Chemical Science of π-Electron Systems
Chemical Science of π-Electron Systems
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DOI:
10.1007/978-4-431-55357-1
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发表时间:
2015
期刊:
影响因子:
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通讯作者:
T. Akasaka;A. Osuka;S. Fukuzumi;H. Kandori;Y. Aso
中科院分区:
文献类型:
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作者:
T. Akasaka;A. Osuka;S. Fukuzumi;H. Kandori;Y. Aso
The versatility and wide potential of-electron-based molecules, as typified by fullerenes and porphyrins, have continued to provide unique and sometimes unexpected properties and functions being continuously discovered and utilized in functional devices. In order to facilitate the investigation on highly elaboratedspaces with more sophisticated and complex orders and functionality, a research project entitled “Emergence of Highly Elaborated-Space and Its Function” has been launched as a Grant-in-Aid for Scientific Research on Innovative Areas (2008–2012) by The Ministry of Education, Culture, Sports, Science and Technology of Japan (MEXT). In this joint project, highly elaborated-spaces are defined as highly complex orders/systems that stem from the-electron-based interactions. Cutting-edge research has been performed based on clearly defined strategic objectives as well as an emergent approach that comes from innovation of unpredicted discovery. The research project consists of four groups (A01–04). The research group A01 led by Prof. Takeshi Akasaka has constructed novel-electron systems of nonplanarity including metal-endofullerenes, whereas the research group A02 led by Prof. Atsuhiro Osuka has developed highly elaborated-space functionality through the assembly of-electron-based molecules. Based on new types ofelectron-based molecules and assemblies, the revolutionary functions have been explored by clarifying the electronic, optical, and magnetic interactions of the highly elaborated-spaces in research group A03 led by Prof. Shunichi Fukuzumi. Research group A04 led by Prof. Hideki Kandori has studied the interactions between biological molecules with highly elaborated-space to discover new phenomena and create new concepts in biology. This book is composed of eight parts. Part I: Extension of Planar-Electron Systems, Part II: Curved-Electron Systems, Part III: Porphyrinoids, Part IV: Open-Shell-Electron Systems, Part V: Heteroatom-Conjugated-Electron Systems, Part VI: Supramolecular Chemistry of-Electron systems, Part VII: Innovative Function of-Electron Systems, and Part VIII:-Electron Systems in Biosystems and Biomimetics. It summarizes cutting-edge research in the MEXT project of v