This comprehensive, truly one-stop reference discusses monomers, methods, stereochemistry, industrial applications and more. Chapters written by internationally acclaimed experts in their respective fields cover both basic principles and up-to-date information, ranging from the controlled ring-opening polymerization methods to polymer materials of industrial interest. All main classes of monomers including heterocyclics, cyclic olefins and alkynes, and cycloalkanes, are discussed separately as well as their specificities regarding the ring-opening polymerization techniques, the mechanisms, the degree of control, the properties of the related polymers and their applications. The two last chapters are devoted to the implementation of green chemistry in ring-opening polymerization processes.
Of much interest to chemists in academia and industry.

Smart polymer materials represent an exciting range of novel materials for advanced applications such as aeronautics and biomedical devices. These materials are able to sustain any external stimuli including temperature, pH, electric and magnetic fields and response in an adaptive and proportional manner to this environmental change. Two main categories of smart materials are able to encompass these features (ie: self-evolving materials and self-healing materials). Self-evolving materials can, for instance, reconfigure themselves on-the-fly to react upon changing environmental conditions. A variety of possible material candidates can be described as self-evolving materials including shape-memory polymers, adaptive hydrogels and actuators changing their properties in response to external stimulation. In addition to them, intrinsic self-healing polymers encompass these responsiveness features and are constructed on the basis of reversible bonding such as Diels-Alder reactions for locally healing these materials after experiencing damage. This book intends to propose a comprehensive knowledge on smart materials that encompass self-evolving materials and self-healing materials, including their implementation of 3D-printing technology. Combining smart materials and additive manufacturing has thereby been introduced as an inspiring way to provide more complex 3D objects with elevated adaptive properties. They are myriad issues that are still challenging with the construction of these smart materials, including their additive manufacturing, but the book will offer novel opportunities to obtain multi-responsive materials in advanced technology.