In the fascinating world of molecular biology, the concept of molecular motors plays a crucial role in understanding the mechanisms of cellular movement, energy conversion, and molecular transportation. The book Molecular Motor, part of the DNA Walker series, delves into the intricate world of these molecular machines that fuel life processes. Whether you're a professional, student, or enthusiast, this book offers insights into the cuttingedge research on molecular motors, making it an indispensable resource

Molecular motor-This chapter introduces molecular motors, the dynamic machines that convert chemical energy into mechanical work, essential for cellular function

Microtubule-It explores the structure and role of microtubules, which serve as tracks for motor proteins, facilitating intracellular transport

Spindle apparatus-The spindle apparatus, crucial during cell division, is examined in detail for its interaction with motor proteins

Brownian motor-This chapter explains the concept of Brownian motion in molecular motors, showing how randomness is harnessed to achieve directed movement

Kinesin-Focuses on kinesin, one of the bestknown motor proteins, and its role in transporting cellular materials along microtubules

Dynein-An exploration of dynein, a motor protein that moves in the opposite direction of kinesin, important for various cellular processes

Melanosome-Discusses melanosomes and how motor proteins facilitate the transport of these organelles within cells, influencing pigmentation

Nanomotor-This chapter dives into nanomotors, synthetic molecular machines that mimic biological motors, with potential applications in nanotechnology

Molecular machine-An overview of molecular machines and their applications in synthetic biology, highlighting their resemblance to biological motors

Motor protein-It elaborates on various motor proteins, their mechanisms, and their roles in cellular activities like muscle contraction and vesicle transport

Molecular biophysics-The chapter explores the biophysics behind molecular motors, offering insights into their energy sources and mechanical properties

Plusenddirected kinesin ATPase-Focuses on the unique ATPase activity of kinesin, emphasizing its directionality and role in cellular transport

KIF23-Examines KIF23, a kinesinlike protein involved in cell division, and its role in regulating cytokinesis

KIF2C-This chapter looks at KIF2C, a motor protein that regulates the microtubule network during cell division, essential for genome stability

KIF3B-Focuses on KIF3B, a component of the kinesin family that plays a key role in transporting ciliarelated cargo

Selfpropelled particles-This chapter explores the phenomenon of selfpropelled particles, with applications in both biology and synthetic systems

Kinesinlike protein KIF11-Analyzes KIF11, a motor protein that plays a significant role in mitosis and other essential cellular processes

Ronald Vale-Highlights the contributions of Ronald Vale, a pioneer in the study of molecular motors, and his impact on the field

Neurotubule-Discusses neurotubules and their interaction with motor proteins, crucial for neuronal function and communication

Edwin W. Taylor-Focuses on the work of Edwin W. Taylor, whose studies advanced the understanding of motor proteins and their mechanism of action

J. Richard McIntosh-Explores the research of J. Richard McIntosh, particularly his work on microtubules and their role in cell division