Presents recent developments in sustainable materials from various engineering fields and industry applications. Emphasizes analytical strategies, computational, and simulation approaches develop innovative sustainable materials. Discusses an artificial intelligence approach, rapid prototyping, and customized production. Chapters are written by global experts. Includes case studies and research outcomes.

This compendium of twenty laboratory experiments on metals and alloys attempts provides insight into the relationship between the physical, mechanical properties of metals with grain structures/ microstructures. In almost all the experiments microstructural investigation is provided. Experiments have also been included on the determination of important mechanical and thermal properties and on the aqueous and atmospheric corrosion of metals. The theoretical background of each experiment is provided to enable students to understand the underlying principles and to appreciate the significance of the experiments. Information which could not be accommodated in the text of the experiments is provided in appendices. These include: reflection microscopy, experimental determination of transition points through cooling curves to get data for plotting phase diagrams, and quenching media for tempering of alloys. This book will be useful to the students of materials chemistry and materials science and students of various engineering courses. It will also be helpful to the students of industrial chemistry, practising engineers in metallurgical and mechanical engineering based industries.

A Laboratory Manual of Polymers provides laboratory activities that will help students to understand the basic principles of polymer synthesis, structure and functions. It is intended to enable students to prepare a variety of common polymers, to investigate their properties, and explore their uses and applications. This book is intended to be used as a laboratory manual at the graduate and postgraduate levels in materials science as well as for a polymer chemistry course. The book, divided into four chapters covering: Different kinds of polymerization reactions and their kinetic aspects. Detailed spectral, thermal and morphological characterization of polymers. Identification of polymers with FT-IR, 1H-NMR, 13C-NMR spectroscopies. Thermal characterization of polymers through DSC and TGA techniques. Structural characterization with XRD. Purification procedures of monomers and solvents. 26 experiments and general analytical techniques to characterize common polymers.

Nanogel-based systems have gained tremendous attention due to their diverse range of applications in tissue engineering, regenerative medicine, biosensors, orthopaedics, wound healing and drug delivery. Nanogels for Biomedical Applications provides a comprehensive overview of nanogels and their use in nanomedicine. The book starts with the synthesis, methods and characterization techniques for nanogel-based smart materials followed by individual chapters demonstrating the different uses of the materials. Applications covered include anticancer therapy, tuberculosis diagnosis and treatment, tissue engineering, gene delivery and targeted drug delivery. The book will appeal to biologists, chemists, and nanotechnologists interested in translation research for personalized nanomedicine for health care.