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Although invisible to the bare eye, bacterial cells are large enough to make complex decisions. Cells are composed of thousands of different molecular species including DNA, proteins, and smaller molecules, allowing them to sense their environment, to process this information, and to respond accordingly. Such responses include expression of genes or the control of their movement. Despite these properties, a living cell exists in the physical world and follows its laws. Keeping this in mind can help answer questions such as how cells work and why they implement solutions to problems the way they do. Applying physical principles in biology allows researchers to solve challenging problems at the interface between biology and the physical sciences, including how accurately biological cells can sense chemicals in their environment, how cells encode physical stimuli in biochemical pathways, or how cells amplify signals and adapt to persistent stimulation. In this book, the reader is introduced to this fascinating topic without the need for extensive mathematical details or huge prior knowledge in biological physics.
This book investigates how fundamental physical principles govern the complex decision-making and signaling processes within biological cells. Robert G. Endres, a specialist in biological physics, utilizes a framework that bridges the gap between molecular biology and physical laws. By examining how cells sense, process, and respond to environmental stimuli, the author provides a structured approach to understanding cellular behavior through the lens of physics rather than purely biological description.
What You Will Find
Experts recognize this text as an accessible entry point for students and researchers looking to apply physical modeling to biological systems. Readers frequently note that the author successfully balances technical rigor with clarity, making complex biophysical concepts approachable for those without an extensive background in advanced mathematics.
Page Count:
184
Publication Date:
2013-03-21
Publisher:
Oxford University Press
ISBN-10:
0199600635
ISBN-13:
9780199600632
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