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As one of the most important classes of soft materials, supramolecular materials are of a mixture of networks of molecular chains/fibrils and a liquid. These self-assembled fibrous/molecular architectures exhibit various functionalities, ie. superhydrophobicity or superior mechanical strength, etc. and consist of the controllable structures. They can be functioned via micro/nano engineering, to have some particular added functions, ie. emission materials, tissue engineering scaffolds, bio imaging and sensing materials etc. They have therefore foundbroad applications in photography, cosmetics, food and petroleum industries and not the least in the biomedical sector where there is strong interest in these materials as drug delivery agents. The book covers the most important soft functional materials, including small moleculephysical gels, silkworm silk and spider silk fibers and functional fibers, with respect both to the fundamentals and to development and engineering methods. It provides the reader with the necessary knowledge on the chemical and physical formation mechanisms of these materials and demonstrates that one can rationally design and tune the fibrillar networks so that the resulting materials exhibit the desired functionalities.This work is a must-have for all Materials Scientists, Polymer Chemists, Condense Matter Physicists, and Biotechnologists working in this interdisciplinary field.
List of contents
PART I. SMALL MOLECULE GELSSmall Molecule Gels - Gelator Classification and Self-AssemblyThermodynamics and Kinetics of Fiber Network Formation in Small Molecule GelsApplications of Small Molecule GelsMetal Coordination to Assist Molecular GelationPART II. POLYMERIC HYDROGELS FROM NATURAL POLYMERS Agarose Gel-Formation Mechanisms and ApplicationsChitosan Gel-Preparation and ApplicationsPolymers PART III. NATURAL FIBERS: PROCESSING AND APPLICATIONSSpider Silk and Silkworm SilkPART IV. NANOFIBER TECHNOLOGIESFabrication, Assembly and ApplicationsSmart Fibers and Fabrics
About the author
Xiang Yang Liu is a Professor in the Department of Chemistry and the Department of Physics at the National University of Singapore (NUS). Having obtained his PhD degree from the Radboud University Nijmegen, the Netherlands, he spent his career working for Unilever Research Port Sunlight Lab before taking up his present appointment at NUS. Professor Liu has authored or co-authored more than 200 scientific publications and 4 books, has received numerous scientific awards, including the 2007 Outstanding Researcher Award from NUS.
Jing-Liang Li is a research academic in the Institute for Frontier Materials, at Deakin University, Australia. He got his PhD in Chemical Engineering from the National University of Singapore in 2004. Before moving to Australia, he worked as a research fellow in Professor Xiang Yang Liu`s group at the Physics Department of the National University of Singapore on the research of supramolecular soft materials. He has published more than 40 papers, most of which are in this area.
Summary
As one of the most important classes of soft materials, supramolecular materials are of a mixture of networks of molecular chains/fibrils and a liquid. These self-assembled fibrous/molecular architectures exhibit various functionalities, ie. superhydrophobicity or superior mechanical strength, etc. and consist of the controllable structures. They can be functioned via micro/nano engineering, to have some particular added functions, ie. emission materials, tissue engineering scaffolds, bio imaging and sensing materials etc. They have therefore found
broad applications in photography, cosmetics, food and petroleum industries and not the least in the biomedical sector where there is strong interest in these materials as drug delivery agents. The book covers the most important soft functional materials, including small molecule
physical gels, silkworm silk and spider silk fibers and functional fibers, with respect both to the fundamentals and to development and engineering methods. It provides the reader with the necessary knowledge on the chemical and physical formation mechanisms of these materials and demonstrates that one can rationally design and tune the fibrillar networks so that the resulting materials exhibit the desired functionalities.
This work is a must-have for all Materials Scientists, Polymer Chemists, Condense Matter Physicists, and Biotechnologists working in this interdisciplinary field.
