Macromolecular Reaction Engineering ( IF 1.8 ) Pub Date : 2021-12-16 , DOI: 10.1002/mren.202100050 Stefan Spiegel
In the present year 2021 we have been publishing the 15th volume of Macromolecular Reaction Engineering, initially launched in 2007. The new journal at that time was a spin-off from Macromolecular Materials and Engineering where a section dedicated to the same topic of reaction engineering was successfully published already in 2005–2006.
As written in the inaugural editorial by João B.P. Soares, Timothy F.L. McKenna, and myself, Macromolecular Reaction Engineering (MRE) was launched with the aim of “emphasizing polymer reaction engineering as a crucial component in the development and improvement of polymeric materials” and “providing an independent forum for discussion and dissemination of emerging technologies and scientific advancements in the area of reaction engineering applied to polymerization reactors.”
As of today, MRE indeed continues to be a rather specialized but essential part of the Macromolecular journals portfolio that provides an established and high-quality publication platform for disseminating research results in this field. The latter point is further emphasized by the fact that MRE recently received an excellent new Impact Factor of 1.931, which is the highest value in the journal's history!
Since its launch, MRE has published nearly 700 papers, and those receiving the highest number of citations are listed in Table 1. And while featuring some seminal work in the field, many of the names and topics listed there are still well-known (and active) today.
Article details | Times cited |
Keith Marchildon Polyamides – Still Strong After Seventy Years Macromol. React. Eng. 2011, 5, 22 |
217 |
Mathias Destarac Controlled Radical Polymerization: Industrial Stakes, Obstacles and Achievements Macromol. React. Eng. 2010, 4, 165 |
196 |
Michael Wulkow Computer Aided Modeling of Polymer Reaction Engineering – The Status of Predici, I-Simulation Macromol. React. Eng. 2008, 2, 461 |
137 |
Longhe Zhang, Nicole R. Brostowitz, Kevin A. Cavicchi, R. A. Weiss Perspective: Ionomer Research and Applications Macromol. React. Eng. 2014, 8, 81 |
123 |
Dagmar R. D'hooge, Marie-Françoise Reyniers, Guy B. Marin The Crucial Role of Diffusional Limitations in Controlled Radical Polymerization Macromol. React. Eng. 2013, 7, 362 |
90 |
Lu Zhu, Yan Zhu, Yang Pan, Yawen Huang, Xiaobin Huang, Xiaozhen Tang Fully Crosslinked Poly[cyclotriphosphazene-co-(4,4'-sulfonyldiphenol)] Microspheres via Precipitation Polymerization and Their Superior Thermal Properties Macromol. React. Eng. 2007, 1, 45 |
85 |
Marc A. Dubé, Somaieh Salehpour Applying the Principles of Green Chemistry to Polymer Production Technology Macromol. React. Eng. 2014, 8, 7 |
83 |
Timothy F. L. McKenna, Audrey Di Martino, Guenter Weickert, João B. P. Soares Particle Growth During the Polymerisation of Olefins on Supported Catalysts, 1 – Nascent Polymer Structures Macromol. React. Eng. 2010, 4, 40 |
82 |
Dagmar R. D'hooge, Marie-Françoise Reyniers, Guy B. Marin Methodology for Kinetic Modeling of Atom Transfer Radical Polymerization Macromol. React. Eng. 2009, 3, 185 |
72 |
Amanda L. T. Brandão, João B. P. Soares, José Carlos Pinto, André L. Alberton When Polymer Reaction Engineers Play Dice: Applications of Monte Carlo Models in PRE Macromol. React. Eng. 2015, 9, 141 |
64 |
To complete this look at the scientific topics and results disseminated via MRE, Table 2 shows those recent articles that have been published and accessed and downloaded most often during the time frame 2020–2021.
Annika Hohlen, Wolfgang Augustin, Stephan Scholl Quantification of Polymer Fouling on Heat Transfer Surfaces During Synthesis Macromol. React. Eng. 2020, vol. 14, 1900035 |
Esther Cremer-Bujara, Philip Biessey, Marcus Grünewald Simulation of Polymer Reactors Using the Compartment Modeling Approach Macromol. React. Eng. 2020, vol. 14, 1900034 |
Joana Kettner, Sina Valaei, Michael Bartke Reaction Calorimetry for Studying Kinetics in Bulk Phase Polymerization of Propene Macromol. React. Eng. 2020, vol. 14, 2000031 |
Gunnar Spiegel, Christian Paulik Polypropylene Copolymers Designed for Fused Filament Fabrication 3D-Printing Macromol. React. Eng. 2020, vol. 14, 1900044 |
Christian Zander, Klaus-Dieter Hungenberg, Thomas Schall, Christian Schwede, Ulrich Nieken Modeling Strategies for the Propagation of Terminal Double Bonds During the Polymerization of N-Vinylpyrrolidone and Experimental Validation Macromol. React. Eng. 2020, vol. 14, 2000009 |
Brian Büren, Florian Brandl, Sabine Beuermann Propagation Kinetics of Isoprene Radical Homopolymerization Derived from Pulsed Laser Initiated Polymerizations Macromol. React. Eng. 2020, vol. 14, 1900030 |
Yi Zhou, Arash Alizadeh, Boping Liu, João B. P. Soares Development of an Integrated Framework for Multisc ale, Multiphase Modeling of Industrial Slurry-Phase Reactors for Polyethylene Production Macromol. React. Eng. 2021, vol. 15, 2000043 |
Furthermore, a new cover layout has been launched recently that will provide authors with a fresher (and more spacious) opportunity to have their work featured on the cover page. First examples can be seen in Figure 1.
Over all these years, MRE was always strongly supported by its International Advisory Board of leading experts in the field. And for this 15th special anniversary issue of MRE which we are presenting as the concluding issue for the year 2021, we are happy to exclusively publish work authored by members of the board, thereby providing an excellent overview of the present state-of-the-art in polymer science research with a strong focus on reaction engineering, process control, or polymerization parameters and modeling.
We hope and trust that you will enjoy reading these results, but of course I cannot close this brief editorial without thanking, on behalf of the entire editorial team, those most important for the success of Macromolecular Reaction Engineering: our authors, board members, and referees, who are submitting their research results and help us with selecting and publishing the most interesting and important content. And last but not least, a big thank-you to our readers for their continuous interest!
Polymer reaction engineering has been and continues to be an important though more specialized field of research, and we look forward to continue offering with our journal, Macromolecular Reaction Engineering, a high-quality publication platform for featuring the best results in this area of research.
Stefan Spiegel
(Editor-in-Chief)
中文翻译:
15年高分子反应工程
今年 2021 年,我们出版了第 15 卷的高分子反应工程,最初于 2007 年推出。当时的新期刊是高分子材料与工程的衍生品,其中一个专门讨论反应工程同一主题的部分是已于 2005-2006 年成功出版。
正如 João BP Soares、Timothy FL McKenna 和我自己在就职社论中所写,高分子反应工程(MRE) 的推出旨在“强调聚合物反应工程是聚合物材料开发和改进的关键组成部分”和“为讨论和传播应用于聚合反应器的反应工程领域的新兴技术和科学进步提供了一个独立的论坛。”
时至今日,MRE 确实仍然是高分子期刊组合中一个相当专业但必不可少的组成部分,为传播该领域的研究成果提供了一个成熟的高质量出版平台。MRE 最近获得了 1.931 的优秀影响因子,这是该期刊历史上的最高值,这进一步强调了后一点!
自推出以来,MRE 已发表近 700 篇论文,表 1 列出了引用次数最多的论文。虽然在该领域有一些开创性工作,但其中列出的许多名称和主题仍然是众所周知的(和活跃)今天。
文章详情 | 引用次数 |
基思·马查尔顿 聚酰胺 – 七十年后依然坚固 大分子醇。做出反应。英。2011年 5 月 22 日 |
217 |
马蒂亚斯·德斯塔拉克 可控自由基聚合:工业风险、障碍和成就 大分子醇。做出反应。英。2010 , 4, 165 |
196 |
迈克尔·沃尔科夫 聚合物反应工程的计算机辅助建模 - Predici、I-Simulation 的现状 大分子醇。做出反应。英。2008年 2 月 461日 |
137 |
张龙河、妮可·R·布罗斯托维茨、凯文·A·卡维奇、RA Weiss 观点:离聚物研究与应用 大分子醇。做出反应。英。2014年 8 月 81日 |
123 |
Dagmar R. D'hooge, Marie-Françoise Reyniers, Guy B. Marin 扩散限制在可控自由基聚合中的关键作用 大分子醇。做出反应。英。2013年 7 月 362日 |
90 |
鲁朱、颜朱、潘杨、黄亚文、黄晓斌、唐小珍 沉淀聚合全交联聚[环三磷腈-co-(4,4'-磺酰基二苯酚)]微球及其优异的热性能 大分子醇。做出反应。英。2007年 1 月 45 日 |
85 |
Marc A. Dubé, Somaieh Salehpour 将绿色化学原理应用于聚合物生产技术 大分子醇。做出反应。英。2014年 8 月 7 日 |
83 |
Timothy FL McKenna、Audrey Di Martino、Guenter Weickert、João BP Soares 烯烃在负载型催化剂上聚合过程中的颗粒生长,1 – 新生聚合物结构 大分子醇。做出反应。英。2010年 4 月 40日 |
82 |
Dagmar R. D'hooge, Marie-Françoise Reyniers, Guy B. Marin 原子转移自由基聚合动力学建模方法 大分子醇。做出反应。英。2009年 3 月 185 日 |
72 |
Amanda LT Brandão, João BP Soares, José Carlos Pinto, André L. Alberton 当聚合物反应工程师掷骰子时:蒙特卡罗模型在 PRE 中的应用 大分子醇。做出反应。英。2015年 9 月 141日 |
64 |
为了完成对通过 MRE 传播的科学主题和结果的了解,表 2 显示了在 2020-2021 年期间最常发表、访问和下载的最新文章。
安妮卡·霍伦、沃尔夫冈·奥古斯丁、斯蒂芬·肖尔 合成过程中传热表面聚合物污垢的量化 大分子醇。做出反应。英。2020 年, 卷。14, 1900035 |
埃丝特·克雷默-布哈拉、菲利普·比塞、马库斯·格鲁内瓦尔德 使用隔间建模方法模拟聚合物反应器 大分子醇。做出反应。英。2020 年, 卷。14, 1900034 |
乔安娜·凯特纳、西娜·瓦莱伊、迈克尔·巴特克 用于研究丙烯本体相聚合动力学的反应量热法 大分子醇。做出反应。英。2020 年, 卷。14、2000031 |
古纳尔·斯皮格尔,克里斯蒂安·保利克 专为熔丝制造 3D 打印而设计的聚丙烯共聚物 大分子醇。做出反应。英。2020 年,卷。14、1900044 |
克里斯蒂安·赞德、克劳斯-迪特·亨根伯格、托马斯·沙尔、克里斯蒂安·施韦德、乌尔里希·尼肯 N-乙烯基吡咯烷酮聚合过程中末端双键扩展的建模策略和实验验证 大分子醇。做出反应。英。2020 年,卷。14、2000009 |
布赖恩·布伦、弗洛里安·布兰德尔、萨宾·博尔曼 脉冲激光引发聚合的异戊二烯自由基均聚的传播动力学 大分子醇。做出反应。英。2020 年,卷。14, 1900030 |
周毅, Arash Alizadeh ,刘波平, João BP Soares 开发用于聚乙烯生产的工业浆相反应器的多尺度、多相建模的集成框架 大分子醇。做出反应。英。2021 年,卷。15、2000043 |
此外,最近推出了一种新的封面布局,这将为作者提供更新鲜(和更宽敞)的机会,让他们的作品出现在封面上。第一个例子可以在图 1 中看到。
这些年来,MRE 一直得到其由该领域领先专家组成的国际顾问委员会的大力支持。对于我们作为 2021 年终期的 MRE 15 周年特刊,我们很高兴独家出版由董事会成员撰写的作品,从而很好地概述了当前的现状。聚合物科学研究艺术,重点关注反应工程、过程控制或聚合参数和建模。
我们希望并相信您会喜欢阅读这些结果,但我当然不能在结束这篇简短的社论之前代表整个编辑团队感谢那些对高分子反应工程的成功最重要的人:我们的作者、董事会成员和审稿人,他们正在提交他们的研究结果并帮助我们选择和发布最有趣和最重要的内容。最后但同样重要的是,非常感谢我们的读者一直以来的关注!
聚合物反应工程一直是并将继续是一个重要但更专业的研究领域,我们期待继续通过我们的期刊Macromolecular Reaction Engineering提供高质量的出版平台,以展示该研究领域的最佳成果。
斯蒂芬·斯皮格尔
(主编辑)