本书是一部面向生物学、物理学和医学专业的本科生的生物物理学入门教材,各章有习题,内容涉及热力学、太空生物学、活细胞对外场的反应、细胞悬浮液的电路模型、种群动力学中的混沌、进化的数值模型、缝隙连接及神经元动作电位的计算机仿真理论。与纸质图书配套使用的“MATLAB编程实例”和 “QuickFieldTM学生版”,可扫描书中二维码下载电子版。目次:建立模块和结构;生态交互;生物材料热传导;生态热力学;扩散和传输;流体;生物能学和分子马达;活性细胞的消极电子特性;神经传导;生物材料的力学特性;生物磁性;生物系统中的非线性和混沌;生命科学中的分形和复杂性;生命与宇宙。         
         
             
               
	Introduction
	Chapter 1 Building Blocks and Structure
	1.1 Atoms and Ions
	1.1.1 Subatomic Particles
	1.1.2 Atomic Constituents of Life
	1.1.3 Ions
	1.2 Molecules Essential for Life
	1.2.1 Water
	1.2.2 Proteins
	1.2.3 Lipids
	1.2.4 Carbohydrates
	1.2.5 Cholesterol
	1.2.6 Nucleic Acid
	1.3 What Is Life?
	1.3.1 Requirements for Life
	1.3.2 Domains of Life
	1.3.3 Characteristics of Living Cells
	1.3.4 Structure of Living Cells
	1.3.5 Boundary of Life
	Chapter 2 Living State Interactions
	2.1 Forces and Molecular Bonds
	2.1.1 Ionic Bonds
	2.1.2 Covalent Bonds
	2.1.3 Hydrogen Bonds
	2.1.4 Van der Waal Forces
	2.2 Electric and Thermal Interactions
	2.3 Electric Dipoles
	2.3.1 Polarization and Induced Dipoles
	2.4 Casimir Interactions
	2.5 Domains of Physics in Biology
	Exercises
	Chapter 3 Heat Transfer in Biomaterials
	3.1 Heat Transfer Mechanisms
	3.1.1 Conduction
	3.1.2 Convection
	3.1.3 Radiation
	3.2 The Heat Equation
	3.2.1 Transient Heat Flow
	3.2.2 Steady State Heat Flow
	3.3 Joule Heating of Tissue
	Exercises
	Chapter 4 Living State Thermodynamics
	4.1 Thermodynamic Equilibrium
	4.2 First Law of Thermodynamics and Conservation of Energy
	4.3 Entropy and the Second Law of Thermodynamics
	4.3.1 Does Life Violate the Second Law?
	4.3.2 Measures of Entropy?
	4.3.3 Free Expansion of a Gas
	4.4 Physics of Many Particle Systems
	4.4.1 How Boltzmann Factors in Biology
	4.4.2 Canonical Partition Function
	4.4.3 Average Energy
	4.4.4 Entropy and Free Energy
	4.4.5 Heat Capacity
	4.5 Two-State Systems
	4.6 Continuous Energy Distribution
	4.7 Composite Systems
	4.7.1 DNA Stretching
	4.8 Casimir Contribution to the Free Energy
	4.8.1 Lipid Bilayer Tubes
	4.8.2 Rouleax
	4.9 Protein Folding and Unfolding
	4.9.1 Protein Unfolding
	4.9.2 Levinthal's Paradox
	4.9.3 Energy Landscape
	Chapter 5 Open Systems and Chemical Thermodynamics
	Chapter 6 Diffusion and Transport
	Chapter 7 Fluids
	Chapter 8 Bioenergetics and Molecular Motors
	Chapter 9 Passive Electrical Properties of Living Cells
	Chapter 10 Nerve Conduction
	Chapter 11 Mechanical Properties of Biomaterials
	Chapter 12 Biomagnetism
	Chapter 13 Nonlinearity and Chaos in Biological Systems
	Chapter 14 Fractals and Complexity in the Life Sciences
	Chapter 15 Life and the Universe
	Appendix 1: Mathematical Formulas
	Appendix 2: Overview of MATLAB
	Appendix 3: Derivation of the Heat Equation
	Appendix 4: Derivation of Shannon's Entropy Formula
	Appendix 5: Thermodynamic Identifies
	Appendix 6: Kramers-Kronig Transformations
	Appendix 7: Solution to the One-Dimensional Schr6dinger Equation
	Appendix 8: Biophysical Applications of QuickField
	Appendix 9: Biological Material Properties
	Appendix 10: Solutions of the Linearized Poisson-Boltzmann Equation
	References and Further Reading
	Index