Microswimmer

Explore the cuttingedge world of DNA Nanotechnology with “Microswimmer.” This book delves into the innovative field where molecular biology meets robotics, unlocking new possibilities in both science and engineering. It is an essential read for professionals, students, and enthusiasts interested in the intersection of nanotechnology, biology, and robotics. The book is packed with insightful chapters that will deepen your understanding of the future of microswimmers and their applications in various industries.

Chapters Brief Overview:

1: Microswimmer: An introduction to the fundamental concepts of microswimmers and their role in DNA nanotechnology.

2: Soft robotics: Discusses the synergy between soft robotics and microswimmers in creating adaptable, bioinspired machines.

3: Biohybrid microswimmer: Explores the combination of biological and synthetic components to create biohybrid microswimmers.

4: Molecular machine: Delve into the design and function of molecular machines, key to the operation of microswimmers.

5: Robotic sperm: Covers the fascinating concept of robotic sperm, applying DNA nanotechnology to create artificial motility.

6: Microbotics: Introduces the field of microbotics, focusing on the creation of smallscale robotic devices inspired by microswimmers.

7: Scallop theorem: Explores the principles behind the scallop theorem, crucial for understanding the limitations of microswimmer motion.

8: Motility: Discusses how motility is achieved in microswimmers, utilizing biological and synthetic systems for propulsion.

9: Selfpropulsion: Examines the selfpropulsion mechanisms that allow microswimmers to move autonomously in their environment.

10: Selfpropelled particles: Investigates the concept of selfpropelled particles, a key element in the broader field of active matter.

11: Chemotaxis: Looks into the process of chemotaxis, where microswimmers respond to chemical stimuli in their surroundings.

12: Collective motion: Discusses the collective behavior of microswimmers, essential for applications in medicine and other fields.

13: Bacterial motility: Explores the principles of bacterial motility and how these mechanisms are replicated in microswimmers.

14: Metin Sitti: Highlights the contributions of Metin Sitti in the field of microswimmers and his role in advancing DNA nanotechnology.

15: Nanomotor: Investigates the operation of nanomotors, which form the foundation of many microswimmer technologies.

16: Nanorobotics: An indepth look into the field of nanorobotics, exploring how microswimmers contribute to this rapidly growing field.

17: Protist locomotion: Studies the locomotion mechanisms in protists and their relevance to the development of microswimmers.

18: Active matter: Discusses active matter and its connection to the creation of selfpowered, autonomous microswimmers.

19: Bradley Nelson: Focuses on the work of Bradley Nelson and his significant contributions to the development of microswimmer technology.

20: Runandtumble motion: Examines the runandtumble motion as a critical method for movement in microswimmers.

21: Microfluidics: Delves into microfluidics, a key technology enabling the control and manipulation of microswimmers in practical applications.

The chapters of “Microswimmer” offer a deep dive into each aspect of the fascinating world of DNA nanotechnology, providing a comprehensive understanding of the cuttingedge technologies that will shape the future of robotics, medicine, and more. This book is an invaluable resource for anyone eager to understand how DNA is being harnessed to create innovative, lifelike robots at the microscopic scale.