Molecular Recognition: Advances in Selective Binding and Targeted Interaction

Chapters Brief Overview:

1: Molecular recognition: Understand the fundamental principles of molecular recognition and its role in biochemical processes.

2: Drug design: Explore how molecular recognition aids in the development of targeted pharmaceuticals for disease treatment.

3: Scoring functions for docking: Delve into computational methods for assessing molecular interactions and predicting docking efficiency.

4: Salt bridge (protein and supramolecular): Learn about the importance of salt bridges in stabilizing protein structures and supramolecular assemblies.

5: Noncovalent interaction: Examine the diverse noncovalent forces at play in molecular binding and their applications.

6: Molecular sensor: Discover how molecular recognition is applied to the development of sensitive detection systems.

7: Supramolecular catalysis: Understand the role of molecular recognition in accelerating chemical reactions through supramolecular systems.

8: Ligand (biochemistry): Study how ligands interact with receptors to modulate biological pathways and processes.

9: Coordination cage: Explore the structure and function of coordination cages in molecular recognition and encapsulation.

10: Tetrameric protein: Learn about the formation of tetrameric proteins and their role in cellular functions and molecular interactions.

11: Host–guest chemistry: Gain insight into the dynamic interactions between host molecules and their guest counterparts in supramolecular chemistry.

12: Molecular binding: Examine the detailed mechanisms of molecular binding and its implications in various fields of research.

13: Molecular selfassembly: Investigate how molecules spontaneously organize into structured systems, crucial in nanotechnology and materials science.

14: Cation–π interaction: Understand the unique cationπ interactions and their relevance in biological and synthetic systems.

15: Molecular imprinting: Explore the process of creating molecularly imprinted polymers for selective recognition applications.

16: Allosteric regulation: Study the concept of allosteric regulation in proteins and its impact on enzyme activity and cellular function.

17: Hydrophobic effect: Learn about the hydrophobic effect and its significant role in protein folding and molecular interactions.

18: Supramolecular chemistry: Delve into the complex world of supramolecular chemistry and its potential for designing innovative molecular systems.

19: Protein–protein interaction: Understand the critical nature of proteinprotein interactions in cellular processes and molecular functions.

20: Supramolecular polymer: Discover how supramolecular polymers are designed and their applications in materials science and nanotechnology.

21: Polymerprotein hybrid: Investigate the combination of polymers and proteins to create hybrid systems with novel functions.

“Molecular Recognition” bridges the gap between fundamental theory and realworld applications, making it a mustread for professionals, students, and enthusiasts alike. This book will inspire and equip readers to explore the fascinating world of molecular machines, offering invaluable insights into the design of molecular systems for research and development.