Supramolecular Chemistry

In the rapidly evolving field of molecular science, Supramolecular Chemistry stands as a key pillar for understanding complex molecular interactions that form the basis of modern molecular machines. This book is not just a collection of theoretical insights; it offers a deep dive into the world of molecular architectures and their role in advancing technology, from sensors to drug delivery systems. It is indispensable for professionals, students, and enthusiasts seeking to understand the cuttingedge applications of supramolecular chemistry within the context of molecular machines.

Chapters Brief Overview:

1: Supramolecular chemistry: Introduction to the fundamental principles and concepts that define supramolecular chemistry.

2: Coordination cage: Explores the design and function of coordination cages in molecular recognition and machine assembly.

3: Supramolecular catalysis: Delve into the mechanisms by which supramolecular structures can enhance catalytic reactions.

4: Molecular recognition: Focuses on the selective binding between molecules, a cornerstone of supramolecular chemistry.

5: Molecular sensor: Examines the development of molecular sensors that utilize supramolecular interactions for environmental monitoring.

6: Molecular selfassembly: Highlights the principles and applications of selfassembling molecular structures in creating functional devices.

7: Twodimensional polymer: Investigates the creation and properties of 2D polymers, a key component of supramolecular systems.

8: Mechanically interlocked molecular architectures: A detailed exploration of rotaxanes, catenanes, and their uses in molecular machines.

9: Intermolecular force: An indepth analysis of the forces that drive molecular interactions, vital for creating functional molecular devices.

10: Halogen bond: Discusses the significance of halogen bonding in supramolecular chemistry and molecular machine design.

11: Salt bridge (protein and supramolecular): Focuses on the role of salt bridges in protein structures and their application in molecular assemblies.

12: Noncovalent interaction: The study of noncovalent forces that allow for reversible molecular interactions critical in molecular engineering.

13: Cucurbituril: Explores the unique properties of cucurbiturils and their application in molecular recognition and machine functions.

14: Supramolecular polymer: Examines the development of supramolecular polymers and their role in the design of advanced materials.

15: Cryptand: Discusses cryptands, their synthesis, and how they facilitate the encapsulation of metal ions in molecular machines.

16: Cyclobis(paraquatpphenylene): Explores the fascinating world of cyclobis(paraquatpphenylene) and its uses in molecular rotors and switches.

17: Hydrogen bond: A detailed discussion on hydrogen bonding, one of the most essential interactions in molecular machine design.

18: Roeland Nolte: Pays tribute to the work of Roeland Nolte, a leading figure in supramolecular chemistry and molecular machines.

19: Cation–π interaction: Investigates the role of cation–π interactions in the stability and function of supramolecular structures.

20: Grid complex: Covers the design and application of grid complexes in constructing molecular machines.

21: Host–guest chemistry: A final chapter dedicated to host–guest chemistry, a key to understanding molecular recognition and machine function.

Supramolecular Chemistry provides comprehensive insights that link theory to application, offering both a deep scientific foundation and practical understanding. This book is essential for those who want to explore the intersection of molecular science and technology, where innovation in molecular machines is reshaping industries from healthcare to materials science.