Biohybrid Microswimmer: Engineering Robotic Sperm for Next Generation Biomedical Applications

Chapters Brief Overview:

1: Biohybrid microswimmer – An introduction to biohybrid microswimmers and their biomedical potential.

2: Chemotaxis – Examines how chemical gradients guide the movement of microswimmers toward targets.

3: Microorganism – Explores microorganisms as inspiration for biohybrid robotic movement.

4: Flagellum – Details the function of flagella in locomotion and their adaptation in microswimmers.

5: Biofilm – Investigates biofilms and their impact on biohybrid robot performance.

6: Quorum sensing – Discusses microbial communication and its role in collective microswimmer behavior.

7: Microbotics – Analyzes the principles of microscale robotics and their biomedical applications.

8: Antimicrobial – Evaluates strategies for integrating antimicrobial properties in biohybrid robots.

9: Nanorobotics – Explores nanorobotics and its synergy with microswimmer development.

10: Molecular motor – Discusses molecular motors as fundamental drivers of biohybrid propulsion.

11: Metin Sitti – Highlights the contributions of Metin Sitti to micro and biohybrid robotics.

12: Bacteria – Examines bacteria's role in powering biohybrid microswimmers.

13: Bacterial motility – Investigates bacterial motion and its integration into robotic applications.

14: Selfpropelled particles – Explores the physics behind selfpropulsion in microscale environments.

15: Robotic sperm – Delves into robotic sperm technology and its potential in assisted reproduction.

16: Collective motion – Analyzes swarm behavior in microswimmers and its applications.

17: Bradley Nelson – Showcases Bradley Nelson's research in microrobotics and robotic sperm.

18: Marine prokaryotes – Investigates marine prokaryotes and their unique motility mechanisms.

19: Protist locomotion – Explores protist movement and its biomimetic applications in robotics.

20: Microswimmer – Examines microswimmer design principles and future developments.

21: Runandtumble motion – Details bacterial navigation strategies and their robotic adaptations.

This book is a mustread for professionals, students, and enthusiasts eager to understand the future of biohybrid robotics. It bridges biology and robotics, offering insights into groundbreaking applications that could redefine medicine and engineering. Unlock the vast potential of biohybrid microswimmers and take a step toward the future of robotic sperm technology.