In the evolving field of DNA nanotechnology, "Molecular Knot" provides a comprehensive exploration of molecular systems that promise to revolutionize science and technology. This book is a vital resource for professionals, students, and enthusiasts seeking to understand the intricate world of molecular machines and mechanical interlocks. Through an indepth examination of cuttingedge topics, this book illustrates the profound implications of these technologies in various applications, from molecular motors to bioengineering. The importance of exploring DNA Walker systems cannot be overstated, as they are at the forefront of modern science, bridging the gap between chemistry, biology, and technology

Molecular knot-This chapter introduces the concept of molecular knots, essential in understanding molecular entanglement and their potential in DNA Walker systems

Rotaxane-Explores the structure and function of rotaxanes, providing insight into their role as molecular machines within the DNA Walker context

Supramolecular chemistry-Focuses on the noncovalent interactions between molecules, crucial for building complex DNAbased systems

NonKekulé molecule-Discusses molecules that deviate from traditional Kekulé structures, offering new perspectives for DNA Walker designs

Polycatenane-Examines polycatenanes, highlighting their significance in the development of mechanically interlocked molecules

Catenane-Describes the formation of catenanes, essential for understanding molecular mechanics within DNA walkers

Molecular machine-Introduces molecular machines and their application in DNA nanotechnology, laying the foundation for complex functional systems

Click chemistry-Provides an overview of click chemistry, emphasizing its utility in creating stable, modular components for DNA Walker systems

Cycloheximide-Focuses on cycloheximide and its relevance in molecular biology, offering insights into DNArelated biochemical processes

Phosphaalkyne-Discusses phosphaalkynes, their unique properties, and their role in advancing DNA nanotechnology

JeanPierre Sauvage-Highlights the pioneering work of JeanPierre Sauvage in molecular machines, showcasing his contributions to DNA Walker research

Mechanically interlocked molecular architectures-Examines how mechanically interlocked structures are fundamental to the development of DNA walkers and nanomachines

David Leigh (scientist)-Profiles David Leigh's work in molecular machines, providing inspiration for those studying DNA Walker systems

Molecular switch-Explores the concept of molecular switches and their critical function in DNA Walker systems, enabling dynamic responses

DNAencoded chemical library-Introduces DNAencoded libraries, a revolutionary method for screening compounds and advancing DNA Walker technologies

DNA nanotechnology-Discusses the broader field of DNA nanotechnology, highlighting its potential to create programmable molecular machines and complex systems

Twodimensional polymer-Investigates twodimensional polymers, which hold promise for future DNA Walker systems due to their unique properties

Harry Anderson (chemist)-Discusses Harry Anderson’s contributions to supramolecular chemistry and DNA nanotechnology, providing historical context for modern developments

Grid complex-Focuses on the structure and function of grid complexes, essential for creating programmable DNA Walker systems

Cycloparaphenylene-Explores cycloparaphenylenes, their unique molecular structures, and their potential applications in DNA Walker systems

Nontrigonal pnictogen compounds-Concludes with an exploration of nontrigonal pnictogen compounds, which have significant implications for the future of molecular engineering