【JMAT特刊征稿】Dielectric Energy Storage Materials
好消息，好消息！2022年Journal of Materiomics将推出特刊：Dielectric Energy Storage Materials，现面向广大学者征集相关稿件啦。投稿截止日期：2021年12月30日。虚拟专刊将于2022年4月发表。
Special issue on
Dielectric Energy Storage Materials
Summary and Scope
The significant demand for efficient and environmentally friendly electrical energy storage technologies is spurred by numerous emerging applications ranging from advanced microelectronics to electric vehicles and grid-connected renewable energy systems. The most efficient and extensively studied energy storage devices include, but not limit to, chemical energy storage devices (batteries), solid oxide fuel cells (SOFCs), electrochemical capacitors (supercapacitors), electrolytic capacitors and electrostatic capacitors (dielectric capacitors), representing the majority of electrical storage technologies today. Dielectric capacitors that store electrical energy in an electrostatic field possess the highest power densities, i.e., up to 107–108 W*kg−1 versus 101–102 W*kg−1 for batteries and 102–106 W*kg−1 for electrochemical capacitors, owing to their fastest charge–discharge rates at a micro-second scale. Dielectric capacitors are thus essential for pulsed power applications such as electrified transportation, power conditioning and switching, and advanced propulsion. There have been extensive research activities on the development of dielectric materials including ceramic, glass, polymers and ceramic-polymer composites for high-energy-density capacitors. We are witnessing groundbreaking developments in dielectric materials. It is to be expected that these developments, coupled with ongoing fundamental research on dielectric phenomena and recent advances in computational methods, should lead to the development of high-performance dielectric materials that will revolutionize energy storage devices.
The Journal of Materiomics (JMAT), indexed in SCI (Impact Factor of 5.797) and Scopus (Cite score of 8.6), is a leading academic journal that publishes cutting-edge research in the general field of materials science, particularly systematic studies of the relationships among composition, processing, structure, property, and performance of advanced materials. The journal is going to publish a special issue on the topic of dielectric energy storage materials in 2022.
从先进的微电子技术到电动汽车和与电网相关的可再生能源系统等的快速发展，对高效且环保的电能存储技术提出了极高的要求。最有效且被广泛研究的能量存储设备包括但不限于化学能量存储设备（电池），固体氧化物燃料电池（SOFC），电化学电容器（超级电容器），电解电容器和静电电容器（介电电容器），它们代表了当今大多数电存储技术。在静电场中存储电能的介电电容器具有最高的功率密度，即高达107-108 W*kg−1 ，而电池为101-102 W*kg−1 ，电化学电容器为102-106 W*kg−1 ，因为介电电容器具有微秒级的最快充放电速率。因此，介电电容器对于脉冲电源应用（如电气运输，功率调节和开关以及先进驱动设备）必不可少。介电材料的研发已取得很多成果，包括用于高能量密度电容器的陶瓷，玻璃，聚合物和陶瓷-聚合物复合材料。我们正在见证介电材料的突破性发展。可以预期，这些成果，再加上正在进行的有关介电现象的基础研究以及计算方法的最新进展，会促进高性能介电材料研发，这将彻底改变储能设备。
Journal of Materiomics（JMAT）被SCI（影响因子为5.797）和Scopus（Cite评分为8.6）收录，该刊引领材料学科发展前沿，注重报道以材料设计、制备、表征及应用技术为主线的系统性前沿研究成果，将在2022年出版介电储能材料专刊。
The topics that the special issue will include, but not be limited to:
Lead- and lead-free based energy storage ceramics, glasses, and glass ceramics;
含铅与无铅基储能陶瓷、玻璃及微晶玻璃；
Ceramic-polymer dielectric composites and polymer dielectric;
陶瓷-聚合物介电复合材料和聚合物电介质；
Dielectric thin films and thick films, and their capacitors such as MLCC;
介电薄膜和厚膜及其电容器，比如片式多层陶瓷电容器；
Novel synthesis and characterization techniques of dielectric materials;
介电材料的新型合成及表征技术；
Characterization and properties of the interface in heterogeneous dielectric materials;
异质介电材料的界面表征及性能；
Computational modeling in dielectric materials;
介电材料的计算模拟；
New concept and design for emerging dielectric applications in energy storage.
电介质在储能应用方面的新理念和设计
Submission Guideline
Authors should prepare their manuscripts following the online submission page of Journal of Materiomics at http://www.journals.elsevier.com/journal-of-materiomics（也可点击文后阅读原文）. All manuscripts will be peer-reviewed according to the journal reviewing procedures.
Important Dates
Manuscript submission due date: 30 December, 2021
Publication date: 20 April, 2022
Guest Editors
Prof. Qing Wang, Department of Materials Science and Engineering, The Pennsylvania State University, USA; Email: wang@matse.psu.edu.He received the Rustum and Della Roy Innovation in Materials Research Award in 2007, NSF CAREER Award in 2006, Virginia S. and Philip L. Walker Faculty Fellow in 2004 and AAAS fellow in 2021. His current research interests are the development of multifunctional polymers and polymer nanocomposites for applications in energy storage and conversion.
Prof. Shujun Zhang, Institute for Superconducting and Electronic Materials, Australian Institute for Innovative Materials, University of Wollongong, Australia; Email: shujun@uow.edu.au. He is associate Editor-in-Chief of IEEE Transaction Ultrasound, Ferroelectric and Frequency Control; associate editor of Science Bulletin; Journal of the American Ceramic Society and Journal Electronic Materials, section EIC of Crystals. He is fellow of American Ceramic Society (2019) and senior member of IEEE (2010), elected AdCom member of IEEE-UFFC. He holds 8 patents and has coauthored 500 papers, with Google Scholar citation >18,000 and H index of 64. He is now focusing on fabrication-microstructure-property-performance relationship of functional materials for piezoelectric sensor, transducer and energy storage/harvesting applications.
Prof. Guangzu Zhang, School of Optical and Electronic Information and Wuhan National Laboratory for Optoelectronics, Huazhong university of Science and Technology, China; Email: zhanggz@hust.edu.cn. His research interests include the ferroelectric ceramics and ceramic-polymer nanocomposites, and their devices for information and energy applications.
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