Multifunctional Coordination Complexes: Design Principles, Synthesis, Characterizations, and Applications

This book offers a comprehensive and forward-looking exploration of multifunctional coordination complexes, uniting molecular design, synthetic strategies, and advanced characterization techniques with practical performance insights. Covering the latest advances in photochromism, photomagnetism, long-lived phosphorescence, and electrocatalysis, it shows how light-responsive and catalytically active complexes are reshaping energy, environmental, and information technologies. Through detailed discussions of electron-transfer-type photochromic switches, photoresponsive molecular magnets for optically controlled data storage, persistent phosphorescent systems for imaging and anti-counterfeiting, and high-efficiency catalytic platforms, this book highlights the shared principles that underpin these transformative behaviors.

This book moves systematically from foundational concepts to real-world applications, guiding readers through synthesis, characterization, and performance studies across four major classes of functional complexes. Its fifteen chapters illuminate the interplay between structure, photophysics, magnetism, and catalytic activity, offering researchers a unified framework for designing smarter and more controllable materials. An essential reference for chemists, materials scientists, and nanotechnologists, it equips researchers, engineers, and graduate students to advance next-generation devices and sustainable technological solutions.