电池和电池系统。这些研究项目涉及热力学、流体力学、流体动力学稳定性、多相流、传热与传质、液体雾化与喷雾、燃烧、发电及推进系统。
中国副主编
焦魁
天津大学教授、能源学院常务副院长。主要从事燃料电池、电解池、锂电池、温差发电器、内燃机、燃气轮机等装置中能量存储、转换、利用等问题的研究工作。
史翊翔
清华大学能源与动力工程系长聘教授。主要研究领域为洁净煤发电技术、燃料电池与电解、气体分离与净化。 作者分布
根据JCR显示，近三年在 International Journal of Green Energy 发文的国家/地区中，发文较为活跃的是：
中国
印度
土耳其
近三年，在 International Journal of Green Energy 发文的全球高校和科研机构中，发文较为活跃的是：
印度理工学院
天津大学
印度国家技术学院 近三年内高被引文章
植物微生物燃料电池：对影响因素、创新结构、多样化应用、长期存在的挑战及广阔前景的综合综述
作者： Peng Lean Chong et al.
点击查阅全文内容
文章摘要：
This review delves into the multifaceted landscape of plant microbial fuel cells (PMFCs), investigating the affecting factors, configurations, applications, challenges, and prospects that shape their design. A thorough exploration of the affecting factors covering natural factors such as type of living plants, type of microbes and environmental factors as well as man-made factors such as electrode material and design, addition of additives and the diverse array of PMFC configurations are investigated here. The configurations cover the tubular design, flat plate design, sediment type, green rooftop design, constructed wetland and bryophyte PMFC are analyzed for performance comparison, offering insights for researchers. Applications of PMFC for powering ultra-low power remote devices and sensors, biosensing purposes, wastewater treatment, to bioremediation of polluted sites, are showcased to show the versatility of PMFCs. Despite their promise, challenges such as low power output, plant selection and growth, control over microbial species, diversity and electron transfer mechanisms, the long-term stability and durability of PMFC as well as scalability and cost for wide implementation of PMFC, are conversed here as it necessitates innovative solutions. In addition, this paper also provides recommendation of prospects to be considered by future researchers to enhance the development of PMFC.
Figure 1. Plant microbial fuel cell. 近一年内高阅读量文章
利用海水电解制氢：挑战、创新与未来发展路径
作者： Omolola E. Fayemi et al.
点击查看全文内容
文章摘要：
The growing global demand for green hydrogen has intensified interest in seawater electrolysis (SWE) as a sustainable pathway, particularly for regions with limited access to freshwater. However, SWE poses unique scientific and engineering challenges that differ from those in purified water electrolysis, including chloride-induced corrosion, parasitic chlorine evolution reactions (ClER), membrane degradation, and catalyst instability in complex ionic matrices. This review provides a critical assessment of recent advances and persistent challenges in SWE, with emphasis on material innovations, membrane selectivity, and cell design strategies. The review begins with an outline of the fundamental electrochemical and thermodynamic principles governing SWE, followed by a detailed discussion on chlorine suppression via advanced electrocatalysts and selective membrane technologies, such as anion exchange membranes (AEMs) and emerging bipolar membranes (BPMs). The role of interface engineering, heterostructure formation, and photothermal enhancement in improving catalytic activity and durability is critically examined. Novel electrolyzer configurations, including sulfur-assisted electrolysis, vapor-phase protonic ceramic cells, and boron-doped diamond-supported electrodes were documented based on their potential to enhance energy efficiency and operational lifetime. Additionally, the review integrates techno-economic considerations and sustainability to explain the practical feasibility of SWE systems. By consolidating findings from recent studies, this work identifies key knowledge gaps and outlines future directions for scalable, chlorine-tolerant, and energy-efficient SWE platforms. The merging of materials chemistry, membrane science, and system engineering is essential to transition SWE from laboratory demonstrations to commercially viable hydrogen production.
GRAPHICAL ABSTRACT
粉色氢气生产的高层次危害分析
作者： Faziana Zarith Binti Zamberi, Seyed Mojtaba Hoseyni & Joan Cordiner
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文章摘要：
Pink hydrogen produced using nuclear-powered electrolysis emerges as a promising zero-emission solution. However, integrating high-temperature processes and nuclear-derived electricity for pink hydrogen production poses inherent safety risks. Hydrogen presents specific challenges due to its unique properties, including high flammability, wide explosion limits, and rapid diffusion. When coupled with nuclear power systems, these challenges are amplified, as the interaction between two inherently high-risk systems introduces new hazards and complexities. Furthermore, pink hydrogen is relatively new to industry and requires comprehensive safety protocols for its safe operation and production. This research conducts a detailed high-level hazard analysis to identify, assess, and control potential risks related to pink hydrogen production. Data and information were gathered through extensive research and team discussions. Various scenarios and consequences were assessed to ensure safe operation and plant performance. Initially, 26 high-risk scenarios were identified. Following implementation of mitigation measures, the number of high-risk scenarios was reduced to 2, demonstrating the effectiveness of the proposed controls. Implementing these recommendations and design modifications will help manage overall plant risk to a tolerable level. By addressing safety concerns proactively, this analysis contributes to the safe development and advancement of pink hydrogen technology for a sustainable future.
GRAPHICAL ABSTRACT
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